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Maccs Consequence Analysis Demonstration Calculations for an Example Heat Pipe Reactor Source Term
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Issue date:	03/31/2023
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MACCS Consequence Analysis Demonstration Calculations for an Example Heat Pipe Reactor Source Term Date Published: March 2023 Prepared by:

A.J. Nosek, PhD, U.S. Nuclear Regulatory Commission

i EXECUTIVE

SUMMARY

MACCS [1][2] is a U.S. Nuclear Regulatory Commission (NRC) computer code for radiological consequence analysis of airborne radioactive material releases into the environment. It has been used and developed over several decades for analyzing atmospheric releases from reactor accidents, spent fuel pool accidents, and dry cask storage accidents; accidents involving multiple release sources; and other accidents.

Current MACCS efforts include developing and demonstrating analytical capabilities to support regulatory readiness for licensing non-LWR technologies under Strategy 2 of the NRC Non-Light Water Reactor Near-Term Implementation Action Plans [3], issued July 2017 (Agencywide Documents Access and Management System Accession No. ML17165A069). For example, because of the potential of smaller exclusion area boundaries of non-light water reactor, modeling capabilities have been added to MACCS to provide more accurate plume-concentration predictions at less than 0.50 kilometers (0.31 miles) from the release point.

This report describes a demonstration of MACCS capabilities using as input the core radionuclide inventory and atmospheric release from example SCALE and MELCOR demonstration calculations by Oak Ridge National Laboratories [4] and Sandia National Laboratories [5], respectively, for a publicly available heat-pipe-reactor conceptual design. The example MELCOR demonstration calculations were performed to assess MELCORs ability to simulate accidents for non-LWRs and enable dialogue with stakeholders. The project included adding models (e.g., a heat pipe model) to extend MELCOR to non-LWRs and performing example MELCOR calculations for publicly available non-LWR conceptual designs. The MELCOR calculations are considered example calculations because they include assumptions regarding certain plant features selected solely to demonstrate MELCOR modeling capabilities.

Because the staff used an example atmospheric release from the MELCOR demonstration project as input to MACCS, the radiological consequence results from MACCS are considered example results and are not intended to reflect realistic radiological consequences for an actual non-LWR.

The results of our evaluation confirm that the MACCS code is flexible in analyzing the offsite consequences of an example postulated heat-pipe reactor accident release. The code includes flexible input decks that can be made plant-specific, site-specific, and accident specific by modifying a subset of input parameters and input files. As new information becomes available, RES staff may assess whether further enhancements to the MACCS code are needed.

This report has identified several candidate future research activities:

continue to demonstrate MACCS capabilities using as input the core radionuclide inventory and atmospheric release from the example SCALE and MELCOR demonstration calculations, continue the evaluation of radionuclides in non-LWR inventories important to dose and expanding these evaluations to include ingestion doses, develop a method to analyze or conservatively bound accidents with simultaneous release and fission, and develop methods to analyze or conservatively bound the impact of additional radionuclide chemical and physical forms and how they may transform in the environment.

ii

TABLE OF CONTENTS EXECUTIVE

SUMMARY

...............................................................................................................ii TABLE OF CONTENTS ................................................................................................................iii LIST OF FIGURES .......................................................................................................................iv LIST OF TABLES .........................................................................................................................vi LIST OF ACRONYMS..................................................................................................................vii LIST OF ELEMENTS AND CHEMICALS....................................................................................viii LIST OF UNITS OF MEASURE....................................................................................................ix 1 INTRODUCTION AND PURPOSE .....................................................................................1-1 2 METHODOLOGY, INPUTS, AND ASSUMPTIONS............................................................2-1 2.1 Accident Scenario Description .....................................................................................2-1 2.2 MACCS Modeling Setup ..............................................................................................2-2 2.2.1 Heat Pipe Reactor Inventory .............................................................................2-3 2.2.2 Heat Pipe Reactor Source Term .......................................................................2-4 2.2.3 Spatial Grid and Site Data ..............................................................................2-10 2.2.4 Nearfield Modeling ..........................................................................................2-10 3 RESULTS ...........................................................................................................................3-1 3.1 Main Analysis of the Heat Pipe Reactor Transient Overpower Scenario ....................3-1 3.2 Sensitivity Analysis of Dose Exposure Period .............................................................3-8 3.3 Sensitivity Analysis of Radionuclides.........................................................................3-10 3.4 Sensitivity Analysis of Nearfield Modeling .................................................................3-11 3.5 Sensitivity Analysis of Release Timing ......................................................................3-18 4 CONCLUSIONS..................................................................................................................4-1 5 REFERENCES ...................................................................................................................5-1 APPENDIX A MACCS SettingsHeat Pipe Reactor (INL Design A) Transient Overpower Scenario.....................................................................................................................................A-1 APPENDIX B MACCS SettingsDose Exposure Period Patch Files.......................................B-1 APPENDIX C MACCS SettingsInventory Patch Files............................................................C-1 APPENDIX D MACCS SettingsNearfield Modeling Patch Files ............................................D-1 APPENDIX E MACCS SettingsRelease Timing Patch Files ..................................................E-1 APPENDIX F MACCS SettingsHeat Pipe Reactor General Settings.....................................F-1 APPENDIX G MelMACCS Source Term File of Heat Pipe Reactor Transient Overpower .......G-1 APPENDIX H MelMACCS Inventory File (Heat Pipe ReacTor INL Design A) ..........................H-1 iii

LIST OF FIGURES Figure 2-1 Iodine Release to the Environment in the MELCOR TOP Sensitivity Calculations (from figure 4-8 of SAND2022-2745 [5]). .......................................2-2 Figure 2-2 INL Design A reactor vessel cross-section. (From figure 3-1 of SAND2022 2745 [5].).............................................................................................................2-3 Figure 2-3 HPR Reactor Building Nodalization (from Figure 4-8 of SAND2022-2745

[5]).......................................................................................................................2-5 Figure 2-4 Time-Dependent Release Fraction for Release Path 1. .....................................2-6 Figure 2-5 Time-Dependent Release Fraction for Release Path 2. .....................................2-6 Figure 3-1 Centerline Air and Ground Concentrations of Plume Segment 6 (Weather-Averaged Results). .............................................................................3-2 Figure 3-2 Centerline Air Concentration of Plume Segment 6 (Weather-Distributed Results)...............................................................................................................3-3 Figure 3-3 Gaussian Dimensions and Centerline Height of Plume Segment 6 (Weather-Averaged Results). .............................................................................3-4 Figure 3-4 Projected Peak Dose in Radial Intervals within 40 km (25 mi) for a 4-Day Exposure Period (Weather-Distributed Results). ................................................3-5 Figure 3-5 Direction-Dependent Dose Projection for a 7-Day Exposure in the 0.2 to 0.3 km (0.12 to 0.19 mi) Radial Interval (Weather-Distributed Results). ............3-8 Figure 3-6 Direction-Dependent Mean Dose Projection for a 7-Day Exposure in Select Radial Intervals. .......................................................................................3-8 Figure 3-7 Comparison of Projected Peak Dose Using Various Exposure Periods in Radial Intervals within 40 km (25 mi). .................................................................3-9 Figure 3-8 Projected Dose Comparison for Different Exposure Durations. .......................3-10 Figure 3-9 Ratio of the Peak Dose of the HPR Radionuclides Relative to the LWR Radionuclides Using Various Exposure Periods in Radial Intervals within 40 km (25 mi). ...................................................................................................3-11 Figure 3-10 Comparison of Vertical Plume Spread for Three Nearfield Models in Radial Intervals within 40 km (25 mi). ...............................................................3-12 Figure 3-11 Ratio of Vertical Plume Spread for Three Nearfield Models in Radial Intervals within 40 km (25 mi). ..........................................................................3-12 Figure 3-12 Comparison of Horizontal Plume Spread for Three Nearfield Models in Radial Intervals within 40 km (25 mi). ...............................................................3-13 Figure 3-13 Ratio of Horizontal Plume Spread for Three Nearfield Models in Radial Intervals within 40 km (25 mi). ..........................................................................3-13 Figure 3-14 Comparison of Peak Dose for Three Nearfield Models in Radial Intervals within 40 km (25 mi)..........................................................................................3-14 Figure 3-15 Ratio of Peak Dose Compared to RG 1.145 Full Model in Radial Intervals within 40 km (25 mi)..........................................................................................3-14 iv

Figure 3-16 Comparison of Direction-Dependent Dose for Three Nearfield Models in the 0.2 to 0.3 km (0.12 to 0.19 mi) Radial Interval............................................3-15 Figure 3-17 Comparison of Peak Dose Using Two Plume Trapping Models and Two Methods for Calculating Buoyancy Flux for Radial Intervals within 40 km (25 mi)...............................................................................................................3-16 Figure 3-18 Distribution of Hourly Windspeeds at Sequoyah Nuclear Plant in 2012. ..........3-16 Figure 3-19 Ratio of Peak Dose Compared to the Base Case (0 hours0 days 0 hours 0 weeks 0 months ) for Various Time Shifts in the Release. ...............................................................................3-19 v

LIST OF TABLES Table 2-1 Recommended Radionuclide List for LWR Applications (from NUREG/CR-7270, Table 2-2 [21]) ......................................................................2-7 Table 2-2 Additional Radionuclides for HPR Consequence Analysis (from draft SAND2022-12018, Table 4-2) ............................................................................2-8 Table 2-3 Additional Daughter Radionuclides for HPR Consequence Analysis .................2-9 Table 2-4 Pseudostable Radionuclides Corresponding to Radionuclide List for LWR Applications (from NUREG/CR-7270 [21]) .........................................................2-9 Table 3-1 Long-Term Protective Actions in Farmland Areas ..............................................3-6 Table 3-2 Long-Term Protective Actions in Nonfarmland Areas.........................................3-7 vi

LIST OF ACRONYMS BWR boiling-oilingwater reactor EPA Environmental Protection Agency HPR heat pipe reactor ICRP-60 International Commission on Radiological Protection Publication 60 INL Idaho National Laboratory LANL Los Alamos National Laboratory LWR light-water reactor MTIHM metric tons of initial heavy metal NRC U.S. Nuclear Regulatory Commission ORNL Oak Ridge National Laboratory PAG Protective Action Guide PRA probabilistic risk assessment RG regulatory guide SNL Sandia National Laboratories SPR special purpose reactor TOP transient overpower vii

LIST OF ELEMENTS AND CHEMICALS BeO beryllium oxide B4C boron carbide CsI cesium iodide Cs2MoO4 cesium molybdate CsOH cesium hydroxide I2 gaseous iodine UO2 uranium oxide Ag silver As arsenic Cd cadmium Cm curium Cs cesium Eu europium Ge germanium I iodine In indium Nb niobium Nd neodymium Np neptunium Pd palladium Pm promethium Pr praseodymium Pu plutonium Ra radium Rb rubidium Rn radon Sb antimony Sm samarium Tc technetium Th thorium U uranium Xe xenon Zr zirconium viii

LIST OF UNITS OF MEASURE BTU/hr British thermal units per hour Ci curies ft feet g grams GWd/MTIHM gigawatt-days per metric ton of initial heavy metal ha hectare J/s joules per second K Kelvin kJ/kg-K kilojoules per kilogram-Kelvin km/h kilometers per hour kW kilowatt lb pound m meter mph miles per hour MW megawatt mSv millisievert psi pounds per square inch ix

1 INTRODUCTION AND PURPOSE To ensure readiness to review advanced reactor designs, the U.S. Nuclear Regulatory Commission (NRC) staff continues to assess design information, experimental data, and analytical tools needed for non-light-water reactors (non-LWR) reviews. In 2020-2021, the NRC staff issued Approach for Code Development in Support of NRCs Regulatory Oversight of Non-Light Water Reactors [6] and a series of five volumes [7] that document a comprehensive plan for developing computer code capabilities to support non-LWR reviews. This plan describes the code development approach, the codes themselves, knowledge gaps, and necessary development activities. Volume 3 of the series, NRC Non-Light Water Reactor (Non-LWR) Vision and Strategy-Computer Code Development Plans for Severe Accident Progression, Source Term, and Consequence Analysis, includes the development plan for the MACCS code (Agencywide Documents Access and Management System Accession No. ML20030A178).

The NRC staff continues to develop proof-of-concept reference designs for non-LWRs. This report describes a demonstration project using the MACCS accident consequence analysis code to analyze an accident scenario from a heat pipe reactor (HPR). This report assesses the extent to which the MACCS code can be used to reasonably analyze HPR accident consequences. The HPR design analyzed in this report is a fast-spectrum reactor known as the Idaho National Laboratory (INL) Design A concept.

The MACCS code suite is the NRCs computer code system for probabilistic consequence analysis. The MACCS code models atmospheric releases of radioactive materials into the environment and the subsequent consequences of such releases. MACCS is the only tool for probabilistic modeling of all the technical elements of the Level 3 probabilistic risk assessment standard [8], including radionuclide release, atmospheric transport and dispersion, meteorology, protective actions and site data, dosimetry, health effects, economic factors, and uncertainty.

MACCS has a long, active development history and a broad user base, including the NRC, the U.S. Department of Energy, the nuclear industry, academia, and domestic and international research organizations. MACCS applications are numerous and include regulatory cost-benefit analysis, environmental analysis of severe accident mitigation alternatives and design alternatives, level 3 probabilistic risk assessment studies, consequence analyses, and other risk-informed activities.

The MACCS code suite [1][2] has been actively used and developed over several decades. The suite of codes includes the user interface, WinMACCS, and various pre- and post-processor codes, including MelMACCS [9], SecPop [10], COMIDA2 [11], and an animations tool, AniMACCS [12]. MelMACCS is a preprocessor code that converts source term data from MELCOR into MACCS format. SecPop is another preprocessor code that facilitates the use of site-specific population, land use, and economic data. The COMIDA2 preprocessor is used to provide food chain input parameters for MACCS ingestion dose calculations. Lastly, AniMACCS, the MACCS animations tool, enables visualization of atmospheric dispersion and resulting air and ground concentrations around a site for a given weather trial.

The MACCS code suite is a flexible code system. Its input decks can generally be made plant specific, site specific, and accident specific by modifying a subset of the hundreds of input parameters and the handful of input files. MACCS is used for analyzing atmospheric releases from reactors, spent fuel pool accidents, dry cask storage accidents, accidents involving multiple release sources, and other radiological releases, each with its own accident timeline. However, 1-1

MACCS has primarily been used to analyze the consequences of atmospheric releases from accidents at conventional large light-water reactors (LWRs).

For consequence analysis, some of the key characteristics for advanced reactors may be reasonably addressed by modifying selected MACCS input parameters and input files.

However, other characteristics may be better addressed with MACCS code changes beyond changing input parameter values. Sandia National Laboratories (SNL) evaluated non-LWR-specific modeling challenges for MACCS [13]. Based on these evaluations, SNL has added new models to MACCS version 4.1 to improve the treatment of nearfield atmospheric transport and dispersion and building wake effects. These new MACCS nearfield modeling capabilities have been benchmarked and compared favorably with other atmospheric transport codes [14]. Whereas the standard Gaussian plume and puff models have been questioned for distances of less than 500 meters (m), the new capabilities allow for more detailed probabilistic dose calculations to within 50 m. This capability may help evaluate the exceedance of nearfield dose levels resulting from an accident of a smaller reactor design to inform emergency planning and other types of decisions.

The MACCS analysis of the HPR is based on a SCALE core inventory calculation from Oak Ridge National Laboratories (ORNL) [4] and a MELCOR accident scenario and source term from SNL [5]. The MELCOR model design of the HPR INL Design A uses high-assay, low-enrichment uranium fuel with steel cladding that employs heat pipes to transfer heat to a secondary Brayton air cycle. The core region is surrounded by a stainless-steel shroud, alumina reflector, core barrel, and boron carbide neutron shield. The reactor is secured inside a below-grade cavity, with the operating floor located above the cavity.

The example MELCOR demonstration calculations were performed to assess MELCORs ability to simulate accidents for non-LWRs and enable dialogue with stakeholders. The project included adding models (e.g., a heat pipe model) to extend MELCOR to non-LWRs and performing example MELCOR calculations for publicly available non-LWR conceptual designs.

The MELCOR calculations are considered example calculations because they include assumptions regarding certain plant features selected solely to demonstrate MELCOR modeling capabilities. Because the staff used an example atmospheric release from the MELCOR demonstration project as input to MACCS, the radiological consequence results from MACCS are considered example results and are not intended to reflect realistic radiological consequences for an actual non-LWR.

The INL Design A concept of an HPR originates from the Kilopower project. The Kilopower

[15][16] project was a small, 10-kilowatt HPR developed in 2015 by Los Alamos National Laboratory (LANL) and the National Aeronautics and Space Administration to power deep space missions or planetary surface outputs to support human exploration and colonization.

Researchers at LANL scaled up the Kilopower design to 5 megawatts (MW) thermal, and it was dubbed the Special Purpose Reactor (SPR) and also known as the Megapower reactor [17].

The SPR design consists of heat pipes and uranium oxide (UO2) with a uranium (U)-235 fuel enrichment of 19.75 weight percent. These heat pipe and fuel elements are arranged in a hexagonal array and are placed within channels in the grade 316 stainless steel (SS316) monolithic core structure. INL completed a phenomena identification and ranking table assessment of the LANL concept to identify potential technical and safety issues [18]. This assessment identified issues mainly regarding the SS316 monolith. Therefore, INL proposed two alternatives to the SPR design: Design A and Design B [19]. Models for SCALE, MELCOR, and MACCS were developed for the INL Design A concept of the HPR.

1-2

1-3 2 METHODOLOGY, INPUTS, AND ASSUMPTIONS This report documents the ability of MACCS to model an advanced reactor design and identify potential gaps that may exist in conducting such an analysis. This report also aims to evaluate the new nearfield modeling capabilities of the MACCS code [14] and a new set of radionuclides based on the HPR core inventory [20]. This code demonstration using MACCS v4.1 continues the work that began with SCALE and MELCOR. ORNL has developed a SCALE model to compute the radionuclide core inventory of the INL Design A of an HPR. Likewise, SNL has developed a MELCOR model to simulate postulated accidents of the INL Design A reactor design. This analysis uses the radionuclide core inventory from the SCALE evaluation [4] and an atmospheric source term from the MELCOR evaluation [5] as part of the analysis.

2.1 Accident Scenario Description The example source term used in this analysis is from a MELCOR-modeled accident scenario of a transient overpower (TOP) event documented in SAND2022-2745, MELCOR Accident Progression and Source Term Demonstration Calculations for a Heat Pipe Reactor, issued March 2022 [5]. Some of the MELCOR modeling conditions in SAND2022-2745 may be based on a decision to examine the capabilities of the code. As such, they are not solely an attempt to represent the most risk-important accident sequences. The MELCOR and MACCS HPR project staff selected the TOP scenario for consequence analysis because the other two postulated scenarios analyzed, the loss of heat sink and anticipated transient without scram, did not result in fuel damage.

The TOP scenario is initiated with an inadvertent rotation of the control drums surrounding the HPR core such that the B4C arcs turn away from the reactor core. The rotation causes an increase in the core reactivity. A complete HPR design would have a reactor protection system for automatic emergency control rod insertion. However, in order to allow for reactor core damage to be able to test computer code capabilities, the modeling of accident progression assumes this automatic emergency control rod shutdown system does not operate. During the accident scenario, the reactor power increases from 5 to 8 megawatts. When the peak fuel temperature reaches 2,200 Kelvin (3,500 degrees Fahrenheit), approximately 1 hour1.157407e-5 days 2.777778e-4 hours 1.653439e-6 weeks 3.805e-7 months after the event begins, the MELCOR project team assumes that operators manually terminate the fission reaction by inserting the emergency control rods. In this scenario, plume release to the atmosphere begins just before 1 hour1.157407e-5 days 2.777778e-4 hours 1.653439e-6 weeks 3.805e-7 months , a little before the reactor is shut down.

The MELCOR project team also assumes the following:

Iodine inventory is 5 percent gaseous iodine (I2) and 95 percent cesium iodide (CsI).

The remainder of the cesium inventory is 80 percent cesium molybdate (Cs2MoO4) and 20 percent cesium hydroxide (CsOH).

The baseline building leakage is equivalent to that of a boiling-water reactor (BWR) building (i.e., 100 percent/day at 1700 pascals (0.25 pounds per square inch)).

The external wind has a negligible impact on atmospheric release.

The MELCOR analysis of the TOP scenario resulted in a very small puff release, with an iodine atmospheric release of just 0.0008 percent of the total iodine fuel inventory within the first 2-1

24 hours2.777778e-4 days 0.00667 hours 3.968254e-5 weeks 9.132e-6 months . However, MELCOR sensitivity calculations evaluated the impact of external wind from 0 to 10 miles per hour (16.1 kilometers per hour) and increased building leakage of up to a factor of 100. These sensitivity calculations resulted in a change in the iodine release fractions by roughly a factor of 100 as shown in Figure 2-1.

Figure 2-1 Iodine Release to the Environment in the MELCOR TOP Sensitivity Calculations (from figure 4-8 of SAND2022-2745 [5]).

2.2 MACCS Modeling Setup This analysis begins with a new sample problem being developed at the NRC incorporating input values based on NUREG/CR-7270, Technical Bases for Consequence Analysis Using MACCS (MELCOR Accident Consequence Code System), issued October 2022 [21]. The weather for this sample problem is based on the 2012 meteorological data for Sequoyah Nuclear Plant, the same data used for the SOARCA Sequoyah project (NUREG/CR-7245, State-of-the-Art Reactor Consequence Analyses (SOARCA) Project: Sequoyah Integrated Deterministic and Uncertainty Analyses, issued October 2019 [22]). Then, the analyst updated many MACCS settings in designing a base case scenario, as discussed in the following sections. Since the project was not intended to create a site-specific analysis, the analysis did not use a site file.

Appendix A shows all the MACCS settings for the base case scenario. This analysis also included several sensitivity analyses. Appendices B through E document the settings for these sensitivity analyses. Appendix F shows the general settings used to update the sample problem.

These settings are redundant to those provided in appendix A but summarize general changes made for this analysis. Appendix G shows the MelMACCS source term file for the HPR, and 2-2

appendix H shows the MelMACCS inventory file based on the HPR SCALE depletion calculation.

2.2.1 Heat Pipe Reactor Inventory The HPR inventory is based on a SCALE calculation documented in ORNL/TM-2021/2021, SCALE Modeling of the Fast-Spectrum Heat Pipe Reactor, issued in 2021 [4]. The SCALE model contains 1,134 heat pipes surrounded by hexagonal fuel elements with a potassium working fluid; the fuel is UO2 with 19.75 percent weight enrichment of U-235. The model contains axial beryllium oxide (BeO) reflectors above and below the active fuel region, along with a radial alumina reflector containing 12 boron carbide (B4C) control drums. The center of the core is left unfueled to make room for two shutdown control rods, one annular and one solid.

The core barrel and corrugated support structure are made of grade 316 stainless steel, and the radiation shield is made of B4C.

Figure 2-2 INL Design A reactor vessel cross-section. (From figure 3-1 of SAND2022 2745 [5].)

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For exchanging nuclide inventory data with the MELCOR and MACCS teams, the SCALE analysts at ORNL developed a new inventory interface file format and Python scripts to process the inventory interface file.1 For MACCS analysis, ORNL provided the isotope mass (grams) and activity (curies) of the HPR 5 MW AT_POWER response at the beginning, middle, and end of life. This analysis selected the end of life, which corresponds to a time of 5 years and a burnup of 2 gigawatt days/metric ton of initial heavy metal (GWd/MTIHM). The ORNL script uses a radionuclide cutoff of 1x10-12 grams and 1x10-15 curies. The analyst formatted the inventory data as MelMACCS inventory data, as seen in appendix H.

One limitation of using these data is that they represent the inventory just before the reactivity accident and the reactor shutdown. MACCS considers only decay and ingrowth from radioactive decay. MACCS assumes that the reactor is shut down at the beginning of the accident scenario and that there is no more production from fission and activation.

The TOP scenario is a reactivity-initiated accident that begins when the inadvertent rotation of the control drums adds positive reactivity to the reactor core. This starts at the beginning of the accident scenario and continues for just more than 1 hour1.157407e-5 days 2.777778e-4 hours 1.653439e-6 weeks 3.805e-7 months before the reactor is shut down. This period of additional operation and increase in reactor power can change the reactor inventory makeup, which is not accounted for in the analysis.

The analyst conducted a sensitivity analysis of the release timing relative to the time of reactor shutdown. While it does not fully address the issue, it does provide insights into how the time between shutdown and exposure can affect consequences. Section 3.5 shows the results of this sensitivity analysis.

2.2.2 Heat Pipe Reactor Source Term The source term is based on a MELCOR analysis documented in SAND2022-2745 [5].

This analysis used MelMACCS version 4.0.0 beta to read the plot file from the MELCOR calculation and to create a MACCS patch file containing the source term data. According to the MELCOR analysis, the reactor building is modeled as two compartments, as shown in Figure 2-3. The lower compartment has a model elevation from 8.15 m to 12.725 m (26.7 feet (ft) to 41.75 ft) and a free volume of 2,125 m3 (75,110 ft3), and the upper compartment has a model elevation from 12.725 m to 17.3 m (41.75 ft to 56.8 ft) with a free volume of 2,125 m3 (75,110 ft3). These model elevations are relative to the inner bottom of the reactor pressure vessel lower head (dummy), which is 8.15 m (26.7 ft) below ground level. Therefore, the bottom of the lower compartment begins at ground level, and the reactor building is 9.15 m (64 ft) high (17.3 - 8.15 = 9.15). Therefore, based on the volume and assuming the reactor building is square, the width and length of the reactor building are each 21.55 m (70.7 ft).

MelMACCS calculates an initial horizontal and vertical plume spread of 5.01 m and 4.26 m (16.4 ft and 14.0 ft), respectively, based on the building dimensions. Depending on the nearfield model, MACCS can use these values as an area source as one way to represent the initial plume spread caused by the building wake. However, some nearfield models explicitly model building wake, in which case the analysis does not use the area source to avoid double 1 https://code.ornl.gov/scale/analysis/non-lwr-models-vol3/-/tree/master/

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counting. Section 2.2.4 addresses this analysis further in the discussion of nearfield modeling options.

CV1000 (Environment)

FL5010 (Upper Leakage)

FL5025 (Lower Leakage) CV5010 (Reactor Building Floor 2)

FL5015 FL5020 CV5005 (Reactor Building Floor 1)

FL5000 FL5005 (Reactor Cavity Flow) (Reactor Cavity Flow)

Natural Convection Natural Convection UP UP CV5000 (Reactor Cavity)

Ground Figure 2-3 HPR Reactor Building Nodalization (from Figure 4-8 of SAND2022-2745 [5]).

In MelMACCS, this analysis selected all 13 chemical groups for analysis, even though MELCOR results did not contain any data in radionuclide class 13 for the boron chemical group. The MELCOR results provide the atmospheric source term in a single aerosol bin size of 0.153 micrometers.

MelMACCS shows that the TOP accident scenario has two release pathways from the HPR reactor building of 5.15 m and 9.15 m (16.9 ft and 64 ft) above ground level. Figure 2-4 shows the cumulative release fraction of the lower release path for the first 24 hours2.777778e-4 days 0.00667 hours 3.968254e-5 weeks 9.132e-6 months , and Figure 2-5 shows the upper release path.

The source term data from MELCOR has a cutoff time of 24 hours2.777778e-4 days 0.00667 hours 3.968254e-5 weeks 9.132e-6 months after accident initiation, which includes the full transient period of the plant accident progression. An inspection of the release rate shows a steady release at 24 hours2.777778e-4 days 0.00667 hours 3.968254e-5 weeks 9.132e-6 months , which indicates the first 24 hours2.777778e-4 days 0.00667 hours 3.968254e-5 weeks 9.132e-6 months does not reflect the full accident release magnitude. Given that the transient period of accident progression fully occurs within 24 hours2.777778e-4 days 0.00667 hours 3.968254e-5 weeks 9.132e-6 months , the release rate after 24 hours2.777778e-4 days 0.00667 hours 3.968254e-5 weeks 9.132e-6 months will eventually decrease to zero if given enough time.

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Figure 2-4 Time-Dependent Release Fraction for Release Path 1.

Figure 2-5 Time-Dependent Release Fraction for Release Path 2.

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The MELCOR plot file used in this analysis has a total iodine release fraction of 0.0040 percent.

This is different than the value in Figure 2-1 from the MELCOR report documenting the analysis, which indicates a factor of 5 lower release fraction. Although the MELCOR data do not seem to fully match the documentation, it still serves useful for code demonstration purposes.

This analysis selected plume segment intervals of 1 hour1.157407e-5 days 2.777778e-4 hours 1.653439e-6 weeks 3.805e-7 months , leading to the creation of 28 plume segments between the two release pathways. Plume segment 6, the second plume segment for the upper release path, was selected as the maximum risk plume segment for the MACCS parameter MAXRIS. This analysis used default values for all other MelMACCS inputs. Appendix G shows the contents of the MelMACCS output.

Typical analyses for LWRs have considered a set of roughly 71 radionuclides of interest for dosimetry modeling in consequence analysis. Table 2-1 lists the 71 radionuclides given in NUREG/CR-7270 [21].

Table 2-1 Recommended Radionuclide List for LWR Applications (from NUREG/CR-7270, Table 2-2 [21])

Co-58 Y-90 Ru-103 Te-132 Ba-137m Nd-147 Co-60 Y-91m Ru-105 I-131 Ba-139 Np-239 Kr-85 Y-91 Ru-106 I-132 Ba-140 Pu-238 Kr-85m Y-92 Rh-103m I-133 La-140 Pu-239 Kr-87 Y-93 Rh-105 I-134 La-141 Pu-240 Kr-88 Zr-95 Rh-106 I-135 La-142 Pu-241 Rb-86 Zr-97 Te-127 Xe-133 Ce-141 Am-241 Rb-88 Nb-95 Te-127m Xe-135 Ce-143 Cm-242 Sr-89 Nb-97 Te-129 Xe-135m Ce-144 Cm-244 Sr-90 Nb-97m Te-129m Cs-134 Pr-143 Sb-127 Sr-91 Mo-99 Te-131 Cs-136 Pr-144 Sb-129 Sr-92 Tc-99m Te-131m Cs-137 Pr-144m However, since advanced reactors have unique characteristics that can affect the isotopic makeup of the reactor cores and releases, it may be important to reconsider the radionuclides included in advanced reactor consequence analysis. SNL developed a new list of radionuclides to consider for HPR consequence analysis in SAND2022-12018, Quantitative Assessment for Advanced Reactor Radioisotope Screening Utilizing a Heat Pipe Reactor Inventory, issued September 2022 [20]. The screening process created a preliminary list of 28 additional radionuclides, shown in Table 2-2, to add to the original list of 71.

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Table 2-2 Additional Radionuclides for HPR Consequence Analysis (from draft SAND2022-12018, Table 4-2)

Ag-111 Ge-77 Pm-149 Sn-121 As-77 Nb-95m Pm-151 Sn-123 Cd-115 Nd-149 Pr-145 Sn-125 Cd-115m Pd-109 Sb-125 Sn-127 Eu-154 Pm-147 Sm-151 Te-125m Eu-155 Pm-148 Sm-153 U-234 Eu-156 Pm-148m Sm-156 U-237 The HPR radionuclide list used in the analysis documented in this report is based on the preliminary list, as the final list was not available at the time. The HPR list in the final version of SAND2022-12018 [20] contains fewer radionuclides than the preliminary list and is unlikely to affect consequences. The radionuclide screening process determined the list of radionuclides of interest for the HPR using the SCALE core inventory results. The radionuclide screening process evaluated the relative dose contributions of radionuclides compared to iodine (I)-131 in the early phase and cesium (Cs)-137 in the late phase using the MACCS code. This evaluation assumed the radionuclide fraction of core inventory released to the atmosphere was the same as I-131 for the early phase or Cs-137 for the late phase. The screening process would include a radionuclide when either the lung dose, red marrow dose, or effective dose (i.e., ICRP60ED) from the radionuclide was predicted to be more than 1x10-2 the size of the dose from I-131 in the early phase or from Cs-137 in the late phase.

While this screening process adds to the list of radionuclides included in a MACCS analysis, the evaluation had some potentially important limitations. One limitation is that the screening did not evaluate the ingestion pathway. Therefore, the list may not capture some radionuclides important to food or water ingestion doses.

Another limitation is that the screening excluded radionuclides with half-lives of less than an hour. Because of the delay times between reactor shutdown and public exposure under normal accident conditions, these radionuclides would not have a significant effect. However, the HPR transient overpower scenario is a reactivity accident in which release into the atmosphere begins while the reactor is still critical. Given that the only delay may be the plume transport time, it is unclear if excluding radionuclides with half-lives less than 1 hour1.157407e-5 days 2.777778e-4 hours 1.653439e-6 weeks 3.805e-7 months is still a robust assumption. This issue could also affect accident scenarios for other advanced reactor designs in which reactor shutdown is not immediately achieved.

Another potential limitation in the screening analysis is that MACCS does not currently model some complex environmental transport mechanisms that can affect doses from certain radionuclides like tritium. Since very little of the HPR core activity is tritium (i.e., less than 2x10-5 of the total HPR activity), it is unlikely that this would impact the offsite consequences. However, other reactor designs are expected to produce higher quantities of tritium, and it is unclear at what point tritium inventories may become important in a MACCS calculation.

The MACCS code requires the user to account for daughter products in the decay chain. The user can either add the daughter products to the list of radionuclides or specify them as a pseudostable isotope to truncate them from the calculation. This analysis added the five daughter products shown in Table 2-3 to the list for HPR analysis.

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Table 2-3 Additional Daughter Radionuclides for HPR Consequence Analysis In-115m In-115 Th-230 Ra-226 Rn-222 MACCS considers a maximum of five decays/six generations of radionuclides in a decay chain.

MACCS considers fewer than five decays after a radionuclide of interest when it is a daughter product of any other radionuclide in the analysis. For instance, MACCS requires the user to specify radionuclides for only three decays of U-234 (i.e., U-234, thorium (Th)-230, radium (Ra)-226, and radon (Rn)-222) even though Rn-222 is not stable or listed as a pseudostable isotope. This is because a typical analysis also analyzes curium (Cm)-242 and plutonium (Pu)-238, which decay into U-234. This makes Rn-222 the sixth generation, the maximum number MACCS will consider.

The number of radionuclides in the new list for HPR consequence analysis is 104. Four radionuclides on the new HPR list were on the original pseudostable list for the LWR. This analysis removed these four, as shown in Table 2-4, with no additions.

Table 2-4 Pseudostable Radionuclides Corresponding to Radionuclide List for LWR Applications (from NUREG/CR-7270 [21])

I-129 Sm-147 U-237* Nb-93m Xe-131m U-234* Np-237 Nb-95m*

Xe-133m U-235 Rb-87 Tc-99 Cs-135 U-236 Zr-93 Pm-147*

Removed for HPR analysis While a user can adjust the MelMACCS configuration settings to update the list of radionuclides, associated activities, and pseudostable isotopes, this analysis did not do so. Instead, the analysis created patch files of the HPR inventory settings to import into MACCS (after importing the MelMACCS source term file, not to overwrite the new settings). Using patch files allows the MACCS user to efficiently conduct sensitivity analyses of the two lists and document the inventory settings.

Appendix C documents the two patch files containing the HPR inventory settings. One patch file uses the original list of 71 radionuclides and the other uses the expanded list of 104 radionuclides identified for the HPR. Both files contain identical inventory data for the first 71 radionuclides. The analyst assigned the new radionuclides to chemical groups according to their elemental basis as specified in NUREG/CR-7270 [21] and compiled the core inventories from the HPR SCALE data available in appendix H.

The main analysis uses the new list of 104 radionuclides designed for the HPR. The sensitivity analysis of the set of radionuclides in section 3.3 includes evaluations of both radionuclide lists.

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2.2.3 Spatial Grid and Site Data One of the purposes of this analysis is to demonstrate the new nearfield modeling capability. To better align with the nearfield models, this analysis uses 100 m radial increments for the first kilometer of the spatial grid and regular increments in kilometers after this. A few common distances in miles are also used so report outputs can be consistent with other projects.

MACCS required some minor updates in the rain distances and the boundary weather distance to match the new radial intervals, and the analysis updated the MACCS outputs for the new radial intervals as well.

This analysis did not use a site file. Instead, the analysis assumed a uniform population density of 40 people per square kilometer (km2) (104 people per square mile (mi2)). The analysis also assumed uniform economic data based on average values in the 80 kilometer (50 mile (mi))

area around the Sequoyah Nuclear Plant in Tennessee (latitude: 35.226657, longitude: -

85.091203). This includes the value of farm wealth ($/hectare (ha)) and nonfarm wealth

($/capita), the fraction of land used for farming (dimensionless), annual farm production ($/ha),

and the fraction of farm production from dairy (dimensionless). The economic values were derived from spatial data provided by the SecPop v4.3 code using the 2012 county economic data and assume an economic escalation factor of 1.29, based on the increase in the consumer price index from 2012 to 2022. The analysis also specified values for the water ingestion parameters in the MACCS input based on NUREG/CR-7270 [21]. This was required as these values are normally in the site file when the site file is used.

Since the analysis is modeling projected doses in the ambient environment (i.e., assuming no protective actions), parameters typically associated with emergency response were updated so they do not impact results. The analysis models a nonevacuating cohort of a phantom population and increased the dose levels for emergency phase relocation to artificially high levels, so they are not triggered in the scenario. All protection factors have been changed to a factor of 1.0 to represent no shielding protection. This is close to the dose an individual would receive in an outdoor location, although realistically the surface roughness of the ground would still provide a little protection against groundshine radiation.

To be able to obtain Impacted Population Results from the Type 14 output, MACCS version 4.1 requires there to be an evacuating cohort. As such, the analysis defines a dummy cohort with an empty population. The MACCS input settings in appendix F show the settings for the dummy cohort (cohort 1) and nonevacuating cohort (cohort 2).

2.2.4 Nearfield Modeling With MACCS version 4.1, there are new options for modeling nearfield atmospheric transport.

This analysis evaluates and compares the following three MACCS nearfield modeling approaches:

(1) Regulatory Guide (RG) 1.145 Partial Model (with Area Source)

(2) RG 1.145 Full Model (with Point Source)

(3) Ramsdell and Fosmire Model (with Point Source)

Both options 1 and 2 are based on NUREG/CR-2260, Technical Basis for Regulatory Guide 1.145, Atmospheric Dispersion Models for Potential Accident Consequence Assessments at Nuclear Power Plants, issued October 1981 [23], and RG 1.145, Atmospheric Dispersion 2-10

Models for Potential Accident Consequence Assessments at Nuclear Power Plants, reissued February 1983 [24], and both model plume meander based on stability class and windspeed.

The RG 1.145 Partial Model Is a partial implementation of the nearfield modeling approach described in RG 1.145. This modeling approach considers the effects of both building wake mixing and ambient plume meander. However, the RG 1.145 Partial Model accounts only for plume meander. This partial implementation was the only option available for using RG 1.145 in MACCS version 4.0 and earlier.

To account for building wake in the RG 1.145 Partial Model, users can specify the initial release as an area source. A common method used is the Turner building wake method, which assumes that building wake causes an initial plume to spread such that the plume concentrations at the building edges and roofline are equal to 10 percent of the plume centerline. This corresponds to 2.15 standard deviations from the plume centerline. Users commonly estimate the initial plume dimensions with the following relationship:

, = 4.3 and , = 2.15 where

, is the initial plume width (SIGYINIT)

, is the initial plume height (SIGZINIT) is the width (m) of the building from which release occurs is the height (m) of the building from which release occurs With MACCS version 4.1, this area source estimate of the initial plume dimensions can be automatically calculated using the building height and width.

The RG 1.145 Full Model is the full implementation of the nearfield modeling approach discussed in RG 1.145, which became available in MACCS version 4.1. This includes consideration of both building wake and plume meander. In this option, it is not recommended to use an area source to account for building wake, as the full implementation approach already accounts for this.

The Ramsdell and Fosmire Model is a new nearfield modeling approach in MACCS that also became available in version 4.1. SAND2021-6924, Implementation of Additional Models into the MACCS Code for Nearfield Consequence Analysis, issued June 2021 [14], describes the nearfield modeling capabilities in greater detail. The Ramsdell and Fosmire Model is the nearfield approach used by ARCON96. It includes enhanced dispersion near a building at low and high windspeeds [25]. At low windspeeds, building wakes have a minimal effect, and the major contributor to enhanced dispersion is plume meander. At high windspeeds, building wakes are the major contributor to enhanced dispersion. In this option, it is also not recommended to use an area source to account for building wake, as the approach already accounts for building wake.

The main analysis uses the RG 1.145 Full Model (with point source). The sensitivity analysis of nearfield modeling in section 3.4 evaluates all three nearfield approaches. In each nearfield modeling approach, the analysis uses the recommended set of parameter inputs provided by 2-11

SAND2021-6924, with one exception. In the Ramsdell and Fosmire Model, SAND2021-6924 recommends that the distance within which to use the model (RAFDIST) be rounded down to 1,000 m (0.62 mi), and this analysis keeps the distance at 1,200 m (0.75 mi).

This analysis created patch files containing the settings for each of the three nearfield modeling approaches. Appendix D shows these settings. Because of a bug found in WinMACCS version 4.1 that restricted the ability to import some of the nearfield settings, these patch files were not directly used. However, they remain in the appendix as documentation of the nearfield settings used for the analysis.

In addition to the new nearfield modeling capabilities that determine plume spread, MACCS version 4.1 provides a new plume trapping model to determine when plume rise occurs. The original buoyancy flux method evaluates the plume buoyancy and windspeed to determine whether plume rise occurs. In contrast, the new model considers the plume entrainment size using the building dimensions to assess whether plume rise occurs. The analysis evaluated the two plume entrainment models against each other in a sensitivity analysis. Section 3.4 documents the results of this analysis, along with the other nearfield sensitivity analyses.

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3 RESULTS This report documents various output measures, including plume characteristics, air and ground concentrations, doses, and spatial distribution of protective actions. All reported doses are projected doses assuming no protective actions. Also, all reported doses are effective doses using the L-ICRP60ED organ in MACCS.

3.1 Main Analysis of the Heat Pipe Reactor Transient Overpower Scenario The main analysis evaluates the example HPR TOP accident source term using the recommended list of radionuclides for the HPR. For the nearfield model, the analysis uses the full implementation of RG 1.145 developed in MACCS version 4.1, which assumes a point source release.

The example MELCOR source term of the TOP accident scenario is the first 24 hours2.777778e-4 days 0.00667 hours 3.968254e-5 weeks 9.132e-6 months of a small release from two release locations. Figure 3-1 through Figure 3-3 detail plume segment 6, the second plume segment for the upper release path. The project identified plume segment 6 as potentially being the most risk-significant plume segment, however any plume segment should be able to provide representative release characteristics. Figure 3-1 shows the centerline integrated air concentration (blue curve) in radial intervals between 0 and 40 kilometers (km) (0 and 25 mi) from the source location. MACCS predicts no plume rise to occur, which is discussed in more detail in section 3.4 . Since the plume centerline stays at ground level, the elevated centerline air concentration and ground-level centerline concentration are the same.

Also shown is the total centerline ground concentration in orange and the Cs-137 ground concentration in gray. The air and ground concentrations are related to each other and have very similar profiles in Figure 3-1. The figure also shows that Cs-137 is a small fraction of the total ground activity at deposition.

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Figure 3-1 Centerline Air and Ground Concentrations of Plume Segment 6 (Weather-Averaged Results).

The concentration profiles above are based on the average results for a set of various weather conditions (i.e., weather-averaged results). Figure 3-2 shows the distribution of centerline air concentrations based on the weather.

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Figure 3-2 Centerline Air Concentration of Plume Segment 6 (Weather-Distributed Results).

The plume disperses as it travels downwind. Figure 3-3 shows the vertical and horizontal deviation of the air concentrations for distances between 0 and 5 km (0 and 3.1 mi). The amount of plume spread considers the atmospheric stability class, the surface roughness of the ground, and nearfield model representing the full implementation of RG 1.145, which considers building wake effects and plume meander.

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Figure 3-3 Gaussian Dimensions and Centerline Height of Plume Segment 6 (Weather-Averaged Results).

The main analysis results show very small impacts relative to traditional analyses of hypothetical nuclear power plant accidents. This is because the HPR-INL Design A has a small core inventory compared to large LWRs, and the TOP scenario is calculated to produce a source term with small release fractions to the environment. Figure 3-4 shows the projected peak dose in radial intervals between 0 and 40 km (0 and 25 mi). The projected dose is the anticipated dose for a phantom individual with no protection and who takes no actions to reduce exposure. The projected dose considers reductions in exposure that naturally occur with time due to radioactive decay and weathering. According to the analysis of the example HPR TOP source term, the projected 4-day dose is anticipated to remain below the U.S. Environmental Protection Agencys (EPAs) emergency phase protective action guide (PAG) recommendation (i.e., 1 to 5 rem (10 to 50 millisievert [mSv])) in all locations. Recall, however, that this source term evaluates only the first 24 hours2.777778e-4 days 0.00667 hours 3.968254e-5 weeks 9.132e-6 months of the accident. The peak dose in the first radial interval from 0 to 0.1 km (0 to 0.06 mi) has a mean weather result of 0.44 rem (4.4 mSv) and a 95th percentile weather result of 0.88 rem (8.8 mSv). Since the peak dose in the closest radial interval is very close to the EPA PAG, a longer analysis without a time cutoff may affect this finding at distances close to the release location.

3-4

Figure 3-4 Projected Peak Dose in Radial Intervals within 40 km (25 mi) for a 4-Day Exposure Period (Weather-Distributed Results).

While the offsite consequences of the example HPR source term are unlikely to reach the emergency phase PAG dose levels, the release would likely require long-term protective actions to be taken very close to the release location in some weather scenarios. Table 3-1 and Table 3-2 summarize long-term protective actions in farmland and nonfarmland areas, respectively.

In Table 3-1, milk and crop disposal refer to an economic loss from farm work initiated before the accident occurred, but the products cannot be realized because of farmland contamination.

Farmland interdiction refers to the stoppage of future farm work the first year after the accident occurs and potentially longer. Farmland interdiction can be caused either by ingestion dose limits of farm produce (i.e., dose exceedance of farmability criteria) or by relocation restrictions (i.e., dose exceedance of the habitability criterion). MACCS assumes that farmland decontamination occurs only when contamination exceeds the habitability criterion, which tends to be less strict than the farmability criteria. Farmland that is interdicted will remain unfarmable until contamination levels drop to acceptable levels. If contamination levels exceed farmability criteria after 8 years, or if decontamination cannot cost-effectively reduce doses to below the habitability criterion, MACCS assumes the farmland is permanently condemned.

The results of the example analysis show that the extent of protective actions in farmland is very small or zero. The average extent is less than the outer distance of the first radial interval (i.e.,

0.1 km (0.06 mi)), and farmland condemnation never occurs in any analyzed weather scenario.

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Table 3-1 Long-Term Protective Actions in Farmland Areas Type of Land Farmland Area Type of Milk Crop Interdiction Decontamination Condemnation Impact Disposal Disposal Probability of Occurrence 70 percent 70 percent 70 percent 30 percent 0 percent (Anywhere on Spatial Grid)

Weather-Averaged 0.07 0.09 0.09 0.03 0 Extent of Impact (km)

Weather-Averaged 0.10 0.20 0.02 0.02 0 Area of Impact (ha)

Table 3-2 shows that similar results occur in nonfarmland areas. Nonfarmland areas refer to any land use that is not farming and the portion of the land where individuals may reside.

Nonfarmland area is subject to the same habitability criterion as farmland area. For this reason, the two regions have common protective actions of interdiction, decontamination, and condemnation. Likewise, the two types of land areas have the same probability and extent of decontamination and condemnation, at least in this case. However, unlike farmland areas, nonfarmland is not subject to farmability criteria, which tend to be stricter than the habitability criterion. For this reason, the probability and extent of interdiction are greater for farmland than for nonfarmland. While the probability and extent and certain protective actions are the same, the area is not. This is because this analysis assumes the fraction of nonfarmland is greater than farmland.

For nonfarmland, the interdiction and decontamination produce the same values. This is because, in MACCS version 4.1, interdiction and decontamination are both based on the habitability criterion. However, decontamination may also occur in habitable areas, and new MACCS development may be able to better address this using a decontamination criterion.

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Table 3-2 Long-Term Protective Actions in Nonfarmland Areas Type of Land Area Nonfarmland Early Type of Impact Interdiction Decontamination Condemnation Fatality Probability of Occurrence 0 percent 30 percent 30 percent 0 percent (Anywhere on Spatial Grid)

Weather-Averaged Extent of Impact 0 0.03 0.03 0 (km)

Weather-Averaged

- 0.04 0.04 0 Area of Impact (ha)

The projected dose in a spatial grid element is dependent on the meteorological conditions at the time of the accident, particularly the wind direction. Figure 3-5 shows the projected dose in each compass direction in the 0.2 to 0.3 km (0.12 to 0.19 mi) radial interval due to exposure during the first week of the accident. There are 64 compass directions in the analysis.

Direction 1 represents north, and ascending numbers represent a clockwise direction. The distribution of dose projections results from a random sampling of weather conditions. The blue curve shows that, on average, certain compass directions are affected more than others. For example, the double peak results from the meteorological conditions at the Sequoyah Nuclear Plant site, which has two dominant wind directions. However, a release does not always cause a dose, even for the dominant wind directions. This is clear from the orange curve of the 5th percentile results, which shows zero dose. The orange curve represents weather scenarios in which no plume segments travel in that direction, whereas the gray curve represents weather scenarios in which potentially many plume segments travel in that direction.

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Figure 3-5 Direction-Dependent Dose Projection for a 7-Day Exposure in the 0.2 to 0.3 km (0.12 to 0.19 mi) Radial Interval (Weather-Distributed Results).

Figure 3-6 compares how average doses in different directions change with downwind distance.

The blue curve is for the 0.2 to 0.3 km (0.12 to 0.19 mi) radial interval, which matches the blue curve in Figure 3-5. In all directions, the dose is anticipated to decrease with distance. This is to be expected because 0.2 to 0.3 km (0.12 to 0.19 mi) is very close to the source and because plume dispersion and depletion increase with distance. The figure also shows that the profiles of each curve are very similar.

Figure 3-6 Direction-Dependent Mean Dose Projection for a 7-Day Exposure in Select Radial Intervals.

3.2 Sensitivity Analysis of Dose Exposure Period This project included a sensitivity analysis of different exposure periods to evaluate how the projected dose may vary with time. Calculating different dose projection exposure periods is not a typical calculation in MACCS. The original intent was to perform the calculations for 2 hours2.314815e-5 days 5.555556e-4 hours 3.306878e-6 weeks 7.61e-7 months , 1 day, 4 days, 30 days, and 51 years (50 years for the long-term phase plus 1 year for the intermediate phase). Cyclical files were created with different early-phase periods to analyze 1 day, 4 days, and 30 days. MACCS does not allow an early phase less than 1 day. To obtain a 2-hour exposure period, the analysis created a separate realization that redefined cohort 2 to represent an evacuating cohort with a 2-hour alarm time and no delay in sheltering or evacuating. The analysis then assigned an evacuation protection factor of 0 for all dose pathways to represent complete protection so that the cohort would receive no residual doses after the 2-hour period. In this way, cohort 2 can represent a 2-hour dose projection. The patch files in appendix B show the MACCS settings for these realizations. For a lifetime dose of 3-8

51 years, the analysis ran an additional separate realization with intermediate and long-term phase habitability criteria set to artificially high values (DSCRTI=1E05; DSCRLT=1E05). This changes the long-term cohort so that it can also represent a dose projection with no protective actions, this time for a 51-year period. Changing protective action criteria in the long-term phase was done only for this realization, as these criteria also affect the results related to protective actions.

Figure 3-7 shows the projected peak dose with distance for the exposure periods beginning at the start of the accident when the control drums begin to inadvertently add positive reactivity.

Release begins quickly at less than 1 hour1.157407e-5 days 2.777778e-4 hours 1.653439e-6 weeks 3.805e-7 months . As expected, the lifetime dose (blue curve) is the largest as it has the longest period of dose accumulation. The green curve representing a 2-hour exposure is many orders of magnitude lower than the rest and ceases after 5 km (3.1 mi). This is because only a fraction of the release has occurred within the first 2 hours2.314815e-5 days 5.555556e-4 hours 3.306878e-6 weeks 7.61e-7 months , and no plume segments have traveled beyond 5 km (3.1 mi).

The 4-day dose exposure in this figure (yellow curve) matches the blue curve in Figure 3-4 above. Curves representing 1 day, 4 days, and 30 days (light blue, yellow, and orange, respectively) cluster together. Albeit small, this middle cluster of curves is more spread out at far distances than at close distances. This difference may be because the arrivals of some plume segments at far distances are sometimes incomplete. Results state that plume segments, on average, take 10 hours1.157407e-4 days 0.00278 hours 1.653439e-5 weeks 3.805e-6 months to travel out to 40 km (25 mi) and may take as many as 19 hours2.199074e-4 days 0.00528 hours 3.141534e-5 weeks 7.2295e-6 months .

Figure 3-7 Comparison of Projected Peak Dose Using Various Exposure Periods in Radial Intervals within 40 km (25 mi).

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Overall, the exposure periods in the early phase of the accident represent a fraction of the total projected dose. Figure 3-8 shows the dose accumulation at 2 hours2.314815e-5 days 5.555556e-4 hours 3.306878e-6 weeks 7.61e-7 months , 1 day, 4 days, and 30 days relative to 51 years assuming no protective actions (including shielding). Even though exposures during plume passage and exposures to short-lived radionuclides occur only in the early phase of the accident, exposure to ground contamination over the long term is the largest potential contributor of the overall lifetime dose projection. Nevertheless, early doses are important as they can be more difficult to avert and accumulate quickly.

Figure 3-8 Projected Dose Comparison for Different Exposure Durations.

3.3 Sensitivity Analysis of Radionuclides Most MACCS analyses for LWRs evaluate the offsite consequences from roughly the 71 radionuclides expected to be most important. This sensitivity analysis evaluates an expanded list of 104 radionuclides based on a preliminary evaluation of the HPR core inventory from a draft version of SAND2022-12018 [20].

To better understand the difference between using the two lists, this project included a sensitivity analysis using the LWR and the HPR list of radionuclides for each exposure period.

Figure 3-9 shows the peak dose from the HPR TOP scenario using the expanded list of radionuclides for the HPR relative to the LWR list. The HPR peak dose increased by less than 1 percent for all evaluated radial intervals and exposure periods. The HPR radionuclide list had a little more impact on early doses than it did on the 51-year exposure period, which shows a difference of less than 0.1 percent. While this analysis is based on a preliminary list, the final HPR list in SAND2022-12018 contains fewer radionuclides than the preliminary list due to a slightly updated screening methodology and is unlikely to have significantly different MACCS results.

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Figure 3-9 Ratio of the Peak Dose of the HPR Radionuclides Relative to the LWR Radionuclides Using Various Exposure Periods in Radial Intervals within 40 km (25 mi).

This sensitivity analysis did not test different radionuclides for the ingestion pathway, which are not part of the peak dose results in MACCS. Given that the radionuclides of importance could be significantly different for ingestion, it is unclear if the small differences shown in Figure 3-9 would similarly carry over to ingestion doses.

3.4 Sensitivity Analysis of Nearfield Modeling This sensitivity analysis evaluated three approaches for nearfield modeling resulting in different levels of dispersion and dose projections. The RG 1.145 Full Model is new with MACCS version 4.1. It represents the full implementation RG 1.145, including equations for building wake. The RG 1.145 Partial Model is the model available before MACCS version 4.1. The RG 1.145 Partial Model does not directly model building wake, but the user can still account for building wake by creating an area source representing the initial plume spread caused by the building wake. This is how this analysis evaluated the RG 1.145 Partial Model.

Figure 3-10 and Figure 3-11 compare the vertical plume spread using the three nearfield modeling approaches. All nearfield approaches have a similar profile with distance. The Ramsdell and Fosmire Model and the RG 1.145 Partial Model show roughly 3 times and 2 times the initial vertical spread of the RG 1.145 Full Model. The two RG 1.145 models quickly align within 1 km (0.62 mi). All three nearfield approaches effectively show no difference in vertical plume spread after 10 km (6.2 mi).

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Figure 3-10 Comparison of Vertical Plume Spread for Three Nearfield Models in Radial Intervals within 40 km (25 mi).

Figure 3-11 Ratio of Vertical Plume Spread for Three Nearfield Models in Radial Intervals within 40 km (25 mi).

Figure 3-12 and Figure 3-13 compare the horizontal plume spread using the three nearfield modeling approaches. All nearfield approaches have a similar profile with distance. The Ramsdell and Fosmire Model and the RG 1.145 Partial Model show roughly 3 times and 1.5 times the initial horizontal spread of the RG 1.145 Full Model. The two RG 1.145 models quickly align within 0.3 km (0.19 mi). The relative difference between the Ramsdell and Fosmire Model and the RG 1.145 models becomes very small after 40 km (25 mi).

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Figure 3-12 Comparison of Horizontal Plume Spread for Three Nearfield Models in Radial Intervals within 40 km (25 mi).

Figure 3-13 Ratio of Horizontal Plume Spread for Three Nearfield Models in Radial Intervals within 40 km (25 mi).

Figure 3-14 and Figure 3-15 compare the peak doses using the three nearfield modeling approaches.

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The amount of plume spread in the different approaches notably impacts doses in the first 40 km (25 mi). Because the Ramsdell and Fosmire Model has the most spread, it has the lowest peak doses of the three nearfield modeling approaches. The two RG 1.145 models have similar peak doses after roughly 1 km (0.62 mi), whereas the Ramsdell and Fosmire Model does not have the same peak doses until approximately 40 km (25 mi).

Figure 3-14 Comparison of Peak Dose for Three Nearfield Models in Radial Intervals within 40 km (25 mi).

Figure 3-15 Ratio of Peak Dose Compared to RG 1.145 Full Model in Radial Intervals within 40 km (25 mi).

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Figure 3-16 compares the doses in different directions using the three nearfield modeling approaches in the 0.2 to 0.3 km (0.12 to 0.19 mi) radial interval. The gray curve representing the RG 1.145 Full Model is the same data as the blue curves in Figure 3-5 and Figure 3-6. The RG 1.145 Full Model has the narrowest plume, and therefore it has the highest peaks. In the nondominant wind directions, the three nearfield modeling approaches show similar results.

This is because the Ramsdell and Fosmire Model has more horizontal plume spread, which decreases the dose along the centerline and increases the dose in off-centerline locations relative to a narrow plume. However, the Ramsdell and Fosmire Model still shows a slightly lower dose in the nondominant wind directions and a lower dose on average, likely because of vertical plume spread. In these analyses, there is no plume rise; therefore, vertical plume spread always has a dilution effect on ground-level doses. As discussed previously, the Ramsdell and Fosmire Model has more vertical spread than the other models, as shown in Figure 3-13.

Figure 3-16 Comparison of Direction-Dependent Dose for Three Nearfield Models in the 0.2 to 0.3 km (0.12 to 0.19 mi) Radial Interval.

In addition to the nearfield modeling, the analysis evaluated the impact of two plume trapping models and two methods for calculating plume buoyancy. In MACCS, plume buoyancy is a variable in the original plume trapping model to determine when liftoff will occur, and a variable in the plume rise model to determine how much the plume will rise when liftoff does occur.

Figure 3-17 compares the peak dose using the four combinations of plume trapping and buoyancy flux. The analysis found that for the HPR TOP scenario, peak dose results are identical, likely because liftoff never occurs in either plume trapping model for this HPR source term. This is supported by a look at the centerline height of plume segment 6, which shows zero value for all distances. The new Briggs trapping model (TDWMOD=BRGBLD) is based on the elevation of the release height compared to the building height. Since the HPR source term is 3-15

not released from an elevated location higher than the building, the model assumes that downwash entrains the plume in the building wake regardless of other factors.

Figure 3-17 Comparison of Peak Dose Using Two Plume Trapping Models and Two Methods for Calculating Buoyancy Flux for Radial Intervals within 40 km (25 mi).

The original trapping model (TDWMOD=BRGFLX) uses the buoyancy flux of the plume and the building height to calculate a critical windspeed. When the actual windspeed is less than the critical windspeed, the model assumes liftoff can occur. Figure 3-18 shows the distribution of windspeeds used in this analysis.

Windspeed Probability Distribution 0.1 0.08 0.06 0.04 0.02 0 0.2 0.3 0.4 0.5 0.6 0.7 0.8 0.9 1.0 1.1 1.2 1.3 1.4 1.5 1.6 1.7 1.8 1.9 2.0 2.1 2.2 2.3 2.4 2.5 2.6 2.7 2.8 2.9 3.0 3.1 3.2 3.3 3.4 3.5 3.6 3.7 3.8 3.9 4.0 4.1 4.2 4.3 4.4 4.5 4.6 4.7 4.8 4.9 5.0 +

Windspeed (m/s)

Figure 3-18 Distribution of Hourly Windspeeds at Sequoyah Nuclear Plant in 2012.

