ML17275A459
| ML17275A459 | |
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| Site: | Columbia  |
| Issue date: | 02/29/1980 |
| From: | WOODWARD-CLYDE CONSULTANTS, INC. |
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Text
RECENT SEISMICITY OF THE HANFORD REGION February 1980 Report prepared for Washington Public Power Supply System 3000 George Washington Way Richland, Washington 99352 Under the direction of United Engineers 5 Constructors, Inc.
30 South 17th Street Post Office Box 8223 Philadelphia, Pennsylvania 19101 Contract No. 52028, C.O. 11 Task No. WCC2 app 7250 I~
WOODWARD-CLYDECONSULTANTS Three Embarcadero Center, Suite 700 San Francisco, California 94111 Telephone: (415) 956.7070
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Woodvmrd Clyde Consultants TABLE OF CONTENTS Page LIST OF TABLES LIST OF FIGURES
$.0 INTRODUCTION 2o0
SUMMARY
3 '
REGIONAL SEISMICITY 3.1 Regional Studies 3.2 Crustal Velocity Models 3.3 Linear Gradient Velocity Model 4 ~ 0 EVALUATION OF FOCAL DEPTH CROSS-SECTIONS 4.1 Composite Cross-Section
- 5. 0 FOCAL MECHANISM STUDY 5.1 Discussion of Results 5.1.1 Area A 5.1.2 Area B
- 5. l. 3 Area C
- 5. l. 4 Area 1
5.1.5 Walla Walla, Washington-Milton-Freewater, Oregon Area 6 '
CONCLUSIONS
7.0 REFERENCES
TABLES FIGURES 10 12 10 13 13 16 18 18 19 22 22 23 25 APPENDIX A:
APPENDIX B:
APPENDIX C APPENDIX D:
Seismicity of Washington, November 1961 August 1965 Microearthquakes Located in the Hanford Region 24 March 1969 through 28 September 1979 Microearthquakes Located in the Hanford Region with Focal Depths of 9 Kilometers and Greater Explanation for Appendix B and C Microearthquake Catalog Headings
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Woodyard Clyde Consultants LIST OF TABLES Table 1
Table 2
Crustal Velocity Models Location Coordinates for Microearthquakes Used in Group G-2 Shallow Swarm Composite Focal Mechanism LIST OF FIGURES Figure 1
Map of the Southern Columbia Plateau Showing Groups of Deeper Microearthquakes and Maximum Horizontal Compressive Stress Axes Figure 2
Figure 3
Figure 4
Figure 5
Figure 6
Figure 7
Figure 8
Figure 9
Figure 10 Figure 11 Figure 12 Map of the Southern Columbia Plateau Showing Seismographic Stations and Epicenters with Focal Depths 9 Kilometers and Greater Included in Study Map of the Southern Columbia Plateau Showing Shallow Earthquakes with Focal Depths Less than 9 km 24 March 1969 thru 31 October 1972 r
Map of the Southern Columbia Plateau Showing Shallow Earthquakes with Focal Depths Less'han 9 km 1 November 1972 thru 28 September 1979 Shallow Microearthquake Swarm of 2 August 1979 Map of the Southern Columbia Plateau Showing Deeper Microearthquakes and Focal Depth Cross-section Lines North-South Cross-section A-A'est-East Cross-section B-B'est-East Cross-section C-C'est-East Cross-section D-D'orthwest-Southeast Cross-section E-E'est-East Composite Cross-section (B-B'-C'-D')
Figure 13 Figure 14 Figure 15 Figure 16 Composite Focal Mechanism Composite Focal Mechanism for Area A
for Group G-1 Composite Focal Mechanism for Group G-2 Composite Focal Mechanism for 2 August 1979 Shallow Swarm Group G-2 3.1.
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%oodward Clyde Consultants Figure 17 Figure 18 Figure 19 Figure 20 Figure 21 Figure 22 First Motion Data for event 72227 (1737 GMT) of Group G-2 Composite Focal Mechanism for Group G-3 Composite Focal Mechanism for Area C
Composite Focal Mechanism for Area 1
k Fault Plane Solution for the 8 April 1979 Earthquake Fault Plane Solution for the 16 July 1936 Earthquake
%oodward Clyde Consultants RECENT SEISMICITY OF THE HANFORD REGION 1 ~ 0 INTRODUCTION I/
Microearthquakes that have occurred in the Hanford region as well as in the nearby geographical areas of Walla Walla, Washington, and Milton-Freewater,
- Oregon, the northwest Columbia
- Plateau, and adjacent North Cascade Mountains of Washington, have been previously reported and analyzed for the Washington Public Supply System (WPPSS, 1978) by Woodward-Clyde Consultants (WCC).
Since that earlier report, several reports on the seismicity of the Central Washington region have become available.
New information from these reports have provided the basis for the investigations in this study.
Of primary interest to this study has been the recent report by Malone (1979a) on the operation of and seismicity studies associated with earthquake monitoring of the Hanford Region of eastern Washington.
To obtain a uniform set of location data for the
- region, Malone has refined the crustal models for different portions of the Columbia Plateau and re-evaluated the magnitudes and hypocentral locations for all of the earthquake activity from 1969 through 1978.
The previous focal mechanism study (WPPSS, 1978) for the Hanford region has been re-evaluated based upon
- the revised hypocentral locations by the University of.Washington and the
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Woodyard Clyde Consultants inclusion of microearthguakes which have occurred since that study.
First motion data for the Hanford region were provided by Dr.
Stephen Malone of the University of Washington.
In
- addition, the focal depth distribution was examined for various areas of interest in the Hanford region in order to provide a
framework for understanding the stress regime and crustal structure in the Hanford area.
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- 2. 0
SUMMARY
Several seismicity studies on the Columbia Plateau have become available since an earlier report (WPPSS, 1978) by WCC.
One study.
by Racine (1979) has given locations for 17 earthquakes
,occurring in Washington for the period November 1961 through August 1965.
Five events less than magnitude 3-1/2 are located within the Columbia River Plateau region.
Dr. Stephen D.
