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{{#Wiki_filter:©2018 Nuclear Energy InstituteNEI Roadmap on Regulatory AcceptanceAdvanced ManufacturingMethodsMarch 13, 2019  
{{#Wiki_filter:Advanced Manufacturing Methods NEI Roadmap on Regulatory Acceptance March 13, 2019
©2018 Nuclear Energy Institute 2Challenge: Advanced manufacturing methods rapidly maturing for use by nuclear industry; however, a timely and clear pathway to regulatory acceptance remains an obstacle for many methodsObjectives:
©2018 Nuclear Energy Institute
1.Identify the methods of most interest to industry  
 
-biggest benefits and nearest
Goal of NEIs Roadmap Challenge: Advanced manufacturing methods rapidly maturing for use by nuclear industry; however, a timely and clear pathway to regulatory acceptance remains an obstacle for many methods Objectives:
-term use 2.Provide insight to organizations' assignment of resources toward furthering the commercialization of methods 3.Establish clarity on an expedited pathway to regulatory acceptance Goal of NEI's Roadmap
: 1. Identify the methods of most interest to industry - biggest benefits and nearest-term use
©2018 Nuclear Energy Institute 3Additive Manufacturing  
: 2. Provide insight to organizations assignment of resources toward furthering the commercialization of methods
-MetalsBinder JettingDirect Energy Deposition Direct Metal Laser Melting Electron Beam Direct Energy Deposition WireElectron Beam Melting GTAW Direct Energy Deposition WireInvestment CastingLaser Direct Energy Deposition WireLaser Engineered Net Shaping Laser Powder BedLaser Powder Bed  
: 3. Establish clarity on an expedited pathway to regulatory acceptance
-Fusion Laser Wire Directed Deposition Powder Metallurgy Hot Isostatic Pressing Wire Plus Arc AM List of MethodsAdditive Manufacturing
                                                          ©2018 Nuclear Energy Institute 2
-Non-MetalsAdditive Layer ManufacturingBlown Powder LaserElectron Beam Freeform FabricationElectron Beam Powder Bed Electron beam
 
-enabled Advanced Manufacturing Laser Deposition Technology Laser Direct Energy Deposition Powder Laser Freeform Manufacturing Technology Material ExtrusionMaterial JettingPlasma Arc Directed DepositionPowder Bed FusionRapid Plasma Deposition Robocasting or Direct Ink WritingSelective Laser Melting Sheet LaminationUltrasonic Additive Manufacturing
List of Methods Additive Manufacturing - Metals              Additive Manufacturing - Non-Metals Binder Jetting                              Additive Layer Manufacturing Direct Energy Deposition                     Blown Powder Laser Direct Metal Laser Melting                   Electron Beam Freeform Fabrication Electron Beam Direct Energy Deposition Wire  Electron Beam Powder Bed Electron Beam Melting                       Electron beam-enabled Advanced Manufacturing GTAW Direct Energy Deposition Wire          Laser Deposition Technology Investment Casting                          Laser Direct Energy Deposition Powder Laser Direct Energy Deposition Wire          Laser Freeform Manufacturing Technology Laser Engineered Net Shaping                 Material Extrusion Laser Powder Bed                            Material Jetting Laser Powder Bed - Fusion                   Plasma Arc Directed Deposition Laser Wire Directed Deposition               Powder Bed Fusion Powder Metallurgy Hot Isostatic Pressing     Rapid Plasma Deposition Wire Plus Arc AM                             Robocasting or Direct Ink Writing Selective Laser Melting Sheet Lamination Ultrasonic Additive Manufacturing
©2018 Nuclear Energy Institute 4JoiningAdaptive Feedback WeldingElectron Beam Welding Friction Stir Welding Hybrid Laser Arc WeldingHybrid Laser-GMAWMachiningAdvanced MachiningCryogenic MachiningUltrasonic MachiningMetallurgical ModificationEqual channel angular pressing High-pressure torsion List of Methods (continued)Surface Modification/CladdingCold Spray Additive ManufacturingDiode Laser CladdingFriction Stir Additive Manufacturing Hollow Cathode Plasma NitridingLaser Cladding Technology Laser PeeningLaser Surface NitridingNanocoatingsSupporting TechnologiesAdvanced NDE MethodsImproving weld quality through use of integrated optical sensorsReal-time Flaw DetectionMetrology Methods
                                                                        ©2018 Nuclear Energy Institute 3
©2018 Nuclear Energy Institute 5Results sortable by organization type (e.g., developer, manufacturer)Understand interest
 