3-16

Because there is a distribution of potential windspeeds, a buoyant plume will typically achieve liftoff sometimes. However, in the case of the HPR TOP source term, there is likely never enough plume buoyancy to achieve liftoff, even for very low windspeeds.

To determine how close the HPR TOP source term is to achieving liftoff using the buoyancy flux method, the analysis evaluated the critical windspeed of the plume. MACCS calculates the critical windspeed, , as follows:

1

= ( )

9.09 3

(3-1) where is the critical windspeed (m/s) is the height (m) of the building from which the plume escapes (BUILDH)

F is the buoyancy flux (m4/s3) of the plume segment There are two models to calculate the buoyancy flux. The Power Model uses the sensible heat release rate of a plume segment. The buoyancy flux F is related to the sensible heat release rate according to the following formula:

= (3-2) where F is the buoyancy flux (m4/s3) of the plume segment is acceleration due to gravity (9.8 m/s2) is specific heat of air at constant pressure at ambient temperature and pressure (1.005 kJ/kg-K) is density of air at ambient temperature and pressure (1.178 kg/m3) is ambient temperature (300 Kelvin) is sensible heat release rate (watts) of a plume segment, as given by the parameter PLHEAT The Density and Flow Model instead uses the density and mass flow rate of the plume segment to determine the buoyancy flux using the following formula:

=

[ 1 ]

(3-3) 3-17

where is the density of the plume segment (kg/m3), as given by the parameter PLMDEN is the mass flow rate of the plume segment (kg/s), as given by the parameter PLMFLO and are the same as before The two methods produce significantly different buoyancy fluxes using the plume segment data for the HPR TOP scenario. Plume segment 4, which produces the highest buoyancy values using either method, has a sensible heat release rate of 2.85E+03 joules per second (J/s)

(9,720 British thermal units per hour), a mass flow rate of 7.04E-04 kg/s (1.55E-03 lb/hr), and a density of 1.146 kg/m3 (0.0715 lb/ft3). When manually replicating the buoyancy calculations, this results in a buoyancy flux of 2.51E-02 m4/s3 (2.91 ft4/s3) and a critical windspeed of 0.29 m/s (0.95 ft/s) using the Power model (PLMMOD=HEAT), and a buoyancy flux of 5.27E-05 m4/s3 (6.10E-03 ft4/s3) and a critical windspeed of 0.037 m/s (0.12 ft/s) using the Density and Flow model (PLMMOD=DENSITY). Both models predict that plume liftoff essentially never occurs for any windspeed in this analysis, which explains why the HPR TOP scenario results are the same regardless of the plume trapping model and the method of calculating plume buoyancy.

However, it appears the Power model with a top critical windspeed of 0.29 m/s (0.95 ft/s) is close to predicting buoyant plume rise for very low windspeed conditions, whereas the Density and Flow model is not. The discrepancy between these two methods is not currently well understood. It is also unclear which model is more appropriate, given that the two are expected to produce similar results. The models should be further investigated to understand if this is cause for concern.

3.5 Sensitivity Analysis of Release Timing MACCS assumes that reactor shutdown occurs at the beginning of an accident scenario. At this time, MACCS begins calculating decay and ingrowth using the core inventory data provided as input. However, the TOP scenario is uncommon in that shutdown does not immediately occur.

Instead, the reactor is postulated to operate for roughly an hour when the reactor power level steadily increases. This presents a few issues in computing offsite consequences:

Since reactor shutdown does not immediately occur, the time between reactor shutdown and the start of release is shorter.

The calculation of the core inventory assumes steady-state operation. If the reactor power level changes, it may not fully represent the new composition from the shift in fission rate before shutdown.

Release can begin before reactor shutdown. MACCS is designed only to calculate decay and ingrowth from a core inventory given at a fixed time. It does not model production of fission and activation products during release.

While the second two items may be ongoing challenges, a sensitivity analysis may help address the first item. A shorter time between shutdown and release means less time for decay and ingrowth before release.

To better understand how earlier and later release times affect the projected dose, this analysis conducted a sensitivity analysis shifting the release time by -0.94, 0, 1, 2, 4, 8, 24, and 96 hours0.00111 days 0.0267 hours 1.587302e-4 weeks 3.6528e-5 months . The base case used for this sensitivity is the main analysis discussed in section 3.1 ,

3-18

which uses the new HPR inventory list. Because the first plume segment of the base case (0 hours0 days 0 hours 0 weeks 0 months ) has a release start time of 0.94 hours0.00109 days 0.0261 hours 1.554233e-4 weeks 3.5767e-5 months , a shift of -0.94 hours0.00109 days 0.0261 hours 1.554233e-4 weeks 3.5767e-5 months sensitivity represents an immediate release. Likewise, a change of 96 hours0.00111 days 0.0267 hours 1.587302e-4 weeks 3.6528e-5 months represents a delayed release of 4 days. For each realization, the analysis shifted the release of all plume segments by the same period, not just the first plume segment. The analysis also shifted the length of the 7-day early phase by the same amount so that the exposure period starting from the first plume segment release would remain the same, and the only change would be due to the amount of decay and ingrowth.

Figure 3-19 compares the peak dose of the release time sensitivities relative to the base case scenario. Despite a shift in the release time by up to 4 days, the projected dose remained within about 6 percent. However, nearly half of this range (3 percent) can be attributed to a change in release start time of just 3 hours3.472222e-5 days 8.333333e-4 hours 4.960317e-6 weeks 1.1415e-6 months (i.e., from -0.94 to 2 hours2.314815e-5 days 5.555556e-4 hours 3.306878e-6 weeks 7.61e-7 months ). This shows that the impact of a release timing that may occur in the first few hours is relatively important, but still limited.

However, this has the potential to increase with the consideration of more radionuclides. During the evaluation process to create the HPR radionuclide list, radionuclides with half-lives less than 1 hour1.157407e-5 days 2.777778e-4 hours 1.653439e-6 weeks 3.805e-7 months were screened out. These short-lived radionuclides may affect accident scenarios with exposures in these short timeframes, although it is unclear how much.

Figure 3-19 Ratio of Peak Dose Compared to the Base Case (0 hours0 days 0 hours 0 weeks 0 months ) for Various Time Shifts in the Release.

3-19

4 CONCLUSIONS This report documents the MACCS analysis of an example HPR source term from a TOP accident scenario. The example MELCOR demonstration calculations were performed to assess MELCORs ability to simulate accidents for non-LWRs and enable dialogue with stakeholders. The project included adding models (e.g., a heat pipe model) to extend MELCOR to non-LWRs and performing example MELCOR calculations for publicly available non-LWR conceptual designs. The MELCOR calculations are considered example calculations because they include assumptions regarding certain plant features selected solely to demonstrate MELCOR modeling capabilities. Because the staff used an example atmospheric release from the MELCOR demonstration project as input to MACCS, the radiological consequence results from MACCS are considered example results and are not intended to reflect realistic radiological consequences for an actual non-LWR.

The results of this evaluation indicate that the projected offsite dose consequences from the example HPR TOP source term are expected to be very small compared to consequences from typical large LWR severe accident scenarios. The projected doses are anticipated to remain below the 1 to 5 rem (10 to 50 mSv) emergency phase PAG regardless of weather conditions and below dose thresholds for early fatalities. In the long-term phase, protective actions on farmland and relocation in populated areas are expected to remain within 0.1 km (0.06 mi) of the release location, and there may no need for these actions when weather conditions are favorable.

Variations in the example HPR TOP source term could change these results. The MELCOR analysis truncated the release at 24 hours2.777778e-4 days 0.00667 hours 3.968254e-5 weeks 9.132e-6 months in part because that time is sufficient to produce a release thats useful for code demonstration purposes. The release rate at 24 hours2.777778e-4 days 0.00667 hours 3.968254e-5 weeks 9.132e-6 months indicates it would be expected to continue. However, since release in the first 24 hours2.777778e-4 days 0.00667 hours 3.968254e-5 weeks 9.132e-6 months is small, the use of a source term extending past this time likely would not drastically change the results. On the other hand, sensitivity calculations from the MELCOR analysis regarding the leakage and external wind speed indicate that different accident assumptions could increase the source term by one or two orders of magnitude (see Figure 2-1). These variations would require analysis to see how significantly they could change consequence results.

The MACCS sensitivity calculations of the HPR analysis provide useful insights. The sensitivity analysis of the dose exposure period shows that most of the projected dose is attributed to ground contamination in the late phase. Nevertheless, doses from short-lived radionuclides and doses from plume passage can still be important as they can be more challenging to avert and they accumulate quickly.

MACCS does not analyze offsite consequences from every type of radionuclide in a reactor core. The sensitivity analysis of radionuclides analyzed the HPR TOP accident scenario using a set of 71 radionuclides commonly used for LWR accident scenarios and an expanded set of 104 radionuclides developed after an evaluation [20] of the HPR inventory. The sensitivity analysis indicates that the use of the expanded set of 104 radionuclides results in an increase of the projected peak dose of less than 1 percent. This indicates that the additional radionuclides included for the HPR analysis are not a significant contributor to the consequences. It is unclear if the same would be true for radionuclides important to ingestion doses, which were not evaluated by this analysis nor by the evaluation of radionuclides for the HPR inventory.

4-1

The sensitivity analysis of the MACCS nearfield models indicates that the Ramsdell and Fosmire Model tends to have more plume spread and lower peak doses. The differences between the two nearfield models based on RG 1.145 become negligible after approximately 1 km (0.62 mi) from the source location, and the differences between all the models become negligible around 40 km (25 mi).

The sensitivity analysis of the two plume trapping models and the two buoyancy calculations in MACCS shows plume rise did not occur in any combination of models. In addition, evaluation of the buoyancy flux model indicates that plume rise was not possible because there was not enough plume buoyancy from the HPR source term, even when windspeeds were very low.

The sensitivity analysis of release timing evaluated the impact of a delay between shutdown and release. The sensitivity analysis shows that the difference between an immediate release and a 3-hour delay is about 3 percent in the peak dose in the early phase. The difference between an immediate release and a 4-day delay is roughly a 6 percent change in the peak dose.

The MELCOR HPR analysis indicates that fission and plume release occur simultaneously for a brief time. This is negligible in the TOP scenario because the overlap is very brief. However, this highlights a potential limitation in modeling reactivity-initiated accidents in MACCS, as MACCS is not designed for scenarios in which the production of fission products and release occur simultaneously. This may also be important in variations of the TOP scenario and other advanced reactor designs. For instance, high-temperature gas reactors intend to achieve passive safety without reactor shutdown by allowing the reactor temperatures to increase to a point where the fission rate decreases. Reactor shutdown does not immediately occur in this scenario, making this a potentially challenging scenario to analyze in MACCS if there is a release and may require additional research to assess whether additional MACCS enhancements are appropriate.

The MACCS demonstration confirms that the MACCS code is flexible in analyzing the offsite consequences of an example postulated heat-pipe reactor accident release. Many aspects, such as reactivity-initiated events, new reactor inventory compositions, and transformation of radionuclide physical and chemical forms, are anticipated to present difficulties in analyzing advanced reactor accident scenarios. Nevertheless, these are also limitations in analyzing LWR accident scenarios. While new reactor designs present new challenges, they may not differ fundamentally from those in previous analyses.

This report identifies a candidate for future research in continuing to demonstrate MACCS capabilities using as input the core radionuclide inventory and atmospheric release from the example SCALE and MELCOR demonstration calculations. Even though accident source terms of non-LWR reference designs can be very small relative to source terms from LWR severe accidents, assessing the capabilities of MACCS with other novel non-LWR designs may still be useful. Additionally, source terms for non-LWR applications may be larger or smaller than the one analyzed in this project. It may also be useful to establish a measure below which releases are not expected to require protective actions or below which public consequences are limited.

Future projects may include sensitivity analyses of core scaling as a measure of safety margin before certain important break points are reached. These safety margin evaluations could illustrate how much extra release is required before the accident reaches certain levels, such as the potential to induce early fatalities, to exceed a dose limit, or to trigger relocation at a given distance from the release.

4-2

This report also identifies a candidate for future research in continuing the evaluation of radionuclides in non-LWR inventories important to dose and expanding these evaluations to include ingestion doses. This evaluation would also serve as a verification of the current list of radionuclides considered in the ingestion models for LWR applications. Recent work has established a process for evaluating radionuclides in a non-LWR core inventory that are important to doses from inhalation, groundshine, and cloudshine. However, a similar process is not available for ingestion doses. Furthermore, food interdiction limits tend to occur at lower concentrations than other protective actions. This indicates that there is less safety margin before an accident requires extensive food interdiction. Therefore, the radionuclides important to food doses may be relatively important.

This report identifies a candidate for future research in including both food interdiction limits and cleanup limits in safety margin analyses. Like food interdiction limits, a cleanup limit for contaminated areas likely has less safety margin than other protective actions. For this reason, a sensitivity analysis of the potential cleanup limit may be important to understand the safety margin and the potential extent of decontamination.

This report also identifies a candidate for future research in developing a method to analyze or conservatively bound accidents with simultaneous release and fission. The HPR TOP scenario has illustrated that reactivity-initiated accidents may be challenging to analyze in MACCS.

Finally, the report identifies a candidate for future research in developing methods to analyze or conservatively bound the impact of additional radionuclide chemical and physical forms and how they may transform in the environment. MACCS currently assumes that radionuclide aerosols are released as oxides or hydroxides. Some radionuclides such as tritium may have different release forms or may change forms in the environment. The HPR tritium inventory is very small, and therefore unlikely to be a concern. However, it is unclear at what point tritium inventory could be significant in an accident scenario.

4-3

5 REFERENCES

[1] A. Nosek and N. Bixler, MACCS Theory Manual, SAND2021-11535, Sandia National Laboratories, Albuquerque, New Mexico, September 2021, Agencywide Documents Access and Management System Accession No. ML22118B153.

[2] Sandia National Laboratories, MACCS (MELCOR Accident Consequence Code System) User GuideVersion 4.0, Revision 1, SAND2022-7112, Sandia National Laboratories, Albuquerque, New Mexico, May 2022.

[3] Nuclear Regulatory Commission, NRC Non-Light Water Reactor Near-Term Implementation Action Plans, July 2017, ML17165A069.

[4] E. Walker, S.E. Skutnik, W.A. Wieselquist, A. Shaw, and F. Bostelmann, SCALE Modeling of the Fast-Spectrum Heat Pipe Reactor, ORNL/TM-2021/2021, Oak Ridge National Laboratory, Oak Ridge, Tennessee, 2021, ML22158A054.

[5] K. Wagner, C. Faucett, R. Schmidt, and D. Luxat, MELCOR Accident Progression and Source Term Demonstration Calculations for a Heat Pipe Reactor, SAND2022-2745, Sandia National Laboratories, Albuquerque, New Mexico, March 2022, ML22144A188.

[6] Nuclear Regulatory Commission, Approach for Code Development in Support of NRCs Regulatory Oversight of Non-Light Water Reactors, Rev. 1, 2020, ML20030A174.

[7] Nuclear Regulatory Commission, NRC Non-Light Water Reactor (Non-LWR) Vision and Strategy, Volume 1-5, 2020-2021; ML20030A176, ML20030A177, ML20030A178, ML21085A483, ML21088A047.

[8] American Society of Mechanical Engineers & American Nuclear Society, "Standard for Radiological Accident Offsite Consequence Analysis (Level 3 PRA) to Support Nuclear Installation Applications (ASME/ANS RA-S-1.3-2017)," American Nuclear Society, La Grange Park, IL, 2017.

[9] K. McFadden and N. Bixler, MelMACCS Models Document (MELCOR to MACCS Interface Description), Draft, Sigma Software LLC, October 2016, ML22118B150.

[10] S. Weber, N. Bixler, and K. McFadden, SecPop Version 4: Sector Population, Land Fraction, and Economic Estimation ProgramUser Guide, Model Manual, and Verification Report, NUREG/CR-6525, Rev. 2, U.S. Nuclear Regulatory Commission, Washington, DC, 2019, ML19182A284.

[11] D. Chanin and M. Young, Code Manual for MACCS2: Preprocessor Codes COMIDA2, FGRDCF, IDCF2, NUREG/CR-6613, Vol. 2, U.S. Nuclear Regulatory Commission, Washington, DC, May 1998, ML17047A444.

[12] D.J. Clayton, J. Leute, N. Bixler, D. Whitener, and L. Eubanks, AniMACCS User Guide, SAND2022-0403, Sandia National Laboratories, Albuquerque, New Mexico, January 2022, ML22118B151.

[13] N. Bixler, Evaluation of Potential MACCS Model and Data Improvements Needed to Support Consequence Analyses of Advanced Reactors, U.S. Nuclear Regulatory Commission, Washington, DC, January 2018.

[14] D.J. Clayton, Implementation of Additional Models into the MACCS Code for Nearfield Consequence Analysis, SAND2021-6924, Sandia National Laboratories, Albuquerque, New Mexico, June 2021, ML21257A120.

5-1

[15] National Aeronautics and Space Administration, Kilopower [Online]. Available:

https://www.nasa.gov/directorates/spacetech/kilopower, 2021.

[16] M.A. Gibson, S.R. Oleson, D.I. Poston, and P. McClure, NASAs Kilopower Reactor Development and the Path to Higher Power Missions, 2017 IEEE Aerospace Conference, Big Sky, Montana, March 2017.

[17] P.R. McClure, D.I. Poston, V.R. Dasari, and R.S. Reid, Design of Megawatt Power Level Heat Pipe Reactors, LA-UR-15-28840, Los Alamos National Laboratory, Los Alamos, New Mexico, November 2015.

[18] J.W. Sterbentz, J.E. Werner, M.G. McKellar, A.J. Hummel, J.C. Kennedy, R.N. Wright, and J.M. Biesdorf, Special Purpose Nuclear Reactor (5 MW) for Reliable Power at Remote Sites Assessment Report, INL/EXT-16-40741, Idaho National Laboratory, Idaho Falls, Idaho, April 2017.

[19] J.W. Sterbentz, J.E. Werner, A.J. Hummel, J.C. Kennedy, R.C. OBrien, A.M. Dion, R.N. Wright, and K.P. Ananth, Preliminary Assessment of Two Alternative Core Design Concepts for the Special Purpose Reactor, INL/EXT-17-43212, Idaho National Laboratory, Idaho Falls, Idaho, May 2018.

[20] K.A. Clavier, D.J. Clayton, and C. Faucett, Quantitative Assessment for Advanced Reactor Radioisotope Screening Utilizing a Heat Pipe Reactor Inventory, SAND2022-12018, Sandia National Laboratories, Albuquerque, New Mexico, September 2022, ML22270A046.

[21] Sandia National Laboratories, Technical Bases for Consequence Analysis Using MACCS (MELCOR Accident Consequence Code System), NUREG/CR-7270, U.S. Nuclear Regulatory Commission, Washington, DC, October 2022, ML22294A091.

[22] Sandia National Laboratories, State-of-the-Art Reactor Consequence Analyses (SOARCA) Project: Sequoyah Integrated Deterministic and Uncertainty Analyses, NUREG/CR-7245, U.S. Nuclear Regulatory Commission, Washington, DC, October 2019, ML19296B786.

[23] W.G. Snell and R.W. Jubach, Technical Basis for Regulatory Guide 1.145, Atmospheric Dispersion Models for Potential Accident Consequence Assessments at Nuclear Power Plants, NUREG/CR-2260, NUS-3854, NUS Corporation, U.S. Nuclear Regulatory Commission, Washington, DC, October 1981, ML12045A197.

[24] U.S. Nuclear Regulatory Commission, Atmospheric Dispersion Models for Potential Accident Consequence Assessments at Nuclear Power Plants, Regulatory Guide 1.145, Rev. 1, U.S. Nuclear Regulatory Commission, Washington, DC, November 1982 (reissued February 1983), ML003740205.

[25] J.V. Ramsdell Jr. and C.A. Simonen, Atmospheric Relative Concentrations in Building Wakes, NUREG/CR-6331, Rev. 1, U.S. Nuclear Regulatory Commission, Washington, DC, May 1997, ML17213A190.

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APPENDIX A MACCS SETTINGSHEAT PIPE REACTOR (INL DESIGN A)

TRANSIENT OVERPOWER SCENARIO A.1 ATMOS.inp

File created using WinMACCS version 4.1.0 SVN:8280 8/23/2022 12:47:50 PM

This is an analysis for the Advanced Reactor Demonstration Project of the Heat Pipe Reactor (HPR).

Most inputs are based on the recommendations of the draft NUREG/CR-7270 (TECHNICAL BASES FOR CONSEQUENCE ANALYSES USING MACCS).

The source term in this problem is the HPR transient overpower scenario.

A uniform population density of 40 / km2 is used.

Other site specific data (economic and meteorological) represent the Sequoyah NPP site region.

Uniform site data of the Sequoyah NPP is derived from SecPop results.

Meteorological data is the 2012 Sequoyah dataset used in the SOARCA Sequoyah analysis (NUREG/CR-7245).

Form Atmos Description Comment:

ATMOS problem description.

ATNAM1, identifies this MACCS calculation RIATNAM1001 HPR Advanced Reactor Demonstration Project

Form Output Units Comment:

Units are based on typical MACCS usage.

ACTIVITY_UNITS, model results are displayed in these units UNITACTI001 Bq

DIST_UNITS, model results are displayed in these units UNITDIST001 km

AREA_UNITS, model results are displayed in these units UNITAREA001 ha

DOSE_UNITS, model results are displayed in these units UNITDOSE001 Sv

Form Spatial Grid Comment:

Grid definition of 64 sectors and distances for evaluating nearfield effects in km

Form Site File Comment:

Site file update to reflect 64 sectors and 29 intervals

NUMRAD, number of radial spatial elements GENUMRAD001 31

SPAEND, spatial endpoint distances (km)

GESPAEND001 0.1 GESPAEND002 0.2 GESPAEND003 0.3 GESPAEND004 0.4 GESPAEND005 0.5 GESPAEND006 0.6 GESPAEND007 0.7 GESPAEND008 0.8 GESPAEND009 0.9 GESPAEND010 1.

GESPAEND011 2.

A-1

GESPAEND012 5.

GESPAEND013 10.

GESPAEND014 16.09 GESPAEND015 20.

GESPAEND016 30.

GESPAEND017 32.18 GESPAEND018 40.

GESPAEND019 50.

GESPAEND020 60.

GESPAEND021 70.

GESPAEND022 80.45 GESPAEND023 90.

GESPAEND024 100.

GESPAEND025 160.9 GESPAEND026 200.

GESPAEND027 500.

GESPAEND028 804.5 GESPAEND029 1000.

GESPAEND030 1500.

GESPAEND031 1609.

NUMCOR, number of angular compass directions GENUMCOR001 64

Form Radionuclides Comment:

Place holder

Form Radionuclides Comment:

Radionuclide list is consistent with expanded HPR list based on the draft HPR radionuclide screening report.

NUMISO, number of nuclides ISNUMISO001 104

Form Chemical Names Comment:

Chemical groups are consistent with source term

Form Chemical Names Comment:

Place holder

MAXGRP, number of chemical groups ISMAXGRP001 13

GRPNAM, chemical group names ISGRPNAM001 Xe ISGRPNAM002 Cs ISGRPNAM003 Ba ISGRPNAM004 I ISGRPNAM005 Te ISGRPNAM006 Ru ISGRPNAM007 Mo ISGRPNAM008 Ce ISGRPNAM009 La ISGRPNAM010 U ISGRPNAM011 Cd ISGRPNAM012 Sn ISGRPNAM013 B

Form Property Form Parameters Comment:

Property form parameters are defined in the properties box and cannot be changed in this form.

They are reproduced here for the user A-2vacuationA-2.

MSMODL, multi source term model (TRUE, FALSE)

ISMSMODL001 .FALSE.

Form Wet/Dry Depos Flags Comment:

Deposition flags are consistent with Section 3.8 of the NUREG/CR-7270.

A-2

WETDEP, DRYDEP, wet and dry deposition flags for each nuclide group ISDEPFLA001 .FALSE. .FALSE.

ISDEPFLA002 .TRUE. .TRUE.

ISDEPFLA003 .TRUE. .TRUE.

ISDEPFLA004 .TRUE. .TRUE.

ISDEPFLA005 .TRUE. .TRUE.

ISDEPFLA006 .TRUE. .TRUE.

ISDEPFLA007 .TRUE. .TRUE.

ISDEPFLA008 .TRUE. .TRUE.

ISDEPFLA009 .TRUE. .TRUE.

ISDEPFLA010 .TRUE. .TRUE.

ISDEPFLA011 .TRUE. .TRUE.

ISDEPFLA012 .TRUE. .TRUE.

ISDEPFLA013 .TRUE. .TRUE.

NUMSTB, number of pseudostable radionuclides, always 0 ISNUMSTB001 0

Form Pseudostable Radionuclides Comment:

Psedudstable nuclides updated to be consistent with radionuclide list

NUMSTB, number of pseudostable radionuclides ISNUMSTB001 12

NAMSTB, list of pseudostable radionuclides ISNAMSTB001 I-129 ISNAMSTB002 Xe-131m ISNAMSTB003 Xe-133m ISNAMSTB004 Cs-135 ISNAMSTB005 Sm-147 ISNAMSTB006 U-235 ISNAMSTB007 U-236 ISNAMSTB008 Np-237 ISNAMSTB009 Rb-87 ISNAMSTB010 Zr-93 ISNAMSTB011 Nb-93m ISNAMSTB012 Tc-99

NUCNAM, IGROUP, chemical group associated with each nuclide ISOTPGRP001 Kr-85 1 ISOTPGRP002 Kr-85m 1 ISOTPGRP003 Kr-87 1 ISOTPGRP004 Kr-88 1 ISOTPGRP005 Xe-133 1 ISOTPGRP006 Xe-135 1 ISOTPGRP007 Xe-135m 1 ISOTPGRP008 Cs-134 2 ISOTPGRP009 Cs-136 2 ISOTPGRP010 Cs-137 2 ISOTPGRP011 Rb-86 2 ISOTPGRP012 Rb-88 2 ISOTPGRP013 Ba-139 3 ISOTPGRP014 Ba-140 3 ISOTPGRP015 Sr-89 3 ISOTPGRP016 Sr-90 3 ISOTPGRP017 Sr-91 3 ISOTPGRP018 Sr-92 3 ISOTPGRP019 Ba-137m 3 ISOTPGRP020 I-131 4 ISOTPGRP021 I-132 4 ISOTPGRP022 I-133 4 ISOTPGRP023 I-134 4 ISOTPGRP024 I-135 4 ISOTPGRP025 Te-127 5 ISOTPGRP026 Te-127m 5 ISOTPGRP027 Te-129 5 A-3

ISOTPGRP028 Te-129m 5 ISOTPGRP029 Te-131m 5 ISOTPGRP030 Te-132 5 ISOTPGRP031 Te-131 5 ISOTPGRP032 Rh-105 6 ISOTPGRP033 Ru-103 6 ISOTPGRP034 Ru-105 6 ISOTPGRP035 Ru-106 6 ISOTPGRP036 Rh-103m 6 ISOTPGRP037 Rh-106 6 ISOTPGRP038 Nb-95 7 ISOTPGRP039 Co-58 7 ISOTPGRP040 Co-60 7 ISOTPGRP041 Mo-99 7 ISOTPGRP042 Tc-99m 7 ISOTPGRP043 Nb-97 7 ISOTPGRP044 Nb-97m 7 ISOTPGRP045 Ce-141 8 ISOTPGRP046 Ce-143 8 ISOTPGRP047 Ce-144 8 ISOTPGRP048 Np-239 8 ISOTPGRP049 Pu-238 8 ISOTPGRP050 Pu-239 8 ISOTPGRP051 Pu-240 8 ISOTPGRP052 Pu-241 8 ISOTPGRP053 Zr-95 8 ISOTPGRP054 Zr-97 8 ISOTPGRP055 Am-241 9 ISOTPGRP056 Cm-242 9 ISOTPGRP057 Cm-244 9 ISOTPGRP058 La-140 9 ISOTPGRP059 La-141 9 ISOTPGRP060 La-142 9 ISOTPGRP061 Nd-147 9 ISOTPGRP062 Pr-143 9 ISOTPGRP063 Y-90 9 ISOTPGRP064 Y-91 9 ISOTPGRP065 Y-92 9 ISOTPGRP066 Y-93 9 ISOTPGRP067 Y-91m 9 ISOTPGRP068 Pr-144 9 ISOTPGRP069 Pr-144m 9 ISOTPGRP070 Sb-127 11 ISOTPGRP071 Sb-129 11 ISOTPGRP072 Ag-111 12 ISOTPGRP073 As-77 11 ISOTPGRP074 Cd-115 11 ISOTPGRP075 Cd-115m 11 ISOTPGRP076 Eu-154 9 ISOTPGRP077 Eu-155 9 ISOTPGRP078 Eu-156 9 ISOTPGRP079 Ge-77 12 ISOTPGRP080 Nb-95m 7 ISOTPGRP081 Nd-149 9 ISOTPGRP082 Pd-109 6 ISOTPGRP083 Pm-147 9 ISOTPGRP084 Pm-148 9 ISOTPGRP085 Pm-148m 9 ISOTPGRP086 Pm-149 9 ISOTPGRP087 Pm-151 9 ISOTPGRP088 Pr-145 9 ISOTPGRP089 Sb-125 11 ISOTPGRP090 Sm-151 9 ISOTPGRP091 Sm-153 9 ISOTPGRP092 Sm-156 9 ISOTPGRP093 Sn-121 12 A-4

ISOTPGRP094 Sn-123 12 ISOTPGRP095 Sn-125 12 ISOTPGRP096 Sn-127 12 ISOTPGRP097 Te-125m 5 ISOTPGRP098 U-234 10 ISOTPGRP099 U-237 10 ISOTPGRP100 In-115m 12 ISOTPGRP101 In-115 12 ISOTPGRP102 Th-230 8 ISOTPGRP103 Ra-226 3 ISOTPGRP104 Rn-222 1

Form Wet Deposition Comment:

Based on a median particle size of 0.736 microns derived from PSDIST.

CWASH1, washout coefficient number one, linear factor (1/s)

WDCWASH1001 1.18E-05

CWASH2, washout coefficient number two, exponential factor (1/s)

WDCWASH2001 0.664

Form Particle Size Groups Comment:

Partical size group is consistent with Table 2.9 the NUREG/CR-7270.

NPSGRP, number of particle size groups DDNPSGRP001 10

Form Dry Deposition Comment:

Deposition velocities are consistent with the NUREG/CR-7270.

VDEPOS, dry deposition velocities for each particle size group (m/sec)

DDVDEPOS001 6.5205E-04 DDVDEPOS002 5.9841E-04 DDVDEPOS003 7.8397E-04 DDVDEPOS004 0.0013218 DDVDEPOS005 0.0025854 DDVDEPOS006 0.0052893 DDVDEPOS007 0.010203 DDVDEPOS008 0.01673 DDVDEPOS009 0.020715 DDVDEPOS010 0.051507

Form Dispersion Table Comment:

Dispersion table is based on the Eimutis and Konicek approximation of Pasquill-Gifford dispersion curves.

NUM_DIST, number of entries in the dispersion lookup table NUM_DIST001 50

DISTANCE, SIGMA_Y_A, SIGMA_Z_A, downwind distances (m), A-stability dispersion table A-STB/DIS01 1. 0.366 0.192 A-STB/DIS02 1.4 0.496 0.263 A-STB/DIS03 2. 0.684 0.367 A-STB/DIS04 3. 0.987 0.537 A-STB/DIS05 4. 1.28 0.703 A-STB/DIS06 6. 1.84 1.03 A-STB/DIS07 8. 2.39 1.34 A-STB/DIS08 10. 2.93 1.66 A-STB/DIS09 14. 3.97 2.27 A-STB/DIS10 20. 5.47 3.17 A-STB/DIS11 30. 7.89 4.63 A-STB/DIS12 40. 10.2 6.06 A-STB/DIS13 60. 14.8 8.86 A-STB/DIS14 80. 19.1 11.6 A-STB/DIS15 100. 23.4 14.3 A-STB/DIS16 140. 31.7 18.9 A-5

A-STB/DIS17 200. 43.8 28.6 A-STB/DIS18 300. 63.1 51.7 A-STB/DIS19 400. 81.9 83.4 A-STB/DIS20 600. 118. 172.

A-STB/DIS21 800. 153. 294.

A-STB/DIS22 1000. 187. 448.

A-STB/DIS23 1400. 254. 920.

A-STB/DIS24 2000. 350. 1950.

A-STB/DIS25 3000. 505. 4580.

A-STB/DIS26 4000. 655. 8360.

A-STB/DIS27 6000. 945. 19600.

A-STB/DIS28 8000. 1220. 35700.

A-STB/DIS29 10000. 1500. 57000.

A-STB/DIS30 14000. 2030. 1.15000E+05 A-STB/DIS31 20000. 2800. 2.44000E+05 A-STB/DIS32 30000. 4040. 5.69000E+05 A-STB/DIS33 40000. 5240. 1.040000E+06 A-STB/DIS34 60000. 7560. 2.430000E+06 A-STB/DIS35 80000. 9800. 4.440000E+06 A-STB/DIS36 1.00000E+05 12000. 7.080000E+06 A-STB/DIS37 1.40000E+05 16200. 1.43E+07 A-STB/DIS38 2.00000E+05 22400. 3.02E+07 A-STB/DIS39 3.00000E+05 32300. 7.07E+07 A-STB/DIS40 4.00000E+05 41900. 1.29E+08 A-STB/DIS41 6.00000E+05 60500. 3.02E+08 A-STB/DIS42 8.00000E+05 78400. 5.51E+08 A-STB/DIS43 1.000000E+06 95900. 8.79E+08 A-STB/DIS44 1.400000E+06 1.30000E+05 1.78E+09 A-STB/DIS45 2.000000E+06 1.79000E+05 3.75E+09 A-STB/DIS46 3.000000E+06 2.59000E+05 8.78E+09 A-STB/DIS47 4.000000E+06 3.35000E+05 1.6E+10 A-STB/DIS48 6.000000E+06 4.84000E+05 3.75E+10 A-STB/DIS49 8.000000E+06 6.27000E+05 6.84E+10 A-STB/DIS50 1.E+07 7.67000E+05 1.09E+11

DISTANCE, SIGMA_Y_B, SIGMA_Z_B, downwind distances (m), B-stability dispersion table B-STB/DIS01 1. 0.275 0.156 B-STB/DIS02 1.4 0.373 0.213 B-STB/DIS03 2. 0.514 0.296 B-STB/DIS04 3. 0.742 0.43 B-STB/DIS05 4. 0.962 0.56 B-STB/DIS06 6. 1.39 0.814 B-STB/DIS07 8. 1.8 1.06 B-STB/DIS08 10. 2.2 1.3 B-STB/DIS09 14. 2.98 1.78 B-STB/DIS10 20. 4.12 2.47 B-STB/DIS11 30. 5.94 3.59 B-STB/DIS12 40. 7.7 4.68 B-STB/DIS13 60. 11.1 6.8 B-STB/DIS14 80. 14.4 8.87 B-STB/DIS15 100. 17.6 10.9 B-STB/DIS16 140. 23.9 14.5 B-STB/DIS17 200. 32.9 20.1 B-STB/DIS18 300. 47.5 30.1 B-STB/DIS19 400. 61.6 40.6 B-STB/DIS20 600. 88.8 62.8 B-STB/DIS21 800. 115. 86.

B-STB/DIS22 1000. 141. 110.

B-STB/DIS23 1400. 191. 159.

B-STB/DIS24 2000. 263. 234.

B-STB/DIS25 3000. 380. 364.

B-STB/DIS26 4000. 493. 498.

B-STB/DIS27 6000. 710. 776.

B-STB/DIS28 8000. 921. 1060.

B-STB/DIS29 10000. 1130. 1360.

B-STB/DIS30 14000. 1530. 1960.

A-6

B-STB/DIS31 20000. 2110. 2910.

B-STB/DIS32 30000. 3040. 4530.

B-STB/DIS33 40000. 3940. 6220.

B-STB/DIS34 60000. 5680. 9700.

B-STB/DIS35 80000. 7370. 13300.

B-STB/DIS36 1.00000E+05 9020. 17000.

B-STB/DIS37 1.40000E+05 12200. 24600.

B-STB/DIS38 2.00000E+05 16900. 36400.

B-STB/DIS39 3.00000E+05 24300. 56800.

B-STB/DIS40 4.00000E+05 31500. 77900.

B-STB/DIS41 6.00000E+05 45500. 1.22000E+05 B-STB/DIS42 8.00000E+05 59000. 1.67000E+05 B-STB/DIS43 1.000000E+06 72100. 2.13000E+05 B-STB/DIS44 1.400000E+06 97700. 3.08000E+05 B-STB/DIS45 2.000000E+06 1.35000E+05 4.56000E+05 B-STB/DIS46 3.000000E+06 1.95000E+05 7.12000E+05 B-STB/DIS47 4.000000E+06 2.52000E+05 9.76000E+05 B-STB/DIS48 6.000000E+06 3.64000E+05 1.520000E+06 B-STB/DIS49 8.000000E+06 4.72000E+05 2.090000E+06 B-STB/DIS50 1.E+07 5.77000E+05 2.670000E+06

DISTANCE, SIGMA_Y_C, SIGMA_Z_C, downwind distances (m), C-stability dispersion table C-STB/DIS01 1. 0.209 0.116 C-STB/DIS02 1.4 0.283 0.157 C-STB/DIS03 2. 0.391 0.217 C-STB/DIS04 3. 0.563 0.314 C-STB/DIS05 4. 0.731 0.407 C-STB/DIS06 6. 1.05 0.587 C-STB/DIS07 8. 1.37 0.762 C-STB/DIS08 10. 1.67 0.932 C-STB/DIS09 14. 2.26 1.26 C-STB/DIS10 20. 3.13 1.75 C-STB/DIS11 30. 4.51 2.52 C-STB/DIS12 40. 5.84 3.27 C-STB/DIS13 60. 8.43 4.72 C-STB/DIS14 80. 10.9 6.12 C-STB/DIS15 100. 13.4 7.49 C-STB/DIS16 140. 18.1 10.2 C-STB/DIS17 200. 25. 14.1 C-STB/DIS18 300. 36.1 20.4 C-STB/DIS19 400. 46.8 26.5 C-STB/DIS20 600. 67.4 38.4 C-STB/DIS21 800. 87.4 49.9 C-STB/DIS22 1000. 107. 61.1 C-STB/DIS23 1400. 145. 83.

C-STB/DIS24 2000. 200. 115.

C-STB/DIS25 3000. 288. 166.

C-STB/DIS26 4000. 374. 216.

C-STB/DIS27 6000. 539. 313.

C-STB/DIS28 8000. 700. 406.

C-STB/DIS29 10000. 856. 498.

C-STB/DIS30 14000. 1160. 676.

C-STB/DIS31 20000. 1600. 936.

C-STB/DIS32 30000. 2310. 1350.

C-STB/DIS33 40000. 2990. 1760.

C-STB/DIS34 60000. 4320. 2550.

C-STB/DIS35 80000. 5600. 3310.

C-STB/DIS36 1.00000E+05 6850. 4060.

C-STB/DIS37 1.40000E+05 9280. 5510.

C-STB/DIS38 2.00000E+05 12800. 7630.

C-STB/DIS39 3.00000E+05 18500. 11000.

C-STB/DIS40 4.00000E+05 23900. 14300.

C-STB/DIS41 6.00000E+05 34500. 20700.

C-STB/DIS42 8.00000E+05 44800. 27000.

C-STB/DIS43 1.000000E+06 54800. 33000.

C-STB/DIS44 1.400000E+06 74200. 44900.

A-7

C-STB/DIS45 2.000000E+06 1.02000E+05 62100.

C-STB/DIS46 3.000000E+06 1.48000E+05 89900.

C-STB/DIS47 4.000000E+06 1.92000E+05 1.17000E+05 C-STB/DIS48 6.000000E+06 2.76000E+05 1.69000E+05 C-STB/DIS49 8.000000E+06 3.58000E+05 2.20000E+05 C-STB/DIS50 1.E+07 4.38000E+05 2.69000E+05

DISTANCE, SIGMA_Y_D, SIGMA_Z_D, downwind distances (m), D-stability dispersion table D-STB/DIS01 1. 0.147 0.079 D-STB/DIS02 1.4 0.199 0.106 D-STB/DIS03 2. 0.275 0.145 D-STB/DIS04 3. 0.397 0.208 D-STB/DIS05 4. 0.514 0.268 D-STB/DIS06 6. 0.742 0.383 D-STB/DIS07 8. 0.962 0.493 D-STB/DIS08 10. 1.18 0.601 D-STB/DIS09 14. 1.59 0.808 D-STB/DIS10 20. 2.2 1.11 D-STB/DIS11 30. 3.17 1.58 D-STB/DIS12 40. 4.12 2.04 D-STB/DIS13 60. 5.94 2.91 D-STB/DIS14 80. 7.7 3.75 D-STB/DIS15 100. 9.41 4.57 D-STB/DIS16 140. 12.8 6.29 D-STB/DIS17 200. 17.6 8.64 D-STB/DIS18 300. 25.4 12.2 D-STB/DIS19 400. 32.9 15.4 D-STB/DIS20 600. 47.5 21.2 D-STB/DIS21 800. 61.6 26.6 D-STB/DIS22 1000. 75.3 31.5 D-STB/DIS23 1400. 102. 39.9 D-STB/DIS24 2000. 141. 50.6 D-STB/DIS25 3000. 203. 65.4 D-STB/DIS26 4000. 263. 78.

D-STB/DIS27 6000. 380. 99.2 D-STB/DIS28 8000. 493. 117.

D-STB/DIS29 10000. 603. 133.

D-STB/DIS30 14000. 817. 161.

D-STB/DIS31 20000. 1130. 196.

D-STB/DIS32 30000. 1630. 244.

D-STB/DIS33 40000. 2110. 286.

D-STB/DIS34 60000. 3040. 355.

D-STB/DIS35 80000. 3940. 414.

D-STB/DIS36 1.00000E+05 4820. 466.

D-STB/DIS37 1.40000E+05 6530. 557.

D-STB/DIS38 2.00000E+05 9020. 672.

D-STB/DIS39 3.00000E+05 13000. 831.

D-STB/DIS40 4.00000E+05 16900. 967.

D-STB/DIS41 6.00000E+05 24300. 1190.

D-STB/DIS42 8.00000E+05 31500. 1390.

D-STB/DIS43 1.000000E+06 38600. 1560.

D-STB/DIS44 1.400000E+06 52300. 1860.

D-STB/DIS45 2.000000E+06 72100. 2230.

D-STB/DIS46 3.000000E+06 1.04000E+05 2760.

D-STB/DIS47 4.000000E+06 1.35000E+05 3200.

D-STB/DIS48 6.000000E+06 1.95000E+05 3950.

D-STB/DIS49 8.000000E+06 2.52000E+05 4580.

D-STB/DIS50 1.E+07 3.09000E+05 5140.

DISTANCE, SIGMA_Y_E, SIGMA_Z_E, downwind distances (m), E-stability dispersion table E-STB/DIS01 1. 0.105 0.063 E-STB/DIS02 1.4 0.142 0.0845 E-STB/DIS03 2. 0.196 0.115 E-STB/DIS04 3. 0.282 0.164 E-STB/DIS05 4. 0.366 0.211 E-STB/DIS06 6. 0.528 0.3 A-8

E-STB/DIS07 8. 0.684 0.385 E-STB/DIS08 10. 0.837 0.468 E-STB/DIS09 14. 1.13 0.628 E-STB/DIS10 20. 1.56 0.856 E-STB/DIS11 30. 2.26 1.22 E-STB/DIS12 40. 2.93 1.57 E-STB/DIS13 60. 4.22 2.23 E-STB/DIS14 80. 5.47 2.86 E-STB/DIS15 100. 6.69 3.48 E-STB/DIS16 140. 9.07 4.72 E-STB/DIS17 200. 12.5 6.36 E-STB/DIS18 300. 18.1 8.79 E-STB/DIS19 400. 23.4 11.

E-STB/DIS20 600. 33.8 14.8 E-STB/DIS21 800. 43.8 18.3 E-STB/DIS22 1000. 53.6 21.5 E-STB/DIS23 1400. 72.6 27.3 E-STB/DIS24 2000. 100. 34.4 E-STB/DIS25 3000. 144. 43.4 E-STB/DIS26 4000. 187. 50.5 E-STB/DIS27 6000. 270. 61.6 E-STB/DIS28 8000. 350. 70.3 E-STB/DIS29 10000. 428. 77.7 E-STB/DIS30 14000. 581. 89.8 E-STB/DIS31 20000. 801. 104.

E-STB/DIS32 30000. 1160. 122.

E-STB/DIS33 40000. 1500. 136.

E-STB/DIS34 60000. 2160. 159.

E-STB/DIS35 80000. 2800. 177.

E-STB/DIS36 1.00000E+05 3430. 191.

E-STB/DIS37 1.40000E+05 4650. 216.

E-STB/DIS38 2.00000E+05 6410. 245.

E-STB/DIS39 3.00000E+05 9250. 281.

E-STB/DIS40 4.00000E+05 12000. 310.

E-STB/DIS41 6.00000E+05 17300. 355.

E-STB/DIS42 8.00000E+05 22400. 391.

E-STB/DIS43 1.000000E+06 27400. 421.

E-STB/DIS44 1.400000E+06 37200. 470.

E-STB/DIS45 2.000000E+06 51300. 528.

E-STB/DIS46 3.000000E+06 74000. 602.

E-STB/DIS47 4.000000E+06 95900. 660.

E-STB/DIS48 6.000000E+06 1.38000E+05 752.

E-STB/DIS49 8.000000E+06 1.79000E+05 824.

E-STB/DIS50 1.E+07 2.19000E+05 884.

DISTANCE, SIGMA_Y_F, SIGMA_Z_F, downwind distances (m), F-stability dispersion table F-STB/DIS01 1. 0.0722 0.053 F-STB/DIS02 1.4 0.0978 0.0697 F-STB/DIS03 2. 0.135 0.0932 F-STB/DIS04 3. 0.195 0.13 F-STB/DIS05 4. 0.252 0.164 F-STB/DIS06 6. 0.364 0.228 F-STB/DIS07 8. 0.472 0.288 F-STB/DIS08 10. 0.578 0.345 F-STB/DIS09 14. 0.783 0.454 F-STB/DIS10 20. 1.08 0.607 F-STB/DIS11 30. 1.56 0.845 F-STB/DIS12 40. 2.02 1.07 F-STB/DIS13 60. 2.91 1.48 F-STB/DIS14 80. 3.78 1.88 F-STB/DIS15 100. 4.62 2.25 F-STB/DIS16 140. 6.26 2.98 F-STB/DIS17 200. 8.64 3.99 F-STB/DIS18 300. 12.5 5.51 F-STB/DIS19 400. 16.2 6.89 F-STB/DIS20 600. 23.3 9.43 A-9

F-STB/DIS21 800. 30.2 11.7 F-STB/DIS22 1000. 37. 13.9 F-STB/DIS23 1400. 50.1 17.9 F-STB/DIS24 2000. 69.1 22.3 F-STB/DIS25 3000. 99.7 27.7 F-STB/DIS26 4000. 129. 31.7 F-STB/DIS27 6000. 186. 37.8 F-STB/DIS28 8000. 242. 42.4 F-STB/DIS29 10000. 296. 46.1 F-STB/DIS30 14000. 401. 52.

F-STB/DIS31 20000. 553. 58.7 F-STB/DIS32 30000. 798. 66.8 F-STB/DIS33 40000. 1030. 73.

F-STB/DIS34 60000. 1490. 82.2 F-STB/DIS35 80000. 1930. 89.1 F-STB/DIS36 1.00000E+05 2370. 94.8 F-STB/DIS37 1.40000E+05 3210. 104.

F-STB/DIS38 2.00000E+05 4420. 114.

F-STB/DIS39 3.00000E+05 6380. 126.

F-STB/DIS40 4.00000E+05 8270. 135.

F-STB/DIS41 6.00000E+05 11900. 149.

F-STB/DIS42 8.00000E+05 15500. 160.

F-STB/DIS43 1.000000E+06 18900. 168.

F-STB/DIS44 1.400000E+06 25700. 182.

F-STB/DIS45 2.000000E+06 35400. 197.

F-STB/DIS46 3.000000E+06 51100. 216.

F-STB/DIS47 4.000000E+06 66200. 230.

F-STB/DIS48 6.000000E+06 95500. 251.

F-STB/DIS49 8.000000E+06 1.24000E+05 267.

F-STB/DIS50 1.E+07 1.51000E+05 280.

Form Scaling Factors Comment:

Scaling factors are assigned consistent with Section 3.6 of the NUREG/CR-7270.

YSCALE, linear scaling factor for sigma-y DPYSCALE001 1.

ZSCALE, linear scaling factor for sigma-z DPZSCALE001 1.67

DISPMD, dispersion long-range model DPDISPMD001 LRTIME

Form Long-Range Parameters Comment:

Long range dispersion parameters are consistent with Section 3.6.2 of the NUREG/CR-7270.

CYDIST, distance for switching to long-range dispersion model (m)

DPCYDIST001 30000.

CYCOEF coefficient for crosswind dispersion (m/s)

DPCYCOEF001 0.5

MNDMOD, plume meander model (OLD, NEW, OFF, RAF)

PMMNDMOD001 NEW

Form US NRC Reg. Guide 1.145 Meander Comment:

These values are consistent with Regulatory Guide 1.145.

WINSP1, wind speed where the meander factor changes from constant to decreasing(m/s)

PMWINSP1001 2.

WINSP2, wind speed where the meander factor reaches one (m/s)

PMWINSP2001 6.

MNDIST, distance where the effect of meander begins to diminish (m)

PMMNDIST001 800.

A-10

MNDFAC, plume meander factor used to calculate sigma-y PMMNDFAC001 1.

PMMNDFAC002 1.

PMMNDFAC003 1.

PMMNDFAC004 2.

PMMNDFAC005 3.

PMMNDFAC006 4.

Form Plume Rise Scale Factor Comment:

Scaling factors are typically set to unity.

SCLCRW, scaling factor for entrainment of buoyant plume PRSCLCRW001 1.

SCLADP, scaling factor for the A through D stability plume rise formula PRSCLADP001 1.

SCLEFP, scaling factor for the E through F stability plume rise formula PRSCLEFP001 1.

Form Building Height Data Comment:

Values set based on the height of the structure from which it was released.

BUILDH, building height (m)

WEBUILDH001 9.15 WEBUILDH002 9.15 WEBUILDH003 9.15 WEBUILDH004 9.15 WEBUILDH005 9.15 WEBUILDH006 9.15 WEBUILDH007 9.15 WEBUILDH008 9.15 WEBUILDH009 9.15 WEBUILDH010 9.15 WEBUILDH011 9.15 WEBUILDH012 9.15 WEBUILDH013 9.15 WEBUILDH014 9.15 WEBUILDH015 9.15 WEBUILDH016 9.15 WEBUILDH017 9.15 WEBUILDH018 9.15 WEBUILDH019 9.15 WEBUILDH020 9.15 WEBUILDH021 9.15 WEBUILDH022 9.15 WEBUILDH023 9.15 WEBUILDH024 9.15 WEBUILDH025 9.15 WEBUILDH026 9.15 WEBUILDH027 9.15 WEBUILDH028 9.15

ATNAM2, source term description RDATNAM2001 Source term from HPR MELCOR analysis of the transient overpower (TOP) scenario

Form Plume Parameters Comment:

One hour plume segments have been defined for risk significant plume segments using MelMACCS.

NUMREL, number of plumes RDNUMREL001 28

Form Plume of Maximum Risk Comment:

MAXRIS usually corresponds to the first large spike in the release fraction of a key chemical group, such as iodine.

A-11

MAXRIS, index of risk-dominant plume segment RDMAXRIS001 6

REFTIM, representative time point for dispersion and radioactive decay RDREFTIM001 0.

RDREFTIM002 0.5 RDREFTIM003 0.5 RDREFTIM004 0.5 RDREFTIM005 0.5 RDREFTIM006 0.5 RDREFTIM007 0.5 RDREFTIM008 0.5 RDREFTIM009 0.5 RDREFTIM010 0.5 RDREFTIM011 0.5 RDREFTIM012 0.5 RDREFTIM013 0.5 RDREFTIM014 0.5 RDREFTIM015 0.5 RDREFTIM016 0.5 RDREFTIM017 0.5 RDREFTIM018 0.5 RDREFTIM019 0.5 RDREFTIM020 0.5 RDREFTIM021 0.5 RDREFTIM022 0.5 RDREFTIM023 0.5 RDREFTIM024 0.5 RDREFTIM025 0.5 RDREFTIM026 0.5 RDREFTIM027 0.5 RDREFTIM028 0.5

plume rise model set to DENSITY (DENSITY, HEAT)

RDPLMMOD001 DENSITY

Form Density and Flow Comment:

One hour plume segments have been defined using MelMACCS.

PLMFLA, mass flow rate for a plume segment (kg/s)

RDPLMFLA001 3.299E-04 RDPLMFLA002 5.1721E-04 RDPLMFLA003 2.1689E-04 RDPLMFLA004 7.0363E-04 RDPLMFLA005 3.6347E-05 RDPLMFLA006 6.6841E-04 RDPLMFLA007 1.E-06 RDPLMFLA008 6.5058E-04 RDPLMFLA009 6.3073E-04 RDPLMFLA010 6.1847E-04 RDPLMFLA011 6.1271E-04 RDPLMFLA012 6.1048E-04 RDPLMFLA013 6.1003E-04 RDPLMFLA014 6.0996E-04 RDPLMFLA015 6.0981E-04 RDPLMFLA016 6.0956E-04 RDPLMFLA017 6.091E-04 RDPLMFLA018 6.0834E-04 RDPLMFLA019 6.0742E-04 RDPLMFLA020 6.0623E-04 RDPLMFLA021 6.0503E-04 RDPLMFLA022 6.0373E-04 RDPLMFLA023 6.0243E-04 RDPLMFLA024 6.0128E-04 RDPLMFLA025 5.9986E-04 A-12

RDPLMFLA026 5.9866E-04 RDPLMFLA027 5.9753E-04 RDPLMFLA028 5.969E-04

PLMDEN, average gas density for a plume segment (kg/m3)

RDPLMDEN001 1.1436 RDPLMDEN002 1.1444 RDPLMDEN003 1.1457 RDPLMDEN004 1.1456 RDPLMDEN005 1.1452 RDPLMDEN006 1.1451 RDPLMDEN007 1.1449 RDPLMDEN008 1.1447 RDPLMDEN009 1.1444 RDPLMDEN010 1.1441 RDPLMDEN011 1.1439 RDPLMDEN012 1.1436 RDPLMDEN013 1.1434 RDPLMDEN014 1.1432 RDPLMDEN015 1.143 RDPLMDEN016 1.1428 RDPLMDEN017 1.1426 RDPLMDEN018 1.1424 RDPLMDEN019 1.1422 RDPLMDEN020 1.142 RDPLMDEN021 1.1418 RDPLMDEN022 1.1417 RDPLMDEN023 1.1415 RDPLMDEN024 1.1413 RDPLMDEN025 1.1412 RDPLMDEN026 1.141 RDPLMDEN027 1.1409 RDPLMDEN028 1.1408

BRGSMD, Briggs plume rise model (ORIGINAL, IMPROVED)

RDBRGSMD001 IMPROVED

PLHITE, height of each plume segment at release (m)

RDPLHITE001 5.15 RDPLHITE002 9.15 RDPLHITE003 5.15 RDPLHITE004 9.15 RDPLHITE005 5.15 RDPLHITE006 9.15 RDPLHITE007 5.15 RDPLHITE008 9.15 RDPLHITE009 9.15 RDPLHITE010 9.15 RDPLHITE011 9.15 RDPLHITE012 9.15 RDPLHITE013 9.15 RDPLHITE014 9.15 RDPLHITE015 9.15 RDPLHITE016 9.15 RDPLHITE017 9.15 RDPLHITE018 9.15 RDPLHITE019 9.15 RDPLHITE020 9.15 RDPLHITE021 9.15 RDPLHITE022 9.15 RDPLHITE023 9.15 RDPLHITE024 9.15 RDPLHITE025 9.15 RDPLHITE026 9.15 RDPLHITE027 9.15 RDPLHITE028 9.15 A-13

PLUDUR, duration of each plume segment (s)

RDPLUDUR001 3587.4 RDPLUDUR002 3587.4 RDPLUDUR003 3600.

RDPLUDUR004 3600.

RDPLUDUR005 3600.

RDPLUDUR006 3600.

RDPLUDUR007 480.

RDPLUDUR008 3600.

RDPLUDUR009 3600.

RDPLUDUR010 3600.

RDPLUDUR011 3600.

RDPLUDUR012 3600.

RDPLUDUR013 3600.

RDPLUDUR014 3600.

RDPLUDUR015 3600.

RDPLUDUR016 3600.

RDPLUDUR017 3600.

RDPLUDUR018 3600.

RDPLUDUR019 3600.

RDPLUDUR020 3600.

RDPLUDUR021 3600.

RDPLUDUR022 3600.

RDPLUDUR023 3600.

RDPLUDUR024 3600.

RDPLUDUR025 3600.

RDPLUDUR026 3600.

RDPLUDUR027 3600.

RDPLUDUR028 240.

PDELAY, start time of each plume segment from accident initiation (s)

RDPDELAY001 3372.7 RDPDELAY002 3372.7 RDPDELAY003 6960.

RDPDELAY004 6960.

RDPDELAY005 10560.

RDPDELAY006 10560.

RDPDELAY007 14160.

RDPDELAY008 14160.

RDPDELAY009 17760.

RDPDELAY010 21360.

RDPDELAY011 24960.

RDPDELAY012 28560.

RDPDELAY013 32160.

RDPDELAY014 35760.

RDPDELAY015 39360.

RDPDELAY016 42960.

RDPDELAY017 46560.

RDPDELAY018 50160.

RDPDELAY019 53760.

RDPDELAY020 57360.

RDPDELAY021 60960.

RDPDELAY022 64560.

RDPDELAY023 68160.

RDPDELAY024 71760.

RDPDELAY025 75360.

RDPDELAY026 78960.

RDPDELAY027 82560.

RDPDELAY028 86160.

Form Particle Size Distribution Comment:

Partical size distribution computed by MelMACCS.

PSDIST, particle size distribution of each element group RDPSDIST001 0.1 0.1 0.1 0.1 0.1 0.1 0.1 0.1 0.1 0.1 A-14

RDPSDIST002 1. 0. 0. 0. 0. 0. 0. 0. 0. 0.

RDPSDIST003 1. 0. 0. 0. 0. 0. 0. 0. 0. 0.

RDPSDIST004 1. 0. 0. 0. 0. 0. 0. 0. 0. 0.

RDPSDIST005 1. 0. 0. 0. 0. 0. 0. 0. 0. 0.

RDPSDIST006 1. 0. 0. 0. 0. 0. 0. 0. 0. 0.

RDPSDIST007 1. 0. 0. 0. 0. 0. 0. 0. 0. 0.

RDPSDIST008 1. 0. 0. 0. 0. 0. 0. 0. 0. 0.

RDPSDIST009 1. 0. 0. 0. 0. 0. 0. 0. 0. 0.

RDPSDIST010 1. 0. 0. 0. 0. 0. 0. 0. 0. 0.

RDPSDIST011 1. 0. 0. 0. 0. 0. 0. 0. 0. 0.

RDPSDIST012 1. 0. 0. 0. 0. 0. 0. 0. 0. 0.

RDPSDIST013 0.1 0.1 0.1 0.1 0.1 0.1 0.1 0.1 0.1 0.1

CORINV, inventory of each radionuclide present at the time of accident initiation (Bq)

RDCORINV001 Kr-85 1.1691E+14 RDCORINV002 Kr-85m 1.9459E+15 RDCORINV003 Kr-87 3.8162E+15 RDCORINV004 Kr-88 5.233E+15 RDCORINV005 Xe-133 1.0411E+16 RDCORINV006 Xe-135 1.0209E+16 RDCORINV007 Xe-135m 1.8497E+15 RDCORINV008 Cs-134 1.24E+13 RDCORINV009 Cs-136 1.7619E+13 RDCORINV010 Cs-137 1.0444E+15 RDCORINV011 Rb-86 1.4908E+12 RDCORINV012 Rb-88 5.2731E+15 RDCORINV013 Ba-139 9.8213E+15 RDCORINV014 Ba-140 9.5172E+15 RDCORINV015 Sr-89 6.957E+15 RDCORINV016 Sr-90 9.6366E+14 RDCORINV017 Sr-91 8.7223E+15 RDCORINV018 Sr-92 8.9274E+15 RDCORINV019 Ba-137m 9.8928E+14 RDCORINV020 I-131 4.6425E+15 RDCORINV021 I-132 6.9743E+15 RDCORINV022 I-133 1.0362E+16 RDCORINV023 I-134 1.2067E+16 RDCORINV024 I-135 9.8654E+15 RDCORINV025 Te-127 2.9981E+14 RDCORINV026 Te-127m 4.835E+13 RDCORINV027 Te-129 9.5035E+14 RDCORINV028 Te-129m 1.6589E+14 RDCORINV029 Te-131m 6.2486E+14 RDCORINV030 Te-132 6.8953E+15 RDCORINV031 Te-131 4.1801E+15 RDCORINV032 Rh-105 1.9973E+15 RDCORINV033 Ru-103 5.2929E+15 RDCORINV034 Ru-105 2.0692E+15 RDCORINV035 Ru-106 9.743E+14 RDCORINV036 Rh-103m 5.2354E+15 RDCORINV037 Rh-106 9.7435E+14 RDCORINV038 Nb-95 9.8495E+15 RDCORINV039 Co-58 0.