Malone and associates of the Department of Geophysics at the University of Washington continue the collection and analysis of data from Earthquake Monitoring of the Hanford region of eastern Washington.
Results are now available from surface wave velocity attenuation studies of the north Cascades and noitheastern Washington, Wood-Anderson and coda-length magnitude comparisons, state-wide attenuation studies using historical earthquakes, and a
detailed study (Rothe, 1978) on'he 1975 Wooded Island microearthquake swarm.
From the University of Washington
- work, a catalog has been m
produced that has more uniform magnitudes based on coda length and earthquake locations from a
refined crustal model for portions of the Columbia Plateau for the time period 24 March 1969 through 28 September 1979.
There were no noticeable differences in magnitude for events calculated by the United States Geological Society (USGS) and by the
. University of Washington;
- however, the USGS-determined focal depths usually were shallower.
In general, the depth distribution of deeper r
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J'foodward Clyde Consultants activity (all less than 24 km) has been confined to a limited region in the central part of a
crescent-shaped pattern of epicenters where depth control is expected to be good.
This 30-km wide distribution of epicenters extends north from
- Paterson, Washington, to an area southwest of
- Corfu, Washington.
This observation is based on a limited number of
- events, however, and may change over a
longer recording period.
The review of focal mechanisms-for earthquakes having foci of 9
km and deeper indicates a
general north-south maximum horizontal compressive stress exhibited by groups of earthquakes within the crescent-shaped distribution of epicenters.
The mode of faulting within this pattern and to the-west was predominantly reverse.
Similarly, the adjacent 4
area to the west of Othello displayed a north-south horizontal axis of compression that causes reverse faulting on generally east-west dipping fault planes.
To the west and to the east of the crescent-shaped distribution, the stress pattern changes to a compressive stress that is directed more to 'the west-northwest and plunges between 45 and 60 degrees from the horizontal.
Results from another study by WCC (WPPSS, 1980a) indicate that farther to 'he southeast, near College
- Place, Oregon, the focal mechanism for the 8 April 1979 earthquake l~
indicated an almost due east-west horizontal axis of compression; the focal mechanism for the nearby 16 July 1936 earthquake was not as well defined and indicated a compressive stress directed northeast-southwest.
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It is possible that these apparent changes in stress axes throughout the region are reflecting different structural trends responding differently to a
more uniform stress field.
That is, pre-existing structures may be oriented differently in the different areas, and consequently behave differently in the modern stress field.
Woodyard Clyde Consultants
- 3. 0 REGIONAL SEISMICITY Since
- 1969, the USGS has operated a microearthquake recording network in the Hanford area and the surrounding region.
Data were collected and analyzed by the USGS for the period 24 March 1969 through December 1974.
The University of Washington took over the network operation from the USGS and continued the collection and analysis of data from June 1975 through the present (Malone, 1979a).
Data for the time period between January 1975 and June 1975 were later analyzed by the University of Washington and are included in the catalog in Appendix B.
An explanation of the catalog headings is provided, in Appendix D.
The research in the region by the USGS,, and later by the University of Washington, led to a
refinement of the original crustal model (see Table 1) used for hypocentral locations.
Use of the new crustal models resulted in different locations than were obtained from the original crustal model.
Consequently, in order to have a
systematic set of location data for the region, the University of Washington relocated all of the previously located earthquakes with the new crustal mode'ls (Malone, 1979a).
These locations have been incorporated in Appendix B.
At 'the same time that the locations were
- revised, the University of Washington also reviewed and revised the older magnitude assignments.
The earlier magnitudes had been based on amplitudes measured on the develocorder recorders;
- however,
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Noodvmrd Clyde Consult~vis because these measurements were 'often unsatisfactory, a
coda length method had been adopted for the area by both the USGS
- and, the University of Washington.
listed in Appendix B
are based Washington's coda length-magnitude The revised magnitudes on the University of
- relation, which has now been applied uniformly to all of the earlier data.
The present study by Woodward-Clyde Consultants was requested by the Washington Public Power Supply System to review the effect of these relocations on an earlier focal mechanism study in the Hanford region (WPPSS, 1978).
At the same
- time, new data that have become available since 1978 have been incorporated into this study.
These data i'nclude 17 previously unreported events in Washington for the period November 1961 through August 1965 (Racine, 1979) and, are listed in Appendix A.
Five of the events have magnitudes less than 3.5 and are located within the Columbia Plateau region.
Focal mechanisms have been obtained within the geographical groupings of epicenters shown in Figure 1 and labeled Areas A, B,
C, and 1.
For comparative
- purposes, the areas from which focal mechanisms were obtained in the previous study (WPPSS, 1978) are shown in Figure 2.
These were labeled Areas 1,
2 and 3.
The label Area 1
has been retained in the present study, but Areas 2 and 3 have been included into a larger zone labeled Area B.
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Woodyard.Clyde Consultants Figures 1
and 2
both contain the revised and updated distribution of epicenters for regional microearthquakes located 9
km and deeper.
These J
events occurred through September 28, 1979.
Figures 3 and 4 are plots of the shallow (less than 9
km) microearthquakes of the Columbia Plateau for the periods 24 March 1969 through October 1972, and 1 November 1972 through 28 September 1979, respectively.
3.1 Regional Studies Several compilation reports on the seismicity of the Hanford region or the Columbia River Plateau=
Basalts have recently become available from Rockwell Hanford Operations (RHO, 1979a, b).
These reports are mainly summaries and have not provided new seismicity data for interpretation beyond that available at the time of the earlier report (WPPSS, 1978).
The most significant current work to,obtain new seismicity data and interpretations of regional seismicity is being done by Dr.
Stephen D. Malone and his associates at the Department of Geophysics of the University of Washington.
Results of studies on the Wooded Island microearthquake swarm (Rothe, 1978),
Wood-Anderson and coda-length magnitude
- study, and a
state-wide attenuation
- study, were discussed in the 1978 Annual Technical Report on Earthquake Monitoring of the Hanford Region, Eastern Washington (Malone, 1978).