*Desired benefits (e.g., reduce cost, improved quality)
List of Methods (continued)
*Applications (e.g., radiation environment, non
Joining                          Surface Modification/Cladding Adaptive Feedback Welding      Cold Spray Additive Manufacturing Electron Beam Welding          Diode Laser Cladding Friction Stir Welding          Friction Stir Additive Manufacturing Hybrid Laser Arc Welding        Hollow Cathode Plasma Nitriding Hybrid Laser-GMAW              Laser Cladding Technology Machining                        Laser Peening Advanced Machining              Laser Surface Nitriding Cryogenic Machining            Nanocoatings Ultrasonic Machining          Supporting Technologies Metallurgical Modification        Advanced NDE Methods Equal channel angular pressing  Improving weld quality through use of integrated High-pressure torsion            optical sensors Real-time Flaw Detection Metrology Methods
-water coolant)
                                                            ©2018 Nuclear Energy Institute 4
*Types of components (e.g., vessels, pumps, fuel assembly)
 
*Concerns (e.g., lack of qualification data, standards development)Identify for all methods
Survey Results sortable by organization type (e.g., developer, manufacturer)
*Importance based on potential benefits and scope of applicability
Understand interest
*Urgency based on desired timeframe for using methodSurvey
* Desired benefits (e.g., reduce cost, improved quality)
©2018 Nuclear Energy Institute 6Current: NRC rulemaking to accept ASME codeChallenge: Can take ASME years to incorporate into code, and then the NRC another few years to accept ASME codeProposed expedited pathways to accelerate NRC acceptance
* Applications (e.g., radiation environment, non-water coolant)
*Application (e.g., topical report, license amendment) includes method qualification and component qualification data
* Types of components (e.g., vessels, pumps, fuel assembly)
*Two ways to provide method qualification data 1.NRC adoption of ASME code case (e.g., interim staff guidance) 2.Provided by applicant
* Concerns (e.g., lack of qualification data, standards development)
*Expected content of application (e.g., functions, environment, properties, performance, quality/repeatability , )Regulatory Acceptance Pathways
Identify for all methods
©2018 Nuclear Energy Institute 7March -NEI issues RoadmapNext Steps}}
* Importance based on potential benefits and scope of applicability
* Urgency based on desired timeframe for using method
                                                                ©2018 Nuclear Energy Institute 5
 
Regulatory Acceptance Pathways Current: NRC rulemaking to accept ASME code Challenge: Can take ASME years to incorporate into code, and then the NRC another few years to accept ASME code Proposed expedited pathways to accelerate NRC acceptance
* Application (e.g., topical report, license amendment) includes method qualification and component qualification data
* Two ways to provide method qualification data
: 1. NRC adoption of ASME code case (e.g., interim staff guidance)
: 2. Provided by applicant
* Expected content of application (e.g., functions, environment, properties, performance, quality/repeatability, )
                                                                ©2018 Nuclear Energy Institute 6
 
Next Steps March - NEI issues Roadmap
                            ©2018 Nuclear Energy Institute 7}}