RDCORINV040 Co-60 0.

RDCORINV041 Mo-99 9.4597E+15 RDCORINV042 Tc-99m 8.4709E+15 RDCORINV043 Nb-97 9.2447E+15 RDCORINV044 Nb-97m 8.7739E+15 RDCORINV045 Ce-141 8.9956E+15 RDCORINV046 Ce-143 8.9807E+15 RDCORINV047 Ce-144 8.2266E+15 RDCORINV048 Np-239 7.6711E+16 RDCORINV049 Pu-238 9.3667E+10 RDCORINV050 Pu-239 1.0932E+13 RDCORINV051 Pu-240 5.4714E+10 RDCORINV052 Pu-241 1.0737E+11 A-15

RDCORINV053 Zr-95 9.8547E+15 RDCORINV054 Zr-97 9.2281E+15 RDCORINV055 Am-241 2.1863E+08 RDCORINV056 Cm-242 3.6011E+08 RDCORINV057 Cm-244 3916.5 RDCORINV058 La-140 9.5253E+15 RDCORINV059 La-141 9.0176E+15 RDCORINV060 La-142 8.8054E+15 RDCORINV061 Nd-147 3.5134E+15 RDCORINV062 Pr-143 8.9964E+15 RDCORINV063 Y-90 9.6248E+14 RDCORINV064 Y-91 8.6985E+15 RDCORINV065 Y-92 9.0098E+15 RDCORINV066 Y-93 9.584699E+15 RDCORINV067 Y-91m 5.1321E+15 RDCORINV068 Pr-144 8.2269E+15 RDCORINV069 Pr-144m 7.8618E+13 RDCORINV070 Sb-127 2.9214E+14 RDCORINV071 Sb-129 9.9663E+14 RDCORINV072 Ag-111 5.3718E+13 RDCORINV073 As-77 1.6361E+13 RDCORINV074 Cd-115 3.5822E+13 RDCORINV075 Cd-115m 2.1272E+12 RDCORINV076 Eu-154 6.4342E+11 RDCORINV077 Eu-155 3.5986E+13 RDCORINV078 Eu-156 3.5653E+13 RDCORINV079 Ge-77 1.7524E+13 RDCORINV080 Nb-95m 1.0648E+14 RDCORINV081 Nd-149 1.7575E+15 RDCORINV082 Pd-109 1.1571E+14 RDCORINV083 Pm-147 2.5593E+15 RDCORINV084 Pm-148 7.4819E+12 RDCORINV085 Pm-148m 6.209E+12 RDCORINV086 Pm-149 1.7379E+15 RDCORINV087 Pm-151 7.114E+14 RDCORINV088 Pr-145 6.0406E+15 RDCORINV089 Sb-125 5.4589E+13 RDCORINV090 Sm-151 2.663E+13 RDCORINV091 Sm-153 2.9258E+14 RDCORINV092 Sm-156 3.5372E+13 RDCORINV093 Sn-121 3.6275E+13 RDCORINV094 Sn-123 2.7937E+12 RDCORINV095 Sn-125 2.5928E+13 RDCORINV096 Sn-127 1.7085E+14 RDCORINV097 Te-125m 1.2297E+13 RDCORINV098 U-234 1.5721E+12 RDCORINV099 U-237 6.2345E+14 RDCORINV100 In-115m 3.6243E+13 RDCORINV101 In-115 0.28884 RDCORINV102 Th-230 7.2342E+07 RDCORINV103 Ra-226 78329.

RDCORINV104 Rn-222 77857.

Form Inventory Scale Factor Comment:

Core inventory scaling factor is set to unity because a facility specific core inventory is defined.

CORSCA, scaling factor to adjust the core inventory RDCORSCA001 1.

Form Daughter Ingrowth Flag Comment:

Choosing PARENT means each decay product is released at the same release fraction as the chemical group of the parent radionuclide choice and is consistent with the MELCOR and MAAP codes that are often used to construct source terms A-16

APLFRC, Specifies how release fractions are applied to daughter ingrowth products (PARENT, PROGENY)

RDAPLFRC001 PARENT

Form Release Fractions Comment:

One hour plume segments have been defined using MelMACCS.

RELFRC, release fractions for each of the plume segments for each chemical group RDRELFRC001 2.1958E-07 1.8745E-07 3.2965E-11 7.741E-08 3.061E-08 7.3153E-11 5.7105E-08 9.0462E-15 7.9863E-15 2.253E-11 1.1371E-08 3.4594E-08 0.

RDRELFRC002 1.7174E-06 1.4513E-06 2.2644E-10 5.5901E-07 1.7622E-07 4.7216E-10 4.4513E-07 7.1094E-14 6.4179E-14 1.8182E-10 8.1583E-08 2.7258E-07 0.

RDRELFRC003 1.958E-06 1.6297E-06 2.3635E-10 5.9527E-07 1.7753E-07 5.2485E-10 5.0348E-07 8.1231E-14 7.369E-14 2.1267E-10 8.5892E-08 3.0943E-07 0.

RDRELFRC004 6.4796E-06 5.3694E-06 7.6682E-10 1.9378E-06 5.7597E-07 1.7409E-09 1.6617E-06 2.6891E-13 2.4404E-13 7.0791E-10 2.7866E-07 1.0218E-06 0.

RDRELFRC005 3.7838E-07 3.055E-07 3.9632E-11 1.0238E-07 2.9766E-08 1.0302E-10 9.5514E-08 1.5735E-14 1.431E-14 4.272E-11 1.44E-08 5.8926E-08 0.

RDRELFRC006 6.9683E-06 5.6244E-06 7.288E-10 1.8832E-06 5.4737E-07 1.8975E-09 1.7586E-06 2.8979E-13 2.6355E-13 7.8703E-10 2.648E-07 1.085E-06 0.

RDRELFRC007 8.2218E-10 6.6302E-10 8.582E-14 2.2186E-10 6.4446E-11 2.2382E-13 2.0736E-10 3.4179E-17 3.109E-17 9.287E-14 3.1186E-11 1.2793E-10 0.

RDRELFRC008 6.8E-06 5.4844E-06 7.0929E-10 1.834E-06 5.3272E-07 1.8521E-09 1.7151E-06 2.828E-13 2.572E-13 7.6852E-10 2.5771E-07 1.0582E-06 0.

RDRELFRC009 6.6098E-06 5.3249E-06 6.8753E-10 1.7791E-06 5.1638E-07 1.8009E-09 1.6654E-06 2.749E-13 2.5003E-13 7.4755E-10 2.498E-07 1.0276E-06 0.

RDRELFRC010 6.4977E-06 5.2277E-06 6.7403E-10 1.7455E-06 5.0625E-07 1.7708E-09 1.6352E-06 2.7024E-13 2.458E-13 7.3535E-10 2.449E-07 1.009E-06 0.

RDRELFRC011 6.4495E-06 5.1829E-06 6.676E-10 1.73E-06 5.0142E-07 1.7581E-09 1.6212E-06 2.6825E-13 2.4399E-13 7.3029E-10 2.4256E-07 1.0004E-06 0.

RDRELFRC012 6.4356E-06 5.1665E-06 6.6502E-10 1.7242E-06 4.9949E-07 1.7546E-09 1.6161E-06 2.6767E-13 2.4348E-13 7.2901E-10 2.4162E-07 9.9734E-07 0.

RDRELFRC013 6.4388E-06 5.1642E-06 6.6438E-10 1.7233E-06 4.99E-07 1.7558E-09 1.6154E-06 2.6781E-13 2.4361E-13 7.2964E-10 2.4139E-07 9.9697E-07 0.

RDRELFRC014 6.445E-06 5.1647E-06 6.6414E-10 1.7234E-06 4.9883E-07 1.7577E-09 1.6156E-06 2.6807E-13 2.4385E-13 7.3057E-10 2.413E-07 9.9711E-07 0.

RDRELFRC015 6.4491E-06 5.1638E-06 6.6381E-10 1.7232E-06 4.9858E-07 1.759E-09 1.6153E-06 2.6825E-13 2.4401E-13 7.3124E-10 2.4118E-07 9.97E-07 0.

RDRELFRC016 6.4513E-06 5.1619E-06 6.6338E-10 1.7226E-06 4.9826E-07 1.7598E-09 1.6147E-06 2.6834E-13 2.441E-13 7.3166E-10 2.4103E-07 9.9667E-07 0.

RDRELFRC017 6.4507E-06 5.1579E-06 6.6271E-10 1.7214E-06 4.9775E-07 1.7598E-09 1.6134E-06 2.6832E-13 2.4409E-13 7.3176E-10 2.4078E-07 9.9594E-07 0.

RDRELFRC018 6.4462E-06 5.1511E-06 6.617E-10 1.7193E-06 4.97E-07 1.7587E-09 1.6113E-06 2.6813E-13 2.4392E-13 7.3139E-10 2.4042E-07 9.9466E-07 0.

RDRELFRC019 6.4397E-06 5.1428E-06 6.6053E-10 1.7167E-06 4.9612E-07 1.7571E-09 1.6087E-06 2.6786E-13 2.4368E-13 7.3078E-10 2.3999E-07 9.931E-07 0.

A-17

RDRELFRC020 6.4305E-06 5.1323E-06 6.5906E-10 1.7134E-06 4.9502E-07 1.7547E-09 1.6053E-06 2.6749E-13 2.4333E-13 7.2988E-10 2.3946E-07 9.911E-07 0.

RDRELFRC021 6.4208E-06 5.1214E-06 6.5757E-10 1.71E-06 4.939E-07 1.7522E-09 1.6019E-06 2.6708E-13 2.4297E-13 7.2891E-10 2.3891E-07 9.8904E-07 0.

RDRELFRC022 6.41E-06 5.1098E-06 6.5598E-10 1.7064E-06 4.9272E-07 1.7494E-09 1.5982E-06 2.6664E-13 2.4257E-13 7.2782E-10 2.3834E-07 9.868201E-07 0.

RDRELFRC023 6.3985E-06 5.0979E-06 6.5439E-10 1.7027E-06 4.9152E-07 1.7464E-09 1.5945E-06 2.6616E-13 2.4214E-13 7.2662E-10 2.3776E-07 9.8456E-07 0.

RDRELFRC024 6.3878E-06 5.0871E-06 6.5294E-10 1.6993E-06 4.9043E-07 1.7435E-09 1.5911E-06 2.6572E-13 2.4174E-13 7.255E-10 2.3723E-07 9.825E-07 0.

RDRELFRC025 6.3743E-06 5.074E-06 6.512E-10 1.6952E-06 4.8913E-07 1.74E-09 1.587E-06 2.6516E-13 2.4123E-13 7.2407E-10 2.366E-07 9.8E-07 0.

RDRELFRC026 6.3638E-06 5.0629E-06 6.4972E-10 1.6918E-06 4.8801E-07 1.7372E-09 1.5835E-06 2.6472E-13 2.4084E-13 7.2299E-10 2.3606E-07 9.7789E-07 0.

RDRELFRC027 6.3536E-06 5.0523E-06 6.483E-10 1.6886E-06 4.8695E-07 1.7345E-09 1.5801E-06 2.643E-13 2.4045E-13 7.2193E-10 2.3555E-07 9.7587E-07 0.

RDRELFRC028 4.2317E-07 3.3643E-07 4.3169E-11 1.1245E-07 3.2424E-08 1.1553E-10 1.0522E-07 1.7604E-14 1.6015E-14 4.8088E-11 1.5684E-08 6.4983E-08 0.

NUCSCA, fraction scale factor to be applied to RELFRC (Columns: NUCNAM, IGROUP, NUCSCA)

RDNUCSCA001 Kr-85 1 1.

RDNUCSCA002 Kr-85m 1 1.

RDNUCSCA003 Kr-87 1 1.

RDNUCSCA004 Kr-88 1 1.

RDNUCSCA005 Xe-133 1 1.

RDNUCSCA006 Xe-135 1 1.

RDNUCSCA007 Xe-135m 1 1.

RDNUCSCA008 Cs-134 2 1.

RDNUCSCA009 Cs-136 2 1.

RDNUCSCA010 Cs-137 2 1.

RDNUCSCA011 Rb-86 2 1.

RDNUCSCA012 Rb-88 2 1.

RDNUCSCA013 Ba-139 3 1.

RDNUCSCA014 Ba-140 3 1.

RDNUCSCA015 Sr-89 3 1.

RDNUCSCA016 Sr-90 3 1.

RDNUCSCA017 Sr-91 3 1.

RDNUCSCA018 Sr-92 3 1.

RDNUCSCA019 Ba-137m 3 1.

RDNUCSCA020 I-131 4 1.

RDNUCSCA021 I-132 4 1.

RDNUCSCA022 I-133 4 1.

RDNUCSCA023 I-134 4 1.

RDNUCSCA024 I-135 4 1.

RDNUCSCA025 Te-127 5 1.

RDNUCSCA026 Te-127m 5 1.

RDNUCSCA027 Te-129 5 1.

RDNUCSCA028 Te-129m 5 1.

RDNUCSCA029 Te-131m 5 1.

RDNUCSCA030 Te-132 5 1.

RDNUCSCA031 Te-131 5 1.

RDNUCSCA032 Rh-105 6 1.

RDNUCSCA033 Ru-103 6 1.

RDNUCSCA034 Ru-105 6 1.

RDNUCSCA035 Ru-106 6 1.

RDNUCSCA036 Rh-103m 6 1.

RDNUCSCA037 Rh-106 6 1.

RDNUCSCA038 Nb-95 7 1.

A-18

RDNUCSCA039 Co-58 7 1.

RDNUCSCA040 Co-60 7 1.

RDNUCSCA041 Mo-99 7 1.

RDNUCSCA042 Tc-99m 7 1.

RDNUCSCA043 Nb-97 7 1.

RDNUCSCA044 Nb-97m 7 1.

RDNUCSCA045 Ce-141 8 1.

RDNUCSCA046 Ce-143 8 1.

RDNUCSCA047 Ce-144 8 1.

RDNUCSCA048 Np-239 8 1.

RDNUCSCA049 Pu-238 8 1.

RDNUCSCA050 Pu-239 8 1.

RDNUCSCA051 Pu-240 8 1.

RDNUCSCA052 Pu-241 8 1.

RDNUCSCA053 Zr-95 8 1.

RDNUCSCA054 Zr-97 8 1.

RDNUCSCA055 Am-241 9 1.

RDNUCSCA056 Cm-242 9 1.

RDNUCSCA057 Cm-244 9 1.

RDNUCSCA058 La-140 9 1.

RDNUCSCA059 La-141 9 1.

RDNUCSCA060 La-142 9 1.

RDNUCSCA061 Nd-147 9 1.

RDNUCSCA062 Pr-143 9 1.

RDNUCSCA063 Y-90 9 1.

RDNUCSCA064 Y-91 9 1.

RDNUCSCA065 Y-92 9 1.

RDNUCSCA066 Y-93 9 1.

RDNUCSCA067 Y-91m 9 1.

RDNUCSCA068 Pr-144 9 1.

RDNUCSCA069 Pr-144m 9 1.

RDNUCSCA070 Sb-127 11 1.

RDNUCSCA071 Sb-129 11 1.

RDNUCSCA072 Ag-111 12 1.

RDNUCSCA073 As-77 11 1.

RDNUCSCA074 Cd-115 11 1.

RDNUCSCA075 Cd-115m 11 1.

RDNUCSCA076 Eu-154 9 1.

RDNUCSCA077 Eu-155 9 1.

RDNUCSCA078 Eu-156 9 1.

RDNUCSCA079 Ge-77 12 1.

RDNUCSCA080 Nb-95m 7 1.

RDNUCSCA081 Nd-149 9 1.

RDNUCSCA082 Pd-109 6 1.

RDNUCSCA083 Pm-147 9 1.

RDNUCSCA084 Pm-148 9 1.

RDNUCSCA085 Pm-148m 9 1.

RDNUCSCA086 Pm-149 9 1.

RDNUCSCA087 Pm-151 9 1.

RDNUCSCA088 Pr-145 9 1.

RDNUCSCA089 Sb-125 11 1.

RDNUCSCA090 Sm-151 9 1.

RDNUCSCA091 Sm-153 9 1.

RDNUCSCA092 Sm-156 9 1.

RDNUCSCA093 Sn-121 12 1.

RDNUCSCA094 Sn-123 12 1.

RDNUCSCA095 Sn-125 12 1.

RDNUCSCA096 Sn-127 12 1.

RDNUCSCA097 Te-125m 5 1.

RDNUCSCA098 U-234 10 1.

RDNUCSCA099 U-237 10 1.

RDNUCSCA100 In-115m 12 1.

RDNUCSCA101 In-115 12 1.

RDNUCSCA102 Th-230 8 1.

RDNUCSCA103 Ra-226 3 1.

RDNUCSCA104 Rn-222 1 1.

A-19

ENDAT1, set to TRUE if only running ATMOS OCENDAT1001 .FALSE.

Form Output Control Comment:

No debugging information is requested for this problem. Cs-137 is used as a representative slowly decaying radionuclide for output data.

IDEBUG, specifies set of debug results to report OCIDEBUG001 0

NUCOUT, name of the nuclide to be listed on the dispersion listings OCNUCOUT001 Cs-137

ATDMODL, atmospheric transport model ISATDMODL01 GAUSSIAN

METCOD, meteorological sampling model (1, 2, 3, 4, or 5)

M1METCOD001 2

Form Boundary Limit Comment:

It is recommended to assign LIMSPA equal to the index of last spatial interval to avoid use of constant weather conditions if observed data from a meteorological file are available, unless a very long distance (>500 mi) calculation is being performed, in which case LIMSPA may be chosen to correspond to the interval ending at approximately 500 mi.

LIMSPA, last spatial interval for recorded weather, beyond use boundary weather M2LIMSPA001 30

Form Constant or Boundary Conditions Comment:

Boundary weather is used beyond the radius denoted by LIMSPA.

BNDMXH, boundary weather mixing layer height (m)

M2BNDMXH001 966.

IBDSTB, boundary weather stability class index M2IBDSTB001 4

BNDRAN, boundary weather rain rate (mm/hr)

M2BNDRAN001 5.

BNDWND, boundary weather wind speed (m/sec)

M2BNDWND001 5.

MAXHGT, determines mixing height model M1MAXHGT001 DAY_AND_NIGHT

Form Site Location Comment:

This value should be consistent with the site file and is used to determine the time of the sunrise and sunset for estimating the mixing height

LATITUDE, indicates degrees of site latitude (deg)

M1LATITUD01 35.22666

LONGITUDE, indicates degrees of site longitude (deg)

M1LONGITU01 -8.50912E+01

Form Rain Distances Comment:

Updated to be consistent with the radial intervals

NRNINT, number of rain distance intervals for binning M4NRNINT001 5

RNDSTS, endpoints of the rain distance intervals (km)

M4RNDSTS001 2.

M4RNDSTS002 5.

A-20

M4RNDSTS003 10.

M4RNDSTS004 20.

M4RNDSTS005 30.

Form Rain Intensities Comment:

Consistent with NUREG/CR-7245.

NRINTN, number of rain intensity breakpoints M4NRINTN001 3

RNRATE, rain intensity breakpoints for weather binning (mm/hr)

M4RNRATE001 2.

M4RNRATE002 4.

M4RNRATE003 6.

Form Seed Comment:

The MACCS variable IRSEED is used to ensure that the random number generator produces a consistent set of weather trials among different MACCS runs. Any value between 1 and 255 may be used.

IRSEED, initial seed for random number generator M4IRSEED001 79

Form Bins Comment:

These values are consistent with the weather data documented in NUREG/CR-7245. The values of INWGHT are set to use 10 percent of the available sequences in each bin, with a minimum value of either 12 or all available samples in the bin.

NSBINS, number of bins to be sampled when NSMPLS = 0 M4NSBINS001 36

INDXBN, INWGHT, number of weather sequences to be selected from specific weather bins M4SMPLDF001 1 12 M4SMPLDF002 2 12 M4SMPLDF003 3 23 M4SMPLDF004 4 145 M4SMPLDF005 5 117 M4SMPLDF006 6 64 M4SMPLDF007 7 12 M4SMPLDF008 8 0 M4SMPLDF009 9 97 M4SMPLDF010 10 117 M4SMPLDF011 11 25 M4SMPLDF012 12 12 M4SMPLDF013 13 83 M4SMPLDF014 14 43 M4SMPLDF015 15 12 M4SMPLDF016 16 0 M4SMPLDF017 17 42 M4SMPLDF018 18 15 M4SMPLDF019 19 18 M4SMPLDF020 20 17 M4SMPLDF021 21 15 M4SMPLDF022 22 12 M4SMPLDF023 23 12 M4SMPLDF024 24 12 M4SMPLDF025 25 12 M4SMPLDF026 26 12 M4SMPLDF027 27 12 M4SMPLDF028 28 7 M4SMPLDF029 29 12 M4SMPLDF030 30 7 M4SMPLDF031 31 7 M4SMPLDF032 32 12 M4SMPLDF033 33 8 M4SMPLDF034 34 11 A-21

M4SMPLDF035 35 7 M4SMPLDF036 36 7

NUM0, used for no input, always 0 TYPE0NUMBER 0

Form Plume and Spatial Intervals Comment:

These values maybe used for atmospheric dispersion results

NUM0, number of results TYPE0NUMBER 31

INDREL, INDRAD, CCDF, ATMOS release and spatial interval TYPE0OUT001 7 1 NONE TYPE0OUT002 7 2 NONE TYPE0OUT003 7 3 NONE TYPE0OUT004 7 4 NONE TYPE0OUT005 7 5 NONE TYPE0OUT006 7 6 NONE TYPE0OUT007 7 7 NONE TYPE0OUT008 7 8 NONE TYPE0OUT009 7 9 NONE TYPE0OUT010 7 10 NONE TYPE0OUT011 7 11 NONE TYPE0OUT012 7 12 NONE TYPE0OUT013 7 13 NONE TYPE0OUT014 7 14 NONE TYPE0OUT015 7 15 NONE TYPE0OUT016 7 16 NONE TYPE0OUT017 7 17 NONE TYPE0OUT018 7 18 NONE TYPE0OUT019 7 19 NONE TYPE0OUT020 7 20 NONE TYPE0OUT021 7 21 NONE TYPE0OUT022 7 22 NONE TYPE0OUT023 7 23 NONE TYPE0OUT024 7 24 NONE TYPE0OUT025 7 25 NONE TYPE0OUT026 7 26 NONE TYPE0OUT027 7 27 NONE TYPE0OUT028 7 28 NONE TYPE0OUT029 7 29 NONE TYPE0OUT030 7 30 NONE TYPE0OUT031 7 31 NONE

NUM0_HY, used for no input, always 0 TYPE0_HYNUM 0

NSMPLS, used for no input, always 0 M4NSMPLS001 0

SRCMOD, Plume Source model set to PNT (PNT, AREA, AUTO)

RDSRCMOD001 PNT

TDWMOD, Plume Trapping model set to BRGFLX (BRGBLD, BRGFLX, PRIME)

RDTDWMOD001 BRGBLD

Form Additional Building Data Comment:

Values set based on the height of the structure from which it was released.

BUILDW, building width (m)

WEBUILDW001 21.55 WEBUILDW002 21.55 WEBUILDW003 21.55 WEBUILDW004 21.55 WEBUILDW005 21.55 A-22

WEBUILDW006 21.55 WEBUILDW007 21.55 WEBUILDW008 21.55 WEBUILDW009 21.55 WEBUILDW010 21.55 WEBUILDW011 21.55 WEBUILDW012 21.55 WEBUILDW013 21.55 WEBUILDW014 21.55 WEBUILDW015 21.55 WEBUILDW016 21.55 WEBUILDW017 21.55 WEBUILDW018 21.55 WEBUILDW019 21.55 WEBUILDW020 21.55 WEBUILDW021 21.55 WEBUILDW022 21.55 WEBUILDW023 21.55 WEBUILDW024 21.55 WEBUILDW025 21.55 WEBUILDW026 21.55 WEBUILDW027 21.55 WEBUILDW028 21.55

BUILDL, building length (m)

WEBUILDL001 21.55 WEBUILDL002 21.55 WEBUILDL003 21.55 WEBUILDL004 21.55 WEBUILDL005 21.55 WEBUILDL006 21.55 WEBUILDL007 21.55 WEBUILDL008 21.55 WEBUILDL009 21.55 WEBUILDL010 21.55 WEBUILDL011 21.55 WEBUILDL012 21.55 WEBUILDL013 21.55 WEBUILDL014 21.55 WEBUILDL015 21.55 WEBUILDL016 21.55 WEBUILDL017 21.55 WEBUILDL018 21.55 WEBUILDL019 21.55 WEBUILDL020 21.55 WEBUILDL021 21.55 WEBUILDL022 21.55 WEBUILDL023 21.55 WEBUILDL024 21.55 WEBUILDL025 21.55 WEBUILDL026 21.55 WEBUILDL027 21.55 WEBUILDL028 21.55

BUILDA, angle from north for width dimension (degrees)

WEBUILDA001 0.

WEBUILDA002 0.

WEBUILDA003 0.

WEBUILDA004 0.

WEBUILDA005 0.

WEBUILDA006 0.

WEBUILDA007 0.

WEBUILDA008 0.

WEBUILDA009 0.

WEBUILDA010 0.

WEBUILDA011 0.

A-23

WEBUILDA012 0.

WEBUILDA013 0.

WEBUILDA014 0.

WEBUILDA015 0.

WEBUILDA016 0.

WEBUILDA017 0.

WEBUILDA018 0.

WEBUILDA019 0.

WEBUILDA020 0.

WEBUILDA021 0.

WEBUILDA022 0.

WEBUILDA023 0.

WEBUILDA024 0.

WEBUILDA025 0.

WEBUILDA026 0.

WEBUILDA027 0.

WEBUILDA028 0.

TDWAUTO, Specifies if automatically calculating the trapped/downwashed release height.

RDTDWAUTO01 .TRUE.

Form US NRC Regulatory Guide 1.145 Point Source Meander Comment:

The values are consistent with Regulatory Guide 1.145

PSMEQ1C, Point Source Model Equation 1 Coefficient PMPSMEQ1C01 0.5

PSMEQ2C, Point Source Model Equation 2 Coefficient PMPSMEQ2C01 3.

A.2 EARLY.inp

File created using WinMACCS version 4.1.0 SVN:8280 8/23/2022 12:47:52 PM

Form Dose Conversion Factor File Comment:

Cosistent with DCF file used in NUREG/CR-7245

Form Organs of Risk Comment:

All organs selected.

DCF_FILE, identifies the DCF file to be used for the MACCS calculation DCF_FILE001 C:\Users\AJN1\MACCS Code Suite\WinMACCS Project Files\INL Design A, TOP scenario (HPR stz, HPR nuclides, 1.145 area)\Data\FGR13GyEquiv_RevA.inp

Form Early Description Comment:

The intent of this project is to model a single, non-evacuating cohort of a phantom population.

Because WinMACCS requires an evacuating cohort to be able to report Type 14, 2 cohorts are used, with a weight fraction of 0 for the evacuating cohort.

EANAM1, identifies the EARLY calculation MIEANAM1001 EARLY file

Form Property Form Parameters Comment:

Property form parameters are defined in the properties box and cannot be changed in this form.

They are reproduced here for the user A-24vacuationA-24.

ENDAT2, set to TRUE if only running ATMOS and EARLY MIENDAT2001 .FALSE.

Form Property Form Parameters Comment:

Property form parameters are defined in the properties box and cannot be changed in this form.

They are reproduced here for the user A-24vacuationA-24.

IPLUME, dispersion code determines wind shift and rotation flags A-24

MIIPLUME001 3

Form Grid Subdivisions Comment:

Maximum number of fine grids is recommended

NUMFIN, number of fine-grid subdivisions used by model MINUMFIN001 7

Form Debug Options Comment:

No debug requested.

IPRINT, amount of detail of output reported. Zero is used for standard reporting.

MIIPRINT001 0

POPFLG, if set to FILE, population is defined in a site data file. UNIFORM indicates a user defined uniform distribution.

PDPOPFLG001 UNIFORM

Form Uniform Site Data Comment:

the project assumed a uniform population density and uniform economic data based on average values over 50-mile area around the Sequoyah Nuclear Power Plant in Tennessee

IBEGIN, spatial interval at which population is considered to be non-zero PDIBEGIN001 1

POPDEN, uniform population density of the region PDPOPDEN001 40.

NORGANS_SEL, number of organs selected by user MINUMORG001 34

ORGANS_SEL, list of organs selected by user, first organ is always A-SKIN MIORGNAM001 A-SKIN MIORGNAM002 A-STOMACH MIORGNAM003 A-SMALL IN MIORGNAM004 A-LOWER LI MIORGNAM005 A-RED MARR MIORGNAM006 A-THYROID MIORGNAM007 A-LUNGS MIORGNAM008 L-ADRENALS MIORGNAM009 L-BONE SUR MIORGNAM010 L-BRAIN MIORGNAM011 L-BREAST MIORGNAM012 L-STOMACH MIORGNAM013 L-BLAD WAL MIORGNAM014 L-SMALL IN MIORGNAM015 L-ULI_WALL MIORGNAM016 L-LOWER LI MIORGNAM017 L-KIDNEYS MIORGNAM018 L-LIVER MIORGNAM019 L-MUSCLE MIORGNAM020 L-OVARIES MIORGNAM021 L-PANCREAS MIORGNAM022 L-RED MARR MIORGNAM023 L-SKIN MIORGNAM024 L-SPLEEN MIORGNAM025 L-TESTES MIORGNAM026 L-THYMUS MIORGNAM027 L-THYROID MIORGNAM028 L-UTERUS MIORGNAM029 L-ESOPHAGUS MIORGNAM030 L-LUNGS MIORGNAM031 L-GONADS MIORGNAM032 L-COLON MIORGNAM033 L-REMAINDER MIORGNAM034 L-ICRP60ED A-25

RISCAT, flag set to true if relative contribution of each weather category bins is to be included in output MIRISCAT001 .FALSE.

OVRRID, flag set to FALSE if wind rose is calculated from the weather file. TRUE indicates user will supply values.

MIOVRRID001 .FALSE.

Form Shielding and Exposure Comment:

No shielding protection for phantom cohort

CSFACT, cloudshine shielding factor SECSFACT001 0.95 SECSFACT002 0.75 SECSFACT003 0.6

PROTIN, inhalation protection factor SEPROTIN001 0.98 SEPROTIN002 0.46 SEPROTIN003 0.25

BRRATE, breathing rate (m3/s)

SEBRRATE001 2.66E-04 SEBRRATE002 2.66E-04 SEBRRATE003 2.66E-04

SKPFAC, skin protection factors SESKPFAC001 0.98 SESKPFAC002 0.46 SESKPFAC003 0.25

GSHFAC, groundshine shielding factors SEGSHFAC001 0.52 SEGSHFAC002 0.34 SEGSHFAC003 0.19

Form Emergency Phase Resuspension Comment:

The recommended resuspension half-life for early phase resuspension is based on the value used in NUREG/CR-4551 Vol 2 Part 7 Rev. 1

RESCON, initial value for emergency-phase resuspension concentration factor (s/m)

SERESCON001 1.E-04

RESHAF, emergency-phase resuspension concentration coefficient weathering half-life (s)

SERESHAF001 1.82000E+05

Form Basic Parameters Comment:

Empty cohort

EANAM2, identifier of emergency response cohort EZEANAM2001 Empty Cohort

WTNAME, type of weighting factor to be used in generating weighted sum of results EZWTNAME001 PEOPLE

Form Cohort Fraction Comment:

Not used in the sample problem.

WTFRAC, weighting fraction applied to results of emergency response cohort when WTNAME = PEOPLE or TIME EZWTFRAC001 0.

EVATYP, indicates if evacuation model is radial or network EZEVATYP001 RADIAL A-26

TRAVELPOINT, determines whether boundary or centerpoint of destination is evacuee objective TRAVELPOINT CENTERPOINT

ESPEED, evacuee travel speed during the three phases of evacuation (m/s)

EZESPEED001 6.06 EZESPEED002 6.06 EZESPEED003 13.3

ESPMUL, multiplicative factor that affects ESPEED, applied during times of precipitation EZESPMUL001 0.7 EZESPMUL002 0.7 EZESPMUL003 0.7

REFPNT, defines reference time point for actions in evacuation and sheltering zone EZREFPNT001 ALARM

DURBEG, duration of initial phase (when first individual begins to evacuate) of evacuation (s)

EZDURBEG001 1832.

DURMID, duration of middle phase of evacuation (s)

EZDURMID001 808.

NUMEVA, outer boundary of the sheltering and evacuation region EZNUMEVA001 22

OALARM, time after accident initiation that off-site alarm is initiated (s)

EZOALARM001 9900.

DLTSHL, the delay from the time represented by REFPNT to the start of sheltering (s)

EZDLTSHL001 0.

EZDLTSHL002 0.

EZDLTSHL003 0.

EZDLTSHL004 0.

EZDLTSHL005 0.

EZDLTSHL006 0.

EZDLTSHL007 0.

EZDLTSHL008 0.

EZDLTSHL009 0.

EZDLTSHL010 0.

EZDLTSHL011 0.

EZDLTSHL012 0.

EZDLTSHL013 0.

EZDLTSHL014 0.

EZDLTSHL015 0.

EZDLTSHL016 0.

EZDLTSHL017 0.

EZDLTSHL018 0.

EZDLTSHL019 0.

EZDLTSHL020 0.

EZDLTSHL021 0.

EZDLTSHL022 0.

DLTEVA, the delay from the beginning of the sheltering period to the beginning of evacuation EZDLTEVA001 0.

EZDLTEVA002 0.

EZDLTEVA003 0.

EZDLTEVA004 0.

EZDLTEVA005 0.

EZDLTEVA006 0.

EZDLTEVA007 0.

EZDLTEVA008 0.

EZDLTEVA009 0.

EZDLTEVA010 0.

EZDLTEVA011 0.

EZDLTEVA012 0.

EZDLTEVA013 0.

A-27

EZDLTEVA014 0.

EZDLTEVA015 0.

EZDLTEVA016 0.

EZDLTEVA017 0.

EZDLTEVA018 0.

EZDLTEVA019 0.

EZDLTEVA020 0.

EZDLTEVA021 0.

EZDLTEVA022 0.

LASMOV, outermost spatial interval of the evacuation movement zone EZLASMOV001 22

Form Duration of Early Phase Comment:

Project varies ENDEMP for dose sensitivity

ENDEMP, duration of the emergency-phase period (s)

SRENDEMP001 6.04800E+05

CRIORG, critical organ for relocation decisions during emergency-phase period SRCRIORG001 L-ICRP60ED

Form Hot Spot Relocation Comment:

dose levels for emergency phase relocation were increased to artificially high levels so they are not triggered in the scenario

TIMHOT, hot-spot relocation action time (individuals residing outside the emergency-planning zone) after plume arrival (s)

SRTIMHOT001 0.

Form Normal Relocation Comment:

dose levels for emergency phase relocation were increased to artificially high levels so they are not triggered in the scenario

TIMNRM - normal relocation action time (individuals residing outside the emergency-planning zone) after plume arrival (s)

SRTIMNRM001 0.

Form Dose Projection Comment:

96 hours0.00111 days 0.0267 hours 1.587302e-4 weeks 3.6528e-5 months , or 4 days, consistent with the parameter guide and the Sequoyah analysis

DPPEMP, dose projection period for the emergency phase (s)

SRDPPEMP001 0.

DOSHOT, defines the hot-spot relocation dose threshold (Sv)

SRDOSHOT001 1.E+10

DOSNRM, defines the normal relocation dose threshold (Sv)

SRDOSNRM001 1.E+10

Form Early Fatality Parameters Comment:

Based on NUREG/CR-6545 and NUREG/CR-7161

NUMEFA, number of Early Fatality Effects EFNUMEFA001 3

ORGNAM2, EFFACA, EFFACB, EFFTHR, early fatality effect settings. Columns are target organ, alpha factor (Sv) and beta factor for hazard function, and threshold dose (Sv)

EFATAGRP001 A-RED MARR 5.6 6.1 2.3 EFATAGRP002 A-LUNGS 24. 9.6 14.

EFATAGRP003 A-STOMACH 12. 9.3 6.5

ANIM_MOVE, flag to create animation file describing plume movement VIANIPLM001 .FALSE.

ANIM_CONC, flag to create animation file containing ground and air concentrations A-28

VIANIGAC001 .FALSE.

Form Early Injury Parameters Comment:

Based on NUREG/CR-6545 and NUREG/CR-4214 part I Rev 2

NUMEIN, number of Early Injury Effects EINUMEIN001 7

EINAME, ORGNAM3, EISUSC, EITHRE, EIFACA, EIFACB, early injury effect settings. Columns are injury, target organ, population fraction, threshold dose (Sv), alpha factor, and beta factor.

EINJUGRP001 PRODROMAL VOMIT A-STOMACH 1. 0.5 2. 3.

EINJUGRP002 DIARRHEA A-STOMACH 1. 1. 3. 2.5 EINJUGRP003 PNEUMONITIS A-LUNGS 1. 9.2 16.6 7.3 EINJUGRP004 SKIN ERYTHEMA A-SKIN 1. 3. 6. 5.

EINJUGRP005 TRANSEPIDERMAL A-SKIN 1. 10. 20. 5.

EINJUGRP006 THYROIDITIS A-THYROID 1. 40. 240. 2.

EINJUGRP007 HYPOTHYROIDISM A-THYROID 1. 2. 60. 1.3

Form Latent Cancer Parameters Comment:

CFRISK values derived from Table 7.3 of FGR 13 and CIRISK values derived from Table 7.6 of FGR 13

NUMACA, number of latent cancer effects LCNUMACA001 14

ACTHRE, used for non quadratic model, always 0 LCACTHRE001 0.

DDTHRE, dose threshold for applying dose-dependent reduction factor, DDREFA (Sv)

LCDDTHRE001 0.2

ACNAME, ORGNAM4, ACSUSC , DOSEFA =1 , DOSEFB = 0, CFRISK, CIRISK, DDREFA, latent cancer, organ, population fraction, alpha factor, beta factor, risk for death (1/Sv), risk for cancer (1/Sv),

reduction factor LCANCERS001 Leukemia L-RED MARR 1. 1. 0. 0.0111 0.0113 2.

LCANCERS002 Bone L-BONE SUR 1. 1. 0. 1.9E-04 2.72E-04 2.

LCANCERS003 Breast L-BREAST 1. 1. 0. 0.00506 0.0101 1.

LCANCERS004 Lung L-LUNGS 1. 1. 0. 0.0198 0.0208 2.

LCANCERS005 Thyroid L-THYROID 1. 1. 0. 6.48E-04 0.00648 2.

LCANCERS006 Liver L-LIVER 1. 1. 0. 0.003 0.00316 2.

LCANCERS007 Colon L-COLON 1. 1. 0. 0.0208 0.0378 2.

LCANCERS008 Residual L-REMAINDER 1. 1. 0. 0.0298 0.0422 2.

LCANCERS009 Esophagus L-ESOPHAGUS 1. 1. 0. 0.00234 0.00246 2.

LCANCERS010 Stomach L-STOMACH 1. 1. 0. 0.00814 0.00906 2.

LCANCERS011 Skin L-SKIN 1. 1. 0. 2.E-04 2.E-04 2.

LCANCERS012 Ovaries L-OVARIES 1. 1. 0. 0.00298 0.00426 2.

LCANCERS013 Blad Wall L-BLAD WAL 1. 1. 0. 0.00476 0.00952 2.

LCANCERS014 Kidney L-KIDNEYS 1. 1. 0. 0.00103 0.0016 2.

NUM1, used for no input, always 0 TYPE1NUMBER 0

NUM1, number of type 1 results TYPE1NUMBER 32

NAME1, I1DIS1, I2DIS1, CCDF1, heath risk name to count heath effect cases, inner spatial interval, outer spatial interval, CCDF report indicator flag TYPE1OUT001 ERL FAT/TOTAL 1 14 NONE TYPE1OUT002 ERL FAT/TOTAL 1 22 NONE TYPE1OUT003 ERL FAT/TOTAL 1 31 NONE TYPE1OUT004 CAN INJ/TOTAL 1 14 NONE TYPE1OUT005 CAN INJ/TOTAL 1 17 NONE TYPE1OUT006 CAN INJ/TOTAL 1 22 NONE TYPE1OUT007 CAN INJ/TOTAL 1 25 NONE TYPE1OUT008 CAN INJ/TOTAL 1 28 NONE TYPE1OUT009 CAN INJ/TOTAL 1 31 NONE A-29

TYPE1OUT010 CAN FAT/TOTAL 1 14 NONE TYPE1OUT011 CAN FAT/TOTAL 1 17 NONE TYPE1OUT012 CAN FAT/TOTAL 1 22 NONE TYPE1OUT013 CAN FAT/TOTAL 1 25 NONE TYPE1OUT014 CAN FAT/TOTAL 1 28 NONE TYPE1OUT015 CAN FAT/TOTAL 1 31 NONE TYPE1OUT016 CAN FAT/Thyroid 1 14 NONE TYPE1OUT017 CAN FAT/Thyroid 1 22 NONE TYPE1OUT018 CAN FAT/Thyroid 1 25 NONE TYPE1OUT019 CAN FAT/Thyroid 1 31 NONE TYPE1OUT020 CAN FAT/Breast 1 14 NONE TYPE1OUT021 CAN FAT/Breast 1 22 NONE TYPE1OUT022 CAN FAT/Breast 1 25 NONE TYPE1OUT023 CAN FAT/Breast 1 31 NONE TYPE1OUT024 CAN FAT/Lung 1 14 NONE TYPE1OUT025 CAN FAT/Lung 1 22 NONE TYPE1OUT026 CAN FAT/Lung 1 25 NONE TYPE1OUT027 CAN FAT/Lung 1 31 NONE TYPE1OUT028 CAN FAT/Leukemia 1 31 NONE TYPE1OUT029 CAN FAT/Bone 1 31 NONE TYPE1OUT030 CAN FAT/Liver 1 31 NONE TYPE1OUT031 CAN FAT/Colon 1 31 NONE TYPE1OUT032 CAN FAT/Residual 1 31 NONE

NUM2, used for no input, always 0 TYPE2NUMBER 0

Form Early-Fatality Radius Comment:

Results provide max distance at which early fatality may occur.

NUM2, number of type 2 results TYPE2NUMBER 1

RISTHR, CCDF2 , fatality risk threshold to calculate distance, CCDF report indicator flag TYPE2OUT001 0. NONE

NUM3, used for no input, always 0 TYPE3NUMBER 0

Form Population Exceeding Threshold Comment:

Results provide the size of population exceeding the low dose.

Results provide the size of population exceeding early fatality threshold.

NUM3, number of type 3 results TYPE3NUMBER 6

NAME3, DOSTH3, CCDF3 - organ name, dose threshold (Sv) for population count, CCDF report indicator flag TYPE3OUT001 L-ICRP60ED 0. NONE TYPE3OUT002 L-ICRP60ED 0.01 NONE TYPE3OUT003 L-ICRP60ED 0.1 NONE TYPE3OUT004 L-ICRP60ED 1. NONE TYPE3OUT005 A-RED MARR 1. NONE TYPE3OUT006 A-RED MARR 2.32 NONE

NUM4, used for no input, always 0 TYPE4NUMBER 0

NUM5, used for no input, always 0 TYPE5NUMBER 0

NUM5, number of type 5 results TYPE5NUMBER 6 A-30

NAME5, I1DIS5, I2DIS5, CCDF5, organ name to calculate population dose, inner spatial interval, outer spatial interval, CCDF report indicator flag TYPE5OUT001 L-ICRP60ED 1 14 NONE TYPE5OUT002 L-ICRP60ED 1 17 NONE TYPE5OUT003 L-ICRP60ED 1 22 NONE TYPE5OUT004 L-ICRP60ED 1 25 NONE TYPE5OUT005 L-ICRP60ED 1 28 NONE TYPE5OUT006 L-ICRP60ED 1 31 NONE

NUM6, used for no input, always 0 TYPE6NUMBER 0

NUM7, used for no input, always 0 TYPE7NUMBER 0

NUM8, used for no input, always 0 TYPE8NUMBER 0

NUM8, number of type 8 results TYPE8NUMBER 11

NAME8, I1DIS8, I2DIS8, CCDF8, health risk name to calculate population-weighted Risk, inner spatial interval, outer spatial interval, CCDF report indicator flag TYPE8OUT001 CAN FAT/TOTAL 1 14 NONE TYPE8OUT002 CAN FAT/TOTAL 1 17 NONE TYPE8OUT003 CAN FAT/TOTAL 1 22 NONE TYPE8OUT004 CAN FAT/TOTAL 1 25 NONE TYPE8OUT005 CAN FAT/TOTAL 1 28 NONE TYPE8OUT006 CAN FAT/TOTAL 1 31 NONE TYPE8OUT007 CAN FAT/TOTAL 15 17 NONE TYPE8OUT008 CAN FAT/TOTAL 18 22 NONE TYPE8OUT009 CAN FAT/TOTAL 23 25 NONE TYPE8OUT010 CAN FAT/TOTAL 26 28 NONE TYPE8OUT011 CAN FAT/TOTAL 29 31 NONE

NUMA, used for no input, always 0 TYPEANUMBER 0

NUMA, number of type A results TYPEANUMBER 1

NAMEA, I1DISA, I2DISA, CCDFA, organ name to calculate peak dose vs distance, inner spatial interval, outer spatial interval, CCDF report indicator flag TYPEAOUT001 L-ICRP60ED 1 31 NONE

NUMB, used for no input, always 0 TYPEBNUMBER 0

NUMC, used for no input, always 0 TYPECNUMBER 0

NUMC, number of typeC output TYPECNUMBER 1

ORGNAM8, ELEVDOSE, PRINT_FLAG_C, CCDFC - organ name to calculate land area, dose threshold (Sv), true indicates extended output by grid element TYPECOUT001 L-ICRP60ED 0.05 .TRUE. NONE

NUMD, used for no input, always 0 TYPEDNUMBER 0

NUMD, number of A-31vacu output TYPEDNUMBER 20 A-31

I1DISD, NUCLIDED, ELEVCONC, PRINT_FLAG_D, CCDFD - outer spatial interval (inner starts at 0),nuclides for which ground and air concentrations are calculated if above threshold, threshold (Bq/m2), true indicates extended output by grid element TYPEDOUT001 14 Cs-137 37000. .TRUE. NONE TYPEDOUT002 14 Cs-137 1.85000E+05 .FALSE. NONE TYPEDOUT003 14 Cs-137 5.55000E+05 .FALSE. NONE TYPEDOUT004 14 Cs-137 1.480000E+06 .FALSE. NONE TYPEDOUT005 22 Cs-137 37000. .FALSE. NONE TYPEDOUT006 22 Cs-137 1.85000E+05 .FALSE. NONE TYPEDOUT007 22 Cs-137 5.55000E+05 .FALSE. NONE TYPEDOUT008 22 Cs-137 1.480000E+06 .FALSE. NONE TYPEDOUT009 25 Cs-137 37000. .FALSE. NONE TYPEDOUT010 25 Cs-137 1.85000E+05 .FALSE. NONE TYPEDOUT011 25 Cs-137 5.55000E+05 .FALSE. NONE TYPEDOUT012 25 Cs-137 1.480000E+06 .FALSE. NONE TYPEDOUT013 28 Cs-137 37000. .FALSE. NONE TYPEDOUT014 28 Cs-137 1.85000E+05 .FALSE. NONE TYPEDOUT015 28 Cs-137 5.55000E+05 .FALSE. NONE TYPEDOUT016 28 Cs-137 1.480000E+06 .FALSE. NONE TYPEDOUT017 31 Cs-137 37000. .FALSE. NONE TYPEDOUT018 31 Cs-137 1.85000E+05 .FALSE. NONE TYPEDOUT019 31 Cs-137 5.55000E+05 .FALSE. NONE TYPEDOUT020 31 Cs-137 1.480000E+06 .FALSE. NONE

DOSMOD, indicates dose model (LNT, AT or PL)

LCDOSMOD001 LNT

KIMODL, KI model (KI or NOKI)

EZKIMODL001 NOKI

Form KI Ingestion Linear No Threshold Comment:

Model is not used in the sample problem.

EFFACY, lower bound of efficacy factor for KI model when using the LNT dose model EZEFFACY001 0.

POPFRAC, lower bound of the fraction of the population that ingests KI when using the LNT dose model.

EZPOPFRC001 0.

FRACLD, fraction of site covered by land STFRACLD001 1.

NUME, used for no input, always 0 TYPEENUMBER 0

EVAKEY, evacuation model (CIRCULAR, KEYHOLE, NONE)

EZEVAKEY001 CIRCULAR

NUMF, used for no input, always 0 TYPEFNUMBER 0

Form Shielding and Exposure Comment:

Inputs are generic values.

CSFACT, cloudshine shielding factor SECSFACT001 1.

SECSFACT002 0.

SECSFACT003 0.

PROTIN, inhalation protection factor SEPROTIN001 1.

SEPROTIN002 0.

SEPROTIN003 0.

A-32

BRRATE, breathing rate (m3/s)

SEBRRATE001 2.66E-04 SEBRRATE002 2.66E-04 SEBRRATE003 2.66E-04

SKPFAC, skin protection factors SESKPFAC001 1.

SESKPFAC002 0.

SESKPFAC003 0.

GSHFAC, groundshine shielding factors SEGSHFAC001 1.

SEGSHFAC002 0.

SEGSHFAC003 0.

Form Basic Parameters Comment:

Non-evacuating, phantom cohort

EANAM2, identifier of emergency response cohort EZEANAM2001 Phantom cohort

Form Cohort Fraction Comment:

Not used in the sample problem.

WTFRAC, weighting fraction applied to results of emergency response cohort when WTNAME = PEOPLE or TIME EZWTFRAC001 1.

Form Phase Durations and Speeds Comment:

Evacuation speed based on ETE for a generic medium population site as documented in NUREG/CR-7269

TRAVELPOINT, determines whether boundary or centerpoint of destination is evacuee objective TRAVELPOINT CENTERPOINT

ESPEED, evacuee travel speed during the three phases of evacuation (m/s)

EZESPEED001 6.06 EZESPEED002 6.06 EZESPEED003 13.3

ESPMUL, multiplicative factor that affects ESPEED, applied during times of precipitation EZESPMUL001 0.7 EZESPMUL002 0.7 EZESPMUL003 0.7

REFPNT, defines reference time point for actions in evacuation and sheltering zone EZREFPNT001 ALARM

DURBEG, duration of initial phase (when first individual begins to evacuate) of evacuation (s)

EZDURBEG001 1832.

DURMID, duration of middle phase of evacuation (s)

EZDURMID001 808.

Form Sheltering and Evacuation Boundary Comment:

Evacuation zone is 10 miles (ring 12)

Evacuation movement zone is 50 miles (ring 19)

NUMEVA, outer boundary of the sheltering and evacuation region EZNUMEVA001 22

Form Notification Delay Comment:

GE siren assumed at 2.75 hours8.680556e-4 days 0.0208 hours 1.240079e-4 weeks 2.85375e-5 months . See NUREG/CR-7245. This value should be adjusted based on the accident sequence analyzed.

A-33

OALARM, time after accident initiation that off-site alarm is initiated (s)

EZOALARM001 3600.

Form Response Delays Comment:

Evacuation is the same for all intervals within the evacuation zone.

DLTSHL, the delay from the time represented by REFPNT to the start of sheltering (s)

EZDLTSHL001 0.

EZDLTSHL002 0.

EZDLTSHL003 0.

EZDLTSHL004 0.

EZDLTSHL005 0.

EZDLTSHL006 0.

EZDLTSHL007 0.

EZDLTSHL008 0.

EZDLTSHL009 0.

EZDLTSHL010 0.

EZDLTSHL011 0.

EZDLTSHL012 0.

EZDLTSHL013 0.

EZDLTSHL014 0.

EZDLTSHL015 0.

EZDLTSHL016 0.

EZDLTSHL017 0.

EZDLTSHL018 0.

EZDLTSHL019 0.

EZDLTSHL020 0.

EZDLTSHL021 0.

EZDLTSHL022 0.

DLTEVA, the delay from the beginning of the sheltering period to the beginning of evacuation EZDLTEVA001 0.

EZDLTEVA002 0.

EZDLTEVA003 0.

EZDLTEVA004 0.

EZDLTEVA005 0.

EZDLTEVA006 0.

EZDLTEVA007 0.

EZDLTEVA008 0.

EZDLTEVA009 0.

EZDLTEVA010 0.

EZDLTEVA011 0.

EZDLTEVA012 0.

EZDLTEVA013 0.

EZDLTEVA014 0.

EZDLTEVA015 0.

EZDLTEVA016 0.

EZDLTEVA017 0.

EZDLTEVA018 0.

EZDLTEVA019 0.

EZDLTEVA020 0.

EZDLTEVA021 0.

EZDLTEVA022 0.

LASMOV, outermost spatial interval of the evacuation movement zone EZLASMOV001 22

Form Critical Organ Comment:

Evacuation decision based on total effective dose.

CRIORG, critical organ for relocation decisions during emergency-phase period SRCRIORG001 L-ICRP60ED

EVAKEY, evacuation model (CIRCULAR, KEYHOLE, NONE)

EZEVAKEY001 CIRCULAR A-34

A.3 CHRONC.inp

File created using WinMACCS version 4.1.0 SVN:8280 8/23/2022 12:47:53 PM

Form Chronc Description Comment:

The project models uniform economic information from the Sequoyah NPP region derived from SecPop v4.3

CHNAME, late consequences description CHCHNAME001 CHRONC file

Form Compensation Costs Comment:

Generic values based on the discussions in sections 4.3.4 and 4.4.3 of NUREG/CR 7270.

EVACST, daily cost compensation for evacuees and short-term relocation($/person-d)

CHEVACST001 230.

RELCST, daily cost of compensation for individuals due to intermediate-phase relocation

($/person-d)

CHRELCST001 162.

Form Long Term Exposure Period Comment:

Values are consistent with the recommendations of section 4.4.1 of NUREG CR-7270

DUR_INTPHAS, duration of the intermediate-phase period (s)

DUR_INTPHAS 3.1536E+07

TMPACT, long term dose projection period (s)

CHTMPACT001 3.1536E+07

Form Long Term Dose Criterion Comment:

Values are consistent with the recommendations of section 4.4.2 of NUREG CR-7270

DSCRTI, maximum allowable direct-exposure dose commitment in the intermediate phase period (Sv)

CHDSCRTI001 0.02

DSCRLT, maximum allowable direct-exposure dose commitment in the long term phase period (Sv)

CHDSCRLT001 0.005

EXPTIM, long term phase period (s)

CHEXPTIM001 1.5768E+09

CRTOCR, long term phase critical organ CHCRTOCR001 L-ICRP60ED

Form Number of Plan Levels Comment:

Values are consistent with the recommendations of section 4.4.4 of NUREG CR-7270

LVLDEC, number of decontamination levels (1, 2 or 3)

CHLVLDEC001 3

Form Plan Definition Comment:

Values are consistent with the recommendations of section 4.4.4 of NUREG CR-7270

TIMDEC, time required for completion of each level of decontamination (s)

CHTIMDEC001 3.1536E+07 CHTIMDEC002 3.1536E+07 CHTIMDEC003 3.1536E+07

DSRFCT, effectiveness of the various decontamination levels in reducing dose CHDSRFCT001 2.

CHDSRFCT002 4.

CHDSRFCT003 8.

A-35

Form Farmland Costs Comment:

Values are consistent with the recommendations of section 4.4.4 of NUREG CR-7270. These values can be adjusted to be site specific if needed.

CDFRM, farmland decontamination cost ($/ha)

CHCDFRM0001 3700.

CHCDFRM0002 38000.

CHCDFRM0003 38000.

Form NonFarmland Costs Comment:

Values are consistent with the recommendations of section 4.4.4 of NUREG CR-7270. These values can be adjusted to be site specific if needed.

CDNFRM, nonfarmland decontamination cost ($/person)

CHCDNFRM001 78000.

CHCDNFRM002 1.80000E+05 CHCDNFRM003 2.70000E+05

FRFDL, fraction farmland decontamination cost due labor CHFRFDL0001 0.35 CHFRFDL0002 0.35 CHFRFDL0003 0.35

FRNFDL, fraction nonfarmland decontamination cost due labor CHFRNFDL001 0.35 CHFRNFDL002 0.35 CHFRNFDL003 0.35

TFWKF , fraction of the decontamination period that a farmland worker spends in the contaminated area CHTFWKF0001 0.15 CHTFWKF0002 0.15 CHTFWKF0003 0.15

TFWKNF, fraction of the decontamination period that a nonfarmland worker spends in the contaminated area CHTFWKNF001 0.15 CHTFWKNF002 0.15 CHTFWKNF003 0.15

DLBCST, labor cost decontamination worker ($/man-y)

CHDLBCST001 76000.

Form Interdiction Costs Comment:

Values are consistent with the recommendations of section 4.4.3 of NUREG CR-7270.

DPRATE, depreciation rate applies to improvements (1/y)

CHDPRATE001 0.2

DSRATE, rate of return from land, buildings, equipment (1/y)

CHDSRATE001 0.07

POPCST, per capita removal cost for temporary or permanent relocation of population and businesses ($/person)

CHPOPCST001 7750.

Form Groundshine Weathering Terms Comment:

Values are consistent with the recommendations of section 4.2.3 of NUREG CR-7270.

NGWTRM, number of terms in the groundshine weathering relationship (1 or 2)

CHNGWTRM001 2

Form Groundshine Weathering Coef Comment:

Values are consistent with the recommendations of section 4.2.3 of NUREG CR-7270.

A-36

GWCOEF, groundshine weathering equation coefficient CHGWCOEF001 0.4 CHGWCOEF002 0.6

TGWHLF, groundshine weathering equation half-lives (s)

CHTGWHLF001 4.7E+07 CHTGWHLF002 1.58E+09

Form Resuspension Weathering Terms Comment:

Values are consistent with the recommendations of section 4.2.2 of NUREG CR-7270.

NRWTRM, number resuspension terms (1, 2 or 3)

CHNRWTRM001 3

Form Resuspension Weathering Coef Comment:

Values are consistent with the recommendations of section 4.2.2 of NUREG CR-7270.

RWCOEF, resuspension weathering equation coefficient (1/m)

CHRWCOEF001 1.E-05 CHRWCOEF002 7.E-09 CHRWCOEF003 1.E-09

TRWHLF, resuspension weathering equation half lives (s)

CHTRWHLF001 8.56000E+05 CHTRWHLF002 2.99E+07 CHTRWHLF003 1.E+12

Form Dose Projection Comment:

One year intermediate phase is assumed consistent with section 4.4.1 of NUREG/CR 7270.

DPP_INTERPHAS, dose projection period for the intermediate phase (s)

DPP_INTPHAS 3.15576E+07

Form Land Usage Comment:

Values derived from SecPop for Sequoyah NPP region.

FRCFRM, average fraction of land devoted to farm production CHFRCFRM001 0.2678

FRMPRD - average annual farm production (gross sales) ($/ha)

CHFRMPRD001 2685.

DPFRCT - fraction of annual farm production (gross sales) in the region resulting from dairy production.

CHDPFRCT001 0.0322

Form Property Values Comment:

Values derived from SecPop for Sequoyah NPP region.

VALWF - value of farm wealth ($/ha)

CHVALWF0001 14587.

Form Property Improvements Comment:

Values are consistent with the recommendations of section 4.4.3 of NUREG CR-7270.

FRFIM, fraction of farm wealth due improvements CHFRFIM0001 0.18

VALWNF, value of nonfarm wealth ($/person)

CHVALWNF001 4.10997E+05

FRNFIM, fraction nonfarm wealth due improvements CHFRNFIM001 0.72

Form Property Form Parameters Comment:

A-37

Property form parameters are defined in the properties box and cannot be changed in this form.

They are reproduced here for the user A-38vacuationA-38.