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Vfoodward Clyde Consultants Rothe's work (1978), on the 1975 Wooded Island microearthquake swarm indicated that there was no outstanding
. event (mainshock) in the
- series,
.but a
. gradual increase and subsequent decrease 'in activity.
The focal depths of events within the swarm were 3.5 km and less.
Rothe suggested that the activity could be associated with individual basalt flows within the basalt sequence.
Furthermore, Rothe indicated that the shape of the recurrence curve for the swarm suggested upper limits to the magnitude of earthquakes that could occur within individual basalt flows.
Focal mechanisms were poorly constraine'd but consistent with reverse motion on east-west oriented planar zones dipping 80'N.
Slip was indicated to have occurred along pre-existing columnar'oints in competent portions of basalt.
In the 1979 Annual Technical
- Report, Malone (1979a) reported on a continuation of the comparative magnitude study between Wood-Anderson amplitude and coda length.
The report also contained a
surface wave velocity attenuation
- study, a
refraction study of the north Cascades and northeastern Washington, and a
revised earthquake catalog for eastern Washington for the period from March 1969 through December 1974.
These earthquakes are included in the catalog in Appendix B.
In a recent Quarterly Technical Report (Malone, 1979b),
a new microearthquake swarm was reported to be located on the north
Woodyard Clyde Consultants Ten flank of Rattlesnake Mountain (see Figure
- 5) ~
'icroearthquakes from this shallow swarm have been located to date by the University of Washington, and have been included in the focal mechanism analyses in this study.
In studies recently completed for WPPSS by WCC, two aspects of the seismicity of the Columbia River Plateau were examined.
The first study (WPPSS, 1980a) examined instrumental data available on the 8 April 1979 College Place earthquake and the 16 July 1936 southeastern Washington earthquake.
Results of this study are discussed in more detail in a later section of this report.
In the second study (WPPSS, 1980b),
factors influencing seismic
- exposure, of the southeast Washington region were examined.
The occurrence of the 8 April'979 earthquake and relocation 'of the 16 July 1979 earthquake do not affect'he outcome of the seismic exposure study (WPPSS, 1980b) for the Walla Walla area of southeastern Washington.
3.2 Crustal Velocity Models r
An important factor influencing the ability to obtain'ood earthquake locations is the accuracy of the crustal velocity model used in the epicentral determinations.
The University of Washington's refined crustal velocity model for portions of the Columbia Plateau provided the microearthquake locations presented in Figures 1,
2, and 3.
The USGS and the University of Washington horizontal crustal models are compared in Table 1.
The University of Washington has developed a
model that 10
Woodyard Clyde Consultants characterizes the velocity structure for areas north of the 47th parallel and south of the parallel in the Hanford area.
The significant change in the "South" model is the addition of a shallow 0.4-km-thick layer having a P-wave velocity of 4.70
~
km/sec.
Earthquakes that have previously been located with the USGS crustal model consistently moved to shallower focal depths when they were relocated with the University of Washington "South" crustal model.
The decrease in focal depth ranged from 1
.to 3
km
- and, in one
- case, was as much as 10 km.
Epicentral coordinates changed by as much as 4
km.
The average difference in epicentral coordinates was 0.8 km and the average difference in depth was 1.0 km.
The station distribution and focal depth were the factors that had the greatest effect on the first motion plots examined in this study.
3.3 Linear Gradient Velocity Model For the purpose of obtaining coordinates for P-wave first motion plots, the earth's crust was modeled as having a"P-wave velocity (v) that increases linearly with depth (z).
v(z)
= 6.00
+ 0.050 z.
With this model, there are no abrupt velocity changes at the
Noodle@ Clyde Consultants boundaries between crustal layers.
The P-wave velocity at. the mantle (28 km) was taken to be 8.0 km/sec.
This model was used in the previous study (WPPSS, 1978) and continues to give more consistent results for the purpose of focal mechanism determination than is provided by a horizontal layered crustal model.
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Woodyard Clyde Consultants
- 4. 0 EVALUATION OF FOCAL DEPTH CROSS-SECTIONS The University of Washington catalog (see Appendix B) of microearthquakes for the Hanford region provides a
uniform data set from which the distribution of the deeper activity can be examined.
Appendix C is a listing of the earthquakes used in this study having depths of 9
km and greater.
Five cross-sections have been made of the deeper microearthquake activity in the Hanford area and their locations are shown in Figure 6.
Each cross-s'ection includes the earthquakes within 10 to 15 km of the center line shown in Figure 6.
These cross-sections are shown on Figures 7 through ll.
Three lines were chosen in the vest-east direction, as viewed from the south; one line was taken as south-north, as viewed from the east;
'and a final line was taken in a
northwest-southeast direction, as viewed from the southwest.
The selection of these particular cross-section orientations was, based upon the trend of topography and structure through the Hanford area.
4.1 Composite Cross-section A composite cross-section was compiled to aid in examining the variation of the focal depth distributions as indicated by cross-sections throughout the region.
This composite of west-east cross-sections is shown in Figure 12.
Cross-sections B-B',
C-C',
and D-D're represented as bands
- of various thicknesses that correspond to the distribution of the focal 13
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Wood@card Clyde Consultants
'I depths of the plotted microearthquakes in each of the three cross-sections.
In Figure 12, three portions of the composite cross-section are of in'terest:
- 1) the interval to the west 'of station R/RSW; 2) the interval between stations R/RSW and I/WIW; and 3) the interval east of the station I/WIW.
Interval West of Station R/RWS - In Figure 12, the interval of the composite cross-section west of station R/RSW shows a
E.
transition from cross-section D-D'own about ll km into a low I
area at C-C', between D-D', and B-B'.
This low area, which is without deeper microearthqupkes, corresponds to the inside of
. a, crescent-shaped'istribution
~ of epicenters extending from the southern end of Area B (see Figure
- 1) to an area southwest of Corfu, Washington.
Cross-section A-A'hows a
depression in the;'ocal depth distribution.
In addition, the cross-section E-E'hows
'a prominent ridge of activity (under station M/MDW) that appears to
.: mark the northern boundary of the crescent-shaped distribution.
These results are based upon a limited time period of earthquake recording.