Latest revision as of 21:51, 19 October 2019

Advanced Manufacturing Methods, NEI Roadmap on Regulatory Acceptance
ML19098A195
Person / Time
Site: Nuclear Energy Institute
Issue date: 03/13/2019
From:
Nuclear Energy Institute
To: Christopher Hovanec
NRC/NRR/DMLR/MVIB
Christopher Hovanec, DMLR/MVIB, 415-1378
Shared Package
ML19098A180 List:
References
Download: ML19098A195 (7)
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Text

Advanced Manufacturing Methods NEI Roadmap on Regulatory Acceptance March 13, 2019

©2018 Nuclear Energy Institute

Goal of NEIs Roadmap Challenge: Advanced manufacturing methods rapidly maturing for use by nuclear industry; however, a timely and clear pathway to regulatory acceptance remains an obstacle for many methods Objectives:

1. Identify the methods of most interest to industry - biggest benefits and nearest-term use
2. Provide insight to organizations assignment of resources toward furthering the commercialization of methods
3. Establish clarity on an expedited pathway to regulatory acceptance

©2018 Nuclear Energy Institute 2

List of Methods Additive Manufacturing - Metals Additive Manufacturing - Non-Metals Binder Jetting Additive Layer Manufacturing Direct Energy Deposition Blown Powder Laser Direct Metal Laser Melting Electron Beam Freeform Fabrication Electron Beam Direct Energy Deposition Wire Electron Beam Powder Bed Electron Beam Melting Electron beam-enabled Advanced Manufacturing GTAW Direct Energy Deposition Wire Laser Deposition Technology Investment Casting Laser Direct Energy Deposition Powder Laser Direct Energy Deposition Wire Laser Freeform Manufacturing Technology Laser Engineered Net Shaping Material Extrusion Laser Powder Bed Material Jetting Laser Powder Bed - Fusion Plasma Arc Directed Deposition Laser Wire Directed Deposition Powder Bed Fusion Powder Metallurgy Hot Isostatic Pressing Rapid Plasma Deposition Wire Plus Arc AM Robocasting or Direct Ink Writing Selective Laser Melting Sheet Lamination Ultrasonic Additive Manufacturing

©2018 Nuclear Energy Institute 3

List of Methods (continued)

Joining Surface Modification/Cladding Adaptive Feedback Welding Cold Spray Additive Manufacturing Electron Beam Welding Diode Laser Cladding Friction Stir Welding Friction Stir Additive Manufacturing Hybrid Laser Arc Welding Hollow Cathode Plasma Nitriding Hybrid Laser-GMAW Laser Cladding Technology Machining Laser Peening Advanced Machining Laser Surface Nitriding Cryogenic Machining Nanocoatings Ultrasonic Machining Supporting Technologies Metallurgical Modification Advanced NDE Methods Equal channel angular pressing Improving weld quality through use of integrated High-pressure torsion optical sensors Real-time Flaw Detection Metrology Methods

©2018 Nuclear Energy Institute 4

Survey Results sortable by organization type (e.g., developer, manufacturer)

Understand interest

  • Desired benefits (e.g., reduce cost, improved quality)
  • Applications (e.g., radiation environment, non-water coolant)
  • Types of components (e.g., vessels, pumps, fuel assembly)
  • Concerns (e.g., lack of qualification data, standards development)

Identify for all methods

  • Importance based on potential benefits and scope of applicability
  • Urgency based on desired timeframe for using method

©2018 Nuclear Energy Institute 5

Regulatory Acceptance Pathways Current: NRC rulemaking to accept ASME code Challenge: Can take ASME years to incorporate into code, and then the NRC another few years to accept ASME code Proposed expedited pathways to accelerate NRC acceptance

  • Application (e.g., topical report, license amendment) includes method qualification and component qualification data
  • Two ways to provide method qualification data
1. NRC adoption of ASME code case (e.g., interim staff guidance)
2. Provided by applicant
  • Expected content of application (e.g., functions, environment, properties, performance, quality/repeatability, )

©2018 Nuclear Energy Institute 6

Next Steps March - NEI issues Roadmap

©2018 Nuclear Energy Institute 7

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