FDPATH, food model (OLD, NEW or OFF)

CHFDPATH001 NEW

Form COMIDA2 File Comment:

Name of COMIDA2 food chain file. The COMIDA2 file should be consistent with the DCF file.

COMIDA2_INP, COMIDA2 input file BIN_FILE001 C:\Users\AJN1\MACCS Code Suite\WinMACCS Project Files\INL Design A, TOP scenario (HPR stz, HPR nuclides, 1.145 area)\Data\comida2_2.0.0.2_FGR13GyEquiv_RevA.bin

Form Maximum Food Ingestion Dose Comment:

Values are consistent with the recommendations of section 4.4.5 of NUREG CR-7270.

DOSEMILK, maximum allowable food ingestion dose from milk crops during the year of the accident (Sv)

DOSEMILK001 0.0025 DOSEMILK002 0.025

DOSEOTHR, maximum allowable food ingestion dose from non-milk crops during the year of the accident (Sv)

DOSEOTHR001 0.0025 DOSEOTHR002 0.025

DOSELONG, maximum allowable long-term annual dose to an individual from ingestion of milk and non-milk crops (Sv)

DOSELONG001 0.005 DOSELONG002 0.05

Form Water Ingestion Radionuclides Comment:

Values are consistent with the recommendations of section 4.4.6 of NUREG CR-7270.

NUMWPI, number of water ingestion radionuclides CHNUMWPI001 4

Form Water Washoff Fraction Comment:

Values are consistent with the recommendations of section 4.4.6 of NUREG CR-7270.

Form Water Ingestion Factor Comment:

Values are read from the site file in the sample problem.

NAMWPI, WSHFRI, WSHRTA, WINGF, radionuclide, washout fraction, annual washout rate (1/y), water ingestion factor CHWTRISO001 Sr-89 0.01 0.004 5.E-06 CHWTRISO002 Sr-90 0.01 0.004 5.E-06 CHWTRISO003 Cs-134 0.005 0.001 5.E-06 CHWTRISO004 Cs-137 0.005 0.001 5.E-06

Form Debug Flag Comment:

No debugging output request for the sample problem.

KSWTCH, output diagnostic flag (0 or 1)

CHKSWTCH001 0

ECON_MODL, economic model (Original, RDEIM)

CHECONMODL1 Original

CM2THY, Comida2 thyroid organ CHCM2THY001 L-THYROID

CM2EFF, effective organ CHCM2EFF001 L-ICRP60ED

Form Shielding and Exposure Comment:

No shielding protection for phantom cohort A-38

LPROTIN, inhalation protection factor (0 means complete protection)

CHLPROTIN01 1.

LBRRATE, breathing rate for longterm calculation (m3/s)

CHLBRRATE01 2.66E-04

LGSHFAC, longterm groundshine shielding factor (0 means complete protection)

CHLGSHFAC01 1.

NXUM9, used for no input, always 0 TYPE9NUMBER 0

NXUM9, number of type9 results TYPE9NUMBER 6

ORGNAM7, IX1DS9, IX2DS9, CCDF9, organ name to report population dose, inner spatial interval, outer spatial interval, CCDF report indicator flag TYPE9OUT001 L-ICRP60ED 1 14 NONE TYPE9OUT002 L-ICRP60ED 1 17 NONE TYPE9OUT003 L-ICRP60ED 1 22 NONE TYPE9OUT004 L-ICRP60ED 1 25 NONE TYPE9OUT005 L-ICRP60ED 1 28 NONE TYPE9OUT006 L-ICRP60ED 1 31 NONE

NXUM10, used for no input, always 0 TYP10NUMBER 0

NXUM10, number of type10 results TYP10NUMBER 6

I1DS10, I2DS10, CCDF10, FLAG10 - inner spatial interval used in economic cost calculation, outer spatial interval, CCDF report indicator flag, output detail flag (True for extended)

TYP10OUT001 1 14 NONE .TRUE.

TYP10OUT002 1 17 NONE .TRUE.

TYP10OUT003 1 22 NONE .TRUE.

TYP10OUT004 1 25 NONE .TRUE.

TYP10OUT005 1 28 NONE .TRUE.

TYP10OUT006 1 31 NONE .TRUE.

FLAG11, True if reporting maximum action distance for decontamination or interdiction TYP11FLAG11 .TRUE. NONE

NUM12, used for no input, always 0 TYP12NUMBER 0

NUM12, number of type 12 results TYP12NUMBER 6

I1DS12, I2DS12, inner spatial interval for reporting impacted area population results, outer spatial interval TYP12OUT001 1 14 NONE TYP12OUT002 1 17 NONE TYP12OUT003 1 22 NONE TYP12OUT004 1 25 NONE TYP12OUT005 1 28 NONE TYP12OUT006 1 31 NONE

NUM13, used for no input, always 0 TYP13NUMBER 0

NUM13, number of type 13 results TYP13NUMBER 13

IRAD13, ORGN13, spatial interval for the report of maximum food ingestion dose, organ name TYP13OUT001 2 EFFECTIVE NONE A-39

TYP13OUT002 14 EFFECTIVE NONE TYP13OUT003 17 EFFECTIVE NONE TYP13OUT004 22 EFFECTIVE NONE TYP13OUT005 25 EFFECTIVE NONE TYP13OUT006 28 EFFECTIVE NONE TYP13OUT007 31 EFFECTIVE NONE TYP13OUT008 14 THYROID NONE TYP13OUT009 17 THYROID NONE TYP13OUT010 22 THYROID NONE TYP13OUT011 25 THYROID NONE TYP13OUT012 28 THYROID NONE TYP13OUT013 31 THYROID NONE

NUM14, used for no input, always 0 TYP14NUMBER 0

NUM14, number of type 14 results TYP14NUMBER 6

I1DS14, I2DS14, CCDF14 , inner spatial interval in calculated population count in impacted areas, outer spatial interval, CCDF report indicator flag TYP14OUT001 1 14 NONE TYP14OUT002 1 17 NONE TYP14OUT003 1 22 NONE TYP14OUT004 1 25 NONE TYP14OUT005 1 28 NONE TYP14OUT006 1 31 NONE A-40

APPENDIX B MACCS SETTINGSDOSE EXPOSURE PERIOD PATCH FILES This appendix documents the patch files representing the MACCS settings used in the dose exposure period sensitivity analysis. For exposure periods between 2 hours2.314815e-5 days 5.555556e-4 hours 3.306878e-6 weeks 7.61e-7 months and 30 days, the results are the peak dose in the early phase. In the analysis for a 2-hour exposure period, since MACCS does not allow an early phase period of 2 hours2.314815e-5 days 5.555556e-4 hours 3.306878e-6 weeks 7.61e-7 months , the analysis defined a cohort with a 2-hour exposure and perfect protection during evacuation.

For the 51-year exposure period, the results are the peak dose from the combined early and late phases. In this last analysis (not shown), the protective action dose limits in the intermediate and long-term phase were artificially increased so they would not interfere with the dose projection.

B.1 Exposure = 30 Days patch.inp

ENDEMP, duration of the emergency-phase period (s)

SRENDEMP001 7200 *2 hours

SRENDEMP001 86400 *24 hours

SRENDEMP001 345600 *96 hours SRENDEMP001 2592000 *30 days B.2 Exposure = 4 Days patch.inp

ENDEMP, duration of the emergency-phase period (s)

SRENDEMP001 7200 *2 hours

SRENDEMP001 86400 *24 hours SRENDEMP001 345600 *96 hours

SRENDEMP001 2592000 *30 days B.3 Exposure = 1 Day patch.inp

ENDEMP, duration of the emergency-phase period (s)

SRENDEMP001 7200 *2 hours SRENDEMP001 86400 *24 hours

SRENDEMP001 345600 *96 hours

SRENDEMP001 2592000 *30 days B.4 Exposure = 2 Hours patch.inp

ENDEMP, duration of the emergency-phase period (s)

SRENDEMP001 7200 *2 hours

SRENDEMP001 86400 *24 hours

SRENDEMP001 345600 *96 hours

SRENDEMP001 2592000 *30 days

A value of ENDEMP=2hrs is not allowed. To simulate a 2 hour2.314815e-5 days 5.555556e-4 hours 3.306878e-6 weeks 7.61e-7 months dose, cohort 2 is given a 2 hour2.314815e-5 days 5.555556e-4 hours 3.306878e-6 weeks 7.61e-7 months evacuation with perfect sheilding during evacuation.

START OF COHORT 1 B-1

WTFRAC, weighting fraction applied to results of emergency response cohort when WTNAME = PEOPLE or TIME EZWTFRAC001 0.

EVATYP, indicates if evacuation model is radial or network EZEVATYP001 RADIAL

LASMOV , outermost spatial interval of the evacuation movement zone, zero indicates no evaucation EZLASMOV001 22

NUMEVA, outer boundary of the sheltering and evacuation region EZNUMEVA001 22

EVAKEY, evacuation model (CIRCULAR, KEYHOLE, NONE)

EZEVAKEY001 CIRCULAR

DLTSHL, the delay from the time represented by REFPNT to the start of sheltering (s)

EZDLTSHL001 0.

EZDLTSHL002 0.

EZDLTSHL003 0.

EZDLTSHL004 0.

EZDLTSHL005 0.

EZDLTSHL006 0.

EZDLTSHL007 0.

EZDLTSHL008 0.

EZDLTSHL009 0.

EZDLTSHL010 0.

EZDLTSHL011 0.

EZDLTSHL012 0.

EZDLTSHL013 0.

EZDLTSHL014 0.

EZDLTSHL015 0.

EZDLTSHL016 0.

EZDLTSHL017 0.

EZDLTSHL018 0.

EZDLTSHL019 0.

EZDLTSHL020 0.

EZDLTSHL021 0.

EZDLTSHL022 0.

DLTEVA, the delay from the beginning of the sheltering period to the beginning of evacuation EZDLTEVA001 0.

EZDLTEVA002 0.

EZDLTEVA003 0.

EZDLTEVA004 0.

EZDLTEVA005 0.

EZDLTEVA006 0.

EZDLTEVA007 0.

EZDLTEVA008 0.

EZDLTEVA009 0.

EZDLTEVA010 0.

EZDLTEVA011 0.

EZDLTEVA012 0.

EZDLTEVA013 0.

EZDLTEVA014 0.

EZDLTEVA015 0.

EZDLTEVA016 0.

EZDLTEVA017 0.

EZDLTEVA018 0.

EZDLTEVA019 0.

EZDLTEVA020 0.

EZDLTEVA021 0.

EZDLTEVA022 0.

.

END OF COHORT 1 B-2

START OF COHORT 2

WTFRAC, weighting fraction applied to results of emergency response cohort when WTNAME = PEOPLE or TIME EZWTFRAC001 1.

EVATYP, indicates if evacuation model is radial or network EZEVATYP001 RADIAL

EVAKEY, evacuation model (CIRCULAR, KEYHOLE, NONE)

EZEVAKEY001 CIRCULAR

CSFACT, cloudshine shielding factor SECSFACT001 1 SECSFACT002 0 SECSFACT003 0

PROTIN, inhalation protection factor SEPROTIN001 1 SEPROTIN002 0 SEPROTIN003 0

BRRATE, breathing rate (m3/s)

SEBRRATE001 2.66E-04 SEBRRATE002 2.66E-04 SEBRRATE003 2.66E-04

SKPFAC, skin protection factors SESKPFAC001 1 SESKPFAC002 0 SESKPFAC003 0

GSHFAC, groundshine shielding factors SEGSHFAC001 1 SEGSHFAC002 0 SEGSHFAC003 0

TRAVELPOINT, determines whether boundary or centerpoint of destination is evacuee objective TRAVELPOINT CENTERPOINT

ESPEED, evacuee travel speed during the three phases of evacuation (m/s)

EZESPEED001 6.06 EZESPEED002 6.06 EZESPEED003 13.3

ESPMUL, multiplicative factor that affects ESPEED, applied during times of precipitation EZESPMUL001 0.7 EZESPMUL002 0.7 EZESPMUL003 0.7

REFPNT, defines reference time point for actions in evacuation and sheltering zone EZREFPNT001 ALARM

DURBEG, duration of initial phase (when first individual begins to evacuate) of evacuation (s)

EZDURBEG001 1832.

DURMID, duration of middle phase of evacuation (s)

EZDURMID001 808.

NUMEVA, outer boundary of the sheltering and evacuation region EZNUMEVA001 22

LASMOV, outermost spatial interval of the evacuation movement zone EZLASMOV001 22

OALARM, time after accident initiation that off-site alarm is initiated (s)

EZOALARM001 3600.

DLTSHL, the delay from the time represented by REFPNT to the start of sheltering (s)

EZDLTSHL001 0.

B-3

EZDLTSHL002 0.

EZDLTSHL003 0.

EZDLTSHL004 0.

EZDLTSHL005 0.

EZDLTSHL006 0.

EZDLTSHL007 0.

EZDLTSHL008 0.

EZDLTSHL009 0.

EZDLTSHL010 0.

EZDLTSHL011 0.

EZDLTSHL012 0.

EZDLTSHL013 0.

EZDLTSHL014 0.

EZDLTSHL015 0.

EZDLTSHL016 0.

EZDLTSHL017 0.

EZDLTSHL018 0.

EZDLTSHL019 0.

EZDLTSHL020 0.

EZDLTSHL021 0.

EZDLTSHL022 0.

DLTEVA, the delay from the beginning of the sheltering period to the beginning of evacuation EZDLTEVA001 0.

EZDLTEVA002 0.

EZDLTEVA003 0.

EZDLTEVA004 0.

EZDLTEVA005 0.

EZDLTEVA006 0.

EZDLTEVA007 0.

EZDLTEVA008 0.

EZDLTEVA009 0.

EZDLTEVA010 0.

EZDLTEVA011 0.

EZDLTEVA012 0.

EZDLTEVA013 0.

EZDLTEVA014 0.

EZDLTEVA015 0.

EZDLTEVA016 0.

EZDLTEVA017 0.

EZDLTEVA018 0.

EZDLTEVA019 0.

EZDLTEVA020 0.

EZDLTEVA021 0.

EZDLTEVA022 0.

.

END OF COHORT 2 B-4

APPENDIX C MACCS SETTINGSINVENTORY PATCH FILES This appendix documents the settings contained in two patch files, HPR - original nuclide list import.inp and HPR - new nuclide list import.inp. The first contains the heat pipe reactor (HPR) core inventory using a new list of 104 radionuclides as recommended by the HPR radionuclide screening evaluation [20]. The second contains the HPR core inventory using the original list of 71 radionuclides as recommended in NUREG/CR-7270, Technical Bases for Consequence Analysis Using MACCS (MELCOR Accident Consequence Code System),

issued October 2022. Both files are identical for the first 71 radionuclides and contain data from the HPR SCALE depletion calculation [4], but the first file extends the radionuclide list based on the HPR advanced reactor radionuclide screening analysis and updates the pseudostable isotopes to be consistent with the new list.

C.1 HPR nuclide list patch.inp

This is a MACCS import file of the HPR inventory based on SCALE depletion calculations of the INL Design A HPR reactor. The file assumes 99 radionuclides as recommended in the HPR radionuclide screening assessment, plus 5 additional daughter products and an update to the pseudostable isotope list.

NUMSTB, number of pseudostable radionuclides ISNUMSTB001 12

NAMSTB, list of pseudostable radionuclides ISNAMSTB001 I-129 ISNAMSTB002 Xe-131m ISNAMSTB003 Xe-133m ISNAMSTB004 Cs-135 ISNAMSTB005 Sm-147 ISNAMSTB006 U-235 ISNAMSTB007 U-236 ISNAMSTB008 Np-237 ISNAMSTB009 Rb-87 ISNAMSTB010 Zr-93 ISNAMSTB011 Nb-93m ISNAMSTB012 Tc-99

NUMISO, number of nuclides ISNUMISO001 104

NUCNAM, IGROUP, chemical group associated with each nuclide ISOTPGRP001 Kr-85 1 ISOTPGRP002 Kr-85m 1 ISOTPGRP003 Kr-87 1 ISOTPGRP004 Kr-88 1 ISOTPGRP005 Xe-133 1 ISOTPGRP006 Xe-135 1 ISOTPGRP007 Xe-135m 1 ISOTPGRP008 Cs-134 2 ISOTPGRP009 Cs-136 2 ISOTPGRP010 Cs-137 2 ISOTPGRP011 Rb-86 2 ISOTPGRP012 Rb-88 2 ISOTPGRP013 Ba-139 3 ISOTPGRP014 Ba-140 3 ISOTPGRP015 Sr-89 3 ISOTPGRP016 Sr-90 3 ISOTPGRP017 Sr-91 3 ISOTPGRP018 Sr-92 3 ISOTPGRP019 Ba-137m 3 ISOTPGRP020 I-131 4 C-1

ISOTPGRP021 I-132 4 ISOTPGRP022 I-133 4 ISOTPGRP023 I-134 4 ISOTPGRP024 I-135 4 ISOTPGRP025 Te-127 5 ISOTPGRP026 Te-127m 5 ISOTPGRP027 Te-129 5 ISOTPGRP028 Te-129m 5 ISOTPGRP029 Te-131m 5 ISOTPGRP030 Te-132 5 ISOTPGRP031 Te-131 5 ISOTPGRP032 Rh-105 6 ISOTPGRP033 Ru-103 6 ISOTPGRP034 Ru-105 6 ISOTPGRP035 Ru-106 6 ISOTPGRP036 Rh-103m 6 ISOTPGRP037 Rh-106 6 ISOTPGRP038 Nb-95 7 ISOTPGRP039 Co-58 7 ISOTPGRP040 Co-60 7 ISOTPGRP041 Mo-99 7 ISOTPGRP042 Tc-99m 7 ISOTPGRP043 Nb-97 7 ISOTPGRP044 Nb-97m 7 ISOTPGRP045 Ce-141 8 ISOTPGRP046 Ce-143 8 ISOTPGRP047 Ce-144 8 ISOTPGRP048 Np-239 8 ISOTPGRP049 Pu-238 8 ISOTPGRP050 Pu-239 8 ISOTPGRP051 Pu-240 8 ISOTPGRP052 Pu-241 8 ISOTPGRP053 Zr-95 8 ISOTPGRP054 Zr-97 8 ISOTPGRP055 Am-241 9 ISOTPGRP056 Cm-242 9 ISOTPGRP057 Cm-244 9 ISOTPGRP058 La-140 9 ISOTPGRP059 La-141 9 ISOTPGRP060 La-142 9 ISOTPGRP061 Nd-147 9 ISOTPGRP062 Pr-143 9 ISOTPGRP063 Y-90 9 ISOTPGRP064 Y-91 9 ISOTPGRP065 Y-92 9 ISOTPGRP066 Y-93 9 ISOTPGRP067 Y-91m 9 ISOTPGRP068 Pr-144 9 ISOTPGRP069 Pr-144m 9 ISOTPGRP070 Sb-127 11 ISOTPGRP071 Sb-129 11 ISOTPGRP072 Ag-111 12 ISOTPGRP073 As-77 11 ISOTPGRP074 Cd-115 11 ISOTPGRP075 Cd-115m 11 ISOTPGRP076 Eu-154 9 ISOTPGRP077 Eu-155 9 ISOTPGRP078 Eu-156 9 ISOTPGRP079 Ge-77 12 ISOTPGRP080 Nb-95m 7 ISOTPGRP081 Nd-149 9 ISOTPGRP082 Pd-109 6 ISOTPGRP083 Pm-147 9 ISOTPGRP084 Pm-148 9 ISOTPGRP085 Pm-148m 9 ISOTPGRP086 Pm-149 9 ISOTPGRP087 Pm-151 9 ISOTPGRP088 Pr-145 9 ISOTPGRP089 Sb-125 11 ISOTPGRP090 Sm-151 9 ISOTPGRP091 Sm-153 9 C-2

ISOTPGRP092 Sm-156 9 ISOTPGRP093 Sn-121 12 ISOTPGRP094 Sn-123 12 ISOTPGRP095 Sn-125 12 ISOTPGRP096 Sn-127 12 ISOTPGRP097 Te-125m 5 ISOTPGRP098 U-234 10 ISOTPGRP099 U-237 10 ISOTPGRP100 In-115m 12 ISOTPGRP101 In-115 12 ISOTPGRP102 Th-230 8 ISOTPGRP103 Ra-226 3 ISOTPGRP104 Rn-222 1

NUCSCA, fraction scale factor to be applied to RELFRC (Columns: NUCNAM, IGROUP, NUCSCA)

RDNUCSCA001 Kr-85 1 1.

RDNUCSCA002 Kr-85m 1 1.

RDNUCSCA003 Kr-87 1 1.

RDNUCSCA004 Kr-88 1 1.

RDNUCSCA005 Xe-133 1 1.

RDNUCSCA006 Xe-135 1 1.

RDNUCSCA007 Xe-135m 1 1.

RDNUCSCA008 Cs-134 2 1.

RDNUCSCA009 Cs-136 2 1.

RDNUCSCA010 Cs-137 2 1.

RDNUCSCA011 Rb-86 2 1.

RDNUCSCA012 Rb-88 2 1.

RDNUCSCA013 Ba-139 3 1.

RDNUCSCA014 Ba-140 3 1.

RDNUCSCA015 Sr-89 3 1.

RDNUCSCA016 Sr-90 3 1.

RDNUCSCA017 Sr-91 3 1.

RDNUCSCA018 Sr-92 3 1.

RDNUCSCA019 Ba-137m 3 1.

RDNUCSCA020 I-131 4 1.

RDNUCSCA021 I-132 4 1.

RDNUCSCA022 I-133 4 1.

RDNUCSCA023 I-134 4 1.

RDNUCSCA024 I-135 4 1.

RDNUCSCA025 Te-127 5 1.

RDNUCSCA026 Te-127m 5 1.

RDNUCSCA027 Te-129 5 1.

RDNUCSCA028 Te-129m 5 1.

RDNUCSCA029 Te-131m 5 1.

RDNUCSCA030 Te-132 5 1.

RDNUCSCA031 Te-131 5 1.

RDNUCSCA032 Rh-105 6 1.

RDNUCSCA033 Ru-103 6 1.

RDNUCSCA034 Ru-105 6 1.

RDNUCSCA035 Ru-106 6 1.

RDNUCSCA036 Rh-103m 6 1.

RDNUCSCA037 Rh-106 6 1.

RDNUCSCA038 Nb-95 7 1.

RDNUCSCA039 Co-58 7 1.

RDNUCSCA040 Co-60 7 1.

RDNUCSCA041 Mo-99 7 1.

RDNUCSCA042 Tc-99m 7 1.

RDNUCSCA043 Nb-97 7 1.

RDNUCSCA044 Nb-97m 7 1.

RDNUCSCA045 Ce-141 8 1.

RDNUCSCA046 Ce-143 8 1.

RDNUCSCA047 Ce-144 8 1.

RDNUCSCA048 Np-239 8 1.

RDNUCSCA049 Pu-238 8 1.

RDNUCSCA050 Pu-239 8 1.

RDNUCSCA051 Pu-240 8 1.

RDNUCSCA052 Pu-241 8 1.

RDNUCSCA053 Zr-95 8 1.

RDNUCSCA054 Zr-97 8 1.

RDNUCSCA055 Am-241 9 1.

RDNUCSCA056 Cm-242 9 1.

C-3

RDNUCSCA057 Cm-244 9 1.

RDNUCSCA058 La-140 9 1.

RDNUCSCA059 La-141 9 1.

RDNUCSCA060 La-142 9 1.

RDNUCSCA061 Nd-147 9 1.

RDNUCSCA062 Pr-143 9 1.

RDNUCSCA063 Y-90 9 1.

RDNUCSCA064 Y-91 9 1.

RDNUCSCA065 Y-92 9 1.

RDNUCSCA066 Y-93 9 1.

RDNUCSCA067 Y-91m 9 1.

RDNUCSCA068 Pr-144 9 1.

RDNUCSCA069 Pr-144m 9 1.

RDNUCSCA070 Sb-127 11 1.

RDNUCSCA071 Sb-129 11 1.

RDNUCSCA072 Ag-111 12 1.

RDNUCSCA073 As-77 11 1.

RDNUCSCA074 Cd-115 11 1.

RDNUCSCA075 Cd-115m 11 1.

RDNUCSCA076 Eu-154 9 1.

RDNUCSCA077 Eu-155 9 1.

RDNUCSCA078 Eu-156 9 1.

RDNUCSCA079 Ge-77 12 1.

RDNUCSCA080 Nb-95m 7 1.

RDNUCSCA081 Nd-149 9 1.

RDNUCSCA082 Pd-109 6 1.

RDNUCSCA083 Pm-147 9 1.

RDNUCSCA084 Pm-148 9 1.

RDNUCSCA085 Pm-148m 9 1.

RDNUCSCA086 Pm-149 9 1.

RDNUCSCA087 Pm-151 9 1.

RDNUCSCA088 Pr-145 9 1.

RDNUCSCA089 Sb-125 11 1.

RDNUCSCA090 Sm-151 9 1.

RDNUCSCA091 Sm-153 9 1.

RDNUCSCA092 Sm-156 9 1.

RDNUCSCA093 Sn-121 12 1.

RDNUCSCA094 Sn-123 12 1.

RDNUCSCA095 Sn-125 12 1.

RDNUCSCA096 Sn-127 12 1.

RDNUCSCA097 Te-125m 5 1.

RDNUCSCA098 U-234 10 1.

RDNUCSCA099 U-237 10 1.

RDNUCSCA100 In-115m 12 1.

RDNUCSCA101 In-115 12 1.

RDNUCSCA102 Th-230 8 1.

RDNUCSCA103 Ra-226 3 1.

RDNUCSCA104 Rn-222 1 1.

CORINV, inventory of each radionuclide present at the time of accident initiation (Bq)

RDCORINV001 Kr-85 1.1691E+14 RDCORINV002 Kr-85m 1.9459E+15 RDCORINV003 Kr-87 3.8162E+15 RDCORINV004 Kr-88 5.2330E+15 RDCORINV005 Xe-133 1.0411E+16 RDCORINV006 Xe-135 1.0209E+16 RDCORINV007 Xe-135m 1.8497E+15 RDCORINV008 Cs-134 1.2400E+13 RDCORINV009 Cs-136 1.7619E+13 RDCORINV010 Cs-137 1.0444E+15 RDCORINV011 Rb-86 1.4908E+12 RDCORINV012 Rb-88 5.2731E+15 RDCORINV013 Ba-139 9.8213E+15 RDCORINV014 Ba-140 9.5172E+15 RDCORINV015 Sr-89 6.9570E+15 RDCORINV016 Sr-90 9.6366E+14 RDCORINV017 Sr-91 8.7223E+15 RDCORINV018 Sr-92 8.9274E+15 RDCORINV019 Ba-137m 9.8928E+14 RDCORINV020 I-131 4.6425E+15 C-4

RDCORINV021 I-132 6.9743E+15 RDCORINV022 I-133 1.0362E+16 RDCORINV023 I-134 1.2067E+16 RDCORINV024 I-135 9.8654E+15 RDCORINV025 Te-127 2.9981E+14 RDCORINV026 Te-127m 4.8350E+13 RDCORINV027 Te-129 9.5035E+14 RDCORINV028 Te-129m 1.6589E+14 RDCORINV029 Te-131m 6.2486E+14 RDCORINV030 Te-132 6.8953E+15 RDCORINV031 Te-131 4.1801E+15 RDCORINV032 Rh-105 1.9973E+15 RDCORINV033 Ru-103 5.2929E+15 RDCORINV034 Ru-105 2.0692E+15 RDCORINV035 Ru-106 9.7430E+14 RDCORINV036 Rh-103m 5.2354E+15 RDCORINV037 Rh-106 9.7435E+14 RDCORINV038 Nb-95 9.8495E+15 RDCORINV039 Co-58 0 RDCORINV040 Co-60 0 RDCORINV041 Mo-99 9.4597E+15 RDCORINV042 Tc-99m 8.4709E+15 RDCORINV043 Nb-97 9.2447E+15 RDCORINV044 Nb-97m 8.7739E+15 RDCORINV045 Ce-141 8.9956E+15 RDCORINV046 Ce-143 8.9807E+15 RDCORINV047 Ce-144 8.2266E+15 RDCORINV048 Np-239 7.6711E+16 RDCORINV049 Pu-238 9.3667E+10 RDCORINV050 Pu-239 1.0932E+13 RDCORINV051 Pu-240 5.4714E+10 RDCORINV052 Pu-241 1.0737E+11 RDCORINV053 Zr-95 9.8547E+15 RDCORINV054 Zr-97 9.2281E+15 RDCORINV055 Am-241 2.1863E+08 RDCORINV056 Cm-242 3.6011E+08 RDCORINV057 Cm-244 3.9165E+03 RDCORINV058 La-140 9.5253E+15 RDCORINV059 La-141 9.0176E+15 RDCORINV060 La-142 8.8054E+15 RDCORINV061 Nd-147 3.5134E+15 RDCORINV062 Pr-143 8.9964E+15 RDCORINV063 Y-90 9.6248E+14 RDCORINV064 Y-91 8.6985E+15 RDCORINV065 Y-92 9.0098E+15 RDCORINV066 Y-93 9.5847E+15 RDCORINV067 Y-91m 5.1321E+15 RDCORINV068 Pr-144 8.2269E+15 RDCORINV069 Pr-144m 7.8618E+13 RDCORINV070 Sb-127 2.9214E+14 RDCORINV071 Sb-129 9.9663E+14 RDCORINV072 Ag-111 5.3718E+13 RDCORINV073 As-77 1.6361E+13 RDCORINV074 Cd-115 3.5822E+13 RDCORINV075 Cd-115m 2.1272E+12 RDCORINV076 Eu-154 6.4342E+11 RDCORINV077 Eu-155 3.5986E+13 RDCORINV078 Eu-156 3.5653E+13 RDCORINV079 Ge-77 1.7524E+13 RDCORINV080 Nb-95m 1.0648E+14 RDCORINV081 Nd-149 1.7575E+15 RDCORINV082 Pd-109 1.1571E+14 RDCORINV083 Pm-147 2.5593E+15 RDCORINV084 Pm-148 7.4819E+12 RDCORINV085 Pm-148m 6.2090E+12 RDCORINV086 Pm-149 1.7379E+15 RDCORINV087 Pm-151 7.1140E+14 RDCORINV088 Pr-145 6.0406E+15 RDCORINV089 Sb-125 5.4589E+13 RDCORINV090 Sm-151 2.6630E+13 RDCORINV091 Sm-153 2.9258E+14 C-5

RDCORINV092 Sm-156 3.5372E+13 RDCORINV093 Sn-121 3.6275E+13 RDCORINV094 Sn-123 2.7937E+12 RDCORINV095 Sn-125 2.5928E+13 RDCORINV096 Sn-127 1.7085E+14 RDCORINV097 Te-125m 1.2297E+13 RDCORINV098 U-234 1.5721E+12 RDCORINV099 U-237 6.2345E+14 RDCORINV100 In-115m 3.6243E+13 RDCORINV101 In-115 2.8884E-01 RDCORINV102 Th-230 7.2342E+07 RDCORINV103 Ra-226 7.8329E+04 RDCORINV104 Rn-222 7.7857E+04 C.2 LWR nuclide list patch.inp

This is a MACCS import file of the HPR inventory based on SCALE depletion calculations of the INL Design A HPR reactor. The file assumes 71 radionuclides as recommended in NUREG/CR-7270.*

Number of Pseudostable Radionuclides ISNUMSTB001 16

List of Pseudostable Radionuclides ISNAMSTB001 I-129 ISNAMSTB002 Xe-131m ISNAMSTB003 Xe-133m ISNAMSTB004 Cs-135 ISNAMSTB005 Sm-147 ISNAMSTB006 U-234 ISNAMSTB007 U-235 ISNAMSTB008 U-236 ISNAMSTB009 U-237 ISNAMSTB010 Np-237 ISNAMSTB011 Rb-87 ISNAMSTB012 Zr-93 ISNAMSTB013 Nb-93m ISNAMSTB014 Nb-95m ISNAMSTB015 Tc-99 ISNAMSTB016 Pm-147

NUMISO, number of nuclides ISNUMISO001 71

NUCNAM, IGROUP, chemical group associated with each nuclide ISOTPGRP001 Kr-85 1 ISOTPGRP002 Kr-85m 1 ISOTPGRP003 Kr-87 1 ISOTPGRP004 Kr-88 1 ISOTPGRP005 Xe-133 1 ISOTPGRP006 Xe-135 1 ISOTPGRP007 Xe-135m 1 ISOTPGRP008 Cs-134 2 ISOTPGRP009 Cs-136 2 ISOTPGRP010 Cs-137 2 ISOTPGRP011 Rb-86 2 ISOTPGRP012 Rb-88 2 ISOTPGRP013 Ba-139 3 ISOTPGRP014 Ba-140 3 ISOTPGRP015 Sr-89 3 ISOTPGRP016 Sr-90 3 ISOTPGRP017 Sr-91 3 ISOTPGRP018 Sr-92 3 ISOTPGRP019 Ba-137m 3 ISOTPGRP020 I-131 4 ISOTPGRP021 I-132 4 ISOTPGRP022 I-133 4 ISOTPGRP023 I-134 4 C-6

ISOTPGRP024 I-135 4 ISOTPGRP025 Te-127 5 ISOTPGRP026 Te-127m 5 ISOTPGRP027 Te-129 5 ISOTPGRP028 Te-129m 5 ISOTPGRP029 Te-131m 5 ISOTPGRP030 Te-132 5 ISOTPGRP031 Te-131 5 ISOTPGRP032 Rh-105 6 ISOTPGRP033 Ru-103 6 ISOTPGRP034 Ru-105 6 ISOTPGRP035 Ru-106 6 ISOTPGRP036 Rh-103m 6 ISOTPGRP037 Rh-106 6 ISOTPGRP038 Nb-95 7 ISOTPGRP039 Co-58 7 ISOTPGRP040 Co-60 7 ISOTPGRP041 Mo-99 7 ISOTPGRP042 Tc-99m 7 ISOTPGRP043 Nb-97 7 ISOTPGRP044 Nb-97m 7 ISOTPGRP045 Ce-141 8 ISOTPGRP046 Ce-143 8 ISOTPGRP047 Ce-144 8 ISOTPGRP048 Np-239 8 ISOTPGRP049 Pu-238 8 ISOTPGRP050 Pu-239 8 ISOTPGRP051 Pu-240 8 ISOTPGRP052 Pu-241 8 ISOTPGRP053 Zr-95 8 ISOTPGRP054 Zr-97 8 ISOTPGRP055 Am-241 9 ISOTPGRP056 Cm-242 9 ISOTPGRP057 Cm-244 9 ISOTPGRP058 La-140 9 ISOTPGRP059 La-141 9 ISOTPGRP060 La-142 9 ISOTPGRP061 Nd-147 9 ISOTPGRP062 Pr-143 9 ISOTPGRP063 Y-90 9 ISOTPGRP064 Y-91 9 ISOTPGRP065 Y-92 9 ISOTPGRP066 Y-93 9 ISOTPGRP067 Y-91m 9 ISOTPGRP068 Pr-144 9 ISOTPGRP069 Pr-144m 9 ISOTPGRP070 Sb-127 11 ISOTPGRP071 Sb-129 11

NUCSCA, fraction scale factor to be applied to RELFRC (Columns: NUCNAM, IGROUP, NUCSCA)

RDNUCSCA001 Kr-85 1 1.

RDNUCSCA002 Kr-85m 1 1.

RDNUCSCA003 Kr-87 1 1.

RDNUCSCA004 Kr-88 1 1.

RDNUCSCA005 Xe-133 1 1.

RDNUCSCA006 Xe-135 1 1.

RDNUCSCA007 Xe-135m 1 1.

RDNUCSCA008 Cs-134 2 1.

RDNUCSCA009 Cs-136 2 1.

RDNUCSCA010 Cs-137 2 1.

RDNUCSCA011 Rb-86 2 1.

RDNUCSCA012 Rb-88 2 1.

RDNUCSCA013 Ba-139 3 1.

RDNUCSCA014 Ba-140 3 1.

RDNUCSCA015 Sr-89 3 1.

RDNUCSCA016 Sr-90 3 1.

RDNUCSCA017 Sr-91 3 1.

RDNUCSCA018 Sr-92 3 1.

RDNUCSCA019 Ba-137m 3 1.

RDNUCSCA020 I-131 4 1.

RDNUCSCA021 I-132 4 1.

C-7

RDNUCSCA022 I-133 4 1.

RDNUCSCA023 I-134 4 1.

RDNUCSCA024 I-135 4 1.

RDNUCSCA025 Te-127 5 1.

RDNUCSCA026 Te-127m 5 1.

RDNUCSCA027 Te-129 5 1.

RDNUCSCA028 Te-129m 5 1.

RDNUCSCA029 Te-131m 5 1.

RDNUCSCA030 Te-132 5 1.

RDNUCSCA031 Te-131 5 1.

RDNUCSCA032 Rh-105 6 1.

RDNUCSCA033 Ru-103 6 1.

RDNUCSCA034 Ru-105 6 1.

RDNUCSCA035 Ru-106 6 1.

RDNUCSCA036 Rh-103m 6 1.

RDNUCSCA037 Rh-106 6 1.

RDNUCSCA038 Nb-95 7 1.

RDNUCSCA039 Co-58 7 1.

RDNUCSCA040 Co-60 7 1.

RDNUCSCA041 Mo-99 7 1.

RDNUCSCA042 Tc-99m 7 1.

RDNUCSCA043 Nb-97 7 1.

RDNUCSCA044 Nb-97m 7 1.

RDNUCSCA045 Ce-141 8 1.

RDNUCSCA046 Ce-143 8 1.

RDNUCSCA047 Ce-144 8 1.

RDNUCSCA048 Np-239 8 1.

RDNUCSCA049 Pu-238 8 1.

RDNUCSCA050 Pu-239 8 1.

RDNUCSCA051 Pu-240 8 1.

RDNUCSCA052 Pu-241 8 1.

RDNUCSCA053 Zr-95 8 1.

RDNUCSCA054 Zr-97 8 1.

RDNUCSCA055 Am-241 9 1.

RDNUCSCA056 Cm-242 9 1.

RDNUCSCA057 Cm-244 9 1.

RDNUCSCA058 La-140 9 1.

RDNUCSCA059 La-141 9 1.

RDNUCSCA060 La-142 9 1.

RDNUCSCA061 Nd-147 9 1.

RDNUCSCA062 Pr-143 9 1.

RDNUCSCA063 Y-90 9 1.

RDNUCSCA064 Y-91 9 1.

RDNUCSCA065 Y-92 9 1.

RDNUCSCA066 Y-93 9 1.

RDNUCSCA067 Y-91m 9 1.

RDNUCSCA068 Pr-144 9 1.

RDNUCSCA069 Pr-144m 9 1.

RDNUCSCA070 Sb-127 11 1.

RDNUCSCA071 Sb-129 11 1.

CORINV, inventory of each radionuclide present at the time of accident initiation (Bq)

RDCORINV001 Kr-85 1.1691E+14 RDCORINV002 Kr-85m 1.9459E+15 RDCORINV003 Kr-87 3.8162E+15 RDCORINV004 Kr-88 5.2330E+15 RDCORINV005 Xe-133 1.0411E+16 RDCORINV006 Xe-135 1.0209E+16 RDCORINV007 Xe-135m 1.8497E+15 RDCORINV008 Cs-134 1.2400E+13 RDCORINV009 Cs-136 1.7619E+13 RDCORINV010 Cs-137 1.0444E+15 RDCORINV011 Rb-86 1.4908E+12 RDCORINV012 Rb-88 5.2731E+15 RDCORINV013 Ba-139 9.8213E+15 RDCORINV014 Ba-140 9.5172E+15 RDCORINV015 Sr-89 6.9570E+15 RDCORINV016 Sr-90 9.6366E+14 RDCORINV017 Sr-91 8.7223E+15 RDCORINV018 Sr-92 8.9274E+15 RDCORINV019 Ba-137m 9.8928E+14 C-8

RDCORINV020 I-131 4.6425E+15 RDCORINV021 I-132 6.9743E+15 RDCORINV022 I-133 1.0362E+16 RDCORINV023 I-134 1.2067E+16 RDCORINV024 I-135 9.8654E+15 RDCORINV025 Te-127 2.9981E+14 RDCORINV026 Te-127m 4.8350E+13 RDCORINV027 Te-129 9.5035E+14 RDCORINV028 Te-129m 1.6589E+14 RDCORINV029 Te-131m 6.2486E+14 RDCORINV030 Te-132 6.8953E+15 RDCORINV031 Te-131 4.1801E+15 RDCORINV032 Rh-105 1.9973E+15 RDCORINV033 Ru-103 5.2929E+15 RDCORINV034 Ru-105 2.0692E+15 RDCORINV035 Ru-106 9.7430E+14 RDCORINV036 Rh-103m 5.2354E+15 RDCORINV037 Rh-106 9.7435E+14 RDCORINV038 Nb-95 9.8495E+15 RDCORINV039 Co-58 0 RDCORINV040 Co-60 0 RDCORINV041 Mo-99 9.4597E+15 RDCORINV042 Tc-99m 8.4709E+15 RDCORINV043 Nb-97 9.2447E+15 RDCORINV044 Nb-97m 8.7739E+15 RDCORINV045 Ce-141 8.9956E+15 RDCORINV046 Ce-143 8.9807E+15 RDCORINV047 Ce-144 8.2266E+15 RDCORINV048 Np-239 7.6711E+16 RDCORINV049 Pu-238 9.3667E+10 RDCORINV050 Pu-239 1.0932E+13 RDCORINV051 Pu-240 5.4714E+10 RDCORINV052 Pu-241 1.0737E+11 RDCORINV053 Zr-95 9.8547E+15 RDCORINV054 Zr-97 9.2281E+15 RDCORINV055 Am-241 2.1863E+08 RDCORINV056 Cm-242 3.6011E+08 RDCORINV057 Cm-244 3.9165E+03 RDCORINV058 La-140 9.5253E+15 RDCORINV059 La-141 9.0176E+15 RDCORINV060 La-142 8.8054E+15 RDCORINV061 Nd-147 3.5134E+15 RDCORINV062 Pr-143 8.9964E+15 RDCORINV063 Y-90 9.6248E+14 RDCORINV064 Y-91 8.6985E+15 RDCORINV065 Y-92 9.0098E+15 RDCORINV066 Y-93 9.5847E+15 RDCORINV067 Y-91m 5.1321E+15 RDCORINV068 Pr-144 8.2269E+15 RDCORINV069 Pr-144m 7.8618E+13 RDCORINV070 Sb-127 2.9214E+14 RDCORINV071 Sb-129 9.9663E+14 C-9

APPENDIX D MACCS SETTINGSNEARFIELD MODELING PATCH FILES This appendix presents the settings for the MACCS nearfield modeling approaches.

D.1 NearfieldRamsdell and Fosmire patch.inp

MNDMOD, plume meander model (OLD, NEW, OFF, RAF)

PMMNDMOD001 RAF

SRCMOD, Plume Source model set to PNT (PNT, AREA, AUTO)

RDSRCMOD001 PNT

RAFDIST, Distance to stop using Ramsdell and Fosmire meander model PMRAFDIST01 1200.

TIMSCLY1, Ramsdell and Fosmire meander model low speed y timescale parameter PMTIMSCLY11 1000.

TIMSCLZ1, Ramsdell and Fosmire meander model low speed z timescale parameter PMTIMSCLZ11 100.

TIMSCLY2, Ramsdell and Fosmire meander model high speed y timescale coefficient PMTIMSCLY21 10.

TIMSCLZ2, Ramsdell and Fosmire meander model high speed z timescale coefficient PMTIMSCLZ21 10.

BKGTRBV, Ramsdell and Fosmire meander model background v turbulence PMBKGTRBV01 0.655

BKGTRBW, Ramsdell and Fosmire meander model background w turbulence PMBKGTRBW01 0.584

TRBINCV1, Ramsdell and Fosmire meander model low speed v turbulent increment PMTRBINCV11 0.835

TRBINCW1, Ramsdell and Fosmire meander model low speed w turbulent increment PMTRBINCW11 0.239

TRBINCV2, Ramsdell and Fosmire meander model high speed v turbulent coefficient PMTRBINCV21 0.02

TRBINCW2, Ramsdell and Fosmire meander model high speed w turbulent coefficient PMTRBINCW21 0.01 D.2 NearfieldRG 1.145 point source patch.inp

MNDMOD, plume meander model (OLD, NEW, OFF, RAF)

PMMNDMOD001 NEW

WINSP1, wind speed where the meander factor changes from constant to decreasing(m/s)

PMWINSP1001 2.

WINSP2, wind speed where the meander factor reaches one (m/s)

PMWINSP2001 6.

MNDIST, distance where the effect of meander begins to diminish (m)

PMMNDIST001 800.

MNDFAC, plume meander factor used to calculate sigma-y PMMNDFAC001 1.

D-1

PMMNDFAC002 1.

PMMNDFAC003 1.

PMMNDFAC004 2.

PMMNDFAC005 3.

PMMNDFAC006 4.

SRCMOD, Plume Source model set to PNT (PNT, AREA, AUTO)

RDSRCMOD001 PNT

PSMEQ1C, Point Source Model Equation 1 Coefficient PMPSMEQ1C01 0.5

PSMEQ2C, Point Source Model Equation 2 Coefficient PMPSMEQ2C01 3.

D.3 NearfieldRG 1.145 area source patch.inp

MNDMOD, plume meander model (OLD, NEW, OFF, RAF)

PMMNDMOD001 NEW

WINSP1, wind speed where the meander factor changes from constant to decreasing(m/s)

PMWINSP1001 2.

WINSP2, wind speed where the meander factor reaches one (m/s)

PMWINSP2001 6.

MNDIST, distance where the effect of meander begins to diminish (m)

PMMNDIST001 800.

MNDFAC, plume meander factor used to calculate sigma-y PMMNDFAC001 1.

PMMNDFAC002 1.

PMMNDFAC003 1.

PMMNDFAC004 2.

PMMNDFAC005 3.

PMMNDFAC006 4.

SRCMOD, Plume Source model set to PNT (PNT, AREA, AUTO)

RDSRCMOD001 AREA

SIGYINIT, initial value of sigma-y for each of the plumes (m)

SIGYINIT001 5.0116E+00

given by MelMACCS file

SIGZINIT, initial value of sigma-z for each of the plumes (m)

SIGZINIT001 4.2558E+00

given by MelMACCS file D-2

APPENDIX E MACCS SETTINGSRELEASE TIMING PATCH FILES This appendix shows the settings used for the release timing sensitivity analysis. The sensitivity analysis considered changes in the release of -0.94 (immediate release), 0 (base case), 1, 2, 4, 8, 24, and 96 hours0.00111 days 0.0267 hours 1.587302e-4 weeks 3.6528e-5 months . To avoid redundancy, the input for just one realization is shown below.

However, the inputs for all the realizations are available in the commented lines and can be run by switching the comment fields.

Start Time of Release RDPDELAY001 0.00E+00 0.00E+00 3.59E+03 3.59E+03 7.19E+03 7.19E+03 1.08E+04 1.08E+04 1.44E+04 1.80E+04 2.16E+04 2.52E+04 2.88E+04 3.24E+04 3.60E+04 3.96E+04 4.32E+04 4.68E+04 5.04E+04 5.40E+04 5.76E+04 6.12E+04 6.48E+04 6.84E+04 7.20E+04 7.56E+04 7.92E+04 8.28E+04 *Immediate Release (-0.94 hours0.00109 days 0.0261 hours 1.554233e-4 weeks 3.5767e-5 months )

RDPDELAY001 3.37E+03 3.37E+03 6.96E+03 6.96E+03 1.06E+04 1.06E+04 1.42E+04 1.42E+04 1.78E+04 2.14E+04 2.50E+04 2.86E+04 3.22E+04 3.58E+04 3.94E+04 4.30E+04 4.66E+04 5.02E+04 5.38E+04 5.74E+04 6.10E+04 6.46E+04 6.82E+04 7.18E+04 7.54E+04 7.90E+04 8.26E+04 8.62E+04 *Base Case (0 delay)

RDPDELAY001 6.97E+03 6.97E+03 1.06E+04 1.06E+04 1.42E+04 1.42E+04 1.78E+04 1.78E+04 2.14E+04 2.50E+04 2.86E+04 3.22E+04 3.58E+04 3.94E+04 4.30E+04 4.66E+04 5.02E+04 5.38E+04 5.74E+04 6.10E+04 6.46E+04 6.82E+04 7.18E+04 7.54E+04 7.90E+04 8.26E+04 8.62E+04 8.98E+04 *1 hour delay

RDPDELAY001 1.06E+04 1.06E+04 1.42E+04 1.42E+04 1.78E+04 1.78E+04 2.14E+04 2.14E+04 2.50E+04 2.86E+04 3.22E+04 3.58E+04 3.94E+04 4.30E+04 4.66E+04 5.02E+04 5.38E+04 5.74E+04 6.10E+04 6.46E+04 6.82E+04 7.18E+04 7.54E+04 7.90E+04 8.26E+04 8.62E+04 8.98E+04 9.34E+04 *2 hour delay

RDPDELAY001 1.42E+04 1.42E+04 1.78E+04 1.78E+04 2.14E+04 2.14E+04 2.50E+04 2.50E+04 2.86E+04 3.22E+04 3.58E+04 3.94E+04 4.30E+04 4.66E+04 5.02E+04 5.38E+04 5.74E+04 6.10E+04 6.46E+04 6.82E+04 7.18E+04 7.54E+04 7.90E+04 8.26E+04 8.62E+04 8.98E+04 9.34E+04 9.70E+04 *4 hour delay

RDPDELAY001 1.78E+04 1.78E+04 2.14E+04 2.14E+04 2.50E+04 2.50E+04 2.86E+04 2.86E+04 3.22E+04 3.58E+04 3.94E+04 4.30E+04 4.66E+04 5.02E+04 5.38E+04 5.74E+04 6.10E+04 6.46E+04 6.82E+04 7.18E+04 7.54E+04 7.90E+04 8.26E+04 8.62E+04 8.98E+04 9.34E+04 9.70E+04 1.01E+05 *8 hour delay

RDPDELAY001 2.14E+04 2.14E+04 2.50E+04 2.50E+04 2.86E+04 2.86E+04 3.22E+04 3.22E+04 3.58E+04 3.94E+04 4.30E+04 4.66E+04 5.02E+04 5.38E+04 5.74E+04 6.10E+04 6.46E+04 6.82E+04 7.18E+04 7.54E+04 7.90E+04 8.26E+04 8.62E+04 8.98E+04 9.34E+04 9.70E+04 1.01E+05 1.04E+05 *24 hour delay

RDPDELAY001 2.50E+04 2.50E+04 2.86E+04 2.86E+04 3.22E+04 3.22E+04 3.58E+04 3.58E+04 3.94E+04 4.30E+04 4.66E+04 5.02E+04 5.38E+04 5.74E+04 6.10E+04 6.46E+04 6.82E+04 7.18E+04 7.54E+04 7.90E+04 8.26E+04 8.62E+04 8.98E+04 9.34E+04 9.70E+04 1.01E+05 1.04E+05 1.08E+05 *96 hour delay

End of the Early Phase ENDEMP 601427

7 days - 0.94 hours0.00109 days 0.0261 hours 1.554233e-4 weeks 3.5767e-5 months

ENDEMP 604800

7 days

ENDEMP 608400

7 days + 1 hour1.157407e-5 days 2.777778e-4 hours 1.653439e-6 weeks 3.805e-7 months

ENDEMP 612000

7 days + 2 hours2.314815e-5 days 5.555556e-4 hours 3.306878e-6 weeks 7.61e-7 months

ENDEMP 619200

7 days + 4 hours4.62963e-5 days 0.00111 hours 6.613757e-6 weeks 1.522e-6 months

ENDEMP 633600

7 days + 8 hours9.259259e-5 days 0.00222 hours 1.322751e-5 weeks 3.044e-6 months

ENDEMP 691200

8 days

ENDEMP 950400

11 days E-1

APPENDIX F MACCS SETTINGSHEAT PIPE REACTOR GENERAL SETTINGS This appendix documents the contents of HPR - Advanced Reactor import.inp. This file contains the general settings imported into the MACCS project for the heat pipe reactor advanced reactor demonstration project.

This an import file for the HPR advanced reactor demonstration project. Starting with the AAB sample problem created using NUREG/CR-7270, this file provides documentation of the general settings used for this project. Before this file was imported, the project reset two optional forms for the Type E output (population movement) and for CORSCA (Release Fraction Scale Factors) to their default settings.

ATMOS inputs

Comment:

WinMACCS v4.1 does not recognize the variables TDWMOD and TDWAUTO. These settings are manually entered in the project properties window.

TDWMOD, Plume Trapping model set to BRGFLX (BRGBLD, BRGFLX, PRIME)

RDTDWMOD001 BRGBLD

TDWAUTO, Specifies if automatically calculating the trapped/downwashed release height.

RDTDWAUTO01 .TRUE.

- NUMRAD, number of radial spatial elements GENUMRAD001 31

SPAEND, spatial endpoint distances (km)

GESPAEND001 0.1 GESPAEND002 0.2 GESPAEND003 0.3 GESPAEND004 0.4 GESPAEND005 0.5 GESPAEND006 0.6 GESPAEND007 0.7 GESPAEND008 0.8 GESPAEND009 0.9 GESPAEND010 1.

GESPAEND011 2.

GESPAEND012 5.

GESPAEND013 10.

GESPAEND014 16.09 GESPAEND015 20.

GESPAEND016 30.

GESPAEND017 32.18 GESPAEND018 40.

GESPAEND019 50.

GESPAEND020 60.

GESPAEND021 70.

GESPAEND022 80.45 GESPAEND023 90.

GESPAEND024 100.

GESPAEND025 160.9 GESPAEND026 200.

GESPAEND027 500.

GESPAEND028 804.5 GESPAEND029 1000.

GESPAEND030 1500.

GESPAEND031 1609.

LIMSPA, last spatial interval for recorded weather, beyond use boundary weather M2LIMSPA001 30 F-1

LATITUDE, indicates degrees of site latitude (deg)

M1LATITUD01 35.226657

LONGITUDE, indicates degrees of site longitude (deg)

M1LONGITU01 -85.091203

RNDSTS, endpoints of the rain distance intervals (km)

M4RNDSTS001 2.

M4RNDSTS002 5.

M4RNDSTS003 10.

M4RNDSTS004 20.

M4RNDSTS005 30.

NUM0, number of results TYPE0NUMBER 31

INDREL, INDRAD, CCDF, ATMOS release and spatial interval TYPE0OUT001 7 1 NONE TYPE0OUT002 7 2 NONE TYPE0OUT003 7 3 NONE TYPE0OUT004 7 4 NONE TYPE0OUT005 7 5 NONE TYPE0OUT006 7 6 NONE TYPE0OUT007 7 7 NONE TYPE0OUT008 7 8 NONE TYPE0OUT009 7 9 NONE TYPE0OUT010 7 10 NONE TYPE0OUT011 7 11 NONE TYPE0OUT012 7 12 NONE TYPE0OUT013 7 13 NONE TYPE0OUT014 7 14 NONE TYPE0OUT015 7 15 NONE TYPE0OUT016 7 16 NONE TYPE0OUT017 7 17 NONE TYPE0OUT018 7 18 NONE TYPE0OUT019 7 19 NONE TYPE0OUT020 7 20 NONE TYPE0OUT021 7 21 NONE TYPE0OUT022 7 22 NONE TYPE0OUT023 7 23 NONE TYPE0OUT024 7 24 NONE TYPE0OUT025 7 25 NONE TYPE0OUT026 7 26 NONE TYPE0OUT027 7 27 NONE TYPE0OUT028 7 28 NONE TYPE0OUT029 7 29 NONE TYPE0OUT030 7 30 NONE TYPE0OUT031 7 31 NONE

EARLY inputs (not cohort related)

POPFLG, if set to FILE, population is defined in a site data file. UNIFORM indicates a user defined uniform distribution.

PDPOPFLG001 UNIFORM

FRACLD, fraction of site covered by land STFRACLD001 1.

IBEGIN, spatial interval at which population is considered to be non-zero PDIBEGIN001 1

POPDEN, uniform population density of the region PDPOPDEN001 40.

DPPEMP, dose projection period for the emergency phase (s)

SRDPPEMP001 0

DOSHOT, defines the hot-spot relocation dose threshold (Sv)

F-2

SRDOSHOT001 1.E+10

DOSNRM, defines the normal relocation dose threshold (Sv)

SRDOSNRM001 1.E+10

TIMHOT, hot-spot relocation action time (individuals residing outside the emergency-planning zone) after plume arrival (s)

SRTIMHOT001 0

TIMNRM - normal relocation action time (individuals residing outside the emergency-planning zone) after plume arrival (s)

SRTIMNRM001 0

WTNAME, type of weighting factor to be used in generating weighted sum of results EZWTNAME001 PEOPLE

CHRONC inputs

LPROTIN, inhalation protection factor (0 means complete protection)

CHLPROTIN01 1

LBRRATE, breathing rate for longterm calculation (m3/s)

CHLBRRATE01 2.66E-04

LGSHFAC, longterm groundshine shielding factor (0 means complete protection)

CHLGSHFAC01 1

FRCFRM, average fraction of land devoted to farm production CHFRCFRM001 0.2678

FRMPRD - average annual farm production (gross sales) ($/ha)

CHFRMPRD001 2685.

DPFRCT - fraction of annual farm production (gross sales) in the region resulting from dairy production.

CHDPFRCT001 0.0322

VALWF - value of farm wealth ($/ha)

CHVALWF0001 14587.