The microearthquake distri-bution indicates that the area bounded by the crescent-shaped distribution is responding somewhat differently to the regional and local stress regimes and that the area between stations RSW and MDW contains the deepest foci in the region, with activity extending down to 24 km.
C 14
Woodyard Clyde Consultants Interval Between Stations R/RSW and I/WIW
- This section of the composite cross-section shown in Figure 12 is relatively similar in focal depth distribution on all three cross-sections.
The activity in this area extends to an average depth of about 18 km.
Interval East of Station I/WIW This interval shows a spread of hypocenters between shallower hypocenters at B-B'nd deeper hypocenters at D-D'.
This variation may have some association with ;the north-south linear trend of epicenters neai station ETP (see Figures 1 and 6).
Microearthquakes in this trend have composite focal mechanism solutions that 'are quite different from other areas to the west and southwest.
The composite focal mechanism can be interpreted as having a
horizontal axis of maximum compressive stress in the northwest-southeast direction.
- Thus, the mode of faulting could be normal or left-lateral strike-slip along a
plane striking north (see the Area C discussion and Figure 19).
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Woodyard.Clycle Censult8rl48
- 5. 0 FOCAL MECHANISM STUDY Focal mechanisms can reveal the orientation of the fault surface upon which an earthquake occurred and the direction of
'he principal tectonic stresses.
The patterns of the first ground motions produced by the earthquake P-waves recorded at seismograph stations distributed around an epicenter are used to determine the focal mechanisms.
.The first motions for a
particular earthquake are plotted on an equal-area stereo-graphic net known as a
Schmidt Net.
The point representing the angle of incidence of the P-wave ray as it leaves the earthquake focus is plotted at the azimuth of the epicenter to the recording station.
The stereographic projection can be thought of as representing a
small sphere of unit radius around the
- focus, with the data plotted as the points where the rays traveling to the individual stations penetrate the sphere.
In this study, data are plotted on a lower hemisphere projection.
First-motion plots are usually prepared for single earthquakes.
To produce a
well defined focal mechanism, enough stations must have. recorded the earthquake so that a
clear pattern can be seen.
If the number of stations recording an event are insufficient, then the first motions from several earthquakes can be combined to form a composite first-motion plot (Lee and Stewart, 1979).
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Woodyard Clyde ConsLIttents The technique of forming composite first-motion plots is dependent upon the assumption that the fault orientation and causative stress field remain the same for all the earthquakes used in the composite.
To help ensure
- this, the earthquakes used in a
composite study are spatially 'lose together.
Whether a
good solution can be obtained is determined by the internal consistency of the data forming the composite.
The focal mechanism study (WPPSS, 1978) for the Hanford area has been re-evaluated based upon revised hypocentral locations by the University of Washington (Malone, 1979a) and the inclusion of microearthquakes that have occurred since the 1978 study.
These data were reviewed by examining composite focal mechanism solutions.
In addition, individual focal mechanism
. solutions were obtained from two events that occurred near Walla Walla, Washington, and Milton-Freewater, Oregon (WPPSS, 1980a).
One of these
- events, the 8 April 1979 College Place earthquake, was recorded by a sufficient number of stations to permit a
well defined single event focal mechanism solution.
A single event focal mechanism solution was also obtained from minimal data for the 16 July "1936 Milton-Freewater earthquake.
The revised hypocentral locations and additional micro-earthquake locations have altered the appropriateness of the spatial groupings of events used previously.
Thus, groupings of events from areas previously defined as Area 2 and Area 3
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Woodward Clyde Consultants no longer have particular significance (see Figure 2).
Events within the area previously defined as Area 1 still appear to be grouped as before, so this area has been retained in this study.
Figure 2
shows location of the three previously defined areas in relation to the current epicentral locations'ew areas of consideration, some of which include the old
- areas, have beep defined based on testing groups of the data.
All areas of the present study are shown in Figure l.
Microearthquakes within each area have been examined for systematic groupings of events in order to provide consistent focal mechanism solutions.
5.1 Discussion of Results 5.1.1 Area A
Area A includes microearthquake activity located about 15 km north of Sunnyside, Washington.
Only two events within this area provided data for a
focal mechanism interpretation.
These
- events, identified in Appendix C by an A in the first
- column, had focal depths of 15 and 17 km and were located very near one another.
Of particular interest in interpreting the focal mechanism from these two events is their contrasting first motions that are plotted near each other on the sterographic projection (see Figure.13).
These contrasting first motions may indicate that several of the recording 18
Woodyard Clyde Consultants stations were located near a nodal plane for the two events, or that these microearthquakes had different source'echanisms.
A composite focal mechanism solution was obtained assuming the first possibility, because the events were located so close to each other.
Because this solution has a
~ significant number of discrepancies, it should not be considered conclusive.
It shows predominant normal, dip-slip fault motion along either a north-striking shallow dipping fault plane (strike N3 E, dip 16'W),
or along a northeast-striking steeply dipping fault plane (strike N20'E, dip 76'E)
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- 5. l. 2 Area B
Microearthquake activity within Area B
shows a
slightly crescent-shaped, north-south trending distribution (see Figure 1). Several clusters of microearthquakes can be seen north of
- Paterson, Washington, and to the north of the Columbia River.
An examination of data from this area reveals four groupings of microearthquakes that might be considered separately:
G-l, G-2, G-3 and G-4 (see Figure 1).
Group G-1 A composite focal mechanism solution for this group of events situated south of the Yakima
- River, indicates reverse dip-slip fault motion along an east-vest trending fault (either dipping north or south, see Figure
- 14) ~
The nodal planes are well constrained even with few compressions.
Smaller groupings of
- events, such as the 19
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Noodward Clyde Consultants northeast-southwest linear plot of. events, did not provide focal mechanism solutions significantly different, from the group as a whole.
The maximum principal stress component for this'olution is almost horizontal and in the north-south direction.
The minimum principal stress component is near vertical.
h' h
included in the earlier analysis of Area 3
(WPPSS, 1978) i as well as several additional microearthquakes.