VALWNF, value of nonfarm wealth ($/person)

CHVALWNF001 4.10997E+05

NAMWPI, WSHFRI, WSHRTA, WINGF, radionuclide, washout fraction, annual washout rate (1/y), water ingestion factor CHWTRISO001 Sr-89 0.01 0.004 5.E-06 CHWTRISO002 Sr-90 0.01 0.004 5.E-06 CHWTRISO003 Cs-134 0.005 0.001 5.E-06 CHWTRISO004 Cs-137 0.005 0.001 5.E-06

NUM1, number of type 1 results TYPE1NUMBER 32

NAME1, I1DIS1, I2DIS1, CCDF1, heath risk name to count heath effect cases, inner spatial interval, outer spatial interval, CCDF report indicator flag TYPE1OUT001 'ERL FAT/TOTAL' 1 14 REPORT TYPE1OUT002 'ERL FAT/TOTAL' 1 22 REPORT TYPE1OUT003 'ERL FAT/TOTAL' 1 31 REPORT TYPE1OUT004 'CAN INJ/TOTAL' 1 14 NONE TYPE1OUT005 'CAN INJ/TOTAL' 1 17 NONE TYPE1OUT006 'CAN INJ/TOTAL' 1 22 NONE TYPE1OUT007 'CAN INJ/TOTAL' 1 25 NONE TYPE1OUT008 'CAN INJ/TOTAL' 1 28 NONE TYPE1OUT009 'CAN INJ/TOTAL' 1 31 NONE TYPE1OUT010 'CAN FAT/TOTAL' 1 14 REPORT TYPE1OUT011 'CAN FAT/TOTAL' 1 17 REPORT TYPE1OUT012 'CAN FAT/TOTAL' 1 22 REPORT TYPE1OUT013 'CAN FAT/TOTAL' 1 25 REPORT F-3

TYPE1OUT014 'CAN FAT/TOTAL' 1 28 REPORT TYPE1OUT015 'CAN FAT/TOTAL' 1 31 REPORT TYPE1OUT016 'CAN FAT/Thyroid' 1 14 NONE TYPE1OUT017 'CAN FAT/Thyroid' 1 22 NONE TYPE1OUT018 'CAN FAT/Thyroid' 1 25 NONE TYPE1OUT019 'CAN FAT/Thyroid' 1 31 NONE TYPE1OUT020 'CAN FAT/Breast' 1 14 NONE TYPE1OUT021 'CAN FAT/Breast' 1 22 NONE TYPE1OUT022 'CAN FAT/Breast' 1 25 NONE TYPE1OUT023 'CAN FAT/Breast' 1 31 NONE TYPE1OUT024 'CAN FAT/Lung' 1 14 NONE TYPE1OUT025 'CAN FAT/Lung' 1 22 NONE TYPE1OUT026 'CAN FAT/Lung' 1 25 NONE TYPE1OUT027 'CAN FAT/Lung' 1 31 NONE TYPE1OUT028 'CAN FAT/Leukemia' 1 31 NONE TYPE1OUT029 'CAN FAT/Bone' 1 31 NONE TYPE1OUT030 'CAN FAT/Liver' 1 31 NONE TYPE1OUT031 'CAN FAT/Colon' 1 31 NONE TYPE1OUT032 'CAN FAT/Residual' 1 31 NONE

NUM2, used for no input, always 0 TYPE2NUMBER 0

NUM2, number of type 2 results TYPE2NUMBER 1

RISTHR, CCDF2 , fatality risk threshold to calculate distance, CCDF report indicator flag TYPE2OUT001 0. NONE

NUM4, used for no input, always 0 TYPE4NUMBER 0

NUM5, used for no input, always 0 TYPE5NUMBER 0

NUM5, number of type 5 results TYPE5NUMBER 6

NAME5, I1DIS5, I2DIS5, CCDF5, organ name to calculate population dose, inner spatial interval, outer spatial interval, CCDF report indicator flag TYPE5OUT001 L-ICRP60ED 1 14 REPORT TYPE5OUT002 L-ICRP60ED 1 17 REPORT TYPE5OUT003 L-ICRP60ED 1 22 REPORT TYPE5OUT004 L-ICRP60ED 1 25 REPORT TYPE5OUT005 L-ICRP60ED 1 28 REPORT TYPE5OUT006 L-ICRP60ED 1 31 REPORT

NUM6, used for no input, always 0 TYPE6NUMBER 0

NUM7, used for no input, always 0 TYPE7NUMBER 0

NUM8, used for no input, always 0 TYPE8NUMBER 0

NUM8, number of type 8 results TYPE8NUMBER 11

NAME8, I1DIS8, I2DIS8, CCDF8, health risk name to calculate population-weighted Risk, inner spatial interval, outer spatial interval, CCDF report indicator flag TYPE8OUT001 'CAN FAT/TOTAL' 1 14 REPORT TYPE8OUT002 'CAN FAT/TOTAL' 1 17 NONE TYPE8OUT003 'CAN FAT/TOTAL' 1 22 NONE TYPE8OUT004 'CAN FAT/TOTAL' 1 25 NONE TYPE8OUT005 'CAN FAT/TOTAL' 1 28 NONE TYPE8OUT006 'CAN FAT/TOTAL' 1 31 NONE TYPE8OUT007 'CAN FAT/TOTAL' 15 17 REPORT TYPE8OUT008 'CAN FAT/TOTAL' 18 22 REPORT F-4

TYPE8OUT009 'CAN FAT/TOTAL' 23 25 REPORT TYPE8OUT010 'CAN FAT/TOTAL' 26 28 REPORT TYPE8OUT011 'CAN FAT/TOTAL' 29 31 REPORT

NUMA, used for no input, always 0 TYPEANUMBER 0

NUMA, number of type A results TYPEANUMBER 1

NAMEA, I1DISA, I2DISA, CCDFA, organ name to calculate peak dose vs distance, inner spatial interval, outer spatial interval, CCDF report indicator flag TYPEAOUT001 L-ICRP60ED 1 31 REPORT

NUMB, used for no input, always 0 TYPEBNUMBER 0

NUMC, number of typeC output TYPECNUMBER 1

ORGNAM8, ELEVDOSE, PRINT_FLAG_C, CCDFC - organ name to calculate land area, dose threshold (Sv), true indicates extended output by grid element TYPECOUT001 L-ICRP60ED 0.05 .TRUE. NONE

NUMD, number of typeD output TYPEDNUMBER 20

I1DISD, NUCLIDED, ELEVCONC, PRINT_FLAG_D, CCDFD - outer spatial interval (inner starts at 0),nuclides for which ground and air concentrations are calculated if above threshold, threshold (Bq/m2), true indicates extended output by grid element TYPEDOUT001 14 Cs-137 37000 .TRUE. NONE TYPEDOUT002 14 Cs-137 1.85E+05 .FALSE. NONE TYPEDOUT003 14 Cs-137 5.55E+05 .FALSE. NONE TYPEDOUT004 14 Cs-137 1.48E+06 .FALSE. NONE TYPEDOUT005 22 Cs-137 37000 .FALSE. NONE TYPEDOUT006 22 Cs-137 1.85E+05 .FALSE. NONE TYPEDOUT007 22 Cs-137 5.55E+05 .FALSE. NONE TYPEDOUT008 22 Cs-137 1.48E+06 .FALSE. NONE TYPEDOUT009 25 Cs-137 37000 .FALSE. NONE TYPEDOUT010 25 Cs-137 1.85E+05 .FALSE. NONE TYPEDOUT011 25 Cs-137 5.55E+05 .FALSE. NONE TYPEDOUT012 25 Cs-137 1.48E+06 .FALSE. NONE TYPEDOUT013 28 Cs-137 37000 .FALSE. NONE TYPEDOUT014 28 Cs-137 1.85E+05 .FALSE. NONE TYPEDOUT015 28 Cs-137 5.55E+05 .FALSE. NONE TYPEDOUT016 28 Cs-137 1.48E+06 .FALSE. NONE TYPEDOUT017 31 Cs-137 37000 .FALSE. NONE TYPEDOUT018 31 Cs-137 1.85E+05 .FALSE. NONE TYPEDOUT019 31 Cs-137 5.55E+05 .FALSE. NONE TYPEDOUT020 31 Cs-137 1.48E+06 .FALSE. NONE

NUME, used for no input, always 0 TYPEENUMBER 0

NXUM9, number of type9 results TYPE9NUMBER 6

ORGNAM7, IX1DS9, IX2DS9, CCDF9, organ name to report population dose, inner spatial interval, outer spatial interval, CCDF report indicator flag TYPE9OUT001 L-ICRP60ED 1 14 REPORT TYPE9OUT002 L-ICRP60ED 1 17 REPORT TYPE9OUT003 L-ICRP60ED 1 22 REPORT TYPE9OUT004 L-ICRP60ED 1 25 REPORT TYPE9OUT005 L-ICRP60ED 1 28 REPORT TYPE9OUT006 L-ICRP60ED 1 31 REPORT

NXUM10, used for no input, always 0 TYP10NUMBER 0 F-5

NXUM10, number of type10 results TYP10NUMBER 6

I1DS10, I2DS10, CCDF10, FLAG10 - inner spatial interval used in economic cost calculation, outer spatial interval, CCDF report indicator flag, output detail flag (True for extended)

TYP10OUT001 1 14 REPORT .TRUE.

TYP10OUT002 1 17 REPORT .TRUE.

TYP10OUT003 1 22 REPORT .TRUE.

TYP10OUT004 1 25 REPORT .TRUE.

TYP10OUT005 1 28 REPORT .TRUE.

TYP10OUT006 1 31 REPORT .TRUE.

FLAG11, True if reporting maximum action distance for decontamination or interdiction TYP11FLAG11 .TRUE. NONE

NUM12, used for no input, always 0 TYP12NUMBER 0

NUM12, number of type 12 results TYP12NUMBER 6

I1DS12, I2DS12, inner spatial interval for reporting impacted area population results, outer spatial interval TYP12OUT001 1 14 REPORT TYP12OUT002 1 17 REPORT TYP12OUT003 1 22 REPORT TYP12OUT004 1 25 REPORT TYP12OUT005 1 28 REPORT TYP12OUT006 1 31 REPORT

NUM13, used for no input, always 0 TYP13NUMBER 0

NUM13, number of type 13 results TYP13NUMBER 13

IRAD13, ORGN13, spatial interval for the report of maximum food ingestion dose, organ name TYP13OUT001 2 EFFECTIVE NONE TYP13OUT002 14 EFFECTIVE NONE TYP13OUT003 17 EFFECTIVE NONE TYP13OUT004 22 EFFECTIVE NONE TYP13OUT005 25 EFFECTIVE NONE TYP13OUT006 28 EFFECTIVE NONE TYP13OUT007 31 EFFECTIVE NONE TYP13OUT008 14 THYROID NONE TYP13OUT009 17 THYROID NONE TYP13OUT010 22 THYROID NONE TYP13OUT011 25 THYROID NONE TYP13OUT012 28 THYROID NONE TYP13OUT013 31 THYROID NONE

NUM14, number of type 14 results TYP14NUMBER 6

I1DS14, I2DS14, CCDF14 , inner spatial interval in calculated population count in impacted areas, outer spatial interval, CCDF report indicator flag TYP14OUT001 1 14 REPORT TYP14OUT002 1 17 REPORT TYP14OUT003 1 22 REPORT TYP14OUT004 1 25 REPORT TYP14OUT005 1 28 REPORT TYP14OUT006 1 31 REPORT

START OF COHORT 1 F-6

WTFRAC, weighting fraction applied to results of emergency response cohort when WTNAME = PEOPLE or TIME EZWTFRAC001 0.

EVATYP, indicates if evacuation model is radial or network EZEVATYP001 RADIAL

LASMOV , outermost spatial interval of the evacuation movement zone, zero indicates no evaucation EZLASMOV001 1

EVAKEY, evacuation model (CIRCULAR, KEYHOLE, NONE)

EZEVAKEY001 CIRCULAR

NUMEVA, outer boundary of the sheltering and evacuation region EZNUMEVA001 1

DLTSHL, the delay from the time represented by REFPNT to the start of sheltering (s)

EZDLTSHL001 900.

DLTEVA, the delay from the beginning of the sheltering period to the beginning of evacuation EZDLTEVA001 2460.

.

END OF COHORT 1

START OF COHORT 2

WTFRAC, weighting fraction applied to results of emergency response cohort when WTNAME = PEOPLE or TIME EZWTFRAC001 1.

EVATYP, indicates if evacuation model is radial or network EZEVATYP001 NONE

LASMOV , outermost spatial interval of the evacuation movement zone, zero indicates no evaucation EZLASMOV001 0

EVAKEY, evacuation model (CIRCULAR, KEYHOLE, NONE)

EZEVAKEY001 NONE

CSFACT, cloudshine shielding factor SECSFACT001 1 SECSFACT002 1 SECSFACT003 1

PROTIN, inhalation protection factor SEPROTIN001 1 SEPROTIN002 1 SEPROTIN003 1

BRRATE, breathing rate (m3/s)

SEBRRATE001 2.66E-04 SEBRRATE002 2.66E-04 SEBRRATE003 2.66E-04

SKPFAC, skin protection factors SESKPFAC001 1 SESKPFAC002 1 SESKPFAC003 1

GSHFAC, groundshine shielding factors SEGSHFAC001 1 SEGSHFAC002 1 SEGSHFAC003 1 F-7

.

END OF COHORT 2 F-8

APPENDIX G MELMACCS SOURCE TERM FILE OF HEAT PIPE REACTOR TRANSIENT OVERPOWER

RIMELMAC lines are constructed for ease of software parsing

The data on each line starts and ends with the MACCS string delimiter '

The delimited data contains an optional comment followed by a space, followed by a capitalized keyword (no spaces)

The first colon on the line will follow this keyword followed by a single space

Value of that keyword will be all characters following in the line

Quality assurance information RIMELMAC001 'MelMACCS generated MACCS_FILE: C:\Users\AJN1\OneDrive - U.S. NRC\Work Files\Advanced reactor demo project\MELMACCS HPR source term\Zhe HPR update 2\HPR - TOP source term Zhe.inp' RIMELMAC002 'MACCS input cards generated by MelMACCS_VERSION: 4.0.0-beta Git SHA:

4b46fd5eb84411b0bc395b2e9f24dd5d203ff102 Build date: 2022-03-14' RIMELMAC003 'File CREATION_DATE: 8/17/2022 3:21:01 PM' RIMELMAC004 'MelMACCS PROJECT_NAME: C:\Users\AJN1\OneDrive - U.S. NRC\Work Files\Advanced reactor demo project\MELMACCS HPR source term\Zhe HPR update 2\HPR - TOP source term.mel' RIMELMAC005 'MELCOR PTF_FILE: C:\Users\AJN1\OneDrive - U.S. NRC\Work Files\Advanced reactor demo project\MELMACCS HPR source term\Zhe HPR update 2\rlz_base.ptf' RIMELMAC006 'MELCOR plot file modification date PTF_DATE: 8/17/2022 2:19:00 PM' RIMELMAC007 'MELCOR plot file title PTF_TITLE: PVHPEFQ / 8/16/22 /15:47:30 /heat pipe reactor' RIMELMAC008 'MELCOR_VERSION: 2.2,build21402' RIMELMAC009 'RING_NUMBER: 1' RIMELMAC010 'RING_DESCRIPTION: Core Inventory'

C:\MACCS Code Suite\MelMACCS 4.0.0-beta\MelMACCS.ini modification date: 11/24/2021 4:07:18 PM

Inventory file:C:\Users\AJN1\Documents\MelMACCS_Docs/Inventories\HPR INL-A inventories.inv modification date: 6/13/2022 4:49:05 PM

Inventory used to calculate core inventory: HPR_EOC

Mass threshold fraction for path: 0

Mass threshold fraction for plume segment: 0

MELCOR compound chemical groups counted in MACCS chemical groups using the following fractions:

Mass of I in CSI moved to chemical group I using mass fraction: 0.488444

Mass of Cs in CSI moved to chemical group Cs using mass fraction: 0.511556

Mass of Cs in CSM moved to chemical group Cs using mass fraction: 0.7347892

Mass of Mo in CSM moved to chemical group Mo using mass fraction: 0.2652108

Number of Chemical classes ISMAXGRP001 13

Chemical names as exported from MELCOR file ISGRPNAM001 Xe ISGRPNAM002 Cs ISGRPNAM003 Ba ISGRPNAM004 I ISGRPNAM005 Te ISGRPNAM006 Ru ISGRPNAM007 Mo ISGRPNAM008 Ce ISGRPNAM009 La ISGRPNAM010 U ISGRPNAM011 Cd ISGRPNAM012 Sn ISGRPNAM013 B

Particle size diameters equal or greater than 20 microns use gravitational deposition velocity calculation

Expert deposition velocities based on linear regression of expert elicited data

NUREG/CR-7161, N. E.Bixler, E. Clauss and C. W. Morrow

See MELMACCS Models Document for detail.

F-1

The following model parameters were used:

Surface roughness: 0.1(m)

Wind speed: 5(m/s)

MELCOR aerosol density : 1000(kg/m**3)

Quantile: 0.5

Regression coefficients a, b, c, d, e, f, g:

-2.964 0.992 0.19 -0.072 1.061 0 0.169

Gravitational deposition velocities calculated using particle sizes from MELCOR

MELCOR aerosol density : 1000, slip factor of 1.257

Assume Mean free path of air at 298 K, .069E-6 m

Assume viscosity of air at 298 K, 1.8 E-5 N-s/m**2

PSize: MELCOR (physical) diameter (micrometers); d_p: aerodynamic diameter used (micrometers)

PSize(1): 0.15332297 d_p(1): 0.15332297 Expert elicitation

PSize(2): 0.28543303 d_p(2): 0.28543303 Expert elicitation

PSize(3): 0.53137513 d_p(3): 0.53137513 Expert elicitation

PSize(4): 0.98923215 d_p(4): 0.98923215 Expert elicitation

PSize(5): 1.8415997 d_p(5): 1.8415997 Expert elicitation

PSize(6): 3.4284058 d_p(6): 3.4284058 Expert elicitation

PSize(7): 6.3824765 d_p(7): 6.3824765 Expert elicitation

PSize(8): 11.881909 d_p(8): 11.881909 Expert elicitation

PSize(9): 22.119903 d_p(9): 20 Expert elicitation

PSize(10): 41.17942 d_p(10): 41.17942 Gravitational deposition velocity

Dry Deposition Velocity DDVDEPOS001 6.5205E-04 DDVDEPOS002 5.9841E-04 DDVDEPOS003 7.8397E-04 DDVDEPOS004 1.3218E-03 DDVDEPOS005 2.5854E-03 DDVDEPOS006 5.2893E-03 DDVDEPOS007 1.0203E-02 DDVDEPOS008 1.673E-02 DDVDEPOS009 2.0715E-02 DDVDEPOS010 5.1507E-02

Number of particle size groups DDNPSGRP001 10

Particle size distribution RDPSDIST001 1.0E-01 1.0E-01 1.0E-01 1.0E-01 1.0E-01 1.0E-01 1.0E-01 1.0E-01 1.0E-01 1.0E-01 RDPSDIST002 1.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 RDPSDIST003 1.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 RDPSDIST004 1.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 RDPSDIST005 1.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 RDPSDIST006 1.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 RDPSDIST007 1.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 RDPSDIST008 1.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 RDPSDIST009 1.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 RDPSDIST010 1.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 RDPSDIST011 1.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 RDPSDIST012 1.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 0.0E+00 RDPSDIST013 1.0E-01 1.0E-01 1.0E-01 1.0E-01 1.0E-01 1.0E-01 1.0E-01 1.0E-01 1.0E-01 1.0E-01

WETDEP, DRYDEP, wet and dry deposition flags for each nuclide group ISDEPFLA001 .FALSE. .FALSE.

ISDEPFLA002 .TRUE. .TRUE.

ISDEPFLA003 .TRUE. .TRUE.

ISDEPFLA004 .TRUE. .TRUE.

ISDEPFLA005 .TRUE. .TRUE.

ISDEPFLA006 .TRUE. .TRUE.

ISDEPFLA007 .TRUE. .TRUE.

ISDEPFLA008 .TRUE. .TRUE.

ISDEPFLA009 .TRUE. .TRUE.

ISDEPFLA010 .TRUE. .TRUE.

ISDEPFLA011 .TRUE. .TRUE.

ISDEPFLA012 .TRUE. .TRUE.

ISDEPFLA013 .TRUE. .TRUE.

Number of Pseudostable Radionuclides ISNUMSTB001 16 F-2

List of Pseudostable Radionuclides ISNAMSTB001 I-129 ISNAMSTB002 Xe-131m ISNAMSTB003 Xe-133m ISNAMSTB004 Cs-135 ISNAMSTB005 Sm-147 ISNAMSTB006 U-234 ISNAMSTB007 U-235 ISNAMSTB008 U-236 ISNAMSTB009 U-237 ISNAMSTB010 Np-237 ISNAMSTB011 Rb-87 ISNAMSTB012 Zr-93 ISNAMSTB013 Nb-93m ISNAMSTB014 Nb-95m ISNAMSTB015 Tc-99 ISNAMSTB016 Pm-147

Number of releases as selected by user RDNUMREL001 28

Height of the facility building (m)

WEBUILDH001 9.15E+00 WEBUILDH002 9.15E+00 WEBUILDH003 9.15E+00 WEBUILDH004 9.15E+00 WEBUILDH005 9.15E+00 WEBUILDH006 9.15E+00 WEBUILDH007 9.15E+00 WEBUILDH008 9.15E+00 WEBUILDH009 9.15E+00 WEBUILDH010 9.15E+00 WEBUILDH011 9.15E+00 WEBUILDH012 9.15E+00 WEBUILDH013 9.15E+00 WEBUILDH014 9.15E+00 WEBUILDH015 9.15E+00 WEBUILDH016 9.15E+00 WEBUILDH017 9.15E+00 WEBUILDH018 9.15E+00 WEBUILDH019 9.15E+00 WEBUILDH020 9.15E+00 WEBUILDH021 9.15E+00 WEBUILDH022 9.15E+00 WEBUILDH023 9.15E+00 WEBUILDH024 9.15E+00 WEBUILDH025 9.15E+00 WEBUILDH026 9.15E+00 WEBUILDH027 9.15E+00 WEBUILDH028 9.15E+00

Width of the facility building (m)

WEBUILDW001 2.155E+01 WEBUILDW002 2.155E+01 WEBUILDW003 2.155E+01 WEBUILDW004 2.155E+01 WEBUILDW005 2.155E+01 WEBUILDW006 2.155E+01 WEBUILDW007 2.155E+01 WEBUILDW008 2.155E+01 WEBUILDW009 2.155E+01 WEBUILDW010 2.155E+01 WEBUILDW011 2.155E+01 WEBUILDW012 2.155E+01 WEBUILDW013 2.155E+01 WEBUILDW014 2.155E+01 WEBUILDW015 2.155E+01 WEBUILDW016 2.155E+01 WEBUILDW017 2.155E+01 WEBUILDW018 2.155E+01 F-3

WEBUILDW019 2.155E+01 WEBUILDW020 2.155E+01 WEBUILDW021 2.155E+01 WEBUILDW022 2.155E+01 WEBUILDW023 2.155E+01 WEBUILDW024 2.155E+01 WEBUILDW025 2.155E+01 WEBUILDW026 2.155E+01 WEBUILDW027 2.155E+01 WEBUILDW028 2.155E+01

Length of the facility building (m)

WEBUILDL001 2.155E+01 WEBUILDL002 2.155E+01 WEBUILDL003 2.155E+01 WEBUILDL004 2.155E+01 WEBUILDL005 2.155E+01 WEBUILDL006 2.155E+01 WEBUILDL007 2.155E+01 WEBUILDL008 2.155E+01 WEBUILDL009 2.155E+01 WEBUILDL010 2.155E+01 WEBUILDL011 2.155E+01 WEBUILDL012 2.155E+01 WEBUILDL013 2.155E+01 WEBUILDL014 2.155E+01 WEBUILDL015 2.155E+01 WEBUILDL016 2.155E+01 WEBUILDL017 2.155E+01 WEBUILDL018 2.155E+01 WEBUILDL019 2.155E+01 WEBUILDL020 2.155E+01 WEBUILDL021 2.155E+01 WEBUILDL022 2.155E+01 WEBUILDL023 2.155E+01 WEBUILDL024 2.155E+01 WEBUILDL025 2.155E+01 WEBUILDL026 2.155E+01 WEBUILDL027 2.155E+01 WEBUILDL028 2.155E+01

Angle, degrees from N to facility building width (degrees)

WEBUILDA001 0.0E+00 WEBUILDA002 0.0E+00 WEBUILDA003 0.0E+00 WEBUILDA004 0.0E+00 WEBUILDA005 0.0E+00 WEBUILDA006 0.0E+00 WEBUILDA007 0.0E+00 WEBUILDA008 0.0E+00 WEBUILDA009 0.0E+00 WEBUILDA010 0.0E+00 WEBUILDA011 0.0E+00 WEBUILDA012 0.0E+00 WEBUILDA013 0.0E+00 WEBUILDA014 0.0E+00 WEBUILDA015 0.0E+00 WEBUILDA016 0.0E+00 WEBUILDA017 0.0E+00 WEBUILDA018 0.0E+00 WEBUILDA019 0.0E+00 WEBUILDA020 0.0E+00 WEBUILDA021 0.0E+00 WEBUILDA022 0.0E+00 WEBUILDA023 0.0E+00 WEBUILDA024 0.0E+00 WEBUILDA025 0.0E+00 WEBUILDA026 0.0E+00 WEBUILDA027 0.0E+00 WEBUILDA028 0.0E+00 F-4

Trapped plume release height (m)

RDPHTRAP001 0.0E+00 RDPHTRAP002 0.0E+00 RDPHTRAP003 0.0E+00 RDPHTRAP004 0.0E+00 RDPHTRAP005 0.0E+00 RDPHTRAP006 0.0E+00 RDPHTRAP007 0.0E+00 RDPHTRAP008 0.0E+00 RDPHTRAP009 0.0E+00 RDPHTRAP010 0.0E+00 RDPHTRAP011 0.0E+00 RDPHTRAP012 0.0E+00 RDPHTRAP013 0.0E+00 RDPHTRAP014 0.0E+00 RDPHTRAP015 0.0E+00 RDPHTRAP016 0.0E+00 RDPHTRAP017 0.0E+00 RDPHTRAP018 0.0E+00 RDPHTRAP019 0.0E+00 RDPHTRAP020 0.0E+00 RDPHTRAP021 0.0E+00 RDPHTRAP022 0.0E+00 RDPHTRAP023 0.0E+00 RDPHTRAP024 0.0E+00 RDPHTRAP025 0.0E+00 RDPHTRAP026 0.0E+00 RDPHTRAP027 0.0E+00 RDPHTRAP028 0.0E+00

Initial Sigma-Y width of plume segment (m)

SIGYINIT001 5.0116E+00 SIGYINIT002 5.0116E+00 SIGYINIT003 5.0116E+00 SIGYINIT004 5.0116E+00 SIGYINIT005 5.0116E+00 SIGYINIT006 5.0116E+00 SIGYINIT007 5.0116E+00 SIGYINIT008 5.0116E+00 SIGYINIT009 5.0116E+00 SIGYINIT010 5.0116E+00 SIGYINIT011 5.0116E+00 SIGYINIT012 5.0116E+00 SIGYINIT013 5.0116E+00 SIGYINIT014 5.0116E+00 SIGYINIT015 5.0116E+00 SIGYINIT016 5.0116E+00 SIGYINIT017 5.0116E+00 SIGYINIT018 5.0116E+00 SIGYINIT019 5.0116E+00 SIGYINIT020 5.0116E+00 SIGYINIT021 5.0116E+00 SIGYINIT022 5.0116E+00 SIGYINIT023 5.0116E+00 SIGYINIT024 5.0116E+00 SIGYINIT025 5.0116E+00 SIGYINIT026 5.0116E+00 SIGYINIT027 5.0116E+00 SIGYINIT028 5.0116E+00

Initial Sigma-Z height of plume segment (m)

SIGZINIT001 4.2558E+00 SIGZINIT002 4.2558E+00 SIGZINIT003 4.2558E+00 SIGZINIT004 4.2558E+00 SIGZINIT005 4.2558E+00 SIGZINIT006 4.2558E+00 SIGZINIT007 4.2558E+00 SIGZINIT008 4.2558E+00 SIGZINIT009 4.2558E+00 SIGZINIT010 4.2558E+00 F-5

SIGZINIT011 4.2558E+00 SIGZINIT012 4.2558E+00 SIGZINIT013 4.2558E+00 SIGZINIT014 4.2558E+00 SIGZINIT015 4.2558E+00 SIGZINIT016 4.2558E+00 SIGZINIT017 4.2558E+00 SIGZINIT018 4.2558E+00 SIGZINIT019 4.2558E+00 SIGZINIT020 4.2558E+00 SIGZINIT021 4.2558E+00 SIGZINIT022 4.2558E+00 SIGZINIT023 4.2558E+00 SIGZINIT024 4.2558E+00 SIGZINIT025 4.2558E+00 SIGZINIT026 4.2558E+00 SIGZINIT027 4.2558E+00 SIGZINIT028 4.2558E+00

Representative location of plume segment.0. = leading edge, .5 = midpoint, 1. = trailing edge RDREFTIM001 0.

RDREFTIM002 0.5 RDREFTIM003 0.5 RDREFTIM004 0.5 RDREFTIM005 0.5 RDREFTIM006 0.5 RDREFTIM007 0.5 RDREFTIM008 0.5 RDREFTIM009 0.5 RDREFTIM010 0.5 RDREFTIM011 0.5 RDREFTIM012 0.5 RDREFTIM013 0.5 RDREFTIM014 0.5 RDREFTIM015 0.5 RDREFTIM016 0.5 RDREFTIM017 0.5 RDREFTIM018 0.5 RDREFTIM019 0.5 RDREFTIM020 0.5 RDREFTIM021 0.5 RDREFTIM022 0.5 RDREFTIM023 0.5 RDREFTIM024 0.5 RDREFTIM025 0.5 RDREFTIM026 0.5 RDREFTIM027 0.5 RDREFTIM028 0.5

plume segment duration RDPLUDUR001 3.5874E+03 RDPLUDUR002 3.5874E+03 RDPLUDUR003 3.6E+03 RDPLUDUR004 3.6E+03 RDPLUDUR005 3.6E+03 RDPLUDUR006 3.6E+03 RDPLUDUR007 4.8E+02 RDPLUDUR008 3.6E+03 RDPLUDUR009 3.6E+03 RDPLUDUR010 3.6E+03 RDPLUDUR011 3.6E+03 RDPLUDUR012 3.6E+03 RDPLUDUR013 3.6E+03 RDPLUDUR014 3.6E+03 RDPLUDUR015 3.6E+03 RDPLUDUR016 3.6E+03 RDPLUDUR017 3.6E+03 RDPLUDUR018 3.6E+03 RDPLUDUR019 3.6E+03 RDPLUDUR020 3.6E+03 RDPLUDUR021 3.6E+03 F-6

RDPLUDUR022 3.6E+03 RDPLUDUR023 3.6E+03 RDPLUDUR024 3.6E+03 RDPLUDUR025 3.6E+03 RDPLUDUR026 3.6E+03 RDPLUDUR027 3.6E+03 RDPLUDUR028 2.4E+02

MELCOR Time associated with reference time for inventory: 0 (s)

Plume Segment 1 is associated with release path 1 at MELCOR time 3372.65 s

Plume Segment 2 is associated with release path 2 at MELCOR time 3372.65 s

Plume Segment 3 is associated with release path 1 at MELCOR time 6960.025 s

Plume Segment 4 is associated with release path 2 at MELCOR time 6960.025 s

Plume Segment 5 is associated with release path 1 at MELCOR time 10560.03 s

Plume Segment 6 is associated with release path 2 at MELCOR time 10560.03 s

Plume Segment 7 is associated with release path 1 at MELCOR time 14160.03 s

Plume Segment 8 is associated with release path 2 at MELCOR time 14160.03 s

Plume Segment 9 is associated with release path 2 at MELCOR time 17760.03 s

Plume Segment 10 is associated with release path 2 at MELCOR time 21360.03 s

Plume Segment 11 is associated with release path 2 at MELCOR time 24960.03 s

Plume Segment 12 is associated with release path 2 at MELCOR time 28560.03 s

Plume Segment 13 is associated with release path 2 at MELCOR time 32160.03 s

Plume Segment 14 is associated with release path 2 at MELCOR time 35760.03 s

Plume Segment 15 is associated with release path 2 at MELCOR time 39360.03 s

Plume Segment 16 is associated with release path 2 at MELCOR time 42960.03 s

Plume Segment 17 is associated with release path 2 at MELCOR time 46560.03 s

Plume Segment 18 is associated with release path 2 at MELCOR time 50160.03 s

Plume Segment 19 is associated with release path 2 at MELCOR time 53760.03 s

Plume Segment 20 is associated with release path 2 at MELCOR time 57360.03 s

Plume Segment 21 is associated with release path 2 at MELCOR time 60960.03 s

Plume Segment 22 is associated with release path 2 at MELCOR time 64560.03 s

Plume Segment 23 is associated with release path 2 at MELCOR time 68160.03 s

Plume Segment 24 is associated with release path 2 at MELCOR time 71760.03 s

Plume Segment 25 is associated with release path 2 at MELCOR time 75360.03 s

Plume Segment 26 is associated with release path 2 at MELCOR time 78960.03 s

Plume Segment 27 is associated with release path 2 at MELCOR time 82560.03 s

Plume Segment 28 is associated with release path 2 at MELCOR time 86160.03 s

Start Time of Release RDPDELAY001 3.3727E+03 RDPDELAY002 3.3727E+03 RDPDELAY003 6.96E+03 RDPDELAY004 6.96E+03 RDPDELAY005 1.056E+04 RDPDELAY006 1.056E+04 RDPDELAY007 1.416E+04 RDPDELAY008 1.416E+04 RDPDELAY009 1.776E+04 RDPDELAY010 2.136E+04 RDPDELAY011 2.496E+04 RDPDELAY012 2.856E+04 RDPDELAY013 3.216E+04 RDPDELAY014 3.576E+04 RDPDELAY015 3.936E+04 RDPDELAY016 4.296E+04 RDPDELAY017 4.656E+04 RDPDELAY018 5.016E+04 RDPDELAY019 5.376E+04 RDPDELAY020 5.736E+04 RDPDELAY021 6.096E+04 RDPDELAY022 6.456E+04 RDPDELAY023 6.816E+04 RDPDELAY024 7.176E+04 RDPDELAY025 7.536E+04 RDPDELAY026 7.896E+04 RDPDELAY027 8.256E+04 RDPDELAY028 8.616E+04

MELCOR Height associated with ground level:8.15 (m)

Release path: 1 MELCOR Height: 1.33E+01 (m)

Release path: 2 MELCOR Height: 1.73E+01 (m)

Adjusted plume segment height F-7

RDPLHITE001 5.15E+00 RDPLHITE002 9.15E+00 RDPLHITE003 5.15E+00 RDPLHITE004 9.15E+00 RDPLHITE005 5.15E+00 RDPLHITE006 9.15E+00 RDPLHITE007 5.15E+00 RDPLHITE008 9.15E+00 RDPLHITE009 9.15E+00 RDPLHITE010 9.15E+00 RDPLHITE011 9.15E+00 RDPLHITE012 9.15E+00 RDPLHITE013 9.15E+00 RDPLHITE014 9.15E+00 RDPLHITE015 9.15E+00 RDPLHITE016 9.15E+00 RDPLHITE017 9.15E+00 RDPLHITE018 9.15E+00 RDPLHITE019 9.15E+00 RDPLHITE020 9.15E+00 RDPLHITE021 9.15E+00 RDPLHITE022 9.15E+00 RDPLHITE023 9.15E+00 RDPLHITE024 9.15E+00 RDPLHITE025 9.15E+00 RDPLHITE026 9.15E+00 RDPLHITE027 9.15E+00 RDPLHITE028 9.15E+00

Risk dominant plume segment RDMAXRIS001 6

Flag indicating plume segment buoyancy model

RDPLMMOD001 HEAT RDPLMMOD001 DENSITY

Rate of release of sensible heat in Watts (J/s)

RDPLHEAT001 1.337E+03 RDPLHEAT002 2.096E+03 RDPLHEAT003 8.7888E+02 RDPLHEAT004 2.8512E+03 RDPLHEAT005 1.473E+02 RDPLHEAT006 2.7086E+03 RDPLHEAT007 2.4E+00 RDPLHEAT008 2.6364E+03 RDPLHEAT009 2.556E+03 RDPLHEAT010 2.5064E+03 RDPLHEAT011 2.4831E+03 RDPLHEAT012 2.4741E+03 RDPLHEAT013 2.4723E+03 RDPLHEAT014 2.4721E+03 RDPLHEAT015 2.4715E+03 RDPLHEAT016 2.4705E+03 RDPLHEAT017 2.4687E+03 RDPLHEAT018 2.4656E+03 RDPLHEAT019 2.4619E+03 RDPLHEAT020 2.4571E+03 RDPLHEAT021 2.4523E+03 RDPLHEAT022 2.4471E+03 RDPLHEAT023 2.4418E+03 RDPLHEAT024 2.4372E+03 RDPLHEAT025 2.4314E+03 RDPLHEAT026 2.4266E+03 RDPLHEAT027 2.4221E+03 RDPLHEAT028 2.4197E+03

Mass Flow Rate (kg/s)

RDPLMFLA001 3.299E-04 RDPLMFLA002 5.1721E-04 RDPLMFLA003 2.1689E-04 F-8

RDPLMFLA004 7.0363E-04 RDPLMFLA005 3.6347E-05 RDPLMFLA006 6.6841E-04 RDPLMFLA007 1E-06 *manually increased to minimum MACCS value (original value: 5.9977E-07)

RDPLMFLA008 6.5058E-04 RDPLMFLA009 6.3073E-04 RDPLMFLA010 6.1847E-04 RDPLMFLA011 6.1271E-04 RDPLMFLA012 6.1048E-04 RDPLMFLA013 6.1003E-04 RDPLMFLA014 6.0996E-04 RDPLMFLA015 6.0981E-04 RDPLMFLA016 6.0956E-04 RDPLMFLA017 6.091E-04 RDPLMFLA018 6.0834E-04 RDPLMFLA019 6.0742E-04 RDPLMFLA020 6.0623E-04 RDPLMFLA021 6.0503E-04 RDPLMFLA022 6.0373E-04 RDPLMFLA023 6.0243E-04 RDPLMFLA024 6.0128E-04 RDPLMFLA025 5.9986E-04 RDPLMFLA026 5.9866E-04 RDPLMFLA027 5.9753E-04 RDPLMFLA028 5.969E-04

Gas Density (kg/m3)

RDPLMDEN001 1.1436E+00 RDPLMDEN002 1.1444E+00 RDPLMDEN003 1.1457E+00 RDPLMDEN004 1.1456E+00 RDPLMDEN005 1.1452E+00 RDPLMDEN006 1.1451E+00 RDPLMDEN007 1.1449E+00 RDPLMDEN008 1.1447E+00 RDPLMDEN009 1.1444E+00 RDPLMDEN010 1.1441E+00 RDPLMDEN011 1.1439E+00 RDPLMDEN012 1.1436E+00 RDPLMDEN013 1.1434E+00 RDPLMDEN014 1.1432E+00 RDPLMDEN015 1.143E+00 RDPLMDEN016 1.1428E+00 RDPLMDEN017 1.1426E+00 RDPLMDEN018 1.1424E+00 RDPLMDEN019 1.1422E+00 RDPLMDEN020 1.142E+00 RDPLMDEN021 1.1418E+00 RDPLMDEN022 1.1417E+00 RDPLMDEN023 1.1415E+00 RDPLMDEN024 1.1413E+00 RDPLMDEN025 1.1412E+00 RDPLMDEN026 1.141E+00 RDPLMDEN027 1.1409E+00 RDPLMDEN028 1.1408E+00

MELCOR Chemical Classes Considered: Xe Cs Ba I Te Ru Mo Ce La U Cd Sn B

Release fraction and core inventory are zero for Chemical Classes:

Xe Cs Ba I Te Ru Mo Ce La U Cd Sn B

RDRELFRC001 2.1958E-07 1.8745E-07 3.2965E-11 7.741E-08 3.061E-08 7.3153E-11 5.7105E-08 9.0462E-15 7.9863E-15 2.253E-11 1.1371E-08 3.4594E-08 0.0E+00 RDRELFRC002 1.7174E-06 1.4513E-06 2.2644E-10 5.5901E-07 1.7622E-07 4.7216E-10 4.4513E-07 7.1094E-14 6.4179E-14 1.8182E-10 8.1583E-08 2.7258E-07 0.0E+00 RDRELFRC003 1.958E-06 1.6297E-06 2.3635E-10 5.9527E-07 1.7753E-07 5.2485E-10 5.0348E-07 8.1231E-14 7.369E-14 2.1267E-10 8.5892E-08 3.0943E-07 0.0E+00 RDRELFRC004 6.4796E-06 5.3694E-06 7.6682E-10 1.9378E-06 5.7597E-07 1.7409E-09 1.6617E-06 2.6891E-13 2.4404E-13 7.0791E-10 2.7866E-07 1.0218E-06 0.0E+00 RDRELFRC005 3.7838E-07 3.055E-07 3.9632E-11 1.0238E-07 2.9766E-08 1.0302E-10 9.5514E-08 1.5735E-14 1.431E-14 4.272E-11 1.44E-08 5.8926E-08 0.0E+00 F-9

RDRELFRC006 6.9683E-06 5.6244E-06 7.288E-10 1.8832E-06 5.4737E-07 1.8975E-09 1.7586E-06 2.8979E-13 2.6355E-13 7.8703E-10 2.648E-07 1.085E-06 0.0E+00 RDRELFRC007 8.2218E-10 6.6302E-10 8.582E-14 2.2186E-10 6.4446E-11 2.2382E-13 2.0736E-10 3.4179E-17 3.109E-17 9.287E-14 3.1186E-11 1.2793E-10 0.0E+00 RDRELFRC008 6.8E-06 5.4844E-06 7.0929E-10 1.834E-06 5.3272E-07 1.8521E-09 1.7151E-06 2.828E-13 2.572E-13 7.6852E-10 2.5771E-07 1.0582E-06 0.0E+00 RDRELFRC009 6.6098E-06 5.3249E-06 6.8753E-10 1.7791E-06 5.1638E-07 1.8009E-09 1.6654E-06 2.749E-13 2.5003E-13 7.4755E-10 2.498E-07 1.0276E-06 0.0E+00 RDRELFRC010 6.4977E-06 5.2277E-06 6.7403E-10 1.7455E-06 5.0625E-07 1.7708E-09 1.6352E-06 2.7024E-13 2.458E-13 7.3535E-10 2.449E-07 1.009E-06 0.0E+00 RDRELFRC011 6.4495E-06 5.1829E-06 6.676E-10 1.73E-06 5.0142E-07 1.7581E-09 1.6212E-06 2.6825E-13 2.4399E-13 7.3029E-10 2.4256E-07 1.0004E-06 0.0E+00 RDRELFRC012 6.4356E-06 5.1665E-06 6.6502E-10 1.7242E-06 4.9949E-07 1.7546E-09 1.6161E-06 2.6767E-13 2.4348E-13 7.2901E-10 2.4162E-07 9.9734E-07 0.0E+00 RDRELFRC013 6.4388E-06 5.1642E-06 6.6438E-10 1.7233E-06 4.99E-07 1.7558E-09 1.6154E-06 2.6781E-13 2.4361E-13 7.2964E-10 2.4139E-07 9.9697E-07 0.0E+00 RDRELFRC014 6.445E-06 5.1647E-06 6.6414E-10 1.7234E-06 4.9883E-07 1.7577E-09 1.6156E-06 2.6807E-13 2.4385E-13 7.3057E-10 2.413E-07 9.9711E-07 0.0E+00 RDRELFRC015 6.4491E-06 5.1638E-06 6.6381E-10 1.7232E-06 4.9858E-07 1.759E-09 1.6153E-06 2.6825E-13 2.4401E-13 7.3124E-10 2.4118E-07 9.97E-07 0.0E+00 RDRELFRC016 6.4513E-06 5.1619E-06 6.6338E-10 1.7226E-06 4.9826E-07 1.7598E-09 1.6147E-06 2.6834E-13 2.441E-13 7.3166E-10 2.4103E-07 9.9667E-07 0.0E+00 RDRELFRC017 6.4507E-06 5.1579E-06 6.6271E-10 1.7214E-06 4.9775E-07 1.7598E-09 1.6134E-06 2.6832E-13 2.4409E-13 7.3176E-10 2.4078E-07 9.9594E-07 0.0E+00 RDRELFRC018 6.4462E-06 5.1511E-06 6.617E-10 1.7193E-06 4.97E-07 1.7587E-09 1.6113E-06 2.6813E-13 2.4392E-13 7.3139E-10 2.4042E-07 9.9466E-07 0.0E+00 RDRELFRC019 6.4397E-06 5.1428E-06 6.6053E-10 1.7167E-06 4.9612E-07 1.7571E-09 1.6087E-06 2.6786E-13 2.4368E-13 7.3078E-10 2.3999E-07 9.931E-07 0.0E+00 RDRELFRC020 6.4305E-06 5.1323E-06 6.5906E-10 1.7134E-06 4.9502E-07 1.7547E-09 1.6053E-06 2.6749E-13 2.4333E-13 7.2988E-10 2.3946E-07 9.911E-07 0.0E+00 RDRELFRC021 6.4208E-06 5.1214E-06 6.5757E-10 1.71E-06 4.939E-07 1.7522E-09 1.6019E-06 2.6708E-13 2.4297E-13 7.2891E-10 2.3891E-07 9.8904E-07 0.0E+00 RDRELFRC022 6.41E-06 5.1098E-06 6.5598E-10 1.7064E-06 4.9272E-07 1.7494E-09 1.5982E-06 2.6664E-13 2.4257E-13 7.2782E-10 2.3834E-07 9.8682E-07 0.0E+00 RDRELFRC023 6.3985E-06 5.0979E-06 6.5439E-10 1.7027E-06 4.9152E-07 1.7464E-09 1.5945E-06 2.6616E-13 2.4214E-13 7.2662E-10 2.3776E-07 9.8456E-07 0.0E+00 RDRELFRC024 6.3878E-06 5.0871E-06 6.5294E-10 1.6993E-06 4.9043E-07 1.7435E-09 1.5911E-06 2.6572E-13 2.4174E-13 7.255E-10 2.3723E-07 9.825E-07 0.0E+00 RDRELFRC025 6.3743E-06 5.074E-06 6.512E-10 1.6952E-06 4.8913E-07 1.74E-09 1.587E-06 2.6516E-13 2.4123E-13 7.2407E-10 2.366E-07 9.8E-07 0.0E+00 RDRELFRC026 6.3638E-06 5.0629E-06 6.4972E-10 1.6918E-06 4.8801E-07 1.7372E-09 1.5835E-06 2.6472E-13 2.4084E-13 7.2299E-10 2.3606E-07 9.7789E-07 0.0E+00 RDRELFRC027 6.3536E-06 5.0523E-06 6.483E-10 1.6886E-06 4.8695E-07 1.7345E-09 1.5801E-06 2.643E-13 2.4045E-13 7.2193E-10 2.3555E-07 9.7587E-07 0.0E+00 RDRELFRC028 4.2317E-07 3.3643E-07 4.3169E-11 1.1245E-07 3.2424E-08 1.1553E-10 1.0522E-07 1.7604E-14 1.6015E-14 4.8088E-11 1.5684E-08 6.4983E-08 0.0E+00

Scaling Factor to adjust core inventory for power level RDCORSCA001 1

Number of radionuclides belonging to chemical classes ISNUMISO001 71

Data in melmaccs.ini is used to map radionuclide to the corresponding chemical class

Radionuclide and associated chemical group ISOTPGRP001 Kr-85 1 ISOTPGRP002 Kr-85m 1 ISOTPGRP003 Kr-87 1 ISOTPGRP004 Kr-88 1 ISOTPGRP005 Xe-133 1 ISOTPGRP006 Xe-135 1 ISOTPGRP007 Xe-135m 1 ISOTPGRP008 Cs-134 2 ISOTPGRP009 Cs-136 2 ISOTPGRP010 Cs-137 2 ISOTPGRP011 Rb-86 2 ISOTPGRP012 Rb-88 2 ISOTPGRP013 Ba-139 3 ISOTPGRP014 Ba-140 3 ISOTPGRP015 Sr-89 3 F-10

ISOTPGRP016 Sr-90 3 ISOTPGRP017 Sr-91 3 ISOTPGRP018 Sr-92 3 ISOTPGRP019 Ba-137m 3 ISOTPGRP020 I-131 4 ISOTPGRP021 I-132 4 ISOTPGRP022 I-133 4 ISOTPGRP023 I-134 4 ISOTPGRP024 I-135 4 ISOTPGRP025 Te-127 5 ISOTPGRP026 Te-127m 5 ISOTPGRP027 Te-129 5 ISOTPGRP028 Te-129m 5 ISOTPGRP029 Te-131m 5 ISOTPGRP030 Te-132 5 ISOTPGRP031 Te-131 5 ISOTPGRP032 Rh-105 6 ISOTPGRP033 Ru-103 6 ISOTPGRP034 Ru-105 6 ISOTPGRP035 Ru-106 6 ISOTPGRP036 Rh-103m 6 ISOTPGRP037 Rh-106 6 ISOTPGRP038 Nb-95 7 ISOTPGRP039 Co-58 7 ISOTPGRP040 Co-60 7 ISOTPGRP041 Mo-99 7 ISOTPGRP042 Tc-99m 7 ISOTPGRP043 Nb-97 7 ISOTPGRP044 Nb-97m 7 ISOTPGRP045 Ce-141 8 ISOTPGRP046 Ce-143 8 ISOTPGRP047 Ce-144 8 ISOTPGRP048 Np-239 8 ISOTPGRP049 Pu-238 8 ISOTPGRP050 Pu-239 8 ISOTPGRP051 Pu-240 8 ISOTPGRP052 Pu-241 8 ISOTPGRP053 Zr-95 8 ISOTPGRP054 Zr-97 8 ISOTPGRP055 Am-241 9 ISOTPGRP056 Cm-242 9 ISOTPGRP057 Cm-244 9 ISOTPGRP058 La-140 9 ISOTPGRP059 La-141 9 ISOTPGRP060 La-142 9 ISOTPGRP061 Nd-147 9 ISOTPGRP062 Pr-143 9 ISOTPGRP063 Y-90 9 ISOTPGRP064 Y-91 9 ISOTPGRP065 Y-92 9 ISOTPGRP066 Y-93 9 ISOTPGRP067 Y-91m 9 ISOTPGRP068 Pr-144 9 ISOTPGRP069 Pr-144m 9 ISOTPGRP070 Sb-127 11 ISOTPGRP071 Sb-129 11

Initial Xe mass/inventory mass = 1.012339

Initial Cs mass/inventory mass = 1.012197

Initial Ba mass/inventory mass = 1.010072

Initial I mass/inventory mass = 1.019834

Initial Te mass/inventory mass = 1.013758

Initial Ru mass/inventory mass = 1.016678

Initial Mo mass/inventory mass = 1.012999

Initial Ce mass/inventory mass = 1.004475

Initial La mass/inventory mass = 1.012686

Initial U mass/inventory mass = 1.002136

Initial Cd mass/inventory mass = 1.043774

Initial Sn mass/inventory mass = 1.038157

Initial B mass/inventory mass = 0 F-11

Initial Core Mass from MELCOR Chemical Class Xe 1.323171kg

Initial Core Mass from MELCOR Chemical Class Cs 1.1842487kg

Initial Core Mass from MELCOR Chemical Class Ba 0.7210849kg

Initial Core Mass from MELCOR Chemical Class I 0.052650443kg

Initial Core Mass from MELCOR Chemical Class Te 0.138303kg

Initial Core Mass from MELCOR Chemical Class Ru 0.7598208kg

Initial Core Mass from MELCOR Chemical Class Mo 1.2262999kg

Initial Core Mass from MELCOR Chemical Class Ce 6.754585kg

Initial Core Mass from MELCOR Chemical Class La 2.286655kg

Initial Core Mass from MELCOR Chemical Class U 4560.8894kg

Initial Core Mass from MELCOR Chemical Class Cd 0.01083308kg

Initial Core Mass from MELCOR Chemical Class Sn 0.01696736kg

Initial Core Mass from MELCOR Chemical Class B 0kg

Maximum error in mass scaling is for the B group. Error=100 percent

Data in Inventory (.inv file) used to calculate core inventory (Becquerels)

RDCORINV001 Kr-85 1.1836E+14 RDCORINV002 Kr-85m 1.9702E+15 RDCORINV003 Kr-87 3.858E+15 RDCORINV004 Kr-88 5.2814E+15 RDCORINV005 Xe-133 1.0525E+16 RDCORINV006 Xe-135 1.0338E+16 RDCORINV007 Xe-135m 1.8728E+15 RDCORINV008 Cs-134 1.2546E+13 RDCORINV009 Cs-136 1.7827E+13 RDCORINV010 Cs-137 1.0561E+15 RDCORINV011 Rb-86 1.5093E+12 RDCORINV012 Rb-88 5.3555E+15 RDCORINV013 Ba-139 9.9038E+15 RDCORINV014 Ba-140 9.6048E+15 RDCORINV015 Sr-89 7.0261E+15 RDCORINV016 Sr-90 9.7169E+14 RDCORINV017 Sr-91 8.8199E+15 RDCORINV018 Sr-92 9.0068E+15 RDCORINV019 Ba-137m 9.9785E+14 RDCORINV020 I-131 4.7167E+15 RDCORINV021 I-132 7.094E+15 RDCORINV022 I-133 1.0565E+16 RDCORINV023 I-134 1.2301E+16 RDCORINV024 I-135 1.0075E+16 RDCORINV025 Te-127 3.0382E+14 RDCORINV026 Te-127m 4.9137E+13 RDCORINV027 Te-129 9.6398E+14 RDCORINV028 Te-129m 1.6804E+14 RDCORINV029 Te-131m 6.339E+14 RDCORINV030 Te-132 6.9767E+15 RDCORINV031 Te-131 4.2385E+15 RDCORINV032 Rh-105 2.0313E+15 RDCORINV033 Ru-103 5.3792E+15 RDCORINV034 Ru-105 2.1028E+15 RDCORINV035 Ru-106 9.8933E+14 RDCORINV036 Rh-103m 5.304E+15 RDCORINV037 Rh-106 9.8933E+14 RDCORINV038 Nb-95 9.9699E+15 RDCORINV039 Co-58 0.0E+00 RDCORINV040 Co-60 0.0E+00 RDCORINV041 Mo-99 9.5951E+15 RDCORINV042 Tc-99m 8.5831E+15 RDCORINV043 Nb-97 9.3702E+15 RDCORINV044 Nb-97m 8.883E+15 RDCORINV045 Ce-141 9.0312E+15 RDCORINV046 Ce-143 9.0312E+15 RDCORINV047 Ce-144 8.2508E+15 RDCORINV048 Np-239 7.6933E+16 RDCORINV049 Pu-238 9.4029E+10 RDCORINV050 Pu-239 1.0964E+13 RDCORINV051 Pu-240 5.5005E+10 RDCORINV052 Pu-241 1.0778E+11 RDCORINV053 Zr-95 9.886E+15 RDCORINV054 Zr-97 9.2542E+15 RDCORINV055 Am-241 2.2144E+08 F-12

RDCORINV056 Cm-242 3.6458E+08 RDCORINV057 Cm-244 3.9718E+03 RDCORINV058 La-140 9.6296E+15 RDCORINV059 La-141 9.1425E+15 RDCORINV060 La-142 8.9177E+15 RDCORINV061 Nd-147 3.5596E+15 RDCORINV062 Pr-143 9.1051E+15 RDCORINV063 Y-90 9.742E+14 RDCORINV064 Y-91 8.8053E+15 RDCORINV065 Y-92 9.1425E+15 RDCORINV066 Y-93 9.7046E+15 RDCORINV067 Y-91m 5.2082E+15 RDCORINV068 Pr-144 8.3182E+15 RDCORINV069 Pr-144m 7.9435E+13 RDCORINV070 Sb-127 3.051E+14 RDCORINV071 Sb-129 1.0389E+15

PARENT means decay products are released at the same fraction as their parent RDAPLFRC001 PARENT F-13

APPENDIX H MELMACCS INVENTORY FILE (HEAT PIPE REACTOR INL DESIGN A)

This appendix shows the contents of the HPR INL-A inventories.inv file created for this analysis. HPR INL-A inventories.inv is the MelMACCS inventory data for the heat pipe reactor (HPR) (Idaho National Laboratory (INL) Design A). This file was created from a Python script from Oak Ridge National Laboratory used to process the INL-A_core_t6-depl_ce_v7.1.ii.json data file, which in turn comes from a SCALE depletion calculation of the INL Design A of the HPR. The MelMACCS inventory file has been updated slightly to correct the labels and to add more description.

/CORE-LABEL HPR_BOC "Heat Pipe Reactor (INL-A), 5MW Full Power, 3 days beginning of cycle" HPR_MOC "Heat Pipe Reactor (INL-A), 5MW Full Power, 2.08 years middle of cycle" HPR_EOC "Heat Pipe Reactor (INL-A), 5MW Full Power, 5 years end of cycle (2GWd/MTIHM)"

/END

/CORE-DESC HPR_BOC data file: INL-A_core_t6-depl_ce_v7.1.ii.json response name: AT_POWER user-selected time index: 1 user-selected time(s): 259200 cutoff for grams: 1e-12 cutoff for curies: 1e-15 mass vs. time for response:

index time(s) mass(g) target 0000 0.00000e+00 5.18587e+06 0001 2.59200e+05 5.18587e+06 <------

0002 1.33655e+07 5.18587e+06 0003 2.64718e+07 5.18586e+06 0004 3.95781e+07 5.18586e+06 0005 5.26844e+07 5.18586e+06 0006 6.57906e+07 5.18586e+06 0007 7.88969e+07 5.18585e+06 0008 9.20464e+07 5.18585e+06 0009 1.05196e+08 5.18585e+06 0010 1.18345e+08 5.18585e+06 0011 1.31495e+08 5.18585e+06 0012 1.44644e+08 5.18584e+06 0013 1.57794e+08 5.18584e+06

/END

/CORE HPR_BOC MASS ACTIVATION

Isotope Mass(g)

Be 10 3.29E-12 C 12 7.53E-05 C 13 4.20E-03 C 14 5.92E-05 F 19 5.24E-07 H 1 8.47E-07 H 2 9.31E-08 H 3 2.17E-05 He 3 5.08E-09 He 4 1.84E-03 N 14 2.97E-11 N 15 7.23E-07 N 16 5.34E-10 O 16 6.14E+05 O 17 2.49E+02 O 18 1.42E+03 O 19 7.84E-11

/CORE HPR_BOC ACTIVITY ACTIVATION H-1

Isotope Activity(Ci)

B 12 1.76E-10 Be 10 7.78E-14 Be 11 6.34E-11 Be 8 9.14E-14 C 14 2.65E-04 C 15 1.15E-01 Cr 66 1.06E-05 Cr 67 3.19E-06 F 20 3.18E-08 H 3 2.09E-01 He 6 1.45E-14 Mn 66 1.47E-03 Mn 67 1.32E-03 Mn 68 2.74E-04 Mn 69 3.64E-05 N 16 5.28E+01 O 19 1.73E+00

/CORE HPR_BOC MASS ACTINIDE

Isotope Mass(g)

Am 241 2.00E-12 Am 242m 1.98E-12 Am 243 1.99E-12 Cm 242 3.51E-12 Cm 243 1.99E-12 Cm 244 2.00E-12 Np 236 1.43E-12 Np 236m 3.24E-12 Np 237 7.50E-03 Np 238 3.60E-08 Np 239 5.19E+00 Np 240 6.48E-07 Np 240m 1.25E-07 Pa 231 4.03E-06 Pa 232 1.40E-11 Pa 233 8.12E-12 Pa 234 6.93E-10 Pa 234m 1.47E-10 Pa 235 7.52E-09 Pu 238 1.38E-08 Pu 239 2.62E+00 Pu 240 5.12E-05 Pu 241 2.67E-10 Pu 242 2.31E-12 Th 229 1.45E-12 Th 230 1.56E-04 Th 231 3.15E-06 Th 232 8.36E-07 Th 234 4.39E-06 U 232 5.59E-11 U 233 1.40E-05 U 234 6.85E+03 U 235 9.03E+05 U 235m 1.36E-04 U 236 3.86E+00 U 237 4.63E-02 U 238 3.66E+06 U 239 6.16E-02

/CORE HPR_BOC ACTIVITY ACTINIDE

Isotope Activity(Ci)

Am 241 6.86E-12 Am 242 7.11E-08 Am 242m 2.08E-11 Am 243 3.97E-13 Am 244 5.62E-13 Am 244m 8.07E-12 Cm 242 1.16E-08 H-2

Cm 243 1.01E-10 Cm 244 1.62E-10 Np 235 9.06E-13 Np 236 1.41E-14 Np 236m 1.91E-06 Np 237 5.27E-06 Np 238 9.33E-03 Np 239 1.20E+06 Np 240 8.20E+00 Np 240m 1.35E+01 Pa 229 1.04E-12 Pa 230 2.66E-10 Pa 231 1.90E-07 Pa 232 5.97E-06 Pa 233 1.69E-07 Pa 234 1.39E-03 Pa 234m 1.02E-01 Pa 235 2.46E-01 Pu 236 5.29E-10 Pu 237 5.30E-10 Pu 237m 6.70E-09 Pu 238 2.36E-07 Pu 239 1.63E-01 Pu 240 1.16E-05 Pu 241 2.77E-08 Pu 242 9.13E-15 Pu 243 3.62E-12 Th 226 5.56E-13 Th 227 5.49E-13 Th 228 2.03E-12 Th 229 3.07E-13 Th 230 3.22E-06 Th 231 1.67E+00 Th 232 9.17E-14 Th 233 8.71E-07 Th 234 1.02E-01 U 230 5.53E-13 U 231 2.74E-13 U 232 1.25E-09 U 233 1.35E-07 U 234 4.27E+01 U 235 1.95E+00 U 235m 4.19E+03 U 236 2.50E-04 U 237 3.78E+03 U 238 1.23E+00 U 239 2.07E+06

/CORE HPR_BOC MASS FISSION

Isotope Mass(g)

Ag 107 9.43E-12 Ag 109 3.59E-03 Ag 109m 1.05E-06 Ag 110 3.29E-12 Ag 110m 5.24E-10 Ag 111 2.12E-03 Ag 111m 8.85E-07 Ag 112 1.18E-04 Ag 113 1.41E-04 Ag 113m 7.33E-07 Ag 114 4.41E-08 Ag 115 1.20E-05 Ag 115m 7.69E-09 Ag 116 2.33E-06 Ag 116m 7.87E-09 Ag 117 6.38E-07 Ag 117m 5.46E-09 Ag 118 2.93E-08 Ag 118m 5.73E-09 Ag 119 1.64E-08 H-3

Ag 120 5.20E-09 Ag 120m 5.31E-10 Ag 121 3.04E-09 Ag 122 5.36E-10 Ag 122m 1.81E-10 Ag 123 2.78E-10 Ag 124 8.61E-11 Ag 125 1.46E-11 Ag 126 1.85E-12 As 74 3.63E-12 As 75 7.28E-05 As 76 5.81E-09 As 77 2.82E-04 As 78 4.11E-05 As 79 8.18E-06 As 80 5.80E-07 As 81 1.92E-06 As 82 1.44E-06 As 82m 1.50E-07 As 83 1.39E-06 As 84 3.20E-07 As 85 1.46E-07 As 86 1.43E-07 As 87 7.47E-09 As 88 3.62E-09 As 89 9.56E-12 Ba 132 1.44E-11 Ba 134 1.07E-09 Ba 135 5.78E-09 Ba 135m 1.67E-09 Ba 136 1.70E-04 Ba 136m 1.23E-11 Ba 137 6.80E-05 Ba 137m 9.52E-08 Ba 138 6.04E-01 Ba 139 1.63E-02 Ba 140 5.29E-01 Ba 141 3.33E-03 Ba 142 1.88E-03 Ba 143 4.13E-05 Ba 144 2.61E-05 Ba 145 4.94E-06 Ba 146 1.29E-06 Ba 147 1.48E-07 Ba 148 1.58E-08 Ba 149 1.09E-09 Ba 150 9.77E-11 Ba 151 1.35E-11 Br 79 1.48E-06 Br 80 4.73E-11 Br 80m 5.39E-10 Br 81 1.06E-02 Br 82 2.04E-06 Br 82m 2.34E-09 Br 83 1.38E-03 Br 84 5.83E-04 Br 84m 1.79E-06 Br 85 6.90E-05 Br 86 3.08E-05 Br 87 3.60E-05 Br 88 9.51E-06 Br 89 1.79E-06 Br 90 4.30E-07 Br 91 4.89E-08 Br 92 5.36E-09 Br 93 6.00E-10 Br 94 2.23E-11 Cd 110 9.79E-09 Cd 111 3.27E-04 Cd 112 1.18E-03 Cd 113 1.84E-03 H-4

Cd 113m 2.03E-05 Cd 114 1.72E-03 Cd 115 1.14E-03 Cd 115m 1.01E-04 Cd 116 1.83E-03 Cd 117 7.36E-05 Cd 117m 2.19E-05 Cd 118 3.13E-05 Cd 119 1.12E-06 Cd 119m 4.55E-07 Cd 120 5.30E-07 Cd 121 8.96E-08 Cd 121m 2.50E-08 Cd 122 5.47E-08 Cd 123 1.77E-08 Cd 124 9.93E-09 Cd 125 2.46E-09 Cd 126 1.84E-09 Cd 127 1.15E-09 Cd 128 3.80E-10 Cd 129 7.40E-12 Cd 130 5.11E-09 Cd 131 3.98E-10 Ce 138 3.46E-11 Ce 139 9.70E-11 Ce 140 1.41E-02 Ce 141 4.87E-01 Ce 142 5.20E-01 Ce 143 2.84E-01 Ce 144 5.14E-01 Ce 145 3.79E-04 Ce 146 1.33E-03 Ce 147 6.16E-05 Ce 148 5.08E-05 Ce 149 2.56E-06 Ce 150 1.08E-06 Ce 151 1.45E-07 Ce 152 3.12E-08 Ce 153 4.08E-09 Ce 154 3.92E-10 Ce 155 2.33E-11 Ce 156 1.16E-12 Cs 131 1.64E-12 Cs 132 4.55E-09 Cs 133 4.94E-02 Cs 134 7.69E-07 Cs 134m 2.25E-08 Cs 135 4.11E-01 Cs 135m 3.40E-07 Cs 136 3.97E-04 Cs 136m 2.91E-08 Cs 137 5.65E-01 Cs 138 6.80E-03 Cs 138m 1.69E-05 Cs 139 1.80E-03 Cs 140 1.90E-04 Cs 141 5.59E-05 Cs 142 2.53E-06 Cs 143 1.49E-06 Cs 144 2.96E-07 Cs 145 4.23E-08 Cs 146 3.42E-09 Cs 147 4.38E-10 Cs 148 2.04E-11 Cu 65 1.57E-10 Cu 66 4.84E-11 Cu 67 1.12E-07 Cu 68 4.66E-11 Cu 68m 4.89E-12 Cu 69 4.17E-10 Cu 70 1.74E-10 H-5

Cu 70m 2.16E-11 Cu 71 1.48E-10 Cu 72 1.03E-10 Cu 73 1.47E-10 Cu 74 6.79E-11 Cu 75 6.16E-11 Cu 76 3.04E-11 Cu 77 1.13E-11 Cu 78 2.24E-12 Dy 160 2.69E-10 Dy 161 4.25E-06 Dy 162 1.02E-05 Dy 163 5.33E-06 Dy 164 3.08E-06 Dy 165 8.24E-08 Dy 166 8.47E-07 Dy 167 1.57E-09 Dy 168 1.35E-09 Dy 169 6.11E-11 Dy 170 2.46E-11 Dy 171 2.42E-12 Dy 172 1.48E-12 Er 166 1.22E-07 Er 167 7.08E-07 Er 167m 1.13E-12 Er 168 4.64E-07 Er 169 2.57E-07 Er 170 1.58E-07 Er 171 1.33E-08 Er 172 8.38E-08 Eu 151 5.77E-07 Eu 152 1.64E-11 Eu 152m 4.89E-12 Eu 153 7.33E-03 Eu 154 7.32E-08 Eu 154m 1.79E-10 Eu 155 4.57E-03 Eu 156 1.77E-03 Eu 157 3.27E-04 Eu 158 8.90E-06 Eu 159 1.42E-06 Eu 160 1.91E-08 Eu 161 4.26E-09 Eu 162 5.06E-10 Eu 163 1.60E-10 Eu 164 2.35E-11 Eu 165 6.09E-12 Ga 69 4.29E-07 Ga 71 1.42E-06 Ga 72 5.04E-07 Ga 73 1.02E-06 Ga 74 6.95E-08 Ga 74m 2.93E-11 Ga 75 5.23E-08 Ga 76 4.70E-08 Ga 77 3.89E-08 Ga 78 2.50E-08 Ga 79 1.82E-08 Ga 80 7.03E-09 Ga 81 3.42E-09 Ga 82 1.13E-09 Ga 83 5.82E-11 Ga 84 2.28E-10 Gd 152 1.41E-11 Gd 154 1.82E-11 Gd 155 2.74E-06 Gd 156 1.06E-04 Gd 157 7.92E-04 Gd 158 5.71E-04 Gd 159 8.06E-05 Gd 160 9.17E-05 H-6

Gd 161 3.81E-08 Gd 162 2.87E-08 Gd 163 2.00E-09 Gd 164 7.36E-10 Gd 165 8.71E-11 Gd 166 2.16E-11 Gd 167 6.17E-12 Ge 70 1.66E-11 Ge 72 8.20E-07 Ge 73 9.45E-06 Ge 73m 2.86E-11 Ge 74 2.57E-05 Ge 75 2.07E-06 Ge 75m 8.10E-10 Ge 76 2.68E-04 Ge 77 1.30E-04 Ge 77m 2.10E-09 Ge 78 3.96E-05 Ge 79 1.95E-07 Ge 79m 1.68E-07 Ge 80 1.01E-06 Ge 81 2.96E-07 Ge 81m 8.85E-09 Ge 82 1.89E-07 Ge 83 2.67E-08 Ge 84 1.02E-08 Ge 85 8.72E-10 Ge 86 1.37E-08 Ge 87 7.58E-11 Ho 165 1.68E-06 Ho 166 1.63E-07 Ho 166m 8.56E-11 Ho 167 4.66E-08 Ho 168 4.65E-10 Ho 169 4.53E-10 Ho 170 1.41E-10 Ho 170m 1.21E-12 Ho 171 2.60E-11 Ho 172 1.82E-11 I 126 1.45E-11 I 127 2.04E-03 I 128 6.82E-10 I 129 4.50E-02 I 130 3.55E-06 I 130m 1.35E-08 I 131 2.12E-01 I 132 8.36E-03 I 132m 2.25E-05 I 133 2.23E-01 I 133m 2.02E-06 I 134 1.22E-02 I 134m 3.71E-05 I 135 7.54E-02 I 136 1.24E-04 I 136m 3.09E-05 I 137 3.97E-05 I 138 5.37E-06 I 139 1.02E-06 I 140 9.80E-08 I 141 1.30E-08 I 142 1.03E-09 I 143 1.15E-10 I 144 1.19E-12 In 113 3.70E-09 In 115 4.98E-04 In 115m 8.99E-05 In 116m 7.09E-11 In 117 1.57E-05 In 117m 5.26E-05 In 118 5.18E-08 In 118m 2.12E-10 H-7

In 119 6.56E-07 In 119m 6.79E-06 In 120 3.24E-08 In 120m 9.22E-09 In 121 1.48E-07 In 121m 1.08E-06 In 122 1.67E-08 In 122m 1.31E-08 In 123 3.85E-08 In 123m 3.00E-07 In 124 3.33E-08 In 124m 1.01E-08 In 125 1.59E-08 In 125m 7.53E-08 In 126 1.12E-08 In 126m 6.11E-09 In 127 2.40E-08 In 127m 2.68E-08 In 128 8.55E-09 In 128m 6.30E-09 In 129 9.17E-09 In 129m 1.70E-08 In 130 1.14E-08 In 130m 5.01E-09 In 131 1.96E-09 In 131m 1.45E-09 In 132 1.12E-09 In 133 7.14E-11 In 134 3.52E-12 Kr 80 6.88E-09 Kr 81 6.31E-11 Kr 82 1.80E-06 Kr 83 2.68E-02 Kr 83m 1.05E-03 Kr 84 5.52E-02 Kr 85 1.42E-02 Kr 85m 6.38E-03 Kr 86 1.09E-01 Kr 87 3.65E-03 Kr 88 1.13E-02 Kr 89 2.66E-04 Kr 90 4.87E-05 Kr 91 9.55E-06 Kr 92 1.09E-06 Kr 93 2.50E-07 Kr 94 1.09E-08 Kr 95 8.59E-10 Kr 96 9.27E-10 Kr 97 2.87E-12 Kr 98 2.14E-11 La 137 7.00E-10 La 138 2.17E-06 La 139 5.70E-01 La 140 3.06E-02 La 141 4.21E-02 La 142 1.64E-02 La 143 2.62E-03 La 144 1.17E-04 La 145 5.10E-05 La 146 6.10E-06 La 146m 3.92E-06 La 147 2.45E-06 La 148 3.34E-07 La 149 8.77E-08 La 150 1.54E-08 La 151 2.40E-09 La 152 1.58E-10 La 153 1.26E-11 Mo 100 4.23E-01 Mo 101 1.73E-03 Mo 102 1.16E-03 H-8

Mo 103 8.60E-05 Mo 104 4.98E-05 Mo 105 1.75E-05 Mo 106 2.09E-06 Mo 107 3.80E-07 Mo 108 4.06E-08 Mo 109 7.81E-09 Mo 110 1.37E-09 Mo 111 1.73E-10 Mo 112 3.18E-11 Mo 113 1.25E-12 Mo 94 2.70E-11 Mo 95 1.26E-04 Mo 96 1.62E-05 Mo 97 2.65E-01 Mo 98 3.81E-01 Mo 99 2.82E-01 Nb 100 3.34E-06 Nb 100m 3.14E-07 Nb 101 1.37E-05 Nb 102 5.13E-06 Nb 102m 3.99E-07 Nb 103 1.37E-06 Nb 104 1.13E-06 Nb 104m 1.50E-07 Nb 105 4.95E-07 Nb 106 2.93E-08 Nb 107 2.20E-09 Nb 108 1.66E-10 Nb 109 6.26E-11 Nb 110 2.79E-12 Nb 92 1.45E-12 Nb 93 2.11E-10 Nb 93m 5.14E-10 Nb 94 1.33E-08 Nb 94m 1.12E-11 Nb 95 6.28E-03 Nb 95m 5.89E-05 Nb 96 1.14E-05 Nb 97 8.84E-03 Nb 97m 1.14E-04 Nb 98 6.04E-06 Nb 98m 3.30E-05 Nb 99 2.06E-05 Nb 99m 1.31E-04 Nd 142 2.27E-09 Nd 143 1.46E-02 Nd 144 1.87E-03 Nd 145 3.32E-01 Nd 146 2.92E-01 Nd 147 2.02E-01 Nd 148 1.70E-01 Nd 149 3.90E-03 Nd 150 7.22E-02 Nd 151 1.91E-04 Nd 152 1.13E-04 Nd 153 3.19E-06 Nd 154 1.16E-06 Nd 155 1.54E-07 Nd 156 3.25E-08 Nd 157 2.57E-09 Nd 158 3.29E-10 Nd 159 2.23E-11 Nd 160 1.43E-12 Ni 65 8.34E-12 Ni 66 3.09E-08 Ni 67 1.90E-11 Ni 68 4.27E-11 Ni 69 2.57E-11 Ni 70 2.06E-11 Ni 71 1.12E-11 H-9

Ni 72 9.39E-12 Ni 73 4.82E-12 Ni 74 2.04E-12 Pd 104 1.34E-08 Pd 105 3.66E-02 Pd 106 1.26E-04 Pd 107 2.15E-02 Pd 108 9.08E-03 Pd 109 1.31E-03 Pd 109m 9.40E-12 Pd 110 3.65E-03 Pd 111 1.93E-05 Pd 111m 1.09E-07 Pd 112 8.05E-04 Pd 113 1.04E-06 Pd 114 1.35E-06 Pd 115 2.46E-07 Pd 116 9.58E-08 Pd 117 3.31E-08 Pd 118 9.93E-09 Pd 119 2.14E-09 Pd 120 9.76E-10 Pd 121 1.09E-10 Pd 122 1.90E-11 Pd 123 5.68E-12 Pm 146 6.42E-11 Pm 147 1.97E-02 Pm 148 3.89E-08 Pm 148m 3.83E-08 Pm 149 7.05E-02 Pm 150 1.90E-07 Pm 151 2.16E-02 Pm 152 4.10E-05 Pm 152m 3.24E-07 Pm 153 3.33E-05 Pm 154 4.96E-06 Pm 154m 4.70E-07 Pm 155 1.04E-06 Pm 156 3.00E-07 Pm 157 4.79E-08 Pm 158 6.84E-09 Pm 159 5.70E-10 Pm 160 1.10E-10 Pm 161 1.03E-11 Pr 141 1.46E-02 Pr 142 3.01E-09 Pr 142m 2.95E-11 Pr 143 2.53E-01 Pr 144 2.17E-05 Pr 144m 8.93E-08 Pr 145 4.51E-02 Pr 146 2.38E-03 Pr 147 9.95E-04 Pr 148 1.27E-04 Pr 148m 2.28E-06 Pr 149 8.45E-05 Pr 150 2.39E-06 Pr 151 4.11E-06 Pr 152 3.38E-07 Pr 153 1.65E-07 Pr 154 1.93E-08 Pr 155 1.85E-09 Pr 156 2.46E-10 Pr 157 2.56E-11 Ra 226 5.80E-12 Rb 100 5.89E-10 Rb 83 1.55E-11 Rb 84 4.86E-10 Rb 85 5.13E-02 Rb 86 8.38E-07 Rb 86m 1.47E-10 H-10

Rb 87 1.40E-01 Rb 88 1.19E-03 Rb 89 1.35E-03 Rb 90 2.46E-04 Rb 90m 6.87E-05 Rb 91 1.06E-04 Rb 92 7.15E-06 Rb 93 7.33E-06 Rb 94 1.76E-06 Rb 95 1.19E-07 Rb 96 2.24E-08 Rb 97 2.83E-09 Rb 98 5.01E-10 Rb 99 3.48E-11 Rh 101 1.64E-12 Rh 102 2.55E-11 Rh 102m 2.44E-11 Rh 103 5.95E-03 Rh 103m 2.23E-04 Rh 104 8.79E-12 Rh 104m 5.40E-12 Rh 105 4.67E-02 Rh 105m 5.73E-06 Rh 106 4.21E-08 Rh 106m 6.42E-09 Rh 107 1.57E-04 Rh 108 8.50E-07 Rh 108m 4.91E-10 Rh 109 2.18E-06 Rh 110 2.02E-10 Rh 110m 5.78E-07 Rh 111 1.51E-07 Rh 112 2.44E-08 Rh 113 2.95E-08 Rh 114 1.30E-08 Rh 115 5.36E-09 Rh 116 1.80E-09 Rh 117 5.68E-10 Rh 118 1.50E-10 Rh 119 2.46E-11 Rh 120 4.42E-12 Ru 100 5.11E-07 Ru 101 3.52E-01 Ru 102 3.07E-01 Ru 103 2.27E-01 Ru 104 1.54E-01 Ru 105 8.08E-03 Ru 106 4.47E-02 Ru 107 2.72E-05 Ru 108 1.38E-05 Ru 109 9.41E-07 Ru 110 2.34E-07 Ru 111 2.78E-08 Ru 112 1.72E-08 Ru 113 4.81E-09 Ru 114 1.34E-09 Ru 115 7.04E-10 Ru 116 5.46E-11 Ru 117 6.80E-12 Ru 118 1.26E-12 Ru 99 3.15E-06 Sb 120m 1.37E-11 Sb 121 1.02E-03 Sb 122 3.21E-08 Sb 122m 3.44E-11 Sb 123 2.23E-03 Sb 124 4.42E-06 Sb 124m 1.68E-09 Sb 125 2.84E-03 Sb 126 5.65E-05 Sb 126m 7.13E-07 H-11

Sb 127 1.21E-02 Sb 128 3.44E-04 Sb 128m 1.10E-04 Sb 129 4.83E-03 Sb 129m 5.77E-06 Sb 130 8.64E-04 Sb 130m 1.88E-04 Sb 131 1.81E-03 Sb 132 1.57E-04 Sb 132m 1.43E-04 Sb 133 1.63E-04 Sb 134 1.76E-07 Sb 134m 2.23E-06 Sb 135 2.08E-07 Sb 136 1.58E-08 Sb 137 1.33E-08 Sb 138 3.93E-11 Sb 139 2.09E-12 Se 76 7.15E-09 Se 77 1.76E-04 Se 77m 1.16E-10 Se 78 1.27E-03 Se 79 2.71E-03 Se 79m 3.47E-06 Se 80 6.88E-03 Se 81 6.59E-05 Se 81m 1.31E-05 Se 82 1.74E-02 Se 83 1.93E-04 Se 83m 8.08E-07 Se 84 5.89E-05 Se 85 1.05E-05 Se 86 6.07E-06 Se 87 1.38E-06 Se 88 1.94E-07 Se 89 1.20E-08 Se 90 1.25E-09 Se 91 2.27E-10 Se 92 7.43E-12 Sm 147 1.44E-05 Sm 148 4.61E-09 Sm 149 3.81E-02 Sm 150 3.42E-06 Sm 151 2.43E-02 Sm 152 2.98E-02 Sm 153 1.16E-02 Sm 154 9.14E-03 Sm 155 3.43E-05 Sm 156 4.33E-04 Sm 157 2.99E-06 Sm 158 1.00E-06 Sm 159 1.35E-08 Sm 160 3.91E-09 Sm 161 4.62E-10 Sm 162 4.50E-11 Sm 163 7.93E-12 Sm 164 1.14E-12 Sn 115 2.61E-05 Sn 116 2.54E-09 Sn 117 1.69E-03 Sn 117m 3.41E-06 Sn 118 1.83E-03 Sn 119 1.83E-03 Sn 119m 6.04E-05 Sn 120 1.93E-03 Sn 121 8.52E-04 Sn 121m 1.33E-04 Sn 122 2.26E-03 Sn 123 1.42E-04 Sn 123m 3.03E-05 Sn 124 3.43E-03 H-12

Sn 125 1.23E-03 Sn 125m 8.61E-06 Sn 126 6.02E-03 Sn 127 3.89E-04 Sn 127m 8.46E-06 Sn 128 6.12E-04 Sn 128m 5.34E-07 Sn 129 2.45E-05 Sn 129m 3.97E-05 Sn 130 7.02E-05 Sn 130m 3.21E-05 Sn 131 1.57E-05 Sn 131m 1.57E-05 Sn 132 1.28E-05 Sn 133 1.18E-07 Sn 134 1.73E-08 Sn 135 6.74E-10 Sn 136 1.93E-11 Sn 137 1.93E-12 Sr 100 4.75E-09 Sr 101 3.74E-10 Sr 102 2.00E-11 Sr 85 4.75E-12 Sr 86 4.76E-08 Sr 87 6.55E-08 Sr 87m 6.97E-10 Sr 88 1.92E-01 Sr 89 2.60E-01 Sr 90 3.29E-01 Sr 91 6.57E-02 Sr 92 1.92E-02 Sr 93 9.36E-04 Sr 94 1.54E-04 Sr 95 4.42E-05 Sr 96 1.55E-06 Sr 97 3.05E-07 Sr 98 2.37E-07 Sr 99 2.34E-08 Tb 158 1.71E-11 Tb 159 1.53E-04 Tb 160 1.89E-08 Tb 161 2.69E-05 Tb 162 2.60E-08 Tb 163 3.49E-08 Tb 164 3.09E-09 Tb 165 1.24E-09 Tb 166 1.55E-10 Tb 167 7.66E-11 Tb 168 1.78E-11 Tb 169 2.06E-12 Tb 170 1.03E-12 Tc 100 7.88E-11 Tc 101 1.69E-03 Tc 102 9.03E-06 Tc 102m 7.13E-07 Tc 103 7.03E-05 Tc 104 9.44E-04 Tc 105 2.33E-04 Tc 106 8.89E-06 Tc 107 2.56E-06 Tc 108 2.60E-07 Tc 109 2.23E-08 Tc 110 1.34E-08 Tc 111 1.66E-09 Tc 112 5.49E-10 Tc 113 9.01E-11 Tc 114 1.48E-11 Tc 115 1.46E-12 Tc 98 4.34E-08 Tc 99 9.95E-02 Tc 99m 2.06E-02 H-13

Te 122 1.32E-08 Te 123 9.83E-11 Te 123m 3.43E-10 Te 124 9.18E-07 Te 125 2.23E-06 Te 125m 6.61E-07 Te 126 1.00E-04 Te 127 8.56E-04 Te 127m 5.66E-04 Te 128 3.13E-02 Te 129 1.11E-03 Te 129m 8.19E-03 Te 130 1.58E-01 Te 131 1.95E-03 Te 131m 1.81E-02 Te 132 2.88E-01 Te 133 1.33E-03 Te 133m 5.72E-03 Te 134 8.62E-03 Te 135 3.29E-05 Te 136 1.36E-05 Te 137 6.17E-07 Te 138 8.81E-08 Te 139 3.25E-09 Te 140 2.31E-09 Te 141 6.16E-11 Te 142 1.13E-12 Tm 169 2.95E-08 Tm 171 7.51E-08 Tm 172 3.80E-08 Xe 128 6.91E-08 Xe 129 1.67E-11 Xe 129m 7.39E-12 Xe 130 1.17E-05 Xe 131 2.78E-02 Xe 131m 2.87E-04 Xe 132 9.66E-02 Xe 133 3.10E-01 Xe 133m 7.55E-03 Xe 134 6.78E-01 Xe 134m 4.17E-09 Xe 135 1.07E-01 Xe 135m 5.50E-04 Xe 136 5.78E-01 Xe 137 7.11E-04 Xe 138 2.68E-03 Xe 139 1.01E-04 Xe 140 2.56E-05 Xe 141 1.26E-06 Xe 142 3.67E-07 Xe 143 1.16E-08 Xe 144 1.01E-08 Xe 145 1.46E-10 Xe 146 2.08E-11 Y 100 2.59E-07 Y 101 6.82E-08 Y 102 3.71E-08 Y 103 1.39E-09 Y 104 1.43E-10 Y 105 1.19E-11 Y 88 9.45E-11 Y 89 5.39E-03 Y 89m 9.09E-11 Y 90 2.58E-05 Y 90m 1.45E-08 Y 91 2.76E-01 Y 91m 3.41E-03 Y 92 2.54E-02 Y 93 7.74E-02 Y 93m 6.03E-07 Y 94 2.45E-03 H-14

Y 95 1.37E-03 Y 96 8.15E-06 Y 96m 6.00E-06 Y 97 4.34E-06 Y 97m 7.67E-07 Y 98 4.44E-07 Y 98m 8.91E-07 Y 99 1.30E-06 Yb 171 9.76E-11 Yb 172 1.15E-08 Zn 66 1.63E-08 Zn 67 5.12E-08 Zn 68 2.70E-07 Zn 69 8.25E-09 Zn 69m 1.18E-10 Zn 70 7.68E-07 Zn 71 1.12E-09 Zn 71m 4.14E-09 Zn 72 2.09E-06 Zn 73 1.35E-09 Zn 74 1.31E-08 Zn 75 3.53E-09 Zn 76 5.66E-09 Zn 77 2.64E-09 Zn 78 1.86E-09 Zn 79 5.81E-10 Zn 80 6.50E-11 Zn 81 4.54E-12 Zr 100 1.51E-05 Zr 101 2.95E-06 Zr 102 2.57E-06 Zr 103 3.80E-07 Zr 104 8.42E-08 Zr 105 2.50E-08 Zr 106 2.89E-11 Zr 107 2.79E-12 Zr 90 7.17E-06 Zr 91 4.20E-03 Zr 92 3.13E-01 Zr 93 3.06E-01 Zr 94 3.91E-01 Zr 95 3.95E-01 Zr 96 4.04E-01 Zr 97 1.23E-01 Zr 98 6.39E-05 Zr 99 4.43E-06

/CORE HPR_BOC ACTIVITY FISSION

Isotope Activity(Ci)

Ac 225 1.07E-15 Ac 226 3.39E-15 Ac 227 1.89E-11 Ac 228 3.44E-13 Ag 106 4.88E-13 Ag 106m 1.00E-13 Ag 107m 4.56E-10 Ag 108 1.08E-06 Ag 108m 3.39E-12 Ag 109m 2.75E+03 Ag 110 1.37E-02 Ag 110m 2.49E-06 Ag 111 3.36E+02 Ag 111m 1.39E+03 Ag 112 1.05E+03 Ag 113 7.27E+02 Ag 113m 1.07E+03 Ag 114 9.50E+02 Ag 115 9.85E+02 Ag 115m 4.19E+01 Ag 116 9.56E+02 H-15

Ag 116m 3.83E+01 Ag 117 8.46E+02 Ag 117m 9.87E+01 Ag 118 7.46E+02 Ag 118m 2.74E+02 Ag 119 7.41E+02 Ag 120 3.98E+02 Ag 120m 1.56E+02 Ag 121 3.63E+02 Ag 122 9.37E+01 Ag 122m 8.36E+01 Ag 123 8.51E+01 Ag 124 4.56E+01 Ag 125 7.95E+00 Ag 126 1.55E+00 Ag 127 2.38E-01 Ag 128 3.25E-02 Ag 129 5.44E-03 Ag 130 2.10E-01 As 72 6.46E-10 As 73 1.51E-09 As 74 3.61E-07 As 76 9.14E-03 As 77 2.96E+02 As 78 1.09E+03 As 79 2.16E+03 As 80 5.39E+03 As 81 8.02E+03 As 82 1.04E+04 As 82m 1.51E+03 As 83 1.41E+04 As 84 1.03E+04 As 85 9.57E+03 As 86 1.99E+04 As 87 1.73E+03 As 88 4.15E+03 As 89 2.05E+01 As 90 5.42E-01 As 91 8.40E-02 As 92 6.58E-03 At 217 1.08E-15 Ba 133 1.18E-10 Ba 135m 1.36E-03 Ba 136m 3.31E+00 Ba 137m 5.12E+01 Ba 139 2.66E+05 Ba 140 3.87E+04 Ba 141 2.43E+05 Ba 142 2.35E+05 Ba 143 2.25E+05 Ba 144 1.78E+05 Ba 145 8.92E+04 Ba 146 4.49E+04 Ba 147 1.27E+04 Ba 148 1.97E+03 Ba 149 2.40E+02 Ba 150 2.45E+01 Ba 151 3.88E+00 Ba 152 6.18E-02 Ba 153 2.96E-03 Bi 211 3.27E-14 Bi 212 1.93E-13 Bi 213 1.07E-15 Bi 214 9.12E-13 Br 77 1.81E-09 Br 77m 2.83E-09 Br 78 5.40E-07 Br 79m 5.95E-05 Br 80 6.29E-03 Br 80m 4.78E-03 Br 82 2.21E+00 H-16

Br 82m 8.75E-01 Br 83 2.17E+04 Br 84 4.11E+04 Br 84m 6.69E+02 Br 85 5.27E+04 Br 86 7.36E+04 Br 87 8.41E+04 Br 88 7.49E+04 Br 89 5.15E+04 Br 90 2.81E+04 Br 91 1.12E+04 Br 92 1.92E+03 Br 93 7.13E+02 Br 94 3.83E+01 Br 95 6.51E-01 Br 96 2.08E-01 Br 97 2.97E-03 Cd 109 6.49E-15 Cd 111m 1.81E-07 Cd 113m 4.56E-03 Cd 115 5.80E+02 Cd 115m 2.58E+00 Cd 117 7.92E+02 Cd 117m 1.75E+02 Cd 118 9.91E+02 Cd 119 6.59E+02 Cd 119m 3.27E+02 Cd 120 9.81E+02 Cd 121 6.19E+02 Cd 121m 2.81E+02 Cd 122 9.66E+02 Cd 123 7.73E+02 Cd 124 7.23E+02 Cd 125 3.26E+02 Cd 126 3.19E+02 Cd 127 2.77E+02 Cd 128 1.20E+02 Cd 129 2.40E+00 Cd 130 2.74E+03 Cd 131 5.04E+02 Cd 132 7.37E-01 Ce 137 2.15E-09 Ce 139 6.63E-07 Ce 139m 3.28E-05 Ce 141 1.39E+04 Ce 143 1.89E+05 Ce 144 1.64E+03 Ce 145 1.63E+05 Ce 146 1.27E+05 Ce 147 8.38E+04 Ce 148 6.92E+04 Ce 149 3.66E+04 Ce 150 2.04E+04 Ce 151 6.14E+03 Ce 152 1.66E+03 Ce 153 3.08E+02 Ce 154 3.71E+01 Ce 155 3.60E+00 Ce 156 2.27E-01 Ce 157 9.14E-03 Co 65 1.60E-04 Co 66 4.20E-02 Co 67 1.29E-01 Co 68 1.51E-01 Co 69 1.41E-01 Co 70 9.47E-02 Co 71 5.17E-02 Co 72 2.00E-02 Co 73 8.26E-03 Co 74 1.23E-03 Co 75 1.75E-04 H-17

Cs 129 3.52E-15 Cs 131 1.69E-07 Cs 132 6.95E-04 Cs 134 9.95E-04 Cs 134m 1.81E-01 Cs 135 4.74E-04 Cs 135m 8.95E+00 Cs 136 2.90E+01 Cs 136m 1.27E+02 Cs 137 4.90E+01 Cs 138 2.78E+05 Cs 138m 7.91E+03 Cs 139 2.63E+05 Cs 140 2.41E+05 Cs 141 1.80E+05 Cs 142 1.19E+05 Cs 143 6.55E+04 Cs 144 2.33E+04 Cs 145 5.61E+03 Cs 146 8.24E+02 Cs 147 1.46E+02 Cs 148 1.06E+01 Cs 149 1.98E-01 Cs 150 1.97E-02 Cs 151 3.45E-03 Cu 66 2.69E-02 Cu 67 8.47E-02 Cu 68 2.49E-01 Cu 68m 3.61E-03 Cu 69 3.99E-01 Cu 70 6.29E-01 Cu 70m 1.05E-01 Cu 71 1.20E+00 Cu 72 2.44E+00 Cu 73 5.43E+00 Cu 74 5.92E+00 Cu 75 7.58E+00 Cu 76 6.93E+00 Cu 77 3.53E+00 Cu 78 9.67E-01 Cu 79 1.68E-01 Cu 80 1.71E-02 Dy 159 4.59E-11 Dy 165 6.71E-01 Dy 165m 2.43E-04 Dy 166 1.96E-01 Dy 167 2.84E-01 Dy 168 1.73E-01 Dy 169 1.05E-01 Dy 170 5.45E-02 Dy 171 2.66E-02 Dy 172 3.23E-02 Er 163 2.26E-15 Er 165 1.08E-09 Er 167m 3.37E-02 Er 169 2.12E-02 Er 171 3.25E-02 Er 172 3.10E-02 Eu 152 2.84E-09 Eu 152m 1.08E-05 Eu 154 1.98E-05 Eu 154m 4.76E-03 Eu 155 2.22E+00 Eu 156 9.78E+01 Eu 157 4.30E+02 Eu 158 2.31E+02 Eu 159 9.28E+01 Eu 160 3.55E+01 Eu 161 1.15E+01 Eu 162 3.32E+00 Eu 163 1.44E+00 H-18

Eu 164 5.69E-01 Eu 165 1.81E-01 Eu 166 4.83E-02 Eu 167 1.06E-02 Fe 65 1.60E-04 Fe 66 2.20E-02 Fe 67 4.34E-02 Fe 68 2.61E-02 Fe 69 9.23E-03 Fe 70 2.54E-03 Fe 71 4.48E-04 Fe 72 6.39E-05 Fr 221 1.08E-15 Fr 223 2.61E-13 Ga 68 1.53E-08 Ga 70 1.53E-05 Ga 72 1.56E+00 Ga 72m 7.17E-02 Ga 73 9.01E+00 Ga 74 2.18E+01 Ga 74m 4.71E-01 Ga 75 6.25E+01 Ga 76 2.14E+02 Ga 77 4.32E+02 Ga 78 7.11E+02 Ga 79 9.13E+02 Ga 80 5.92E+02 Ga 81 3.92E+02 Ga 82 2.60E+02 Ga 83 2.57E+01 Ga 84 3.60E+02 Ga 85 4.33E-01 Ga 86 1.05E+00 Gd 153 4.15E-11 Gd 159 8.60E+01 Gd 161 1.22E+01 Gd 162 3.96E+00 Gd 163 2.04E+00 Gd 164 1.13E+00 Gd 165 5.78E-01 Gd 166 3.05E-01 Gd 167 1.39E-01 Gd 168 4.82E-02 Gd 169 1.09E-02 Ge 71 3.44E-08 Ge 71m 1.03E-07 Ge 73m 8.87E+00 Ge 75 6.28E+01 Ge 75m 2.56E+00 Ge 77 4.69E+02 Ge 77m 5.82E+00 Ge 78 1.08E+03 Ge 79 1.47E+03 Ge 79m 6.16E+02 Ge 80 4.84E+03 Ge 81 5.44E+03 Ge 81m 1.62E+02 Ge 82 5.71E+03 Ge 83 1.96E+03 Ge 84 1.44E+03 Ge 85 2.17E+02 Ge 86 1.89E+04 Ge 87 7.02E+01 Ge 88 1.81E+00 Ge 89 1.76E-02 Ho 161 8.92E-13 Ho 161m 8.08E-14 Ho 162 1.35E-09 Ho 162m 1.64E-09 Ho 163 4.98E-14 Ho 163m 2.95E-09 H-19

Ho 164 5.40E-07 Ho 164m 4.39E-07 Ho 166 1.15E-01 Ho 166m 1.54E-10 Ho 167 2.82E-01 Ho 168 1.74E-01 Ho 169 1.07E-01 Ho 170 5.64E-02 Ho 170m 1.86E-03 Ho 171 3.23E-02 Ho 172 4.77E-02 I 123 2.58E-09 I 124 1.39E-15 I 125 4.20E-09 I 126 1.16E-06 I 128 4.01E-02 I 129 7.95E-06 I 130 6.93E+00 I 130m 2.21E+00 I 131 2.63E+04 I 132 8.66E+04 I 132m 3.86E+02 I 133 2.52E+05 I 133m 1.91E+04 I 134 3.26E+05 I 134m 1.48E+04 I 135 2.67E+05 I 136 1.23E+05 I 136m 5.47E+04 I 137 1.34E+05 I 138 7.06E+04 I 139 3.63E+04 I 140 9.19E+03 I 141 2.42E+03 I 142 3.68E+02 I 143 3.05E+01 I 144 4.82E-01 In 112 1.16E-12 In 112m 9.44E-13 In 113m 1.22E-14 In 114 6.45E-08 In 114m 6.16E-09 In 115 3.52E-15 In 115m 5.46E+02 In 116 1.25E-03 In 116m 2.12E-03 In 117 5.84E+02 In 117m 7.28E+02 In 118 9.91E+02 In 118m 7.59E-02 In 119 4.32E+02 In 119m 5.96E+02 In 120 9.90E+02 In 120m 1.88E+01 In 121 5.98E+02 In 121m 4.35E+02 In 122 1.03E+03 In 122m 1.17E+02 In 123 5.73E+02 In 123m 5.81E+02 In 124 9.71E+02 In 124m 2.48E+02 In 125 6.10E+02 In 125m 5.58E+02 In 126 6.53E+02 In 126m 3.34E+02 In 127 1.95E+03 In 127m 6.49E+02 In 128 8.97E+02 In 128m 7.72E+02 In 129 1.31E+03 H-20

In 129m 1.21E+03 In 130 3.41E+03 In 130m 8.05E+02 In 131 6.03E+02 In 131m 3.57E+02 In 132 4.64E+02 In 133 3.67E+01 In 134 2.12E+00 In 135 7.49E-02 Kr 100 3.75E-02 Kr 79 8.45E-10 Kr 79m 5.57E-10 Kr 81 1.22E-12 Kr 81m 6.01E-06 Kr 83m 2.18E+04 Kr 85 5.54E+00 Kr 85m 5.26E+04 Kr 87 1.04E+05 Kr 88 1.42E+05 Kr 89 1.79E+05 Kr 90 1.89E+05 Kr 91 1.38E+05 Kr 92 7.26E+04 Kr 93 2.36E+04 Kr 94 6.16E+03 Kr 95 8.95E+02 Kr 96 1.36E+03 Kr 97 5.29E+00 Kr 98 5.36E+01 Kr 99 8.84E-02 La 135 2.90E-08 La 137 3.05E-11 La 138 5.51E-14 La 140 1.70E+04 La 141 2.39E+05 La 142 2.38E+05 La 143 2.43E+05 La 144 2.24E+05 La 145 1.60E+05 La 146 7.52E+04 La 146m 3.03E+04 La 147 4.63E+04 La 148 2.02E+04 La 149 6.32E+03 La 150 1.35E+03 La 151 2.30E+02 La 152 2.60E+01 La 153 2.71E+00 La 154 1.16E-01 La 155 3.28E-03 Mo 101 2.21E+05 Mo 102 1.89E+05 Mo 103 1.40E+05 Mo 104 9.02E+04 Mo 105 5.30E+04 Mo 106 2.55E+04 Mo 107 1.15E+04 Mo 108 3.90E+03 Mo 109 1.53E+03 Mo 110 4.67E+02 Mo 111 8.80E+01 Mo 112 1.12E+01 Mo 113 1.25E+00 Mo 114 5.10E-02 Mo 115 4.11E-03 Mo 93m 6.96E-11 Mo 99 1.36E+05 Nb 100 2.52E+05 Nb 100m 1.19E+04 Nb 101 2.15E+05 Nb 102 1.32E+05 H-21

Nb 102m 3.40E+04 Nb 103 1.00E+05 Nb 104 2.50E+04 Nb 104m 1.73E+04 Nb 105 1.80E+04 Nb 106 3.35E+03 Nb 107 7.73E+02 Nb 108 9.01E+01 Nb 109 3.41E+01 Nb 110 1.69E+00 Nb 111 1.20E+00 Nb 112 1.22E-02 Nb 113 2.17E-03 Nb 91 2.05E-14 Nb 92m 1.95E-14 Nb 93m 1.23E-07 Nb 94 2.50E-09 Nb 94m 3.59E-03 Nb 95 2.47E+02 Nb 95m 2.24E+01 Nb 96 1.59E+01 Nb 97 2.38E+05 Nb 97m 2.25E+05 Nb 98 2.43E+05 Nb 98m 1.24E+03 Nb 99 1.57E+05 Nb 99m 9.96E+04 Nd 141 4.61E-13 Nd 141m 9.28E-14 Nd 144 2.03E-15 Nd 147 1.63E+04 Nd 149 4.75E+04 Nd 151 1.91E+04 Nd 152 1.23E+04 Nd 153 7.46E+03 Nd 154 3.28E+03 Nd 155 1.26E+03 Nd 156 4.29E+02 Nd 157 9.70E+01 Nd 158 1.77E+01 Nd 159 2.05E+00 Nd 160 1.71E-01 Nd 161 8.14E-03 Ni 65 1.60E-04 Ni 66 2.69E-02 Ni 67 1.53E-01 Ni 68 2.45E-01 Ni 69 3.69E-01 Ni 70 5.54E-01 Ni 71 6.95E-01 Ni 72 9.38E-01 Ni 73 8.87E-01 Ni 74 4.57E-01 Ni 75 1.62E-01 Ni 76 5.83E-02 Ni 77 8.14E-03 Ni 78 1.08E-03 Pb 211 3.27E-14 Pb 212 1.91E-13 Pb 214 9.12E-13 Pd 103 2.11E-13 Pd 107 1.11E-05 Pd 107m 2.02E-05 Pd 109 2.75E+03 Pd 109m 3.46E-03 Pd 111 1.40E+03 Pd 111m 5.60E-01 Pd 112 1.07E+03 Pd 113 1.11E+03 Pd 114 9.20E+02 Pd 115 9.66E+02 H-22

Pd 116 7.90E+02 Pd 117 7.43E+02 Pd 118 5.00E+02 Pd 119 2.21E+02 Pd 120 1.84E+02 Pd 121 3.58E+01 Pd 122 1.00E+01 Pd 123 2.14E+00 Pd 124 3.54E-01 Pm 145 2.19E-12 Pm 146 2.85E-08 Pm 147 1.83E+01 Pm 148 6.39E-03 Pm 148m 8.20E-04 Pm 149 2.79E+04 Pm 150 1.48E+00 Pm 151 1.58E+04 Pm 152 1.23E+04 Pm 152m 5.32E+01 Pm 153 7.79E+03 Pm 154 3.50E+03 Pm 154m 2.14E+02 Pm 155 1.82E+03 Pm 156 8.13E+02 Pm 157 3.26E+02 Pm 158 1.02E+02 Pm 159 2.75E+01 Pm 160 4.97E+00 Pm 161 6.78E-01 Pm 162 5.75E-02 Pm 163 6.17E-03 Po 212 1.24E-13 Po 213 1.05E-15 Po 214 1.47E-12 Po 215 3.27E-14 Po 216 3.29E-13 Po 218 9.12E-13 Pr 139 3.80E-13 Pr 140 3.15E-06 Pr 142 3.48E-03 Pr 142m 2.67E-03 Pr 143 1.70E+04 Pr 144 1.64E+03 Pr 144m 1.62E+01 Pr 145 1.63E+05 Pr 146 1.27E+05 Pr 147 9.50E+04 Pr 148 7.07E+04 Pr 148m 1.44E+03 Pr 149 4.72E+04 Pr 150 2.91E+04 Pr 151 1.63E+04 Pr 152 6.91E+03 Pr 153 2.84E+03 Pr 154 6.14E+02 Pr 155 1.58E+02 Pr 156 2.43E+01 Pr 157 3.08E+00 Pr 158 2.00E-01 Pr 159 9.46E-03 Ra 222 5.56E-13 Ra 223 3.27E-14 Ra 224 3.29E-13 Ra 225 1.57E-14 Ra 226 5.73E-12 Ra 227 7.46E-11 Rb 100 1.30E+03 Rb 101 2.45E-01 Rb 102 2.27E-02 Rb 81 7.99E-11 Rb 83 2.83E-07 H-23

Rb 84 2.30E-05 Rb 86 6.83E-02 Rb 86m 3.17E-01 Rb 87 1.19E-08 Rb 88 1.43E+05 Rb 89 1.88E+05 Rb 90 1.95E+05 Rb 90m 3.34E+04 Rb 91 2.24E+05 Rb 92 1.95E+05 Rb 93 1.52E+05 Rb 94 7.81E+04 Rb 95 3.74E+04 Rb 96 1.30E+04 Rb 97 1.95E+03 Rb 98 5.06E+02 Rb 99 7.35E+01 Rh 101 1.76E-09 Rh 101m 1.09E-10 Rh 102 1.57E-07 Rh 102m 2.29E-08 Rh 103m 7.25E+03 Rh 104 2.26E-02 Rh 104m 2.25E-03 Rh 105 3.95E+04 Rh 105m 1.54E+04 Rh 106 1.49E+02 Rh 106m 8.69E-02 Rh 107 1.28E+04 Rh 108 5.29E+03 Rh 108m 1.43E-01 Rh 109 2.83E+03 Rh 110 6.49E+00 Rh 110m 2.08E+03 Rh 111 1.40E+03 Rh 112 1.17E+03 Rh 113 1.05E+03 Rh 114 6.97E+02 Rh 115 5.32E+02 Rh 116 2.57E+02 Rh 117 1.25E+02 Rh 118 5.41E+01 Rh 119 1.37E+01 Rh 120 3.06E+00 Rh 121 4.90E-01 Rh 122 6.13E-02 Rn 218 5.56E-13 Rn 219 3.27E-14 Rn 220 3.29E-13 Rn 222 9.12E-13 Ru 103 7.33E+03 Ru 105 5.44E+04 Ru 106 1.48E+02 Ru 107 1.28E+04 Ru 108 5.29E+03 Ru 109 2.83E+03 Ru 110 2.07E+03 Ru 111 1.33E+03 Ru 112 9.90E+02 Ru 113 6.01E+02 Ru 114 2.56E+02 Ru 115 9.34E+01 Ru 116 2.60E+01 Ru 117 4.62E+00 Ru 118 9.81E-01 Ru 119 9.67E-02 Ru 120 9.30E-03 Sb 118 1.20E-10 Sb 118m 2.04E-10 Sb 119 1.61E-07 Sb 120 5.78E-06 H-24

Sb 120m 2.59E-06 Sb 122 1.26E-02 Sb 122m 1.27E-02 Sb 124 7.73E-02 Sb 124m 1.64E+00 Sb 125 2.95E+00 Sb 126 4.74E+00 Sb 126m 5.56E+01 Sb 127 3.22E+03 Sb 128 9.35E+02 Sb 128m 1.55E+04 Sb 129 2.67E+04 Sb 129m 4.76E+02 Sb 130 3.16E+04 Sb 130m 4.32E+04 Sb 131 1.13E+05 Sb 132 8.00E+04 Sb 132m 4.99E+04 Sb 133 9.24E+04 Sb 134 1.90E+04 Sb 134m 1.87E+04 Sb 135 1.03E+04 Sb 136 1.42E+03 Sb 137 2.43E+03 Sb 138 1.91E+01 Sb 139 1.34E+00 Se 75 2.57E-10 Se 77m 9.84E-01 Se 79 4.15E-05 Se 79m 2.11E+03 Se 81 8.30E+03 Se 81m 5.33E+02 Se 83 1.96E+04 Se 83m 1.57E+03 Se 84 4.05E+04 Se 85 4.38E+04 Se 86 5.58E+04 Se 87 3.26E+04 Se 88 1.62E+04 Se 89 3.70E+03 Se 90 9.77E+02 Se 91 1.04E+02 Se 92 9.80E+00 Se 93 6.92E-01 Se 94 2.73E-02 Sm 147 3.31E-13 Sm 151 6.39E-01 Sm 153 5.12E+03 Sm 155 1.87E+03 Sm 156 9.26E+02 Sm 157 4.46E+02 Sm 158 2.25E+02 Sm 159 8.43E+01 Sm 160 2.87E+01 Sm 161 6.74E+00 Sm 162 1.31E+00 Sm 163 3.14E-01 Sm 164 6.40E-02 Sm 165 8.16E-03 Sn 113m 7.83E-15 Sn 117m 2.80E-01 Sn 119m 2.26E-01 Sn 121 8.17E+02 Sn 121m 8.99E-03 Sn 123 1.17E+00 Sn 123m 1.16E+03 Sn 125 1.34E+02 Sn 125m 1.36E+03 Sn 126 7.43E-05 Sn 127 4.58E+03 Sn 127m 3.03E+03 H-25

Sn 128 1.52E+04 Sn 128m 7.25E+03 Sn 129 1.60E+04 Sn 129m 8.39E+03 Sn 130 2.73E+04 Sn 130m 2.73E+04 Sn 131 2.42E+04 Sn 131m 2.32E+04 Sn 132 2.76E+04 Sn 133 6.87E+03 Sn 134 1.39E+03 Sn 135 1.06E+02 Sn 136 6.39E+00 Sn 137 8.38E-01 Sr 100 2.65E+03 Sr 101 3.54E+02 Sr 102 3.21E+01 Sr 103 7.47E-01 Sr 104 8.88E-02 Sr 105 1.65E-02 Sr 83 4.04E-14 Sr 85 1.13E-07 Sr 85m 1.93E-06 Sr 87m 8.93E-03 Sr 89 7.56E+03 Sr 90 4.54E+01 Sr 91 2.35E+05 Sr 92 2.42E+05 Sr 93 2.55E+05 Sr 94 2.46E+05 Sr 95 2.20E+05 Sr 96 1.70E+05 Sr 97 8.27E+04 Sr 98 4.19E+04 Sr 99 9.87E+03 Tb 155 1.21E-13 Tb 156 1.11E-09 Tb 156m 1.06E-10 Tb 157 2.37E-11 Tb 158 2.15E-10 Tb 158m 6.56E-07 Tb 160 2.13E-04 Tb 161 3.16E+00 Tb 162 3.98E+00 Tb 163 2.07E+00 Tb 164 1.18E+00 Tb 165 6.70E-01 Tb 166 4.21E-01 Tb 167 2.67E-01 Tb 168 1.46E-01 Tb 169 6.86E-02 Tb 170 2.28E-02 Tb 171 6.17E-03 Tc 100 5.75E-01 Tc 101 2.21E+05 Tc 102 1.89E+05 Tc 102m 3.02E+02 Tc 103 1.42E+05 Tc 104 9.34E+04 Tc 105 5.48E+04 Tc 106 2.66E+04 Tc 107 1.27E+04 Tc 108 5.26E+03 Tc 109 2.69E+03 Tc 110 1.50E+03 Tc 111 5.83E+02 Tc 112 1.98E+02 Tc 113 5.62E+01 Tc 114 9.75E+00 Tc 115 1.96E+00 Tc 116 1.98E-01 H-26

Tc 117 8.26E-03 Tc 118 1.98E-03 Tc 97m 9.11E-09 Tc 98 3.77E-11 Tc 99 1.70E-03 Tc 99m 1.09E+05 Te 121 1.18E-09 Te 121m 1.44E-10 Te 123m 3.05E-06 Te 125m 1.20E-02 Te 127 2.26E+03 Te 127m 5.35E+00 Te 129 2.33E+04 Te 129m 2.47E+02 Te 131 1.12E+05 Te 131m 1.30E+04 Te 132 8.89E+04 Te 133 1.51E+05 Te 133m 1.46E+05 Te 134 2.90E+05 Te 135 1.45E+05 Te 136 6.45E+04 Te 137 2.04E+04 Te 138 5.15E+03 Te 139 7.61E+02 Te 140 6.12E+02 Te 141 2.31E+01 Te 142 4.48E-01 Tl 207 3.26E-14 Tl 208 6.94E-14 Tm 166 1.14E-15 Tm 167 2.36E-14 Tm 168 1.02E-11 Tm 170 1.82E-09 Tm 171 8.19E-05 Tm 172 1.09E-02 Xe 127 3.55E-10 Xe 127m 3.20E-09 Xe 129m 8.43E-07 Xe 131m 2.42E+01 Xe 133 5.80E+04 Xe 133m 3.39E+03 Xe 134m 1.21E+03 Xe 135 2.72E+05 Xe 135m 5.01E+04 Xe 137 2.56E+05 Xe 138 2.60E+05 Xe 139 2.07E+05 Xe 140 1.52E+05 Xe 141 5.81E+04 Xe 142 2.37E+04 Xe 143 3.05E+03 Xe 144 6.87E+02 Xe 145 6.06E+01 Xe 146 4.36E+00 Xe 147 1.44E-01 Y 100 3.98E+04 Y 101 1.69E+04 Y 102 1.14E+04 Y 103 6.62E+02 Y 104 8.65E+01 Y 105 1.45E+01 Y 106 2.26E-02 Y 107 5.11E-03 Y 108 2.04E-05 Y 87 2.25E-07 Y 87m 1.51E-14 Y 88 1.32E-06 Y 89m 7.36E-01 Y 90 1.41E+01 Y 90m 1.58E-01 H-27

Y 91 6.77E+03 Y 91m 1.42E+05 Y 92 2.44E+05 Y 93 2.57E+05 Y 93m 8.92E+04 Y 94 2.62E+05 Y 95 2.63E+05 Y 96 1.80E+05 Y 96m 7.35E+04 Y 97 1.35E+05 Y 97m 7.63E+04 Y 98 9.34E+04 Y 98m 5.13E+04 Y 99 1.01E+05 Zn 69 3.99E-01 Zn 69m 3.89E-04 Zn 71 1.21E+00 Zn 71m 4.61E-02 Zn 72 1.96E+00 Zn 73 8.91E+00 Zn 74 2.09E+01 Zn 75 5.21E+01 Zn 76 1.48E+02 Zn 77 1.86E+02 Zn 78 1.83E+02 Zn 79 8.35E+01 Zn 80 1.70E+01 Zn 81 1.98E+00 Zn 82 7.71E-01 Zn 83 4.30E-02 Zr 100 2.40E+05 Zr 101 1.43E+05 Zr 102 9.80E+04 Zr 103 3.20E+04 Zr 104 7.62E+03 Zr 105 4.48E+03 Zr 106 1.14E+01 Zr 107 1.97E+00 Zr 108 1.05E-01 Zr 109 2.97E-02 Zr 110 1.06E-03 Zr 88 3.15E-12 Zr 89 4.33E-08 Zr 89m 3.28E-12 Zr 90m 1.22E-05 Zr 93 7.69E-04 Zr 95 8.50E+03 Zr 97 2.37E+05 Zr 98 2.40E+05 Zr 99 2.41E+05

/CORE-DESC HPR_MOC data file: INL-A_core_t6-depl_ce_v7.1.ii.json response name: AT_POWER user-selected time index: 6 user-selected time(s): 65790648 cutoff for grams: 1e-12 cutoff for curies: 1e-15 mass vs. time for response:

index time(s) mass(g) target 0000 0.00000e+00 5.18587e+06 0001 2.59200e+05 5.18587e+06 0002 1.33655e+07 5.18587e+06 0003 2.64718e+07 5.18586e+06 0004 3.95781e+07 5.18586e+06 0005 5.26844e+07 5.18586e+06 0006 6.57906e+07 5.18586e+06 <------

0007 7.88969e+07 5.18585e+06 0008 9.20464e+07 5.18585e+06 0009 1.05196e+08 5.18585e+06 0010 1.18345e+08 5.18585e+06 H-28

0011 1.31495e+08 5.18585e+06 0012 1.44644e+08 5.18584e+06 0013 1.57794e+08 5.18584e+06

/END

/CORE HPR_MOC MASS ACTIVATION

Isotope Mass(g)

B 11 1.92E-11 Be 10 2.13E-07 Be 9 2.33E-09 C 12 1.92E-02 C 13 1.07E+00 C 14 1.50E-02 F 19 1.33E-04 H 1 2.20E-04 H 2 2.39E-05 H 3 5.20E-03 He 3 3.10E-04 He 4 4.69E-01 N 14 1.91E-06 N 15 1.86E-04 N 16 5.48E-10 Ne 20 3.26E-10 O 16 6.14E+05 O 17 2.49E+02 O 18 1.42E+03 O 19 7.85E-11

/CORE HPR_MOC ACTIVITY ACTIVATION

Isotope Activity(Ci)

B 12 4.60E-08 Be 10 5.03E-09 Be 11 1.69E-08 Be 8 2.62E-09 C 14 6.74E-02 C 15 1.15E-01 Cr 66 1.06E-05 Cr 67 3.20E-06 F 20 8.09E-06 H 3 5.00E+01 He 6 9.50E-10 Li 8 5.78E-15 Mn 66 1.47E-03 Mn 67 1.32E-03 Mn 68 2.74E-04 Mn 69 3.64E-05 N 13 3.88E-12 N 16 5.42E+01 O 19 1.73E+00

/CORE HPR_MOC MASS ACTINIDE

Isotope Mass(g)

Am 241 5.53E-05 Am 242 7.33E-10 Am 242m 1.58E-08 Am 243 2.35E-09 Cm 242 6.13E-08 Cm 243 2.91E-11 Cm 244 9.02E-12 Np 235 3.01E-10 Np 236 9.60E-07 Np 236m 1.29E-08 Np 237 1.40E+01 Np 238 1.96E-04 Np 239 8.91E+00 Np 240 1.11E-06 Np 240m 2.14E-07 H-29

Pa 230 8.12E-11 Pa 231 1.83E-03 Pa 232 1.55E-08 Pa 233 4.58E-07 Pa 234 1.61E-09 Pa 234m 1.77E-09 Pa 235 7.52E-09 Pu 236 1.50E-06 Pu 237 2.52E-09 Pu 238 2.45E-02 Pu 239 1.99E+03 Pu 240 1.15E+00 Pu 241 2.17E-03 Pu 242 1.34E-06 Pu 243 4.57E-12 Th 227 8.35E-11 Th 228 1.87E-08 Th 229 9.29E-08 Th 230 3.96E-02 Th 231 3.72E-06 Th 232 2.41E-04 Th 233 6.68E-12 Th 234 5.31E-05 U 230 7.25E-12 U 232 3.32E-06 U 233 3.55E-03 U 234 6.84E+03 U 235 8.98E+05 U 235m 1.36E-04 U 236 9.78E+02 U 237 1.88E-01 U 238 3.66E+06 U 239 6.18E-02

/CORE HPR_MOC ACTIVITY ACTINIDE

Isotope Activity(Ci)

Am 239 8.95E-13 Am 240 1.16E-08 Am 241 1.90E-04 Am 242 5.92E-04 Am 242m 1.66E-07 Am 243 4.70E-10 Am 244 2.76E-09 Am 244m 4.11E-08 Am 245 3.92E-15 Cm 241 8.13E-12 Cm 242 2.03E-04 Cm 243 1.47E-09 Cm 244 7.30E-10 Cm 245 1.70E-15 Np 234 1.93E-13 Np 235 4.22E-07 Np 236 9.51E-09 Np 236m 7.59E-03 Np 237 9.82E-03 Np 238 5.09E+01 Np 239 2.07E+06 Np 240 1.40E+01 Np 240m 2.33E+01 Np 241 3.41E-10 Pa 229 1.29E-09 Pa 230 2.65E-06 Pa 231 8.63E-05 Pa 232 6.62E-03 Pa 233 9.52E-03 Pa 234 3.22E-03 Pa 234m 1.23E+00 Pa 235 2.46E-01 Pu 236 7.96E-04 Pu 237 3.04E-05 H-30

Pu 237m 7.23E-06 Pu 238 4.19E-01 Pu 239 1.23E+02 Pu 240 2.62E-01 Pu 241 2.25E-01 Pu 242 5.29E-09 Pu 243 1.19E-05 Pu 245 3.92E-15 Th 226 1.98E-07 Th 227 2.57E-06 Th 228 1.54E-05 Th 229 1.98E-08 Th 230 8.17E-04 Th 231 1.98E+00 Th 232 2.65E-11 Th 233 2.42E-04 Th 234 1.23E+00 U 230 1.98E-07 U 231 7.02E-09 U 232 7.42E-05 U 233 3.42E-05 U 234 4.26E+01 U 235 1.94E+00 U 235m 4.18E+03 U 236 6.32E-02 U 237 1.53E+04 U 238 1.23E+00 U 239 2.07E+06

/CORE HPR_MOC MASS FISSION

Isotope Mass(g)

Ac 227 3.87E-08 Ag 107 6.17E-07 Ag 108m 4.82E-08 Ag 109 1.27E+00 Ag 109m 1.13E-06 Ag 110 1.16E-09 Ag 110m 2.98E-05 Ag 111 8.95E-03 Ag 111m 9.02E-07 Ag 112 1.34E-04 Ag 113 1.42E-04 Ag 113m 7.37E-07 Ag 114 4.44E-08 Ag 115 1.21E-05 Ag 115m 7.68E-09 Ag 116 2.34E-06 Ag 116m 7.93E-09 Ag 117 6.40E-07 Ag 117m 5.51E-09 Ag 118 2.94E-08 Ag 118m 5.74E-09 Ag 119 1.64E-08 Ag 120 5.20E-09 Ag 120m 5.33E-10 Ag 121 3.04E-09 Ag 122 5.36E-10 Ag 122m 1.81E-10 Ag 123 2.79E-10 Ag 124 8.61E-11 Ag 125 1.46E-11 Ag 126 1.86E-12 As 73 3.10E-12 As 74 6.57E-11 As 75 1.90E-02 As 76 3.80E-08 As 77 4.22E-04 As 78 4.10E-05 As 79 8.18E-06 As 80 5.80E-07 H-31