The composite focal mechanism solution (see Figure 15) shows predominantly
- reverse, dip-slip motion either along a shallow dipping plane
{strike N78'Wg dip.30'N) or along a
steeply dipping plane (strike N56'E, dip 76'E).
The maximum principal stress plunges 24 degrees N174'E.
This direction of stress involves a slight counterclockwise rotation of the maximum stress axis from that observed to the, south for Group G-1.
The minimum principal stress is similar to that for group G-l, but.rotated slightly to the west.
Microearthquakes from the shallow swarm on the north flank of Rattlesnake Mountain are listed in Table 2
{see Figure 5) and were not included in the evaluation of the focal mechanism for group G-2.
Although there
'are too few data from this swarm to provide a focal mechanism solution (see Figure 16), the 'P-wave first motion data are consistent with the solution for group G-2 (see Figure 15).
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Woodyard Clyde Consultants The prominent cluster of microearthquakes in the northeastern corner of this group was examined separately and found to be consistent with the composite focal mechanism solution shown for the group as a whole.
Event 72227 at 1737 GMT, which is in the
- cluster, appears to have a focal mechanism that is inconsistent with'he cluster or the composite focal mechanism solution for G-2.
Six of this motions are also inconsistent with the solution for G-3.
This event is the deepest of those in group G-2 and may indicate a
structural change with depth.
Data from this event 72227 at 1737 GMT (see Figure 17) are excluded from the composite focal mechanism for group G-2 in Figure 15.
Data from the other microearthquakes in the cluster shown in Figure 1 for group G-2 are included..
included in the earlier analysis of Area 2
(WPPSS, 1978),
as well as several additional microearthquakes.
The composite focal mechanism for this group (see Figure 18) looks very much like the previous solution and again shows predominant reverse dip-slip motion.
- Here, the principal stress direction rotates slightly further counterclockwise.
The possible fault planes strike N93 E.and dip 32'r strike N57'E and dip 60 S.
The cluster of activity at station MDW was examined separately and found not to have sufficient first motion data to obtain a
solution.
- However, when the first motion data were compared 21
Woodward Clyde Consultants with the composite for the group as a
- whole, they were consistent and have been included in Figure 18.
'I Group G-4 The scattered events north of the Columbia River were examined separately.
However', not enough data existed to r
provide a well constrained focal mechanism solution.
First motion data from these events are consistent with solutions found for groups G-2 and G-3 (see Figures 15 and 18).
5.1.3 Area C
A linear trend of epicenters is situated 'n the vicinity of station BCW (see Figure
- 1) ~
The composite focal mechanism solution is fairly well constrained, even with sparse data.
- Clearly, any solution would include a north-northeast minimum principal stress direction.
Two types of fault motion are permitted by the solution (see Figure 19):
right-lateral strike-slip with normal dip-slip motion on a fault striking N85'E and dipping 52'S; or alternately,'eft-lateral strike-slip with normal dip-slip motion on a fault striking N14'W and dipping 68'E.
Fault attitudes are similar to those in Area B:
rotation to the
- south, but with the opposite principal stress orientations and opposite sense of motion on the fault planes.
The maximum principal stress in Figure 19 is directed N67'W and plunges 43 degrees.
The minimum principal stress plunges 9 degrees towards N32'E.
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- 5. 1. 4 Area 1
In the 1978 study (WPPSS, 1978), five microearthquakes were used in the composite focal mechanism for this area, which is located'est of
- Othello, Washington.
An additional microearthquake was added from the January through June 1975 data set analyzed by the University of Washington.
Micro-earthquakes used in the composite focal mechanism solution have focal depths between ll and 18 km and a
spread in location coord'inates of less than 10 km.
The two interpretations of the nodal planes are an east-west.
nodal
'plane dipping 50'S or a
N70'E striking nodal plane dipping 42'N
{see" Figure 20).
Both interpretations allow for
- reverse, dip-slip motion.
The axis of minimum principal stress is near vertical, while the axis of maxi'mum principal stress is near horizontal and strikes N172'E.
The principal stress directions and fault orientations are similar to those of Area B.
5.1.5 Walla Walla, Washington - Milton-Freewater, Oregon Area Only one deep microearthquake was recorded in the Walla Walla, Washington Milton-Freewater, Oregon
- area, for which the first motion data were insufficient for a focal mechanism.
New results
{WPPSS, 1980a) are available from a
study of the 8
April 1979 College Place earthquake
{see Figures 1 and 21) and 23
Woodward Clyde Consultants from a review of the 16 July 1936 Milton-Freewater earthquake (see Figures 1
and 22).
Based on the focal mechanisms obtained during this study, the maximum horizontal compression for the College Place'earthquake was directed east-west.
The motion on the fault plane either had a
right-lateral horizontal component of motion on a north-northeast striking fault
- plane, or a left-lateral component on a
northwest striking, nodal plane (see Figure
- 21).
The original instrumental epicenter for the 1936 earthquake has now been confirmed to be about 32 km northeast of the location based on the zone of highest intensity, which was near the town of Milton-Freewater.
. The focal mechanism for, the earthquake indicates northeast-southwest maximum horizontal
'compression and right-lateral strike-slip movement on a northeast-striking plane or left-lateral strike-slip.
on a
northwest striking nodal pla'ne (see Figure 22).
Additional data would improve this focal mechanism solution.
24
Noodward.Clyde Consultants 6 ~ 0 CONCLUS ZONS These new data have necessitated a re-evaluation and updating of earlier work on focal mechanisms of deeper earthquakes (9
km and greater) occurring in the Hanford area.
The deeper microearthquakes characteristically had shallower focal depths than those reported 'arlier by. the USGS.
coordinates changed up to 2 minutes,(4 km),'while varied as much as 10 km in one instance.
Epicentral focal depths The review of single-event focal mechanisms and composite focal mechanisms for earthquakes having foci of 9
km and deeper indicates a
general north-south maximum horizontal compre'ssive stress axis through a crescent-shaped distribution of epicenters in Area B (see Figure 1)
~
The mode of faulting in Area B
was predominantly reverse.
Minor components of horizontal motion are either left-lateral on east-northeast striking fault planes or right.-lateral on west-northwest striking fault planes.
Similarly, the adjacent Area 1
(west of Othello) displays
. a north-south horizontal axis of compression that causes reverse faulting on generally east-west dipping fault planes.
To the east of Area B, in Area C,
and possibly to the west in Area A,
the stress pattern changes to a
compressive stress directed more to the west/northwest and plunging between 45 and 60 degrees from the horizontal.
Further to the southeast,
Woodyard Clyde Consultants the focal mechanism for the 8 April 1979 earthquake near College
- Place, Oregon, indicated an almost due east-west horizontal axis of compression.
Because stress axes are inferred from the motions generated by the faulting, it is possible that these apparent changes in stress axes are reflecting different structural trends responding differently to a
more uniform stress field.
That is, pre-existing structures may be oriented differently in the different areas
- and, consequently, behave differently in the modern stress field.
In general, the depth distribution of the earthquake foci to the east of 119'35'W is less than 18 km.
Deeper activity (all less than 24 km) has been confined to a limited region between 119'35'W.and 119'45'W and between 46'20'N and 46 45'N, in the central part of the region where depth control is expected to be good.
West of longitude 119'45'W, the activity has been deeper than 15 km in Area A (see Figure
- 1) while it has been distinctly shallower to the south of Area A,
near
- Paterson, Washington.
This latter observation is drawn from a limited number of microearthquake locations.
Consequently, the distribution in hypocentral location may change'ver a longer recording period.
26
I I
I I
I I
I
Woodyard Clyde Consultants
- 7. 0 REFERENCES Lee, W.H.K., and Stewart, S.W.,
1979, Principles and applications of microearthquake networks:
Office of Earthquake Studies<
U.S. Geological Survey, Menlo Park, California, 34S p.
- Malone, S.D.,
1978,-
Annual technical report on earthquake monitoring of the Hanford region, Eastern Washington:
Report prepared for the U.S.
Energy Research and Development Administration by the Geophysics
- Program, University of Washington, Seattle.
- Malone, S.D.,
- 1979a, Annual technical report on earthquake monitoring of the Hanford region, Eastern Washington:
Report prepared for the U.S.
Department of Energy and Washington Public Power Supply System by the Geophysics
- Program, University of Washington, Seattle.
- Malone, S.D.,
- 1979b, Quarterly technical report on earthquake monitoring of the Hanford region, Eastern Washington, July 1
through September 30, 1979:
Report prepared for the U.S-Department of Energy and Washington Public Power Supply System by the Geophysics
- Program, University of Washington<
Seattle.
- Racine, D.
- 1979, A seismicity study of the Pacific Northwest region of the United States,'ovember 1961 August 1965:
Report prepared by Teledyne Geotech for the U.S.
Nuclear Regulatory Commission, Washington, D.C.,
43 p.
Rockwell Hanford Operations,
,1979a, Hanford candidate'ite identification and ranking:
Report prepared for Rockwell Operations by Woodward-Clyde Consultants,
- Richland, Washington.
Rockwell Hanford Operations,
- 1979b, Geologic studies of the Columbia Plateau; Status Report:
Basalt waste isolation program geoscience project:
- Myers, C.W.,
and Price S.M.
(eds.),
Report prepared for the United States Department of
- Energy, Richland, Washington, 227 p.
- Rothe, George H.,
- 1978, Earthquake swarms in the Columbia River Basalts:
Addendum to annual report on earthquake monitoring of the Hanford Region:
Ph. D.
- thesis, University of Washington,
- Seattle, Washington, 181 p.
Washington Public
- Power, Supply
- System, 1978, Microearthquake
- study, 1872 Earthquake studies WPPSS Nuclear Project Nos.
1 and 4:
Report prepared for Washington Public Pow'er Supply
- System, Richland, Washington, by Woodward-Clyde Consultants, San Francisco, California, 30 p.
l I
(g I
~
($
Woodyard Clyde Consultants Washington Public Power Supply
- System, 1980a, Seismological review of the July 16, 1936 Milton-Freewater
-Earthquake Source region:
Report prepared for Washington Public Power Supply
- System, Richland, Washington, by Woodward-Clyde Consultants, San Francisco, California, 23 p.
Washington Public Power Supply System,
- 1980b, Factors influencing seismic exposure of the southeast Washington region:
Report prepared for Washington Public Power Supply System,
- Richland, Washington, by Woodward-Clyde Consultants, San Francisco, California, 25 p.