As 81 1.92E-06 As 82 1.44E-06 As 82m 1.50E-07 As 83 1.39E-06 As 84 3.20E-07 As 85 1.45E-07 As 86 1.43E-07 As 87 7.46E-09 As 88 3.62E-09 As 89 9.56E-12 Ba 132 2.84E-07 Ba 133 5.87E-10 Ba 134 1.42E-02 Ba 135 5.08E-05 Ba 135m 3.80E-09 Ba 136 1.73E-01 Ba 136m 1.29E-10 Ba 137 3.40E+00 Ba 137m 2.14E-05 Ba 138 1.56E+02 Ba 139 1.63E-02 Ba 140 3.52E+00 Ba 141 3.33E-03 Ba 142 1.88E-03 Ba 143 4.13E-05 Ba 144 2.60E-05 Ba 145 4.93E-06 Ba 146 1.29E-06 Ba 147 1.48E-07 Ba 148 1.58E-08 Ba 149 1.09E-09 Ba 150 9.78E-11 Ba 151 1.35E-11 Bi 209 5.54E-12 Bi 212 1.03E-12 Br 79 3.79E-04 Br 80 6.26E-11 Br 80m 6.24E-10 Br 81 2.71E+00 Br 82 7.97E-06 Br 82m 1.64E-08 Br 83 1.41E-03 Br 84 5.82E-04 Br 84m 1.80E-06 Br 85 6.89E-05 Br 86 3.08E-05 Br 87 3.60E-05 Br 88 9.49E-06 Br 89 1.78E-06 Br 90 4.29E-07 Br 91 4.88E-08 Br 92 5.36E-09 Br 93 5.99E-10 Br 94 2.24E-11 Cd 108 8.12E-08 Cd 109 5.91E-11 Cd 110 1.09E-03 Cd 111 6.24E-01 Cd 111m 2.31E-12 Cd 112 5.51E-01 Cd 113 5.03E-01 Cd 113m 5.52E-03 Cd 114 4.39E-01 Cd 115 1.89E-03 Cd 115m 2.24E-03 Cd 116 4.66E-01 Cd 117 7.40E-05 Cd 117m 2.20E-05 Cd 118 3.13E-05 Cd 119 1.12E-06 Cd 119m 4.56E-07 H-32

Cd 120 5.31E-07 Cd 121 8.97E-08 Cd 121m 2.51E-08 Cd 122 5.48E-08 Cd 123 1.77E-08 Cd 124 9.92E-09 Cd 125 2.46E-09 Cd 126 1.83E-09 Cd 127 1.15E-09 Cd 128 3.79E-10 Cd 129 7.41E-12 Cd 130 5.10E-09 Cd 131 3.97E-10 Ce 138 9.00E-09 Ce 139 7.12E-06 Ce 139m 1.28E-11 Ce 140 1.42E+02 Ce 141 8.53E+00 Ce 142 1.37E+02 Ce 143 3.66E-01 Ce 144 5.96E+01 Ce 145 3.79E-04 Ce 146 1.33E-03 Ce 147 6.16E-05 Ce 148 5.08E-05 Ce 149 2.56E-06 Ce 150 1.08E-06 Ce 151 1.45E-07 Ce 152 3.12E-08 Ce 153 4.08E-09 Ce 154 3.93E-10 Ce 155 2.33E-11 Ce 156 1.16E-12 Cs 131 1.07E-11 Cs 132 3.66E-07 Cs 133 1.50E+02 Cs 134 5.81E-02 Cs 134m 3.16E-06 Cs 135 1.50E+02 Cs 135m 3.61E-07 Cs 136 4.27E-03 Cs 136m 3.06E-08 Cs 137 1.40E+02 Cs 138 6.80E-03 Cs 138m 1.70E-05 Cs 139 1.80E-03 Cs 140 1.90E-04 Cs 141 5.59E-05 Cs 142 2.53E-06 Cs 143 1.48E-06 Cs 144 2.96E-07 Cs 145 4.23E-08 Cs 146 3.42E-09 Cs 147 4.37E-10 Cs 148 2.04E-11 Cu 65 4.20E-08 Cu 66 8.08E-11 Cu 67 2.02E-07 Cu 68 4.67E-11 Cu 68m 4.92E-12 Cu 69 4.18E-10 Cu 70 1.74E-10 Cu 70m 2.18E-11 Cu 71 1.48E-10 Cu 72 1.04E-10 Cu 73 1.47E-10 Cu 74 6.79E-11 Cu 75 6.16E-11 Cu 76 3.04E-11 Cu 77 1.13E-11 Cu 78 2.24E-12 H-33

Dy 158 1.55E-11 Dy 159 1.37E-11 Dy 160 7.53E-05 Dy 161 7.96E-03 Dy 162 2.71E-03 Dy 163 1.41E-03 Dy 164 8.05E-04 Dy 165 8.63E-08 Dy 165m 1.01E-12 Dy 166 1.93E-06 Dy 167 1.60E-09 Dy 168 1.36E-09 Dy 169 6.14E-11 Dy 170 2.47E-11 Dy 171 2.42E-12 Dy 172 1.48E-12 Er 164 5.29E-10 Er 166 2.92E-04 Er 167 1.94E-04 Er 167m 1.18E-12 Er 168 1.19E-04 Er 169 1.31E-06 Er 170 4.01E-05 Er 171 1.34E-08 Er 172 1.32E-07 Eu 151 9.26E-02 Eu 152 1.64E-04 Eu 152m 1.94E-07 Eu 153 4.80E+00 Eu 154 1.20E-02 Eu 154m 2.59E-08 Eu 155 1.01E+00 Eu 156 1.71E-02 Eu 157 3.47E-04 Eu 158 9.05E-06 Eu 159 1.45E-06 Eu 160 1.96E-08 Eu 161 4.40E-09 Eu 162 5.24E-10 Eu 163 1.64E-10 Eu 164 2.37E-11 Eu 165 6.11E-12 Ga 69 1.11E-04 Ga 71 3.62E-04 Ga 72 1.01E-06 Ga 73 1.02E-06 Ga 74 6.96E-08 Ga 74m 2.97E-11 Ga 75 5.23E-08 Ga 76 4.70E-08 Ga 77 3.89E-08 Ga 78 2.49E-08 Ga 79 1.82E-08 Ga 80 7.02E-09 Ga 81 3.41E-09 Ga 82 1.13E-09 Ga 83 5.82E-11 Ga 84 2.27E-10 Gd 151 3.37E-12 Gd 152 6.55E-05 Gd 153 3.07E-08 Gd 154 6.79E-04 Gd 155 1.61E-01 Gd 156 5.76E-01 Gd 157 2.86E-01 Gd 158 1.49E-01 Gd 159 8.90E-05 Gd 160 2.36E-02 Gd 161 3.97E-08 Gd 162 3.07E-08 Gd 163 2.12E-09 H-34

Gd 164 7.66E-10 Gd 165 8.90E-11 Gd 166 2.18E-11 Gd 167 6.20E-12 Ge 70 1.91E-08 Ge 71 1.97E-12 Ge 72 9.41E-04 Ge 73 2.66E-03 Ge 73m 2.87E-11 Ge 74 6.55E-03 Ge 75 2.07E-06 Ge 75m 8.12E-10 Ge 76 6.80E-02 Ge 77 1.32E-04 Ge 77m 2.11E-09 Ge 78 3.95E-05 Ge 79 1.95E-07 Ge 79m 1.68E-07 Ge 80 1.01E-06 Ge 81 2.96E-07 Ge 81m 8.84E-09 Ge 82 1.89E-07 Ge 83 2.67E-08 Ge 84 1.02E-08 Ge 85 8.72E-10 Ge 86 1.37E-08 Ge 87 7.56E-11 Ho 163 1.14E-10 Ho 165 4.58E-04 Ho 166 6.37E-07 Ho 166m 7.84E-08 Ho 167 4.82E-08 Ho 168 4.71E-10 Ho 169 4.56E-10 Ho 170 1.41E-10 Ho 170m 1.23E-12 Ho 171 2.61E-11 Ho 172 1.82E-11 I 125 7.04E-12 I 126 2.42E-08 I 127 4.00E+00 I 128 1.61E-07 I 129 1.40E+01 I 130 1.24E-05 I 130m 8.04E-08 I 131 1.01E+00 I 132 1.82E-02 I 132m 2.31E-05 I 133 2.47E-01 I 133m 2.02E-06 I 134 1.22E-02 I 134m 3.73E-05 I 135 7.54E-02 I 136 1.24E-04 I 136m 3.09E-05 I 137 3.97E-05 I 138 5.37E-06 I 139 1.02E-06 I 140 9.80E-08 I 141 1.30E-08 I 142 1.03E-09 I 143 1.15E-10 I 144 1.20E-12 In 113 2.87E-04 In 114m 2.59E-08 In 115 4.59E-01 In 115m 1.60E-04 In 116 1.49E-10 In 116m 5.69E-08 In 117 1.57E-05 In 117m 5.29E-05 H-35

In 118 5.19E-08 In 118m 2.18E-10 In 119 6.58E-07 In 119m 6.80E-06 In 120 3.25E-08 In 120m 9.31E-09 In 121 1.48E-07 In 121m 1.09E-06 In 122 1.67E-08 In 122m 1.32E-08 In 123 3.86E-08 In 123m 3.00E-07 In 124 3.33E-08 In 124m 1.01E-08 In 125 1.60E-08 In 125m 7.55E-08 In 126 1.12E-08 In 126m 6.14E-09 In 127 2.39E-08 In 127m 2.68E-08 In 128 8.56E-09 In 128m 6.32E-09 In 129 9.15E-09 In 129m 1.70E-08 In 130 1.14E-08 In 130m 5.01E-09 In 131 1.96E-09 In 131m 1.45E-09 In 132 1.12E-09 In 133 7.15E-11 In 134 3.52E-12 Kr 80 2.16E-06 Kr 81 1.93E-08 Kr 82 1.94E-03 Kr 83 7.47E+00 Kr 83m 1.08E-03 Kr 84 1.42E+01 Kr 85 3.69E+00 Kr 85m 6.40E-03 Kr 86 2.76E+01 Kr 87 3.65E-03 Kr 88 1.13E-02 Kr 89 2.66E-04 Kr 90 4.86E-05 Kr 91 9.53E-06 Kr 92 1.09E-06 Kr 93 2.50E-07 Kr 94 1.09E-08 Kr 95 8.59E-10 Kr 96 9.25E-10 Kr 97 2.93E-12 Kr 98 2.14E-11 La 137 2.50E-07 La 138 5.71E-04 La 139 1.49E+02 La 140 4.63E-01 La 141 4.30E-02 La 142 1.64E-02 La 143 2.62E-03 La 144 1.17E-04 La 145 5.10E-05 La 146 6.09E-06 La 146m 3.92E-06 La 147 2.45E-06 La 148 3.33E-07 La 149 8.76E-08 La 150 1.54E-08 La 151 2.40E-09 La 152 1.58E-10 La 153 1.26E-11 Mo 100 1.07E+02 H-36

Mo 101 1.74E-03 Mo 102 1.16E-03 Mo 103 8.62E-05 Mo 104 5.00E-05 Mo 105 1.76E-05 Mo 106 2.10E-06 Mo 107 3.82E-07 Mo 108 4.08E-08 Mo 109 7.81E-09 Mo 110 1.37E-09 Mo 111 1.73E-10 Mo 112 3.18E-11 Mo 113 1.25E-12 Mo 93 1.27E-12 Mo 94 2.05E-05 Mo 95 8.31E+01 Mo 96 3.40E-02 Mo 97 9.88E+01 Mo 98 9.68E+01 Mo 99 5.32E-01 Nb 100 3.34E-06 Nb 100m 3.15E-07 Nb 101 1.37E-05 Nb 102 5.13E-06 Nb 102m 4.00E-07 Nb 103 1.38E-06 Nb 104 1.13E-06 Nb 104m 1.50E-07 Nb 105 4.96E-07 Nb 106 2.93E-08 Nb 107 2.20E-09 Nb 108 1.67E-10 Nb 109 6.25E-11 Nb 110 2.79E-12 Nb 91 2.04E-12 Nb 92 4.74E-10 Nb 93 2.52E-06 Nb 93m 4.35E-05 Nb 94 6.26E-06 Nb 94m 3.32E-11 Nb 95 6.77E+00 Nb 95m 7.56E-03 Nb 96 2.16E-05 Nb 97 9.29E-03 Nb 97m 1.20E-04 Nb 98 6.04E-06 Nb 98m 3.30E-05 Nb 99 2.06E-05 Nb 99m 1.31E-04 Nd 142 1.47E-02 Nd 143 1.37E+02 Nd 144 7.14E+01 Nd 145 9.57E+01 Nd 146 7.50E+01 Nd 147 1.17E+00 Nd 148 4.31E+01 Nd 149 3.90E-03 Nd 150 1.83E+01 Nd 151 1.92E-04 Nd 152 1.13E-04 Nd 153 3.20E-06 Nd 154 1.16E-06 Nd 155 1.54E-07 Nd 156 3.26E-08 Nd 157 2.58E-09 Nd 158 3.30E-10 Nd 159 2.23E-11 Nd 160 1.43E-12 Ni 65 8.35E-12 Ni 66 5.16E-08 Ni 67 1.90E-11 H-37

Ni 68 4.28E-11 Ni 69 2.58E-11 Ni 70 2.07E-11 Ni 71 1.12E-11 Ni 72 9.40E-12 Ni 73 4.82E-12 Ni 74 2.04E-12 Pb 206 1.43E-12 Pb 207 6.61E-10 Pb 208 3.35E-09 Pb 210 1.77E-10 Pb 212 1.08E-11 Pd 102 3.45E-07 Pd 103 2.25E-10 Pd 104 3.93E-02 Pd 105 2.33E+01 Pd 106 5.35E+00 Pd 107 5.57E+00 Pd 107m 4.70E-11 Pd 108 2.35E+00 Pd 109 1.41E-03 Pd 109m 1.95E-10 Pd 110 9.40E-01 Pd 111 1.97E-05 Pd 111m 1.21E-07 Pd 112 8.96E-04 Pd 113 1.04E-06 Pd 114 1.36E-06 Pd 115 2.47E-07 Pd 116 9.62E-08 Pd 117 3.32E-08 Pd 118 9.95E-09 Pd 119 2.14E-09 Pd 120 9.75E-10 Pd 121 1.10E-10 Pd 122 1.90E-11 Pd 123 5.69E-12 Pm 145 1.26E-10 Pm 146 2.36E-05 Pm 147 4.26E+01 Pm 148 7.04E-04 Pm 148m 4.32E-03 Pm 149 1.18E-01 Pm 150 2.36E-07 Pm 151 2.62E-02 Pm 152 4.11E-05 Pm 152m 3.36E-07 Pm 153 3.34E-05 Pm 154 4.97E-06 Pm 154m 4.78E-07 Pm 155 1.04E-06 Pm 156 3.03E-07 Pm 157 4.82E-08 Pm 158 6.88E-09 Pm 159 5.72E-10 Pm 160 1.10E-10 Pm 161 1.03E-11 Po 210 1.62E-12 Pr 140 7.22E-11 Pr 141 1.30E+02 Pr 142 4.67E-05 Pr 142m 2.08E-07 Pr 143 3.61E+00 Pr 144 2.51E-03 Pr 144m 1.00E-05 Pr 145 4.52E-02 Pr 146 2.38E-03 Pr 147 9.95E-04 Pr 148 1.27E-04 Pr 148m 2.31E-06 Pr 149 8.45E-05 H-38

Pr 150 2.39E-06 Pr 151 4.11E-06 Pr 152 3.38E-07 Pr 153 1.65E-07 Pr 154 1.93E-08 Pr 155 1.85E-09 Pr 156 2.46E-10 Pr 157 2.56E-11 Ra 223 4.87E-11 Ra 224 9.46E-11 Ra 226 3.73E-07 Rb 100 5.88E-10 Rb 83 8.18E-10 Rb 84 3.17E-08 Rb 85 1.45E+01 Rb 86 2.01E-04 Rb 86m 1.08E-09 Rb 87 3.64E+01 Rb 88 1.19E-03 Rb 89 1.35E-03 Rb 90 2.45E-04 Rb 90m 6.86E-05 Rb 91 1.05E-04 Rb 92 7.14E-06 Rb 93 7.32E-06 Rb 94 1.75E-06 Rb 95 1.19E-07 Rb 96 2.24E-08 Rb 97 2.83E-09 Rb 98 5.01E-10 Rb 99 3.48E-11 Rh 101 3.37E-10 Rh 102 1.70E-06 Rh 102m 1.32E-06 Rh 103 5.48E+01 Rh 103m 4.33E-03 Rh 104 7.86E-08 Rh 104m 3.79E-08 Rh 105 6.32E-02 Rh 105m 5.83E-06 Rh 106 5.74E-06 Rh 106m 1.17E-08 Rh 107 1.61E-04 Rh 108 8.80E-07 Rh 108m 7.30E-09 Rh 109 2.28E-06 Rh 110 2.45E-10 Rh 110m 5.93E-07 Rh 111 1.54E-07 Rh 112 2.47E-08 Rh 113 2.97E-08 Rh 114 1.31E-08 Rh 115 5.38E-09 Rh 116 1.80E-09 Rh 117 5.69E-10 Rh 118 1.51E-10 Rh 119 2.47E-11 Rh 120 4.43E-12 Rn 222 2.36E-12 Ru 100 7.95E-02 Ru 101 9.02E+01 Ru 102 7.82E+01 Ru 103 4.41E+00 Ru 104 3.93E+01 Ru 105 8.22E-03 Ru 106 6.13E+00 Ru 107 2.78E-05 Ru 108 1.43E-05 Ru 109 9.80E-07 Ru 110 2.40E-07 Ru 111 2.82E-08 H-39

Ru 112 1.73E-08 Ru 113 4.84E-09 Ru 114 1.35E-09 Ru 115 7.06E-10 Ru 116 5.47E-11 Ru 117 6.81E-12 Ru 118 1.26E-12 Ru 98 9.97E-10 Ru 99 3.77E-03 Sb 120 2.04E-12 Sb 120m 5.35E-10 Sb 121 4.74E-01 Sb 122 2.43E-06 Sb 122m 2.03E-10 Sb 123 6.02E-01 Sb 124 1.61E-04 Sb 124m 1.69E-09 Sb 125 8.05E-01 Sb 126 3.69E-04 Sb 126m 7.14E-07 Sb 127 2.94E-02 Sb 128 3.56E-04 Sb 128m 1.10E-04 Sb 129 4.86E-03 Sb 129m 5.78E-06 Sb 130 8.64E-04 Sb 130m 1.88E-04 Sb 131 1.81E-03 Sb 132 1.57E-04 Sb 132m 1.43E-04 Sb 133 1.63E-04 Sb 134 1.75E-07 Sb 134m 2.23E-06 Sb 135 2.07E-07 Sb 136 1.58E-08 Sb 137 1.32E-08 Sb 138 3.93E-11 Sb 139 2.10E-12 Se 74 4.80E-10 Se 75 1.48E-12 Se 76 1.08E-05 Se 77 1.48E-01 Se 77m 1.74E-10 Se 78 3.43E-01 Se 79 6.90E-01 Se 79m 3.47E-06 Se 80 1.75E+00 Se 81 6.59E-05 Se 81m 1.32E-05 Se 82 4.42E+00 Se 83 1.93E-04 Se 83m 8.07E-07 Se 84 5.88E-05 Se 85 1.04E-05 Se 86 6.06E-06 Se 87 1.38E-06 Se 88 1.93E-07 Se 89 1.20E-08 Se 90 1.25E-09 Se 91 2.27E-10 Se 92 7.43E-12 Sm 145 1.74E-12 Sm 146 6.81E-06 Sm 147 1.25E+01 Sm 148 7.27E-02 Sm 149 2.83E+01 Sm 150 9.93E-02 Sm 151 1.15E+01 Sm 152 7.64E+00 Sm 153 1.78E-02 Sm 154 2.33E+00 H-40

Sm 155 3.46E-05 Sm 156 4.40E-04 Sm 157 3.04E-06 Sm 158 1.02E-06 Sm 159 1.37E-08 Sm 160 3.96E-09 Sm 161 4.67E-10 Sm 162 4.55E-11 Sm 163 7.96E-12 Sm 164 1.14E-12 Sn 112 6.08E-12 Sn 114 1.69E-07 Sn 115 2.29E-02 Sn 116 6.43E-04 Sn 117 4.58E-01 Sn 117m 2.48E-05 Sn 118 4.73E-01 Sn 119 4.75E-01 Sn 119m 7.16E-03 Sn 120 4.90E-01 Sn 121 1.02E-03 Sn 121m 3.34E-02 Sn 122 5.74E-01 Sn 123 8.85E-03 Sn 123m 3.03E-05 Sn 124 8.73E-01 Sn 125 6.40E-03 Sn 125m 8.63E-06 Sn 126 1.53E+00 Sn 127 3.91E-04 Sn 127m 8.48E-06 Sn 128 6.13E-04 Sn 128m 5.35E-07 Sn 129 2.46E-05 Sn 129m 3.97E-05 Sn 130 7.02E-05 Sn 130m 3.20E-05 Sn 131 1.57E-05 Sn 131m 1.57E-05 Sn 132 1.28E-05 Sn 133 1.18E-07 Sn 134 1.73E-08 Sn 135 6.75E-10 Sn 136 1.93E-11 Sn 137 1.93E-12 Sr 100 4.75E-09 Sr 101 3.73E-10 Sr 102 2.00E-11 Sr 84 1.16E-08 Sr 85 1.87E-10 Sr 86 2.84E-03 Sr 87 1.79E-05 Sr 87m 8.42E-10 Sr 88 5.08E+01 Sr 89 6.48E+00 Sr 90 8.15E+01 Sr 91 6.60E-02 Sr 92 1.92E-02 Sr 93 9.35E-04 Sr 94 1.54E-04 Sr 95 4.41E-05 Sr 96 1.54E-06 Sr 97 3.04E-07 Sr 98 2.37E-07 Sr 99 2.33E-08 Tb 157 5.24E-10 Tb 158 3.20E-08 Tb 159 6.03E-02 Tb 160 2.29E-05 Tb 161 1.08E-04 Tb 162 2.79E-08 H-41

Tb 163 3.72E-08 Tb 164 3.25E-09 Tb 165 1.29E-09 Tb 166 1.60E-10 Tb 167 7.77E-11 Tb 168 1.79E-11 Tb 169 2.06E-12 Tb 170 1.03E-12 Tc 100 5.41E-08 Tc 101 1.69E-03 Tc 102 9.04E-06 Tc 102m 7.17E-07 Tc 103 7.04E-05 Tc 104 9.48E-04 Tc 105 2.34E-04 Tc 106 9.00E-06 Tc 107 2.60E-06 Tc 108 2.64E-07 Tc 109 2.26E-08 Tc 110 1.35E-08 Tc 111 1.66E-09 Tc 112 5.50E-10 Tc 113 9.02E-11 Tc 114 1.48E-11 Tc 115 1.46E-12 Tc 97 4.14E-10 Tc 97m 4.70E-11 Tc 98 2.33E-05 Tc 99 1.04E+02 Tc 99m 4.34E-02 Te 121 1.69E-12 Te 121m 6.36E-12 Te 122 2.33E-04 Te 123 1.69E-07 Te 123m 3.87E-08 Te 124 1.35E-03 Te 125 2.18E-01 Te 125m 9.65E-03 Te 126 3.97E-02 Te 127 3.05E-03 Te 127m 1.37E-01 Te 128 8.23E+00 Te 129 1.22E-03 Te 129m 1.48E-01 Te 130 4.04E+01 Te 131 1.97E-03 Te 131m 2.34E-02 Te 132 6.03E-01 Te 133 1.33E-03 Te 133m 5.71E-03 Te 134 8.61E-03 Te 135 3.29E-05 Te 136 1.36E-05 Te 137 6.16E-07 Te 138 8.80E-08 Te 139 3.25E-09 Te 140 2.30E-09 Te 141 6.17E-11 Te 142 1.13E-12 Tm 168 1.15E-11 Tm 169 7.18E-05 Tm 170 3.51E-08 Tm 171 1.58E-05 Tm 172 1.70E-07 Xe 126 2.22E-07 Xe 127 4.67E-11 Xe 128 2.22E-03 Xe 129 8.97E-07 Xe 129m 1.45E-09 Xe 130 8.83E-03 Xe 131 6.54E+01 H-42

Xe 131m 1.62E-02 Xe 132 1.00E+02 Xe 133 1.50E+00 Xe 133m 1.80E-02 Xe 134 1.77E+02 Xe 134m 4.22E-09 Xe 135 1.09E-01 Xe 135m 5.48E-04 Xe 136 1.47E+02 Xe 137 7.11E-04 Xe 138 2.68E-03 Xe 139 1.01E-04 Xe 140 2.56E-05 Xe 141 1.25E-06 Xe 142 3.67E-07 Xe 143 1.16E-08 Xe 144 1.01E-08 Xe 145 1.46E-10 Xe 146 2.08E-11 Y 100 2.59E-07 Y 101 6.81E-08 Y 102 3.71E-08 Y 103 1.39E-09 Y 104 1.44E-10 Y 105 1.19E-11 Y 87 1.55E-12 Y 88 1.52E-07 Y 89 6.13E+01 Y 89m 2.24E-09 Y 90 2.06E-02 Y 90m 2.63E-08 Y 91 9.59E+00 Y 91m 3.34E-03 Y 92 2.53E-02 Y 93 7.83E-02 Y 93m 6.02E-07 Y 94 2.45E-03 Y 95 1.36E-03 Y 96 8.14E-06 Y 96m 6.00E-06 Y 97 4.33E-06 Y 97m 7.67E-07 Y 98 4.44E-07 Y 98m 8.91E-07 Y 99 1.30E-06 Yb 170 5.83E-08 Yb 171 6.68E-06 Yb 172 3.36E-05 Zn 66 1.19E-05 Zn 67 4.12E-05 Zn 68 6.85E-05 Zn 69 8.28E-09 Zn 69m 1.24E-10 Zn 70 1.95E-04 Zn 71 1.13E-09 Zn 71m 4.22E-09 Zn 72 3.19E-06 Zn 73 1.36E-09 Zn 74 1.31E-08 Zn 75 3.53E-09 Zn 76 5.65E-09 Zn 77 2.63E-09 Zn 78 1.86E-09 Zn 79 5.80E-10 Zn 80 6.49E-11 Zn 81 4.54E-12 Zr 100 1.51E-05 Zr 101 2.94E-06 Zr 102 2.57E-06 Zr 103 3.80E-07 Zr 104 8.42E-08 H-43

Zr 105 2.50E-08 Zr 106 2.90E-11 Zr 107 2.80E-12 Zr 89 6.60E-11 Zr 90 2.04E+00 Zr 91 7.72E+01 Zr 92 9.08E+01 Zr 93 9.74E+01 Zr 94 9.98E+01 Zr 95 1.24E+01 Zr 96 1.03E+02 Zr 97 1.29E-01 Zr 98 6.39E-05 Zr 99 4.43E-06

/CORE HPR_MOC ACTIVITY FISSION

Isotope Activity(Ci)

Ac 224 2.22E-15 Ac 225 2.05E-08 Ac 226 3.23E-10 Ac 227 2.80E-06 Ac 228 3.56E-08 Ag 106 5.15E-10 Ag 106m 9.77E-10 Ag 107m 9.73E-08 Ag 108 3.88E-04 Ag 108m 3.64E-07 Ag 109m 2.95E+03 Ag 110 4.85E+00 Ag 110m 1.42E-01 Ag 111 1.41E+03 Ag 111m 1.42E+03 Ag 112 1.19E+03 Ag 113 7.34E+02 Ag 113m 1.07E+03 Ag 114 9.55E+02 Ag 115 9.89E+02 Ag 115m 4.19E+01 Ag 116 9.59E+02 Ag 116m 3.86E+01 Ag 117 8.48E+02 Ag 117m 9.95E+01 Ag 118 7.47E+02 Ag 118m 2.75E+02 Ag 119 7.43E+02 Ag 120 3.98E+02 Ag 120m 1.57E+02 Ag 121 3.63E+02 Ag 122 9.38E+01 Ag 122m 8.37E+01 Ag 123 8.52E+01 Ag 124 4.56E+01 Ag 125 7.96E+00 Ag 126 1.56E+00 Ag 127 2.38E-01 Ag 128 3.26E-02 Ag 129 5.45E-03 Ag 130 2.09E-01 As 72 9.03E-10 As 73 6.91E-08 As 74 6.54E-06 As 76 5.98E-02 As 77 4.43E+02 As 78 1.09E+03 As 79 2.16E+03 As 80 5.38E+03 As 81 8.02E+03 As 82 1.04E+04 As 82m 1.52E+03 As 83 1.41E+04 H-44

As 84 1.02E+04 As 85 9.55E+03 As 86 1.98E+04 As 87 1.73E+03 As 88 4.14E+03 As 89 2.06E+01 As 90 5.42E-01 As 91 8.41E-02 As 92 6.59E-03 At 217 2.05E-08 At 218 7.27E-11 Ba 131 3.46E-11 Ba 133 1.50E-07 Ba 135m 3.08E-03 Ba 136m 3.47E+01 Ba 137m 1.15E+04 Ba 139 2.66E+05 Ba 140 2.57E+05 Ba 141 2.43E+05 Ba 142 2.35E+05 Ba 143 2.25E+05 Ba 144 1.78E+05 Ba 145 8.90E+04 Ba 146 4.48E+04 Ba 147 1.27E+04 Ba 148 1.97E+03 Ba 149 2.41E+02 Ba 150 2.45E+01 Ba 151 3.89E+00 Ba 152 6.18E-02 Ba 153 2.96E-03 Bi 210 1.33E-08 Bi 211 2.50E-06 Bi 212 1.51E-05 Bi 213 2.05E-08 Bi 214 3.63E-07 Br 77 5.76E-09 Br 77m 4.89E-09 Br 78 8.30E-07 Br 79m 7.46E-05 Br 80 8.33E-03 Br 80m 5.54E-03 Br 82 8.65E+00 Br 82m 6.13E+00 Br 83 2.23E+04 Br 84 4.11E+04 Br 84m 6.71E+02 Br 85 5.26E+04 Br 86 7.35E+04 Br 87 8.39E+04 Br 88 7.48E+04 Br 89 5.14E+04 Br 90 2.80E+04 Br 91 1.12E+04 Br 92 1.92E+03 Br 93 7.13E+02 Br 94 3.85E+01 Br 95 6.51E-01 Br 96 2.08E-01 Br 97 2.98E-03 Cd 107 1.23E-11 Cd 109 1.54E-07 Cd 111m 8.05E-05 Cd 113 1.98E-13 Cd 113m 1.24E+00 Cd 115 9.63E+02 Cd 115m 5.72E+01 Cd 117 7.96E+02 Cd 117m 1.76E+02 Cd 118 9.94E+02 Cd 119 6.61E+02 H-45

Cd 119m 3.27E+02 Cd 120 9.83E+02 Cd 121 6.20E+02 Cd 121m 2.82E+02 Cd 122 9.67E+02 Cd 123 7.73E+02 Cd 124 7.23E+02 Cd 125 3.26E+02 Cd 126 3.19E+02 Cd 127 2.77E+02 Cd 128 1.19E+02 Cd 129 2.40E+00 Cd 130 2.73E+03 Cd 131 5.03E+02 Cd 132 7.38E-01 Ce 137 9.78E-09 Ce 139 4.86E-02 Ce 139m 1.89E-02 Ce 141 2.43E+05 Ce 143 2.43E+05 Ce 144 1.90E+05 Ce 145 1.63E+05 Ce 146 1.27E+05 Ce 147 8.38E+04 Ce 148 6.92E+04 Ce 149 3.66E+04 Ce 150 2.04E+04 Ce 151 6.14E+03 Ce 152 1.66E+03 Ce 153 3.08E+02 Ce 154 3.71E+01 Ce 155 3.60E+00 Ce 156 2.28E-01 Ce 157 9.16E-03 Co 65 1.60E-04 Co 66 4.20E-02 Co 67 1.30E-01 Co 68 1.51E-01 Co 69 1.41E-01 Co 70 9.48E-02 Co 71 5.18E-02 Co 72 2.00E-02 Co 73 8.27E-03 Co 74 1.23E-03 Co 75 1.75E-04 Cs 129 1.81E-12 Cs 131 1.10E-06 Cs 132 5.60E-02 Cs 134 7.52E+01 Cs 134m 2.54E+01 Cs 135 1.73E-01 Cs 135m 9.50E+00 Cs 136 3.12E+02 Cs 136m 1.34E+02 Cs 137 1.22E+04 Cs 138 2.77E+05 Cs 138m 7.95E+03 Cs 139 2.63E+05 Cs 140 2.40E+05 Cs 141 1.80E+05 Cs 142 1.19E+05 Cs 143 6.54E+04 Cs 144 2.33E+04 Cs 145 5.61E+03 Cs 146 8.24E+02 Cs 147 1.46E+02 Cs 148 1.06E+01 Cs 149 1.98E-01 Cs 150 1.97E-02 Cs 151 3.45E-03 Cu 66 4.50E-02 H-46

Cu 67 1.53E-01 Cu 68 2.49E-01 Cu 68m 3.63E-03 Cu 69 4.00E-01 Cu 70 6.32E-01 Cu 70m 1.07E-01 Cu 71 1.21E+00 Cu 72 2.45E+00 Cu 73 5.43E+00 Cu 74 5.92E+00 Cu 75 7.57E+00 Cu 76 6.91E+00 Cu 77 3.52E+00 Cu 78 9.66E-01 Cu 79 1.69E-01 Cu 80 1.71E-02 Dy 157 2.57E-13 Dy 159 7.78E-08 Dy 165 7.03E-01 Dy 165m 9.14E-04 Dy 166 4.47E-01 Dy 167 2.91E-01 Dy 168 1.75E-01 Dy 169 1.05E-01 Dy 170 5.47E-02 Dy 171 2.66E-02 Dy 172 3.24E-02 Er 163 7.78E-13 Er 165 3.28E-07 Er 167m 3.52E-02 Er 169 1.08E-01 Er 171 3.27E-02 Er 172 4.88E-02 Eu 149 1.27E-10 Eu 152 2.85E-02 Eu 152m 4.30E-01 Eu 154 3.24E+00 Eu 154m 6.88E-01 Eu 155 4.91E+02 Eu 156 9.41E+02 Eu 157 4.56E+02 Eu 158 2.35E+02 Eu 159 9.49E+01 Eu 160 3.64E+01 Eu 161 1.19E+01 Eu 162 3.44E+00 Eu 163 1.47E+00 Eu 164 5.74E-01 Eu 165 1.82E-01 Eu 166 4.84E-02 Eu 167 1.06E-02 Fe 65 1.60E-04 Fe 66 2.20E-02 Fe 67 4.34E-02 Fe 68 2.61E-02 Fe 69 9.24E-03 Fe 70 2.54E-03 Fe 71 4.49E-04 Fe 72 6.40E-05 Fr 221 2.05E-08 Fr 222 1.94E-14 Fr 223 3.86E-08 Ga 67 1.94E-13 Ga 68 2.92E-08 Ga 70 1.21E-04 Ga 72 3.12E+00 Ga 72m 1.08E-01 Ga 73 9.03E+00 Ga 74 2.18E+01 Ga 74m 4.77E-01 Ga 75 6.25E+01 H-47

Ga 76 2.14E+02 Ga 77 4.32E+02 Ga 78 7.10E+02 Ga 79 9.12E+02 Ga 80 5.91E+02 Ga 81 3.91E+02 Ga 82 2.60E+02 Ga 83 2.57E+01 Ga 84 3.59E+02 Ga 85 4.34E-01 Ga 86 1.05E+00 Gd 151 2.35E-08 Gd 152 1.43E-15 Gd 153 1.09E-04 Gd 159 9.50E+01 Gd 161 1.27E+01 Gd 162 4.24E+00 Gd 163 2.16E+00 Gd 164 1.17E+00 Gd 165 5.91E-01 Gd 166 3.09E-01 Gd 167 1.40E-01 Gd 168 4.83E-02 Gd 169 1.09E-02 Ge 69 5.10E-13 Ge 71 3.17E-07 Ge 71m 1.14E-07 Ge 73m 8.90E+00 Ge 75 6.28E+01 Ge 75m 2.56E+00 Ge 77 4.74E+02 Ge 77m 5.84E+00 Ge 78 1.08E+03 Ge 79 1.47E+03 Ge 79m 6.16E+02 Ge 80 4.83E+03 Ge 81 5.43E+03 Ge 81m 1.62E+02 Ge 82 5.70E+03 Ge 83 1.96E+03 Ge 84 1.44E+03 Ge 85 2.16E+02 Ge 86 1.89E+04 Ge 87 7.00E+01 Ge 88 1.80E+00 Ge 89 1.76E-02 Ho 161 7.13E-10 Ho 161m 5.96E-11 Ho 162 1.28E-08 Ho 162m 1.31E-08 Ho 163 5.46E-11 Ho 163m 3.57E-08 Ho 164 3.48E-06 Ho 164m 2.40E-06 Ho 166 4.49E-01 Ho 166m 1.41E-07 Ho 167 2.92E-01 Ho 168 1.76E-01 Ho 169 1.08E-01 Ho 170 5.66E-02 Ho 170m 1.90E-03 Ho 171 3.24E-02 Ho 172 4.78E-02 I 121 1.12E-15 I 123 1.61E-08 I 124 3.10E-14 I 125 1.24E-07 I 126 1.94E-03 I 128 9.46E+00 I 129 2.48E-03 I 130 2.42E+01 H-48

I 130m 1.32E+01 I 131 1.25E+05 I 132 1.88E+05 I 132m 3.96E+02 I 133 2.80E+05 I 133m 1.91E+04 I 134 3.26E+05 I 134m 1.49E+04 I 135 2.67E+05 I 136 1.23E+05 I 136m 5.47E+04 I 137 1.33E+05 I 138 7.06E+04 I 139 3.63E+04 I 140 9.19E+03 I 141 2.42E+03 I 142 3.68E+02 I 143 3.06E+01 I 144 4.83E-01 In 111 4.13E-14 In 111m 8.06E-15 In 112 9.13E-08 In 112m 7.42E-08 In 113m 3.61E-11 In 114 9.97E-04 In 114m 6.00E-04 In 115 3.24E-12 In 115m 9.75E+02 In 116 1.03E+00 In 116m 1.70E+00 In 117 5.85E+02 In 117m 7.32E+02 In 118 9.94E+02 In 118m 7.80E-02 In 119 4.33E+02 In 119m 5.98E+02 In 120 9.92E+02 In 120m 1.90E+01 In 121 5.99E+02 In 121m 4.36E+02 In 122 1.03E+03 In 122m 1.19E+02 In 123 5.75E+02 In 123m 5.81E+02 In 124 9.72E+02 In 124m 2.49E+02 In 125 6.11E+02 In 125m 5.59E+02 In 126 6.54E+02 In 126m 3.35E+02 In 127 1.95E+03 In 127m 6.50E+02 In 128 8.98E+02 In 128m 7.74E+02 In 129 1.31E+03 In 129m 1.21E+03 In 130 3.40E+03 In 130m 8.06E+02 In 131 6.02E+02 In 131m 3.57E+02 In 132 4.64E+02 In 133 3.68E+01 In 134 2.12E+00 In 135 7.50E-02 Kr 100 3.74E-02 Kr 79 2.69E-09 Kr 79m 1.35E-09 Kr 81 3.73E-10 Kr 81m 9.48E-06 Kr 83m 2.23E+04 Kr 85 1.44E+03 H-49

Kr 85m 5.27E+04 Kr 87 1.03E+05 Kr 88 1.42E+05 Kr 89 1.79E+05 Kr 90 1.89E+05 Kr 91 1.38E+05 Kr 92 7.25E+04 Kr 93 2.36E+04 Kr 94 6.16E+03 Kr 95 8.95E+02 Kr 96 1.36E+03 Kr 97 5.40E+00 Kr 98 5.35E+01 Kr 99 8.85E-02 La 133 5.68E-14 La 135 6.67E-08 La 137 1.09E-08 La 138 1.45E-11 La 140 2.58E+05 La 141 2.44E+05 La 142 2.38E+05 La 143 2.42E+05 La 144 2.24E+05 La 145 1.60E+05 La 146 7.51E+04 La 146m 3.03E+04 La 147 4.63E+04 La 148 2.02E+04 La 149 6.32E+03 La 150 1.35E+03 La 151 2.31E+02 La 152 2.61E+01 La 153 2.72E+00 La 154 1.16E-01 La 155 3.29E-03 Lu 172 1.11E-13 Lu 172m 5.63E-14 Mo 100 5.26E-14 Mo 101 2.21E+05 Mo 102 1.89E+05 Mo 103 1.40E+05 Mo 104 9.06E+04 Mo 105 5.32E+04 Mo 106 2.56E+04 Mo 107 1.15E+04 Mo 108 3.91E+03 Mo 109 1.53E+03 Mo 110 4.67E+02 Mo 111 8.81E+01 Mo 112 1.12E+01 Mo 113 1.25E+00 Mo 114 5.11E-02 Mo 115 4.12E-03 Mo 93 1.22E-12 Mo 93m 5.20E-10 Mo 99 2.56E+05 Nb 100 2.51E+05 Nb 100m 1.19E+04 Nb 101 2.15E+05 Nb 102 1.32E+05 Nb 102m 3.41E+04 Nb 103 1.00E+05 Nb 104 2.50E+04 Nb 104m 1.74E+04 Nb 105 1.81E+04 Nb 106 3.36E+03 Nb 107 7.74E+02 Nb 108 9.03E+01 Nb 109 3.40E+01 Nb 110 1.68E+00 Nb 111 1.21E+00 H-50

Nb 112 1.22E-02 Nb 113 2.17E-03 Nb 90 1.70E-13 Nb 91 1.18E-11 Nb 91m 2.36E-14 Nb 92 5.31E-14 Nb 92m 2.09E-08 Nb 93m 1.04E-02 Nb 94 1.17E-06 Nb 94m 1.06E-02 Nb 95 2.66E+05 Nb 95m 2.88E+03 Nb 96 3.02E+01 Nb 97 2.50E+05 Nb 97m 2.37E+05 Nb 98 2.43E+05 Nb 98m 1.24E+03 Nb 99 1.57E+05 Nb 99m 9.96E+04 Nd 140 2.76E-12 Nd 141 3.55E-06 Nd 141m 6.12E-07 Nd 144 7.75E-11 Nd 147 9.50E+04 Nd 149 4.75E+04 Nd 150 5.53E-15 Nd 151 1.92E+04 Nd 152 1.23E+04 Nd 153 7.47E+03 Nd 154 3.29E+03 Nd 155 1.26E+03 Nd 156 4.30E+02 Nd 157 9.72E+01 Nd 158 1.77E+01 Nd 159 2.05E+00 Nd 160 1.72E-01 Nd 161 8.15E-03 Ni 65 1.60E-04 Ni 66 4.50E-02 Ni 67 1.53E-01 Ni 68 2.45E-01 Ni 69 3.70E-01 Ni 70 5.56E-01 Ni 71 6.96E-01 Ni 72 9.38E-01 Ni 73 8.87E-01 Ni 74 4.57E-01 Ni 75 1.62E-01 Ni 76 5.82E-02 Ni 77 8.13E-03 Ni 78 1.08E-03 Pb 207m 1.59E-12 Pb 209 2.05E-08 Pb 210 1.36E-08 Pb 211 2.50E-06 Pb 212 1.51E-05 Pb 214 3.63E-07 Pd 101 3.73E-11 Pd 103 1.68E-05 Pd 107 2.87E-03 Pd 107m 2.33E-01 Pd 109 2.95E+03 Pd 109m 7.18E-02 Pd 111 1.43E+03 Pd 111m 6.21E-01 Pd 112 1.19E+03 Pd 113 1.12E+03 Pd 114 9.25E+02 Pd 115 9.70E+02 Pd 116 7.94E+02 Pd 117 7.45E+02 H-51

Pd 118 5.01E+02 Pd 119 2.21E+02 Pd 120 1.83E+02 Pd 121 3.59E+01 Pd 122 1.00E+01 Pd 123 2.14E+00 Pd 124 3.54E-01 Pm 143 3.00E-14 Pm 144 5.81E-11 Pm 145 1.75E-08 Pm 146 1.05E-02 Pm 147 3.96E+04 Pm 148 1.16E+02 Pm 148m 9.22E+01 Pm 149 4.69E+04 Pm 150 1.84E+00 Pm 151 1.92E+04 Pm 152 1.23E+04 Pm 152m 5.52E+01 Pm 153 7.81E+03 Pm 154 3.51E+03 Pm 154m 2.18E+02 Pm 155 1.83E+03 Pm 156 8.20E+02 Pm 157 3.28E+02 Pm 158 1.02E+02 Pm 159 2.76E+01 Pm 160 4.98E+00 Pm 161 6.80E-01 Pm 162 5.76E-02 Pm 163 6.18E-03 Po 210 7.27E-09 Po 211 6.89E-09 Po 212 9.65E-06 Po 213 2.00E-08 Po 214 5.62E-07 Po 215 2.50E-06 Po 216 1.51E-05 Po 218 3.63E-07 Pr 139 3.21E-10 Pr 140 2.86E-02 Pr 142 5.39E+01 Pr 142m 1.89E+01 Pr 143 2.43E+05 Pr 144 1.90E+05 Pr 144m 1.82E+03 Pr 145 1.63E+05 Pr 146 1.27E+05 Pr 147 9.50E+04 Pr 148 7.06E+04 Pr 148m 1.46E+03 Pr 149 4.72E+04 Pr 150 2.91E+04 Pr 151 1.63E+04 Pr 152 6.92E+03 Pr 153 2.84E+03 Pr 154 6.15E+02 Pr 155 1.58E+02 Pr 156 2.43E+01 Pr 157 3.08E+00 Pr 158 2.00E-01 Pr 159 9.47E-03 Ra 222 1.98E-07 Ra 223 2.50E-06 Ra 224 1.51E-05 Ra 225 2.13E-08 Ra 226 3.69E-07 Ra 227 3.24E-07 Ra 228 2.98E-12 Rb 100 1.30E+03 Rb 101 2.45E-01 H-52

Rb 102 2.27E-02 Rb 81 5.50E-10 Rb 83 1.50E-05 Rb 84 1.50E-03 Rb 86 1.64E+01 Rb 86m 2.32E+00 Rb 87 3.11E-06 Rb 88 1.43E+05 Rb 89 1.88E+05 Rb 90 1.95E+05 Rb 90m 3.34E+04 Rb 91 2.24E+05 Rb 92 1.95E+05 Rb 93 1.52E+05 Rb 94 7.80E+04 Rb 95 3.73E+04 Rb 96 1.29E+04 Rb 97 1.95E+03 Rb 98 5.06E+02 Rb 99 7.36E+01 Rh 101 3.62E-07 Rh 101m 8.32E-09 Rh 102 1.05E-02 Rh 102m 1.24E-03 Rh 103m 1.41E+05 Rh 104 2.02E+02 Rh 104m 1.58E+01 Rh 105 5.34E+04 Rh 105m 1.57E+04 Rh 106 2.03E+04 Rh 106m 1.58E-01 Rh 107 1.30E+04 Rh 108 5.48E+03 Rh 108m 2.12E+00 Rh 109 2.95E+03 Rh 110 7.86E+00 Rh 110m 2.14E+03 Rh 111 1.43E+03 Rh 112 1.19E+03 Rh 113 1.06E+03 Rh 114 7.01E+02 Rh 115 5.34E+02 Rh 116 2.58E+02 Rh 117 1.25E+02 Rh 118 5.42E+01 Rh 119 1.37E+01 Rh 120 3.06E+00 Rh 121 4.90E-01 Rh 122 6.14E-02 Rn 217 1.43E-12 Rn 218 1.98E-07 Rn 219 2.50E-06 Rn 220 1.51E-05 Rn 222 3.63E-07 Ru 103 1.42E+05 Ru 105 5.53E+04 Ru 106 2.03E+04 Ru 107 1.30E+04 Ru 108 5.48E+03 Ru 109 2.94E+03 Ru 110 2.13E+03 Ru 111 1.35E+03 Ru 112 9.98E+02 Ru 113 6.05E+02 Ru 114 2.57E+02 Ru 115 9.37E+01 Ru 116 2.61E+01 Ru 117 4.63E+00 Ru 118 9.82E-01 Ru 119 9.68E-02 Ru 120 9.31E-03 H-53

Ru 97 1.11E-12 Sb 117 1.39E-13 Sb 118 3.91E-10 Sb 118m 6.28E-10 Sb 119 3.18E-07 Sb 120 2.01E-04 Sb 120m 1.01E-04 Sb 122 9.54E-01 Sb 122m 7.48E-02 Sb 124 2.83E+00 Sb 124m 1.65E+00 Sb 125 8.35E+02 Sb 126 3.10E+01 Sb 126m 5.57E+01 Sb 127 7.86E+03 Sb 128 9.69E+02 Sb 128m 1.55E+04 Sb 129 2.68E+04 Sb 129m 4.76E+02 Sb 130 3.17E+04 Sb 130m 4.32E+04 Sb 131 1.13E+05 Sb 132 8.00E+04 Sb 132m 4.98E+04 Sb 133 9.24E+04 Sb 134 1.89E+04 Sb 134m 1.86E+04 Sb 135 1.03E+04 Sb 136 1.42E+03 Sb 137 2.42E+03 Sb 138 1.91E+01 Sb 139 1.34E+00 Se 73 2.74E-15 Se 73m 1.59E-15 Se 75 2.16E-08 Se 77m 1.47E+00 Se 79 1.06E-02 Se 79m 2.11E+03 Se 81 8.30E+03 Se 81m 5.34E+02 Se 83 1.96E+04 Se 83m 1.57E+03 Se 84 4.04E+04 Se 85 4.38E+04 Se 86 5.57E+04 Se 87 3.25E+04 Se 88 1.62E+04 Se 89 3.70E+03 Se 90 9.76E+02 Se 91 1.04E+02 Se 92 9.80E+00 Se 93 6.91E-01 Se 94 2.73E-02 Sm 145 4.62E-09 Sm 146 1.62E-10 Sm 147 2.88E-07 Sm 148 2.51E-14 Sm 151 3.04E+02 Sm 153 7.84E+03 Sm 155 1.88E+03 Sm 156 9.41E+02 Sm 157 4.53E+02 Sm 158 2.29E+02 Sm 159 8.57E+01 Sm 160 2.91E+01 Sm 161 6.82E+00 Sm 162 1.32E+00 Sm 163 3.15E-01 Sm 164 6.42E-02 Sm 165 8.17E-03 Sn 113 2.53E-11 H-54

Sn 113m 3.14E-11 Sn 117m 2.04E+00 Sn 119m 2.68E+01 Sn 121 9.75E+02 Sn 121m 2.25E+00 Sn 123 7.28E+01 Sn 123m 1.16E+03 Sn 125 6.94E+02 Sn 125m 1.37E+03 Sn 126 1.89E-02 Sn 127 4.59E+03 Sn 127m 3.04E+03 Sn 128 1.52E+04 Sn 128m 7.26E+03 Sn 129 1.61E+04 Sn 129m 8.40E+03 Sn 130 2.73E+04 Sn 130m 2.73E+04 Sn 131 2.42E+04 Sn 131m 2.32E+04 Sn 132 2.76E+04 Sn 133 6.86E+03 Sn 134 1.39E+03 Sn 135 1.06E+02 Sn 136 6.40E+00 Sn 137 8.37E-01 Sr 100 2.65E+03 Sr 101 3.54E+02 Sr 102 3.21E+01 Sr 103 7.48E-01 Sr 104 8.89E-02 Sr 105 1.65E-02 Sr 83 7.98E-11 Sr 85 4.42E-06 Sr 85m 2.41E-06 Sr 87m 1.08E-02 Sr 89 1.88E+05 Sr 90 1.13E+04 Sr 91 2.36E+05 Sr 92 2.42E+05 Sr 93 2.55E+05 Sr 94 2.45E+05 Sr 95 2.19E+05 Sr 96 1.70E+05 Sr 97 8.26E+04 Sr 98 4.18E+04 Sr 99 9.86E+03 Tb 155 7.11E-10 Tb 156 4.15E-08 Tb 156m 3.76E-09 Tb 157 1.68E-08 Tb 158 4.02E-07 Tb 158m 2.37E-05 Tb 160 2.58E-01 Tb 161 1.27E+01 Tb 162 4.26E+00 Tb 163 2.20E+00 Tb 164 1.24E+00 Tb 165 6.97E-01 Tb 166 4.34E-01 Tb 167 2.71E-01 Tb 168 1.46E-01 Tb 169 6.88E-02 Tb 170 2.29E-02 Tb 171 6.18E-03 Tc 100 3.95E+02 Tc 101 2.21E+05 Tc 102 1.89E+05 Tc 102m 3.04E+02 Tc 103 1.42E+05 Tc 104 9.38E+04 H-55

Tc 105 5.53E+04 Tc 106 2.69E+04 Tc 107 1.30E+04 Tc 108 5.34E+03 Tc 109 2.72E+03 Tc 110 1.50E+03 Tc 111 5.84E+02 Tc 112 1.98E+02 Tc 113 5.63E+01 Tc 114 9.79E+00 Tc 115 1.96E+00 Tc 116 1.98E-01 Tc 117 8.28E-03 Tc 118 1.99E-03 Tc 95 2.88E-13 Tc 96 1.77E-13 Tc 97 3.62E-13 Tc 97m 6.96E-07 Tc 98 2.02E-08 Tc 99 1.79E+00 Tc 99m 2.29E+05 Te 119 9.23E-15 Te 121 9.50E-08 Te 121m 4.18E-08 Te 123m 3.45E-04 Te 125m 1.76E+02 Te 127 8.05E+03 Te 127m 1.29E+03 Te 128 2.61E-15 Te 129 2.56E+04 Te 129m 4.47E+03 Te 131 1.13E+05 Te 131m 1.68E+04 Te 132 1.86E+05 Te 133 1.51E+05 Te 133m 1.46E+05 Te 134 2.89E+05 Te 135 1.45E+05 Te 136 6.44E+04 Te 137 2.04E+04 Te 138 5.14E+03 Te 139 7.61E+02 Te 140 6.11E+02 Te 141 2.32E+01 Te 142 4.49E-01 Tl 206 1.78E-14 Tl 207 2.49E-06 Tl 208 5.41E-06 Tl 209 4.50E-10 Tl 210 7.63E-11 Tm 166 3.44E-13 Tm 167 2.18E-10 Tm 168 9.57E-08 Tm 170 2.09E-04 Tm 171 1.72E-02 Tm 172 4.88E-02 Xe 125 7.10E-11 Xe 125m 1.79E-11 Xe 127 1.32E-06 Xe 127m 2.39E-07 Xe 129m 1.66E-04 Xe 131m 1.36E+03 Xe 133 2.81E+05 Xe 133m 8.09E+03 Xe 134m 1.23E+03 Xe 135 2.76E+05 Xe 135m 4.99E+04 Xe 137 2.56E+05 Xe 138 2.60E+05 Xe 139 2.07E+05 Xe 140 1.52E+05 H-56

Xe 141 5.80E+04 Xe 142 2.37E+04 Xe 143 3.05E+03 Xe 144 6.87E+02 Xe 145 6.06E+01 Xe 146 4.36E+00 Xe 147 1.44E-01 Y 100 3.97E+04 Y 101 1.69E+04 Y 102 1.14E+04 Y 103 6.63E+02 Y 104 8.65E+01 Y 105 1.45E+01 Y 106 2.27E-02 Y 107 5.12E-03 Y 108 2.05E-05 Y 87 6.99E-07 Y 87m 3.66E-11 Y 88 2.12E-03 Y 89m 1.82E+01 Y 90 1.12E+04 Y 90m 2.88E-01 Y 91 2.36E+05 Y 91m 1.39E+05 Y 92 2.44E+05 Y 93 2.59E+05 Y 93m 8.92E+04 Y 94 2.62E+05 Y 95 2.63E+05 Y 96 1.79E+05 Y 96m 7.35E+04 Y 97 1.35E+05 Y 97m 7.63E+04 Y 98 9.34E+04 Y 98m 5.13E+04 Y 99 1.01E+05 Yb 169 5.04E-11 Yb 169m 5.97E-12 Zn 69 4.00E-01 Zn 69m 4.10E-04 Zn 71 1.22E+00 Zn 71m 4.71E-02 Zn 72 2.99E+00 Zn 73 8.93E+00 Zn 74 2.10E+01 Zn 75 5.21E+01 Zn 76 1.47E+02 Zn 77 1.85E+02 Zn 78 1.83E+02 Zn 79 8.33E+01 Zn 80 1.70E+01 Zn 81 1.98E+00 Zn 82 7.71E-01 Zn 83 4.30E-02 Zr 100 2.40E+05 Zr 101 1.43E+05 Zr 102 9.79E+04 Zr 103 3.20E+04 Zr 104 7.62E+03 Zr 105 4.47E+03 Zr 106 1.14E+01 Zr 107 1.97E+00 Zr 108 1.05E-01 Zr 109 2.96E-02 Zr 110 1.06E-03 Zr 88 4.33E-10 Zr 89 2.97E-05 Zr 89m 9.89E-07 Zr 90m 3.83E-02 Zr 93 2.45E-01 Zr 95 2.67E+05 H-57

Zr 96 1.91E-14 Zr 97 2.50E+05 Zr 98 2.40E+05 Zr 99 2.40E+05

/CORE-DESC HPR_EOC data file: INL-A_core_t6-depl_ce_v7.1.ii.json response name: AT_POWER user-selected time index: 13 user-selected time(s): 157793870.0 cutoff for grams: 1e-12 cutoff for curies: 1e-15 mass vs. time for response:

index time(s) mass(g) target 0000 0.00000e+00 5.18587e+06 0001 2.59200e+05 5.18587e+06 0002 1.33655e+07 5.18587e+06 0003 2.64718e+07 5.18586e+06 0004 3.95781e+07 5.18586e+06 0005 5.26844e+07 5.18586e+06 0006 6.57906e+07 5.18586e+06 0007 7.88969e+07 5.18585e+06 0008 9.20464e+07 5.18585e+06 0009 1.05196e+08 5.18585e+06 0010 1.18345e+08 5.18585e+06 0011 1.31495e+08 5.18585e+06 0012 1.44644e+08 5.18584e+06 0013 1.57794e+08 5.18584e+06 <------

/END

/CORE HPR_EOC MASS ACTIVATION

Isotope Mass(g)

B 10 1.02E-12 B 11 2.40E-10 Be 10 1.23E-06 Be 9 1.34E-08 C 12 4.63E-02 C 13 2.56E+00 C 14 3.61E-02 F 19 3.19E-04 H 1 5.28E-04 H 2 5.75E-05 H 3 1.15E-02 He 3 1.69E-03 He 4 1.13E+00 N 14 1.10E-05 N 15 4.47E-04 N 16 5.51E-10 Ne 20 1.88E-09 O 16 6.14E+05 O 17 2.49E+02 O 18 1.42E+03 O 19 7.87E-11

/CORE HPR_EOC ACTIVITY ACTIVATION

Isotope Activity(Ci)

B 12 1.11E-07 Be 10 2.90E-08 Be 11 4.14E-08 Be 8 1.51E-08 C 14 1.62E-01 C 15 1.16E-01 Cr 66 1.06E-05 Cr 67 3.20E-06 F 20 1.95E-05 H 3 1.11E+02 He 6 5.49E-09 Li 8 7.22E-14 H-58

Mn 66 1.47E-03 Mn 67 1.32E-03 Mn 68 2.75E-04 Mn 69 3.64E-05 N 13 2.25E-11 N 16 5.45E+01 O 19 1.74E+00

/CORE HPR_EOC MASS ACTINIDE

Isotope Mass(g)

Am 240 1.41E-12 Am 241 1.72E-03 Am 242 2.26E-08 Am 242m 1.17E-06 Am 243 1.80E-07 Cm 242 2.94E-06 Cm 243 3.25E-09 Cm 244 1.31E-09 Cm 245 3.09E-12 Np 235 1.18E-09 Np 236 5.77E-06 Np 236m 3.26E-08 Np 237 3.54E+01 Np 238 5.04E-04 Np 239 8.94E+00 Np 240 1.11E-06 Np 240m 2.16E-07 Pa 230 2.00E-10 Pa 231 4.41E-03 Pa 232 3.78E-08 Pa 233 1.20E-06 Pa 234 1.61E-09 Pa 234m 1.77E-09 Pa 235 7.49E-09 Pu 236 7.42E-06 Pu 237 6.68E-09 Pu 238 1.48E-01 Pu 239 4.76E+03 Pu 240 6.51E+00 Pu 241 2.80E-02 Pu 242 4.22E-05 Pu 243 1.44E-10 Th 227 4.90E-10 Th 228 2.24E-07 Th 229 5.34E-07 Th 230 9.48E-02 Th 231 3.79E-06 Th 232 6.77E-04 Th 233 1.85E-11 Th 234 5.31E-05 U 230 1.84E-11 U 232 2.07E-05 U 233 8.50E-03 U 234 6.83E+03 U 235 8.92E+05 U 235m 1.36E-04 U 236 2.34E+03 U 237 2.06E-01 U 238 3.65E+06 U 239 6.20E-02

/CORE HPR_EOC ACTIVITY ACTINIDE

Isotope Activity(Ci)

Am 239 2.85E-11 Am 240 3.62E-07 Am 241 5.91E-03 Am 242 1.82E-02 Am 242m 1.22E-05 Am 243 3.59E-08 H-59