l I
I 1
Woodyard Clyde Consultants TABLE 1 USGS CRUSTAL VELOCITY MODEL Depth to Top of La er
{km)
P-Velocit
{km/sec) 0 ~ 0 0.8 7.5
- 18. 0
- 30. 0
- 3. 00
- 5. 15
- 6. 10
- 7. 80 8.0 UNIVERSITY OF WASHINGTON CRUSTAL VELOCITY MODELS SOUTH MODEL Depth to Top P-Velocity
{km/sec)
NORTH MODEL Depth to Top P-Velocity (k /
0.0
- 3. 70 0.0
- 5. 10 0 ~ 8 1.2 7.5
- 4. 70 5.15
- 6. 05 0.5 19.0
- 24. 5
- 6. 05 7 ~ 20
- 8. 00 19.0 28 ~ 0
- 7. 20
- 8. 00
i l
l l
I
Qfoocfw8rcl CIA&CoAsLlltBAts TABLE 2 LOCATION COORDINATES FOR MICROEARTHQUAKES USED IN GROUP G-2 SHALLOW SWARM'OMPOSITE FOCAL MECHANISM (Malone, 1979b)
Date Time Depth(km)
Lat(N)
Long(W) 79-08-02 79<<09-08 79-09-09 79-09-08 79-09-08 79-09-08 79-09-08 79-09-08 79-09-09 0740 0621 0643 0726 0845 0854 0855 0925 1501 3 ~ 00
- 2. 95 4'8
- 3. 70 3 ~ 33 3'79 3.19
- 1. 40
- 2. 50 46-29.41 119-37.83 46-29.45 119-39.07 46-29 '4 119-38 '6 46-29.12 119-38.94 46-29 '6 119-38.92 46-29.44 119-39.01 46-29.46 119-38 '7 46-29.42 119-38.74 46-29.66 119-39.86
5 I
P
30'ENATCHEE
+
EPHRATA 0
0 0
AA/ODS 30' 0
0 0 S hloses 00 Loke Polholes Reserve(/
n Ot V/VTG c tu Area B 00 GW
+W/Y/WRD YR > b 'a/cRF AB/NNW 0 ILR L/WA'tl COR 45,WA2 AO/
0 (gAlglw PR EST QAMrr gp Ac ADA/BCW R
Q h/@L M/MDW 0
Y-----
00 0
Area A SUNRYSIDE cg ng Q>
- ID@sw G-2 q
A 0
AE/ETP I/WIW RICHLAND 0
o OTHELLO F"
OTH AAA Area C IE I'TVOY AREA I VER ae 0 PR or+ BA/PRO SSEP G-1 PASCO BQ BDG q KEN WICK PATERSON R I V E R Loke Wol/vlo IA DAM gal AHER L UA ALD 0'
pWAITSBURG July 16, 19 WALLAWALLA
/WGW duly l6, l936 CI Aoril 8, l979 F/WFW/MFW> MILTON FREEWATER P'ENDLETON PEN >
(F30'W I20'19 USGS/UW SEISMOGRAPHIC STATIONS COMPOSITE FOCAL MECHANISMAREAS FELT EPICENTER 30' I8' IO 20 30 MILES 0
IO 20 30KILOMETERS 30'9,0 INSTRUMENTAL EPICENTER DIRECTION OF MAXIMUMHORIZONTALCOMPRESSIVE STRESS DIRECTION OF MAXIMUMHORIZONTALCOMPRESSIVE STRESS ILESS RELIABI.EI Project No.
WASHINGTON PUBLIC 13891C POWER SUPPLY SYSTEM Moochmrd Hyde Consultants AP OF THE SOUTHERN COLUMBIAPLATEAU SHOWIN GROUPS OF DEEPER MICROEARTHQUAKESAND MAXIMUMHORIZONTALCOMPRESSIVE STRESS AXES Figure 1
5 l
~ I gO
~
~O O
~ O
~
r O ~
O
~
5
~
~ ~
7$ O
~ OO(o)
~
OO O ~
~
~
~.
OO
~
~
/:
~ ~ ~
IO (ril
~
OO
~
~
i~
~
~
~
~
~
. ~
~
~
~
~
~
~
~
~
~
~
~
~
~
v'i ~
o
~.. i 0
~
~
~
0
~
I
~
~
~
~
N
~
11
~l
li" WENATCHEE EPHRATA 30'
+
A/osds Lo d
+
CORFU
+
+
PRIEST RAPIDS +
DAM
+
+
+
+
Po/ho/os dSdfSO/f
~
OTHELLO
~,
STUDY AREA
+ ~+
+
Ri
+/VCR 46
+
+
+ ISUNNYSIDE
+N+
++
+
+
4'/'~
+,
PROSSER PATERSON p
~BI a
0 0 I.U RICHLAND PASCO KENNE WICK
+
++
RiVER McMAIIs Lokd Wo//o/o DAM 4DWAITSBURG WALLAWALLA COItLEGE LAgEp MILTON' FREEWATER C0
~+
+
PENDLETON 45'30 l2~0W l20 30' INSTRUMENTALEPICENTER II9 30 0
IO 20 30MILES 0
IO 20 30 KILOMETERS 30'I
<<WASHINGTONPUBLIC 13891C POWER SUPPLY SYSTEM MAP OF THE SOUTHERN COLUMBIAPLATEAU SHOWING SHALLOWEARTHQUAKESWITH FOCAL DEPTHS LESS THAN 9 KM, 24 MAR 1969 OCT 1972 Figure 3
l ig
~
~i
~
30'ENATCHEE
+
+
EPHATA
~IEx MAP ~
I
+
Ale Lode
+
+)holes RdsefYolf STUDY AREA 30' 46 SUNNYSIDE cg 4'i V~
P ROSSER
+4r.+
+++~
+
+
RICHLAND PASCO
+
+KEtINEAfCK 4
+
~eI4 C
0 0LU PATERSON R I y E R RARY+ Lode Wol/o/o
+
~
OTHELLO +
p" 0
ORFU
~+@
+ +
+I
+
RlyER
+
+ ~oWAITSBURG 4I WALLAWALLA COLLEgE
+ ++
+
MILTON FREEWATER PENDLETON 45'30'2MO W
I20'0'I9 30'IS 30' INSTRUMENTALEPICENTER 0
I0 20 30 MILES 0
I0 20 30 K ILOMETERS WASHINGTON PUBLIC POWER SUPPLY SYSTEM MAP OF THE SOUTHERN COLUMBIAPLATEAU SHOWING SHAL'LOWEARTHQUAKESWITH FOCAL DEPTHS LESS THAN 9 KM, 'I NOV 1972 28 SEPT 1979 Figure 4
Q SWARM EASTERN WASHINGTON EARTHQUAKES JULY SEPT, 1979 IAFTER MALONE'979c)
CENTER OF MAP IS 47.00 N 119.75W MAGNITUGE KEY 0 0.0 0
1.3 Q 2.2 Q 4.0 Project No, WASHINGTON PUBLIC
- 13891C, POWE R SUPPLY SYSTEM SHALLOWMICROEARTHQUAKESWARM OF 2 AUGUST 1979 Figure 5 4
i 4
30 WENATCHEE 4
EPHRATA 0
0 0
AA/ODS 30' 8
(Q) htoses Lake A
0 V/VTG c 0
E Falholes Reservoir
+W/y/WRD 0AC B'AL
~
0 M/MDW oo 0
yk 0
0 A8 U/CRF
((P N
eOTHELLO 0>~i 0
AHselWA2 CORFU AO/OTH 0 AgA/
W PRIEST RAPI DAM 0
0 STIIY AREA 46 D
SUNRYSIDE cg 0 PROSSER A'ATER
~BI 4 a L \\LL ALD RICHLAND PASCO PRO 0
BDG Q BQ 0
RIVE'R IA:4ART Lake Iyollalo DAM AHER C'
EUK 0WAITSBURG I9 July 16, '18 D'ALLA WALLA July I6, l936 P/WGW A "I 8 l978 P
sprl 1
F/WFW/MFWA MILTON'REEWATER PENDLETON PEN >
45'30' 20'30'W I20'I9 30'I6 30'SGS/UW SEISMOGRAPHIC STATIONS COMPOSITE FOCAL MECHANISM AREAS 0
FELT EPICENTER 6.0 INSTRUMENTALEPICENTER 0
IO, 20 30MILES 0
IO 20 30 KILOMETERS WASHINGTON PUBLIC 1389'I C POWER SUPPLY SYSTEM W~
H CIYd MAP OF THE SOUTHERN COLUMBIAPLATEAU SHOWING DEEPER MICROEARTHQUAKES AND FOCAL Figure 6 DEPTH CROSS%ECTION LINES
X E
I-o OR S/SYR~
+
+
+
+I-++
/MDW A/CRW C OoO
,~O Oy0 R/Asw BA/PRO CD I
O 0
o
, Project No.