Am 244 2.12E-07 Am 244m 3.15E-06 Am 245 7.28E-13 Cm 241 4.48E-10 Cm 242 9.73E-03 Cm 243 1.64E-07 Cm 244 1.06E-07 Cm 245 5.31E-13 Np 234 1.06E-12 Np 235 1.66E-06 Np 236 5.71E-08 Np 236m 1.93E-02 Np 237 2.49E-02 Np 238 1.31E+02 Np 239 2.07E+06 Np 240 1.41E+01 Np 240m 2.34E+01 Np 241 4.37E-09 Pa 229 3.10E-09 Pa 230 6.54E-06 Pa 231 2.09E-04 Pa 232 1.61E-02 Pa 233 2.50E-02 Pa 234 3.22E-03 Pa 234m 1.23E+00 Pa 235 2.45E-01 Pu 236 3.93E-03 Pu 237 8.06E-05 Pu 237m 1.91E-05 Pu 238 2.53E+00 Pu 239 2.95E+02 Pu 240 1.48E+00 Pu 241 2.90E+00 Pu 242 1.67E-07 Pu 243 3.73E-04 Pu 245 7.28E-13 Th 226 5.03E-07 Th 227 1.51E-05 Th 228 1.83E-04 Th 229 1.14E-07 Th 230 1.96E-03 Th 231 2.01E+00 Th 232 7.42E-11 Th 233 6.68E-04 Th 234 1.23E+00 U 230 5.01E-07 U 231 4.35E-08 U 232 4.63E-04 U 233 8.19E-05 U 234 4.25E+01 U 235 1.93E+00 U 235m 4.18E+03 U 236 1.51E-01 U 237 1.68E+04 U 238 1.23E+00 U 239 2.08E+06

/CORE HPR_EOC MASS FISSION

Isotope Mass(g)

Ac 225 2.16E-12 Ac 227 2.18E-07 Ag 107 3.58E-06 Ag 108 1.33E-12 Ag 108m 2.83E-07 Ag 109 3.14E+00 Ag 109m 1.19E-06 Ag 110 2.87E-09 Ag 110m 1.01E-04 Ag 111 9.19E-03 Ag 111m 9.26E-07 H-60

Ag 112 1.35E-04 Ag 113 1.43E-04 Ag 113m 7.44E-07 Ag 114 4.47E-08 Ag 115 1.21E-05 Ag 115m 7.68E-09 Ag 116 2.35E-06 Ag 116m 8.01E-09 Ag 117 6.42E-07 Ag 117m 5.56E-09 Ag 118 2.94E-08 Ag 118m 5.77E-09 Ag 119 1.65E-08 Ag 120 5.21E-09 Ag 120m 5.34E-10 Ag 121 3.04E-09 Ag 122 5.37E-10 Ag 122m 1.81E-10 Ag 123 2.79E-10 Ag 124 8.60E-11 Ag 125 1.47E-11 Ag 126 1.86E-12 As 73 3.85E-12 As 74 1.14E-10 As 75 4.56E-02 As 76 8.22E-08 As 77 4.21E-04 As 78 4.09E-05 As 79 8.17E-06 As 80 5.79E-07 As 81 1.91E-06 As 82 1.44E-06 As 82m 1.50E-07 As 83 1.38E-06 As 84 3.19E-07 As 85 1.45E-07 As 86 1.42E-07 As 87 7.43E-09 As 88 3.60E-09 As 89 9.56E-12 Ba 132 1.60E-06 Ba 133 1.15E-08 Ba 134 1.62E-01 Ba 135 3.22E-04 Ba 135m 1.57E-08 Ba 136 5.28E-01 Ba 136m 1.97E-10 Ba 137 1.91E+01 Ba 137m 4.97E-05 Ba 138 3.73E+02 Ba 139 1.63E-02 Ba 140 3.51E+00 Ba 141 3.33E-03 Ba 142 1.88E-03 Ba 143 4.12E-05 Ba 144 2.60E-05 Ba 145 4.92E-06 Ba 146 1.28E-06 Ba 147 1.48E-07 Ba 148 1.58E-08 Ba 149 1.09E-09 Ba 150 9.78E-11 Ba 151 1.35E-11 Bi 209 8.34E-11 Bi 210 1.13E-12 Bi 212 1.24E-11 Br 79 9.13E-04 Br 80 8.46E-11 Br 80m 7.45E-10 Br 81 6.51E+00 Br 82 1.54E-05 H-61

Br 82m 3.62E-08 Br 83 1.41E-03 Br 84 5.81E-04 Br 84m 1.81E-06 Br 85 6.87E-05 Br 86 3.07E-05 Br 87 3.59E-05 Br 88 9.47E-06 Br 89 1.78E-06 Br 90 4.28E-07 Br 91 4.87E-08 Br 92 5.35E-09 Br 93 5.97E-10 Br 94 2.26E-11 Cd 108 4.81E-07 Cd 109 6.19E-10 Cd 110 6.47E-03 Cd 111 1.53E+00 Cd 111m 6.62E-12 Cd 112 1.33E+00 Cd 113 1.21E+00 Cd 113m 1.24E-02 Cd 114 1.06E+00 Cd 115 1.90E-03 Cd 115m 2.25E-03 Cd 116 1.12E+00 Cd 117 7.43E-05 Cd 117m 2.21E-05 Cd 118 3.14E-05 Cd 119 1.13E-06 Cd 119m 4.57E-07 Cd 120 5.32E-07 Cd 121 8.99E-08 Cd 121m 2.52E-08 Cd 122 5.48E-08 Cd 123 1.77E-08 Cd 124 9.90E-09 Cd 125 2.45E-09 Cd 126 1.83E-09 Cd 127 1.15E-09 Cd 128 3.78E-10 Cd 129 7.42E-12 Cd 130 5.08E-09 Cd 131 3.95E-10 Ce 138 2.23E-08 Ce 139 2.10E-05 Ce 139m 3.12E-11 Ce 140 3.45E+02 Ce 141 8.53E+00 Ce 142 3.28E+02 Ce 143 3.66E-01 Ce 144 6.98E+01 Ce 145 3.79E-04 Ce 146 1.33E-03 Ce 147 6.15E-05 Ce 148 5.07E-05 Ce 149 2.56E-06 Ce 150 1.08E-06 Ce 151 1.44E-07 Ce 152 3.12E-08 Ce 153 4.08E-09 Ce 154 3.93E-10 Ce 155 2.33E-11 Ce 156 1.16E-12 Cs 131 1.39E-11 Cs 132 8.71E-07 Cs 133 3.61E+02 Cs 134 2.59E-01 Cs 134m 7.60E-06 Cs 135 3.61E+02 Cs 135m 3.90E-07 H-62

Cs 136 6.52E-03 Cs 136m 3.26E-08 Cs 137 3.25E+02 Cs 138 6.79E-03 Cs 138m 1.71E-05 Cs 139 1.80E-03 Cs 140 1.90E-04 Cs 141 5.59E-05 Cs 142 2.52E-06 Cs 143 1.48E-06 Cs 144 2.95E-07 Cs 145 4.22E-08 Cs 146 3.42E-09 Cs 147 4.36E-10 Cs 148 2.04E-11 Cu 65 1.01E-07 Cu 66 8.09E-11 Cu 67 2.03E-07 Cu 68 4.67E-11 Cu 68m 4.95E-12 Cu 69 4.19E-10 Cu 70 1.75E-10 Cu 70m 2.21E-11 Cu 71 1.49E-10 Cu 72 1.04E-10 Cu 73 1.47E-10 Cu 74 6.80E-11 Cu 75 6.15E-11 Cu 76 3.03E-11 Cu 77 1.12E-11 Cu 78 2.23E-12 Dy 158 1.89E-10 Dy 159 8.66E-11 Dy 160 4.96E-04 Dy 161 1.97E-02 Dy 162 6.87E-03 Dy 163 3.52E-03 Dy 164 2.01E-03 Dy 165 9.14E-08 Dy 165m 2.09E-12 Dy 166 2.04E-06 Dy 167 1.66E-09 Dy 168 1.38E-09 Dy 169 6.19E-11 Dy 170 2.48E-11 Dy 171 2.43E-12 Dy 172 1.48E-12 Er 164 2.59E-09 Er 166 7.25E-04 Er 167 4.73E-04 Er 167m 1.24E-12 Er 168 2.89E-04 Er 169 1.32E-06 Er 170 9.65E-05 Er 171 1.35E-08 Er 172 1.32E-07 Eu 151 5.27E-01 Eu 152 2.15E-03 Eu 152m 1.10E-06 Eu 153 1.16E+01 Eu 154 6.44E-02 Eu 154m 6.24E-08 Eu 155 2.00E+00 Eu 156 1.75E-02 Eu 157 3.54E-04 Eu 158 9.26E-06 Eu 159 1.50E-06 Eu 160 2.03E-08 Eu 161 4.59E-09 Eu 162 5.48E-10 Eu 163 1.68E-10 H-63

Eu 164 2.39E-11 Eu 165 6.14E-12 Ga 69 2.68E-04 Ga 70 2.13E-12 Ga 71 8.71E-04 Ga 72 1.02E-06 Ga 73 1.02E-06 Ga 74 6.98E-08 Ga 74m 3.02E-11 Ga 75 5.23E-08 Ga 76 4.69E-08 Ga 77 3.88E-08 Ga 78 2.49E-08 Ga 79 1.81E-08 Ga 80 7.00E-09 Ga 81 3.40E-09 Ga 82 1.13E-09 Ga 83 5.82E-11 Ga 84 2.26E-10 Gd 151 6.50E-11 Gd 152 9.17E-04 Gd 153 6.86E-07 Gd 154 8.90E-03 Gd 155 8.13E-01 Gd 156 1.43E+00 Gd 157 6.94E-01 Gd 158 3.64E-01 Gd 159 9.20E-05 Gd 160 5.77E-02 Gd 161 4.20E-08 Gd 162 3.35E-08 Gd 163 2.27E-09 Gd 164 8.06E-10 Gd 165 9.16E-11 Gd 166 2.22E-11 Gd 167 6.22E-12 Ge 70 9.60E-08 Ge 71 3.07E-12 Ge 72 2.27E-03 Ge 73 6.38E-03 Ge 73m 2.88E-11 Ge 74 1.57E-02 Ge 75 2.07E-06 Ge 75m 8.14E-10 Ge 76 1.63E-01 Ge 77 1.31E-04 Ge 77m 2.12E-09 Ge 78 3.95E-05 Ge 79 1.94E-07 Ge 79m 1.68E-07 Ge 80 1.01E-06 Ge 81 2.95E-07 Ge 81m 8.82E-09 Ge 82 1.88E-07 Ge 83 2.66E-08 Ge 84 1.02E-08 Ge 85 8.71E-10 Ge 86 1.36E-08 Ge 87 7.53E-11 Ho 163 5.68E-10 Ho 165 1.13E-03 Ho 166 6.78E-07 Ho 166m 3.82E-07 Ho 167 4.98E-08 Ho 168 4.79E-10 Ho 169 4.60E-10 Ho 170 1.42E-10 Ho 170m 1.27E-12 Ho 171 2.61E-11 Ho 172 1.82E-11 I 125 7.20E-12 H-64

I 126 6.07E-08 I 127 9.85E+00 I 128 3.97E-07 I 129 3.39E+01 I 130 2.50E-05 I 130m 1.76E-07 I 131 1.01E+00 I 132 1.82E-02 I 132m 2.40E-05 I 133 2.47E-01 I 133m 2.03E-06 I 134 1.22E-02 I 134m 3.75E-05 I 135 7.54E-02 I 136 1.23E-04 I 136m 3.09E-05 I 137 3.97E-05 I 138 5.37E-06 I 139 1.02E-06 I 140 9.79E-08 I 141 1.30E-08 I 142 1.03E-09 I 143 1.15E-10 I 144 1.20E-12 In 113 1.58E-03 In 114 3.77E-12 In 114m 1.34E-07 In 115 1.11E+00 In 115m 1.61E-04 In 116 3.59E-10 In 116m 1.37E-07 In 117 1.58E-05 In 117m 5.31E-05 In 118 5.21E-08 In 118m 2.26E-10 In 119 6.60E-07 In 119m 6.82E-06 In 120 3.26E-08 In 120m 9.44E-09 In 121 1.49E-07 In 121m 1.09E-06 In 122 1.67E-08 In 122m 1.34E-08 In 123 3.88E-08 In 123m 3.00E-07 In 124 3.33E-08 In 124m 1.02E-08 In 125 1.60E-08 In 125m 7.57E-08 In 126 1.12E-08 In 126m 6.17E-09 In 127 2.39E-08 In 127m 2.69E-08 In 128 8.57E-09 In 128m 6.33E-09 In 129 9.13E-09 In 129m 1.70E-08 In 130 1.13E-08 In 130m 5.01E-09 In 131 1.95E-09 In 131m 1.45E-09 In 132 1.12E-09 In 133 7.15E-11 In 134 3.52E-12 Kr 80 6.21E-06 Kr 81 5.80E-08 Kr 82 7.94E-03 Kr 83 1.79E+01 Kr 83m 1.08E-03 Kr 84 3.40E+01 Kr 85 8.07E+00 H-65

Kr 85m 6.38E-03 Kr 86 6.62E+01 Kr 87 3.64E-03 Kr 88 1.13E-02 Kr 89 2.65E-04 Kr 90 4.85E-05 Kr 91 9.51E-06 Kr 92 1.08E-06 Kr 93 2.49E-07 Kr 94 1.09E-08 Kr 95 8.58E-10 Kr 96 9.22E-10 Kr 97 3.01E-12 Kr 98 2.13E-11 La 137 8.47E-07 La 138 1.44E-03 La 139 3.58E+02 La 140 4.63E-01 La 141 4.30E-02 La 142 1.64E-02 La 143 2.61E-03 La 144 1.16E-04 La 145 5.09E-05 La 146 6.08E-06 La 146m 3.92E-06 La 147 2.45E-06 La 148 3.33E-07 La 149 8.76E-08 La 150 1.54E-08 La 151 2.40E-09 La 152 1.58E-10 La 153 1.26E-11 Mo 100 2.57E+02 Mo 101 1.74E-03 Mo 102 1.16E-03 Mo 103 8.64E-05 Mo 104 5.03E-05 Mo 105 1.78E-05 Mo 106 2.12E-06 Mo 107 3.84E-07 Mo 108 4.10E-08 Mo 109 7.80E-09 Mo 110 1.36E-09 Mo 111 1.73E-10 Mo 112 3.19E-11 Mo 113 1.25E-12 Mo 93 1.50E-11 Mo 94 1.48E-04 Mo 95 2.26E+02 Mo 96 1.95E-01 Mo 97 2.37E+02 Mo 98 2.32E+02 Mo 99 5.32E-01 Nb 100 3.34E-06 Nb 100m 3.17E-07 Nb 101 1.37E-05 Nb 102 5.12E-06 Nb 102m 4.01E-07 Nb 103 1.38E-06 Nb 104 1.13E-06 Nb 104m 1.51E-07 Nb 105 4.97E-07 Nb 106 2.94E-08 Nb 107 2.21E-09 Nb 108 1.67E-10 Nb 109 6.23E-11 Nb 110 2.79E-12 Nb 91 8.77E-12 Nb 92 1.51E-09 Nb 93 2.43E-05 Nb 93m 2.40E-04 H-66

Nb 94 1.68E-05 Nb 94m 3.62E-11 Nb 95 6.77E+00 Nb 95m 7.55E-03 Nb 96 2.19E-05 Nb 97 9.28E-03 Nb 97m 1.20E-04 Nb 98 6.04E-06 Nb 98m 3.31E-05 Nb 99 2.06E-05 Nb 99m 1.31E-04 Nd 141 2.47E-12 Nd 142 9.10E-02 Nd 143 3.33E+02 Nd 144 2.44E+02 Nd 145 2.29E+02 Nd 146 1.80E+02 Nd 147 1.17E+00 Nd 148 1.03E+02 Nd 149 3.90E-03 Nd 150 4.40E+01 Nd 151 1.92E-04 Nd 152 1.14E-04 Nd 153 3.21E-06 Nd 154 1.17E-06 Nd 155 1.55E-07 Nd 156 3.27E-08 Nd 157 2.58E-09 Nd 158 3.30E-10 Nd 159 2.24E-11 Nd 160 1.43E-12 Ni 65 8.36E-12 Ni 66 5.17E-08 Ni 67 1.90E-11 Ni 68 4.29E-11 Ni 69 2.59E-11 Ni 70 2.08E-11 Ni 71 1.12E-11 Ni 72 9.40E-12 Ni 73 4.81E-12 Ni 74 2.03E-12 Pb 206 5.23E-11 Pb 207 9.93E-09 Pb 208 1.00E-07 Pb 210 1.85E-09 Pb 212 1.31E-10 Pd 102 3.25E-06 Pd 103 1.48E-09 Pd 104 2.47E-01 Pd 105 5.61E+01 Pd 106 1.99E+01 Pd 107 1.36E+01 Pd 107m 1.75E-10 Pd 108 5.80E+00 Pd 109 1.49E-03 Pd 109m 4.70E-10 Pd 110 2.30E+00 Pd 111 2.02E-05 Pd 111m 1.38E-07 Pd 112 9.08E-04 Pd 113 1.05E-06 Pd 114 1.37E-06 Pd 115 2.48E-07 Pd 116 9.68E-08 Pd 117 3.33E-08 Pd 118 9.97E-09 Pd 119 2.15E-09 Pd 120 9.74E-10 Pd 121 1.10E-10 Pd 122 1.90E-11 Pd 123 5.70E-12 H-67

Pm 145 9.84E-10 Pm 146 9.78E-05 Pm 147 7.46E+01 Pm 148 1.23E-03 Pm 148m 7.85E-03 Pm 149 1.18E-01 Pm 150 2.58E-07 Pm 151 2.63E-02 Pm 152 4.12E-05 Pm 152m 3.53E-07 Pm 153 3.35E-05 Pm 154 5.00E-06 Pm 154m 4.89E-07 Pm 155 1.05E-06 Pm 156 3.06E-07 Pm 157 4.88E-08 Pm 158 6.94E-09 Pm 159 5.76E-10 Pm 160 1.11E-10 Pm 161 1.04E-11 Po 210 2.35E-11 Pr 140 1.80E-10 Pr 141 3.24E+02 Pr 142 1.17E-04 Pr 142m 5.20E-07 Pr 143 3.61E+00 Pr 144 2.94E-03 Pr 144m 1.17E-05 Pr 145 4.52E-02 Pr 146 2.38E-03 Pr 147 9.94E-04 Pr 148 1.27E-04 Pr 148m 2.36E-06 Pr 149 8.45E-05 Pr 150 2.39E-06 Pr 151 4.12E-06 Pr 152 3.38E-07 Pr 153 1.65E-07 Pr 154 1.93E-08 Pr 155 1.85E-09 Pr 156 2.47E-10 Pr 157 2.56E-11 Ra 223 2.94E-10 Ra 224 1.14E-09 Ra 225 3.26E-12 Ra 226 2.14E-06 Rb 100 5.85E-10 Rb 83 1.10E-09 Rb 84 6.89E-08 Rb 85 3.56E+01 Rb 86 4.94E-04 Rb 86m 2.44E-09 Rb 87 8.71E+01 Rb 88 1.18E-03 Rb 89 1.34E-03 Rb 90 2.45E-04 Rb 90m 6.85E-05 Rb 91 1.05E-04 Rb 92 7.13E-06 Rb 93 7.31E-06 Rb 94 1.75E-06 Rb 95 1.18E-07 Rb 96 2.23E-08 Rb 97 2.82E-09 Rb 98 5.01E-10 Rb 99 3.49E-11 Rh 101 6.21E-10 Rh 102 5.77E-06 Rh 102m 7.03E-06 Rh 103 1.38E+02 Rh 103m 4.35E-03 H-68

Rh 104 1.98E-07 Rh 104m 9.55E-08 Rh 105 6.39E-02 Rh 105m 5.90E-06 Rh 106 7.43E-06 Rh 106m 1.58E-08 Rh 107 1.66E-04 Rh 108 9.22E-07 Rh 108m 1.69E-08 Rh 109 2.41E-06 Rh 110 3.05E-10 Rh 110m 6.14E-07 Rh 111 1.58E-07 Rh 112 2.50E-08 Rh 113 3.00E-08 Rh 114 1.32E-08 Rh 115 5.41E-09 Rh 116 1.81E-09 Rh 117 5.70E-10 Rh 118 1.51E-10 Rh 119 2.47E-11 Rh 120 4.43E-12 Rn 222 1.37E-11 Ru 100 4.60E-01 Ru 101 2.16E+02 Ru 102 1.88E+02 Ru 103 4.42E+00 Ru 104 9.45E+01 Ru 105 8.31E-03 Ru 106 7.94E+00 Ru 107 2.86E-05 Ru 108 1.50E-05 Ru 109 1.03E-06 Ru 110 2.49E-07 Ru 111 2.89E-08 Ru 112 1.75E-08 Ru 113 4.88E-09 Ru 114 1.36E-09 Ru 115 7.08E-10 Ru 116 5.48E-11 Ru 117 6.82E-12 Ru 118 1.26E-12 Ru 98 6.32E-09 Ru 99 1.03E-02 Sb 120 4.85E-12 Sb 120m 1.24E-09 Sb 121 1.14E+00 Sb 122 5.79E-06 Sb 122m 4.42E-10 Sb 123 1.46E+00 Sb 124 2.12E-04 Sb 124m 1.70E-09 Sb 125 1.42E+00 Sb 126 3.73E-04 Sb 126m 7.17E-07 Sb 127 2.95E-02 Sb 128 3.59E-04 Sb 128m 1.10E-04 Sb 129 4.88E-03 Sb 129m 5.78E-06 Sb 130 8.65E-04 Sb 130m 1.88E-04 Sb 131 1.81E-03 Sb 132 1.57E-04 Sb 132m 1.43E-04 Sb 133 1.63E-04 Sb 134 1.75E-07 Sb 134m 2.23E-06 Sb 135 2.07E-07 Sb 136 1.58E-08 Sb 137 1.32E-08 H-69

Sb 138 3.93E-11 Sb 139 2.10E-12 Se 74 1.74E-09 Se 75 2.52E-12 Se 76 5.15E-05 Se 77 3.57E-01 Se 77m 1.74E-10 Se 78 8.23E-01 Se 79 1.65E+00 Se 79m 3.47E-06 Se 80 4.19E+00 Se 81 6.59E-05 Se 81m 1.32E-05 Se 82 1.06E+01 Se 83 1.92E-04 Se 83m 8.07E-07 Se 84 5.87E-05 Se 85 1.04E-05 Se 86 6.05E-06 Se 87 1.37E-06 Se 88 1.93E-07 Se 89 1.19E-08 Se 90 1.25E-09 Se 91 2.27E-10 Se 92 7.43E-12 Sm 145 2.15E-11 Sm 146 8.15E-05 Sm 147 5.91E+01 Sm 148 4.31E-01 Sm 149 6.79E+01 Sm 150 5.60E-01 Sm 151 2.73E+01 Sm 152 1.84E+01 Sm 153 1.79E-02 Sm 154 5.59E+00 Sm 155 3.50E-05 Sm 156 4.47E-04 Sm 157 3.10E-06 Sm 158 1.04E-06 Sm 159 1.40E-08 Sm 160 4.04E-09 Sm 161 4.75E-10 Sm 162 4.61E-11 Sm 163 8.00E-12 Sm 164 1.15E-12 Sn 112 8.16E-11 Sn 114 2.03E-06 Sn 115 5.51E-02 Sn 116 3.73E-03 Sn 117 1.10E+00 Sn 117m 2.49E-05 Sn 118 1.14E+00 Sn 119 1.15E+00 Sn 119m 8.48E-03 Sn 120 1.18E+00 Sn 121 1.02E-03 Sn 121m 7.84E-02 Sn 122 1.38E+00 Sn 123 9.18E-03 Sn 123m 3.04E-05 Sn 124 2.10E+00 Sn 125 6.46E-03 Sn 125m 8.67E-06 Sn 126 3.68E+00 Sn 127 3.93E-04 Sn 127m 8.52E-06 Sn 128 6.14E-04 Sn 128m 5.36E-07 Sn 129 2.46E-05 Sn 129m 3.98E-05 Sn 130 7.01E-05 H-70

Sn 130m 3.20E-05 Sn 131 1.57E-05 Sn 131m 1.57E-05 Sn 132 1.28E-05 Sn 133 1.18E-07 Sn 134 1.73E-08 Sn 135 6.74E-10 Sn 136 1.93E-11 Sn 137 1.93E-12 Sr 100 4.74E-09 Sr 101 3.73E-10 Sr 102 2.00E-11 Sr 84 5.54E-08 Sr 85 2.61E-10 Sr 86 1.66E-02 Sr 87 4.80E-05 Sr 87m 1.33E-09 Sr 88 1.22E+02 Sr 89 6.47E+00 Sr 90 1.89E+02 Sr 91 6.59E-02 Sr 92 1.92E-02 Sr 93 9.33E-04 Sr 94 1.54E-04 Sr 95 4.40E-05 Sr 96 1.54E-06 Sr 97 3.04E-07 Sr 98 2.37E-07 Sr 99 2.33E-08 Tb 157 2.37E-09 Tb 158 1.71E-07 Tb 159 1.47E-01 Tb 160 6.01E-05 Tb 161 1.14E-04 Tb 162 3.05E-08 Tb 163 4.03E-08 Tb 164 3.47E-09 Tb 165 1.36E-09 Tb 166 1.67E-10 Tb 167 7.90E-11 Tb 168 1.80E-11 Tb 169 2.07E-12 Tb 170 1.03E-12 Tc 100 1.30E-07 Tc 101 1.69E-03 Tc 102 9.05E-06 Tc 102m 7.24E-07 Tc 103 7.07E-05 Tc 104 9.54E-04 Tc 105 2.37E-04 Tc 106 9.15E-06 Tc 107 2.66E-06 Tc 108 2.69E-07 Tc 109 2.29E-08 Tc 110 1.35E-08 Tc 111 1.67E-09 Tc 112 5.50E-10 Tc 113 9.02E-11 Tc 114 1.49E-11 Tc 115 1.46E-12 Tc 97 1.63E-09 Tc 97m 8.09E-11 Tc 98 9.76E-05 Tc 99 2.51E+02 Tc 99m 4.34E-02 Te 121 6.67E-12 Te 121m 2.68E-11 Te 122 1.32E-03 Te 123 1.18E-06 Te 123m 1.15E-07 Te 124 3.94E-03 H-71

Te 125 1.05E+00 Te 125m 1.82E-02 Te 126 9.67E-02 Te 127 3.07E-03 Te 127m 1.38E-01 Te 128 1.98E+01 Te 129 1.23E-03 Te 129m 1.49E-01 Te 130 9.69E+01 Te 131 1.97E-03 Te 131m 2.35E-02 Te 132 6.03E-01 Te 133 1.33E-03 Te 133m 5.71E-03 Te 134 8.60E-03 Te 135 3.29E-05 Te 136 1.36E-05 Te 137 6.16E-07 Te 138 8.79E-08 Te 139 3.25E-09 Te 140 2.30E-09 Te 141 6.17E-11 Te 142 1.13E-12 Tm 168 3.15E-11 Tm 169 1.75E-04 Tm 170 1.01E-07 Tm 171 2.51E-05 Tm 172 1.71E-07 Xe 126 1.37E-06 Xe 127 3.03E-10 Xe 128 1.33E-02 Xe 129 7.40E-06 Xe 129m 8.68E-09 Xe 130 3.83E-02 Xe 131 1.58E+02 Xe 131m 1.62E-02 Xe 132 2.42E+02 Xe 133 1.50E+00 Xe 133m 1.81E-02 Xe 134 4.26E+02 Xe 134m 4.29E-09 Xe 135 1.09E-01 Xe 135m 5.48E-04 Xe 136 3.52E+02 Xe 137 7.11E-04 Xe 138 2.68E-03 Xe 139 1.01E-04 Xe 140 2.56E-05 Xe 141 1.25E-06 Xe 142 3.66E-07 Xe 143 1.16E-08 Xe 144 1.01E-08 Xe 145 1.47E-10 Xe 146 2.08E-11 Y 100 2.58E-07 Y 101 6.81E-08 Y 102 3.70E-08 Y 103 1.39E-09 Y 104 1.43E-10 Y 105 1.19E-11 Y 87 2.22E-12 Y 88 4.46E-07 Y 89 1.56E+02 Y 89m 2.24E-09 Y 90 4.78E-02 Y 90m 4.43E-08 Y 91 9.58E+00 Y 91m 3.33E-03 Y 92 2.53E-02 Y 93 7.82E-02 Y 93m 6.01E-07 H-72

Y 94 2.44E-03 Y 95 1.36E-03 Y 96 8.13E-06 Y 96m 6.00E-06 Y 97 4.33E-06 Y 97m 7.66E-07 Y 98 4.44E-07 Y 98m 8.91E-07 Y 99 1.30E-06 Yb 170 4.48E-07 Yb 171 2.90E-05 Yb 172 8.11E-05 Zn 66 2.87E-05 Zn 67 9.92E-05 Zn 68 1.65E-04 Zn 69 8.31E-09 Zn 69m 1.28E-10 Zn 70 4.70E-04 Zn 71 1.13E-09 Zn 71m 4.33E-09 Zn 72 3.22E-06 Zn 73 1.36E-09 Zn 74 1.32E-08 Zn 75 3.53E-09 Zn 76 5.64E-09 Zn 77 2.62E-09 Zn 78 1.85E-09 Zn 79 5.78E-10 Zn 80 6.48E-11 Zn 81 4.54E-12 Zr 100 1.51E-05 Zr 101 2.94E-06 Zr 102 2.56E-06 Zr 103 3.79E-07 Zr 104 8.42E-08 Zr 105 2.49E-08 Zr 106 2.91E-11 Zr 107 2.81E-12 Zr 89 3.76E-10 Zr 90 1.15E+01 Zr 91 1.98E+02 Zr 92 2.18E+02 Zr 93 2.34E+02 Zr 94 2.39E+02 Zr 95 1.24E+01 Zr 96 2.46E+02 Zr 97 1.29E-01 Zr 98 6.39E-05 Zr 99 4.43E-06

/CORE HPR_EOC ACTIVITY FISSION

Isotope Activity(Ci)

Ac 224 1.36E-14 Ac 225 1.25E-07 Ac 226 1.56E-09 Ac 227 1.58E-05 Ac 228 2.02E-07 Ag 105 1.29E-15 Ag 106 1.74E-09 Ag 106m 2.66E-09 Ag 107m 2.34E-07 Ag 108 9.70E-04 Ag 108m 2.14E-06 Ag 109m 3.13E+03 Ag 110 1.20E+01 Ag 110m 4.81E-01 Ag 111 1.45E+03 Ag 111m 1.45E+03 Ag 112 1.21E+03 Ag 113 7.40E+02 H-73

Ag 113m 1.08E+03 Ag 114 9.62E+02 Ag 115 9.94E+02 Ag 115m 4.19E+01 Ag 116 9.63E+02 Ag 116m 3.90E+01 Ag 117 8.51E+02 Ag 117m 1.01E+02 Ag 118 7.49E+02 Ag 118m 2.76E+02 Ag 119 7.44E+02 Ag 120 3.98E+02 Ag 120m 1.57E+02 Ag 121 3.64E+02 Ag 122 9.39E+01 Ag 122m 8.38E+01 Ag 123 8.53E+01 Ag 124 4.55E+01 Ag 125 7.97E+00 Ag 126 1.56E+00 Ag 127 2.39E-01 Ag 128 3.26E-02 Ag 129 5.46E-03 Ag 130 2.08E-01 As 72 1.11E-09 As 73 8.59E-08 As 74 1.13E-05 As 76 1.29E-01 As 77 4.42E+02 As 78 1.09E+03 As 79 2.16E+03 As 80 5.38E+03 As 81 8.01E+03 As 82 1.03E+04 As 82m 1.52E+03 As 83 1.40E+04 As 84 1.02E+04 As 85 9.52E+03 As 86 1.98E+04 As 87 1.72E+03 As 88 4.13E+03 As 89 2.05E+01 As 90 5.42E-01 As 91 8.41E-02 As 92 6.60E-03 At 216 1.23E-15 At 217 1.25E-07 At 218 4.21E-10 Ba 131 2.00E-10 Ba 133 2.93E-06 Ba 135m 1.27E-02 Ba 136m 5.29E+01 Ba 137m 2.67E+04 Ba 139 2.65E+05 Ba 140 2.57E+05 Ba 141 2.43E+05 Ba 142 2.35E+05 Ba 143 2.24E+05 Ba 144 1.77E+05 Ba 145 8.89E+04 Ba 146 4.47E+04 Ba 147 1.27E+04 Ba 148 1.97E+03 Ba 149 2.41E+02 Ba 150 2.45E+01 Ba 151 3.89E+00 Ba 152 6.19E-02 Ba 153 2.96E-03 Bi 210 1.40E-07 Bi 211 1.50E-05 Bi 212 1.82E-04 H-74

Bi 213 1.25E-07 Bi 214 2.10E-06 Br 77 9.50E-09 Br 77m 7.78E-09 Br 78 1.24E-06 Br 79m 9.58E-05 Br 80 1.13E-02 Br 80m 6.61E-03 Br 82 1.67E+01 Br 82m 1.36E+01 Br 83 2.22E+04 Br 84 4.10E+04 Br 84m 6.75E+02 Br 85 5.25E+04 Br 86 7.33E+04 Br 87 8.37E+04 Br 88 7.46E+04 Br 89 5.13E+04 Br 90 2.80E+04 Br 91 1.12E+04 Br 92 1.91E+03 Br 93 7.11E+02 Br 94 3.88E+01 Br 95 6.51E-01 Br 96 2.08E-01 Br 97 2.99E-03 Cd 107 7.31E-11 Cd 109 1.61E-06 Cd 111m 2.31E-04 Cd 113 4.76E-13 Cd 113m 2.79E+00 Cd 115 9.68E+02 Cd 115m 5.75E+01 Cd 117 8.00E+02 Cd 117m 1.76E+02 Cd 118 9.97E+02 Cd 119 6.62E+02 Cd 119m 3.29E+02 Cd 120 9.85E+02 Cd 121 6.21E+02 Cd 121m 2.83E+02 Cd 122 9.68E+02 Cd 123 7.72E+02 Cd 124 7.21E+02 Cd 125 3.26E+02 Cd 126 3.18E+02 Cd 127 2.76E+02 Cd 128 1.19E+02 Cd 129 2.40E+00 Cd 130 2.72E+03 Cd 131 5.01E+02 Cd 132 7.39E-01 Ce 137 2.05E-08 Ce 139 1.43E-01 Ce 139m 4.63E-02 Ce 141 2.43E+05 Ce 143 2.43E+05 Ce 144 2.22E+05 Ce 145 1.63E+05 Ce 146 1.27E+05 Ce 147 8.38E+04 Ce 148 6.91E+04 Ce 149 3.66E+04 Ce 150 2.04E+04 Ce 151 6.13E+03 Ce 152 1.66E+03 Ce 153 3.08E+02 Ce 154 3.71E+01 Ce 155 3.60E+00 Ce 156 2.28E-01 Ce 157 9.16E-03 H-75

Co 65 1.60E-04 Co 66 4.21E-02 Co 67 1.30E-01 Co 68 1.51E-01 Co 69 1.41E-01 Co 70 9.50E-02 Co 71 5.18E-02 Co 72 2.00E-02 Co 73 8.27E-03 Co 74 1.23E-03 Co 75 1.75E-04 Cs 129 4.34E-12 Cs 131 1.43E-06 Cs 132 1.33E-01 Cs 134 3.35E+02 Cs 134m 6.10E+01 Cs 135 4.16E-01 Cs 135m 1.03E+01 Cs 136 4.76E+02 Cs 136m 1.42E+02 Cs 137 2.82E+04 Cs 138 2.77E+05 Cs 138m 8.00E+03 Cs 139 2.63E+05 Cs 140 2.40E+05 Cs 141 1.80E+05 Cs 142 1.19E+05 Cs 143 6.53E+04 Cs 144 2.33E+04 Cs 145 5.60E+03 Cs 146 8.23E+02 Cs 147 1.46E+02 Cs 148 1.06E+01 Cs 149 1.98E-01 Cs 150 1.98E-02 Cs 151 3.45E-03 Cu 66 4.51E-02 Cu 67 1.53E-01 Cu 68 2.50E-01 Cu 68m 3.65E-03 Cu 69 4.01E-01 Cu 70 6.35E-01 Cu 70m 1.08E-01 Cu 71 1.22E+00 Cu 72 2.46E+00 Cu 73 5.43E+00 Cu 74 5.92E+00 Cu 75 7.56E+00 Cu 76 6.89E+00 Cu 77 3.51E+00 Cu 78 9.64E-01 Cu 79 1.69E-01 Cu 80 1.71E-02 Dy 157 7.23E-13 Dy 159 4.93E-07 Dy 165 7.44E-01 Dy 165m 1.90E-03 Dy 166 4.73E-01 Dy 167 3.01E-01 Dy 168 1.78E-01 Dy 169 1.06E-01 Dy 170 5.49E-02 Dy 171 2.67E-02 Dy 172 3.24E-02 Er 163 2.56E-12 Er 165 8.21E-07 Er 167m 3.69E-02 Er 169 1.09E-01 Er 171 3.28E-02 Er 172 4.88E-02 Eu 149 1.22E-10 H-76

Eu 152 3.74E-01 Eu 152m 2.44E+00 Eu 154 1.74E+01 Eu 154m 1.66E+00 Eu 155 9.73E+02 Eu 156 9.64E+02 Eu 157 4.66E+02 Eu 158 2.40E+02 Eu 159 9.78E+01 Eu 160 3.76E+01 Eu 161 1.24E+01 Eu 162 3.60E+00 Eu 163 1.51E+00 Eu 164 5.79E-01 Eu 165 1.83E-01 Eu 166 4.85E-02 Eu 167 1.06E-02 Fe 65 1.60E-04 Fe 66 2.20E-02 Fe 67 4.34E-02 Fe 68 2.61E-02 Fe 69 9.25E-03 Fe 70 2.54E-03 Fe 71 4.49E-04 Fe 72 6.41E-05 Fr 220 1.23E-15 Fr 221 1.25E-07 Fr 222 9.36E-14 Fr 223 2.18E-07 Ga 67 4.66E-13 Ga 68 4.91E-08 Ga 70 2.70E-04 Ga 72 3.14E+00 Ga 72m 1.09E-01 Ga 73 9.05E+00 Ga 74 2.19E+01 Ga 74m 4.86E-01 Ga 75 6.25E+01 Ga 76 2.14E+02 Ga 77 4.31E+02 Ga 78 7.08E+02 Ga 79 9.10E+02 Ga 80 5.89E+02 Ga 81 3.90E+02 Ga 82 2.59E+02 Ga 83 2.57E+01 Ga 84 3.58E+02 Ga 85 4.34E-01 Ga 86 1.04E+00 Gd 151 4.54E-07 Gd 152 2.00E-14 Gd 153 2.44E-03 Gd 159 9.81E+01 Gd 161 1.34E+01 Gd 162 4.63E+00 Gd 163 2.32E+00 Gd 164 1.23E+00 Gd 165 6.08E-01 Gd 166 3.15E-01 Gd 167 1.40E-01 Gd 168 4.84E-02 Gd 169 1.09E-02 Ge 69 2.46E-12 Ge 71 4.95E-07 Ge 71m 1.28E-07 Ge 73m 8.92E+00 Ge 75 6.29E+01 Ge 75m 2.57E+00 Ge 77 4.74E+02 Ge 77m 5.87E+00 Ge 78 1.08E+03 H-77

Ge 79 1.46E+03 Ge 79m 6.15E+02 Ge 80 4.82E+03 Ge 81 5.42E+03 Ge 81m 1.62E+02 Ge 82 5.68E+03 Ge 83 1.96E+03 Ge 84 1.44E+03 Ge 85 2.16E+02 Ge 86 1.88E+04 Ge 87 6.98E+01 Ge 88 1.80E+00 Ge 89 1.77E-02 Hg 206 2.85E-15 Ho 161 1.71E-09 Ho 161m 1.43E-10 Ho 162 2.89E-08 Ho 162m 2.91E-08 Ho 163 2.73E-10 Ho 163m 8.18E-08 Ho 164 7.65E-06 Ho 164m 5.19E-06 Ho 166 4.78E-01 Ho 166m 6.87E-07 Ho 167 3.02E-01 Ho 168 1.79E-01 Ho 169 1.09E-01 Ho 170 5.68E-02 Ho 170m 1.96E-03 Ho 171 3.25E-02 Ho 172 4.78E-02 I 121 6.79E-15 I 123 3.51E-08 I 124 6.60E-14 I 125 1.27E-07 I 126 4.87E-03 I 128 2.34E+01 I 129 5.99E-03 I 130 4.87E+01 I 130m 2.89E+01 I 131 1.25E+05 I 132 1.88E+05 I 132m 4.11E+02 I 133 2.80E+05 I 133m 1.91E+04 I 134 3.26E+05 I 134m 1.50E+04 I 135 2.67E+05 I 136 1.23E+05 I 136m 5.47E+04 I 137 1.33E+05 I 138 7.05E+04 I 139 3.62E+04 I 140 9.18E+03 I 141 2.42E+03 I 142 3.68E+02 I 143 3.06E+01 I 144 4.83E-01 In 111 2.41E-13 In 111m 4.52E-14 In 112 5.06E-07 In 112m 4.12E-07 In 113m 3.82E-10 In 114 5.20E-03 In 114m 3.11E-03 In 115 7.81E-12 In 115m 9.80E+02 In 116 2.48E+00 In 116m 4.09E+00 In 117 5.88E+02 In 117m 7.35E+02 H-78

In 118 9.97E+02 In 118m 8.10E-02 In 119 4.35E+02 In 119m 5.99E+02 In 120 9.95E+02 In 120m 1.92E+01 In 121 6.02E+02 In 121m 4.37E+02 In 122 1.03E+03 In 122m 1.20E+02 In 123 5.77E+02 In 123m 5.81E+02 In 124 9.72E+02 In 124m 2.51E+02 In 125 6.12E+02 In 125m 5.61E+02 In 126 6.55E+02 In 126m 3.37E+02 In 127 1.95E+03 In 127m 6.52E+02 In 128 9.00E+02 In 128m 7.76E+02 In 129 1.31E+03 In 129m 1.21E+03 In 130 3.39E+03 In 130m 8.06E+02 In 131 6.01E+02 In 131m 3.56E+02 In 132 4.63E+02 In 133 3.68E+01 In 134 2.12E+00 In 135 7.50E-02 Kr 100 3.72E-02 Kr 79 4.97E-09 Kr 79m 2.49E-09 Kr 81 1.12E-09 Kr 81m 1.50E-05 Kr 83m 2.22E+04 Kr 85 3.16E+03 Kr 85m 5.26E+04 Kr 87 1.03E+05 Kr 88 1.41E+05 Kr 89 1.78E+05 Kr 90 1.88E+05 Kr 91 1.38E+05 Kr 92 7.23E+04 Kr 93 2.35E+04 Kr 94 6.16E+03 Kr 95 8.94E+02 Kr 96 1.36E+03 Kr 97 5.56E+00 Kr 98 5.33E+01 Kr 99 8.86E-02 La 133 1.36E-13 La 135 1.16E-07 La 137 3.68E-08 La 138 3.66E-11 La 140 2.57E+05 La 141 2.44E+05 La 142 2.38E+05 La 143 2.42E+05 La 144 2.24E+05 La 145 1.60E+05 La 146 7.50E+04 La 146m 3.03E+04 La 147 4.62E+04 La 148 2.01E+04 La 149 6.32E+03 La 150 1.35E+03 La 151 2.31E+02 La 152 2.61E+01 H-79

La 153 2.72E+00 La 154 1.16E-01 La 155 3.29E-03 Lu 172 2.68E-13 Lu 172m 1.35E-13 Mo 100 1.26E-13 Mo 101 2.21E+05 Mo 102 1.89E+05 Mo 103 1.40E+05 Mo 104 9.10E+04 Mo 105 5.36E+04 Mo 106 2.59E+04 Mo 107 1.16E+04 Mo 108 3.93E+03 Mo 109 1.52E+03 Mo 110 4.67E+02 Mo 111 8.81E+01 Mo 112 1.12E+01 Mo 113 1.25E+00 Mo 114 5.12E-02 Mo 115 4.13E-03 Mo 93 1.44E-11 Mo 93m 1.16E-09 Mo 99 2.56E+05 Nb 100 2.51E+05 Nb 100m 1.20E+04 Nb 101 2.15E+05 Nb 102 1.32E+05 Nb 102m 3.42E+04 Nb 103 1.01E+05 Nb 104 2.51E+04 Nb 104m 1.74E+04 Nb 105 1.81E+04 Nb 106 3.36E+03 Nb 107 7.75E+02 Nb 108 9.04E+01 Nb 109 3.39E+01 Nb 110 1.68E+00 Nb 111 1.21E+00 Nb 112 1.22E-02 Nb 113 2.17E-03 Nb 90 4.08E-13 Nb 91 5.07E-11 Nb 91m 8.44E-14 Nb 92 1.69E-13 Nb 92m 1.21E-07 Nb 93m 5.74E-02 Nb 94 3.15E-06 Nb 94m 1.16E-02 Nb 95 2.66E+05 Nb 95m 2.88E+03 Nb 96 3.07E+01 Nb 97 2.50E+05 Nb 97m 2.37E+05 Nb 98 2.43E+05 Nb 98m 1.24E+03 Nb 99 1.57E+05 Nb 99m 9.96E+04 Nd 140 1.87E-11 Nd 141 2.21E-05 Nd 141m 3.81E-06 Nd 144 2.65E-10 Nd 147 9.50E+04 Nd 149 4.75E+04 Nd 150 1.33E-14 Nd 151 1.92E+04 Nd 152 1.23E+04 Nd 153 7.49E+03 Nd 154 3.31E+03 Nd 155 1.27E+03 Nd 156 4.31E+02 H-80

Nd 157 9.74E+01 Nd 158 1.77E+01 Nd 159 2.05E+00 Nd 160 1.72E-01 Nd 161 8.16E-03 Ni 65 1.60E-04 Ni 66 4.50E-02 Ni 67 1.53E-01 Ni 68 2.46E-01 Ni 69 3.71E-01 Ni 70 5.58E-01 Ni 71 6.98E-01 Ni 72 9.39E-01 Ni 73 8.86E-01 Ni 74 4.56E-01 Ni 75 1.62E-01 Ni 76 5.80E-02 Ni 77 8.12E-03 Ni 78 1.08E-03 Pb 207m 4.83E-11 Pb 209 1.25E-07 Pb 210 1.42E-07 Pb 211 1.50E-05 Pb 212 1.82E-04 Pb 214 2.10E-06 Pd 101 3.53E-10 Pd 103 1.11E-04 Pd 107 6.97E-03 Pd 107m 8.69E-01 Pd 109 3.13E+03 Pd 109m 1.73E-01 Pd 111 1.46E+03 Pd 111m 7.10E-01 Pd 112 1.21E+03 Pd 113 1.13E+03 Pd 114 9.32E+02 Pd 115 9.74E+02 Pd 116 7.98E+02 Pd 117 7.47E+02 Pd 118 5.02E+02 Pd 119 2.21E+02 Pd 120 1.83E+02 Pd 121 3.59E+01 Pd 122 1.00E+01 Pd 123 2.14E+00 Pd 124 3.55E-01 Pm 143 1.01E-13 Pm 144 2.15E-10 Pm 145 1.37E-07 Pm 146 4.33E-02 Pm 147 6.92E+04 Pm 148 2.02E+02 Pm 148m 1.68E+02 Pm 149 4.70E+04 Pm 150 2.01E+00 Pm 151 1.92E+04 Pm 152 1.24E+04 Pm 152m 5.80E+01 Pm 153 7.84E+03 Pm 154 3.53E+03 Pm 154m 2.23E+02 Pm 155 1.85E+03 Pm 156 8.29E+02 Pm 157 3.32E+02 Pm 158 1.03E+02 Pm 159 2.78E+01 Pm 160 5.00E+00 Pm 161 6.82E-01 Pm 162 5.77E-02 Pm 163 6.19E-03 Po 210 1.06E-07 H-81

Po 211 4.15E-08 Po 212 1.17E-04 Po 213 1.22E-07 Po 214 2.61E-06 Po 215 1.50E-05 Po 216 1.82E-04 Po 218 2.10E-06 Pr 139 7.73E-10 Pr 140 7.15E-02 Pr 142 1.35E+02 Pr 142m 4.72E+01 Pr 143 2.43E+05 Pr 144 2.22E+05 Pr 144m 2.12E+03 Pr 145 1.63E+05 Pr 146 1.27E+05 Pr 147 9.49E+04 Pr 148 7.06E+04 Pr 148m 1.49E+03 Pr 149 4.72E+04 Pr 150 2.91E+04 Pr 151 1.63E+04 Pr 152 6.92E+03 Pr 153 2.84E+03 Pr 154 6.15E+02 Pr 155 1.58E+02 Pr 156 2.43E+01 Pr 157 3.08E+00 Pr 158 2.00E-01 Pr 159 9.48E-03 Ra 222 5.03E-07 Ra 223 1.50E-05 Ra 224 1.82E-04 Ra 225 1.27E-07 Ra 226 2.12E-06 Ra 227 1.81E-06 Ra 228 1.72E-11 Rb 100 1.30E+03 Rb 101 2.45E-01 Rb 102 2.28E-02 Rb 81 1.21E-09 Rb 83 2.02E-05 Rb 84 3.27E-03 Rb 86 4.03E+01 Rb 86m 5.25E+00 Rb 87 7.45E-06 Rb 88 1.43E+05 Rb 89 1.87E+05 Rb 90 1.94E+05 Rb 90m 3.33E+04 Rb 91 2.23E+05 Rb 92 1.95E+05 Rb 93 1.52E+05 Rb 94 7.78E+04 Rb 95 3.73E+04 Rb 96 1.29E+04 Rb 97 1.94E+03 Rb 98 5.06E+02 Rb 99 7.36E+01 Rh 101 6.67E-07 Rh 101m 2.90E-08 Rh 102 3.57E-02 Rh 102m 6.59E-03 Rh 103m 1.41E+05 Rh 104 5.08E+02 Rh 104m 3.98E+01 Rh 105 5.40E+04 Rh 105m 1.59E+04 Rh 106 2.63E+04 Rh 106m 2.14E-01 Rh 107 1.34E+04 H-82

Rh 108 5.74E+03 Rh 108m 4.90E+00 Rh 109 3.12E+03 Rh 110 9.78E+00 Rh 110m 2.21E+03 Rh 111 1.46E+03 Rh 112 1.20E+03 Rh 113 1.07E+03 Rh 114 7.07E+02 Rh 115 5.36E+02 Rh 116 2.59E+02 Rh 117 1.25E+02 Rh 118 5.42E+01 Rh 119 1.37E+01 Rh 120 3.07E+00 Rh 121 4.91E-01 Rh 122 6.15E-02 Rn 217 8.76E-12 Rn 218 5.03E-07 Rn 219 1.50E-05 Rn 220 1.82E-04 Rn 222 2.10E-06 Ru 103 1.43E+05 Ru 105 5.59E+04 Ru 106 2.63E+04 Ru 107 1.34E+04 Ru 108 5.73E+03 Ru 109 3.10E+03 Ru 110 2.20E+03 Ru 111 1.39E+03 Ru 112 1.01E+03 Ru 113 6.10E+02 Ru 114 2.59E+02 Ru 115 9.39E+01 Ru 116 2.61E+01 Ru 117 4.63E+00 Ru 118 9.83E-01 Ru 119 9.69E-02 Ru 120 9.33E-03 Ru 97 3.75E-12 Sb 117 5.21E-13 Sb 118 7.75E-10 Sb 118m 1.23E-09 Sb 119 4.56E-07 Sb 120 4.79E-04 Sb 120m 2.34E-04 Sb 122 2.28E+00 Sb 122m 1.63E-01 Sb 124 3.71E+00 Sb 124m 1.67E+00 Sb 125 1.48E+03 Sb 126 3.13E+01 Sb 126m 5.59E+01 Sb 127 7.90E+03 Sb 128 9.76E+02 Sb 128m 1.56E+04 Sb 129 2.69E+04 Sb 129m 4.77E+02 Sb 130 3.17E+04 Sb 130m 4.32E+04 Sb 131 1.13E+05 Sb 132 8.00E+04 Sb 132m 4.98E+04 Sb 133 9.23E+04 Sb 134 1.89E+04 Sb 134m 1.86E+04 Sb 135 1.03E+04 Sb 136 1.42E+03 Sb 137 2.41E+03 Sb 138 1.91E+01 Sb 139 1.34E+00 H-83

Se 73 1.01E-14 Se 73m 5.89E-15 Se 75 3.67E-08 Se 77m 1.47E+00 Se 79 2.54E-02 Se 79m 2.11E+03 Se 81 8.29E+03 Se 81m 5.35E+02 Se 83 1.95E+04 Se 83m 1.57E+03 Se 84 4.03E+04 Se 85 4.37E+04 Se 86 5.55E+04 Se 87 3.24E+04 Se 88 1.62E+04 Se 89 3.69E+03 Se 90 9.75E+02 Se 91 1.04E+02 Se 92 9.80E+00 Se 93 6.89E-01 Se 94 2.73E-02 Sm 145 5.71E-08 Sm 146 1.94E-09 Sm 147 1.36E-06 Sm 148 1.49E-13 Sm 151 7.20E+02 Sm 153 7.91E+03 Sm 155 1.90E+03 Sm 156 9.56E+02 Sm 157 4.62E+02 Sm 158 2.33E+02 Sm 159 8.75E+01 Sm 160 2.97E+01 Sm 161 6.93E+00 Sm 162 1.34E+00 Sm 163 3.17E-01 Sm 164 6.43E-02 Sm 165 8.18E-03 Sn 111 8.93E-15 Sn 113 3.35E-10 Sn 113m 3.14E-10 Sn 117m 2.05E+00 Sn 119m 3.18E+01 Sn 121 9.80E+02 Sn 121m 5.28E+00 Sn 123 7.55E+01 Sn 123m 1.16E+03 Sn 125 7.01E+02 Sn 125m 1.37E+03 Sn 126 4.55E-02 Sn 127 4.62E+03 Sn 127m 3.06E+03 Sn 128 1.53E+04 Sn 128m 7.28E+03 Sn 129 1.61E+04 Sn 129m 8.41E+03 Sn 130 2.73E+04 Sn 130m 2.73E+04 Sn 131 2.42E+04 Sn 131m 2.32E+04 Sn 132 2.76E+04 Sn 133 6.85E+03 Sn 134 1.39E+03 Sn 135 1.06E+02 Sn 136 6.40E+00 Sn 137 8.35E-01 Sr 100 2.65E+03 Sr 101 3.53E+02 Sr 102 3.21E+01 Sr 103 7.48E-01 Sr 104 8.90E-02 H-84

Sr 105 1.65E-02 Sr 83 1.92E-10 Sr 85 6.18E-06 Sr 85m 3.19E-06 Sr 87m 1.70E-02 Sr 89 1.88E+05 Sr 90 2.60E+04 Sr 91 2.36E+05 Sr 92 2.41E+05 Sr 93 2.54E+05 Sr 94 2.45E+05 Sr 95 2.19E+05 Sr 96 1.70E+05 Sr 97 8.24E+04 Sr 98 4.18E+04 Sr 99 9.85E+03 Tb 155 1.72E-09 Tb 156 9.53E-08 Tb 156m 8.89E-09 Tb 157 7.62E-08 Tb 158 2.14E-06 Tb 158m 5.71E-05 Tb 160 6.78E-01 Tb 161 1.34E+01 Tb 162 4.66E+00 Tb 163 2.38E+00 Tb 164 1.33E+00 Tb 165 7.34E-01 Tb 166 4.53E-01 Tb 167 2.75E-01 Tb 168 1.47E-01 Tb 169 6.89E-02 Tb 170 2.29E-02 Tb 171 6.19E-03 Tc 100 9.51E+02 Tc 101 2.22E+05 Tc 102 1.90E+05 Tc 102m 3.07E+02 Tc 103 1.43E+05 Tc 104 9.43E+04 Tc 105 5.58E+04 Tc 106 2.74E+04 Tc 107 1.32E+04 Tc 108 5.44E+03 Tc 109 2.76E+03 Tc 110 1.50E+03 Tc 111 5.84E+02 Tc 112 1.98E+02 Tc 113 5.63E+01 Tc 114 9.83E+00 Tc 115 1.97E+00 Tc 116 1.98E-01 Tc 117 8.29E-03 Tc 118 1.99E-03 Tc 95 6.90E-13 Tc 96 7.26E-13 Tc 97 1.43E-12 Tc 97m 1.20E-06 Tc 98 8.49E-08 Tc 99 4.30E+00 Tc 99m 2.29E+05 Te 119 5.58E-14 Te 121 3.76E-07 Te 121m 1.76E-07 Te 123m 1.03E-03 Te 125m 3.32E+02 Te 127 8.10E+03 Te 127m 1.31E+03 Te 128 6.28E-15 Te 129 2.57E+04 Te 129m 4.48E+03 H-85

Te 131 1.13E+05 Te 131m 1.69E+04 Te 132 1.86E+05 Te 133 1.51E+05 Te 133m 1.46E+05 Te 134 2.89E+05 Te 135 1.45E+05 Te 136 6.43E+04 Te 137 2.04E+04 Te 138 5.14E+03 Te 139 7.61E+02 Te 140 6.09E+02 Te 141 2.32E+01 Te 142 4.49E-01 Tl 206 1.89E-13 Tl 207 1.50E-05 Tl 208 6.54E-05 Tl 209 2.75E-09 Tl 210 4.42E-10 Tm 166 8.23E-13 Tm 167 5.29E-10 Tm 168 2.63E-07 Tm 170 6.06E-04 Tm 171 2.73E-02 Tm 172 4.89E-02 Xe 125 4.39E-10 Xe 125m 1.11E-10 Xe 127 8.57E-06 Xe 127m 1.42E-06 Xe 129m 9.90E-04 Xe 131m 1.36E+03 Xe 133 2.81E+05 Xe 133m 8.10E+03 Xe 134m 1.25E+03 Xe 135 2.76E+05 Xe 135m 5.00E+04 Xe 137 2.56E+05 Xe 138 2.59E+05 Xe 139 2.07E+05 Xe 140 1.52E+05 Xe 141 5.79E+04 Xe 142 2.37E+04 Xe 143 3.05E+03 Xe 144 6.87E+02 Xe 145 6.07E+01 Xe 146 4.36E+00 Xe 147 1.44E-01 Y 100 3.97E+04 Y 101 1.69E+04 Y 102 1.14E+04 Y 103 6.63E+02 Y 104 8.65E+01 Y 105 1.45E+01 Y 106 2.27E-02 Y 107 5.13E-03 Y 108 2.05E-05 Y 87 1.00E-06 Y 87m 1.08E-10 Y 88 6.21E-03 Y 89m 1.81E+01 Y 90 2.60E+04 Y 90m 4.84E-01 Y 91 2.35E+05 Y 91m 1.39E+05 Y 92 2.44E+05 Y 93 2.59E+05 Y 93m 8.90E+04 Y 94 2.62E+05 Y 95 2.62E+05 Y 96 1.79E+05 Y 96m 7.35E+04 H-86

Y 97 1.34E+05 Y 97m 7.62E+04 Y 98 9.33E+04 Y 98m 5.13E+04 Y 99 1.01E+05 Yb 169 4.24E-10 Yb 169m 4.60E-11 Zn 69 4.02E-01 Zn 69m 4.24E-04 Zn 71 1.23E+00 Zn 71m 4.83E-02 Zn 72 3.01E+00 Zn 73 8.95E+00 Zn 74 2.10E+01 Zn 75 5.21E+01 Zn 76 1.47E+02 Zn 77 1.85E+02 Zn 78 1.82E+02 Zn 79 8.31E+01 Zn 80 1.69E+01 Zn 81 1.98E+00 Zn 82 7.69E-01 Zn 83 4.31E-02 Zr 100 2.40E+05 Zr 101 1.43E+05 Zr 102 9.78E+04 Zr 103 3.20E+04 Zr 104 7.62E+03 Zr 105 4.46E+03 Zr 106 1.15E+01 Zr 107 1.97E+00 Zr 108 1.05E-01 Zr 109 2.95E-02 Zr 110 1.06E-03 Zr 88 9.43E-10 Zr 89 1.69E-04 Zr 89m 5.60E-06 Zr 90m 9.87E-02 Zr 93 5.87E-01 Zr 95 2.66E+05 Zr 96 4.58E-14 Zr 97 2.49E+05 Zr 98 2.40E+05 Zr 99 2.40E+05 H-87

ML23045A044

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