WASHINGTON PUBLIC 13891C POWER SUPPLY SYSTEM 3Voedvmrd Cfyde NORTH-SOUTH CROSS. SECTIONA-A'igure 7
El
E MI-O LU OO@
I a.o Project No.
WASHINGTON PUBLIC 13891C POWER SUPPLY SYSTEM WEST-EAST CROSS-SECTION 8-5'igure 8
.E
C)
V ProIect No.
WASHINGTON PUBLIC
)3Bg)C POWER SUPPLY SYSTEM CV WEST-.EAST CROSS SECTION C-C'igure 9
1
E Ch O
Lll 0O O
r z
e z
0
~d I-M LLI OC
'J O
O C4 Project No.
13891 C WASHINGTON PUBLIC POWER SUPPLY SYSTEM WEST-EAST CROSS-SECTION D-D,'igure 1P
l I
E IJJ O
CID PRIEST RAPIDS DAM M/
++
+~~+
+
4-~+
EA/CRW O
0 I/WIW<
RICHLAND
'KENNEWICK PASCO Z oC)
Proiect No.
=
WASHINGTON PUBLIC 13891C POWER SUPPLY SYSTEM W M LCINdl NORTHWEST-SOUTHEAST CROSS-SECTION E-E'
. Figure 11
E fC/l W
~n o
0l g CCl CIlK CC 0
0 00 5
Pn
~A0o hC D0 I-tK
.0 CKo K0 Cb 20 m
D CIl 0
a o
xI-CL W
cC 04 o00 0
Cl o
0 C0 0
IP VI C0 EO
'CO O
0.
CO CJI0 E
D CIlU D
W o
Pc0iect NO WASHINGTON PUBLIC 13891C POWER SUPPLY SYSTEM WEST-EAST COMPOSITE CROSS-SECTION (B-B', C-O', D-'D')
Figure 12
l l
l Kl
~
gl
~
N3oE Dip 16 W N20oE Dip 76oE 0
P N74 W Plunge 60o 0
I3 0
T N106oE Plunge 30o p
VELOCITYMODEL
'niversity of Washington "South" model LOWER HEMISPHERE EQUAL AREA PROJECTION Event 72261 0 Dilatation
~ Compression Event 71362 0 Dilatation a
Compression P~ Axis of maximum compression p Axis of maximum tension Project No.
WASHINGTON PUBLIC 13891C POWER SUPPLY SYSTEM COMPOSITE FOCAL MECHANISM FOR AREA A Figure 13
VELOCITYMODEL:
University of Washington "South" model LOWER HEMISPHERE EQUALAREA PROJECTION 0
Compression 0
Dilatation Project No.
WASHINGTON PUBLIC 1,3891C POWER SUPPLY SYSTEM MRmcharard-Cfyde Consultants FIRST MOTION DATA FOR EVENT 72227 - (1737)GMT OF GROUP G-2 Figure 14
ms'w 30 N Dip 0
0 0
N56o E 76oE Dip To N65 W Plunge 51 0
O 9
0 0
0 0 00 08 0
0 00 0 0 0
0 0
0 00 (y 9
~ P 0 0 0
N174oE Plunge 24 VELOCITY MODEL:
University of Washington "South" model O
Compression 0
Dilatation LOWER,HEMISPHERE EQUAL AREA PROJECTION
~p Axis of maximum compression
~ eT Axis of maximum tension Direction of horizontal component of motion on fault plane WASHINGTON PUBLIC 13891C POWER SUPPLY SYSTEM COMPOSITE FOCAL MECHANISM FOR GROUP G-2 DEEPER MICROEARTHQUAKES Figure 15
&0 4045 0 0 0
0 0
0 0
N88 W 44 N Dip N82 E
Plunge 86 iT 0
,0 000 0
4 0 00 N80 W 46 S Dip
,00 0
0 0 0 0
P VELOCITYMODEL:
University of Washington "South" model N174 W Plunge 1o I
Compression 0
Dilatation LOWER HEMISPHERE EQUALAREA PROJECTION
~P Axis of maximum compression eT Axis of maximum tension Direction of horizontal component of motion on nodal plane Project No.
WASHINGTON PUBLIC 13891C POWER SUPPLY SYSTEM COMPOSITE FOCAL MECHANISMS FOR GROUP G-1 Figure 16
I
0 0
00
~0 0
e 0 0 0
VE LOG IT Y MODEL:
University of Washington "South" model LOWER HEMISPHERE EOUALAREA PROJECTION O
Compression 0
Dilatation OP Axis of maximum compression
~T Axis of maximum tension Direction of horizontal component of motion on fault plane Project No.
WASHINGTON PUBLIC 13B91C POWER SUPPLY SYSTEM COMPOSITE FOCAL MECHANISM FOR 2 AUGUST 1979 SHALLOW SWARM-GROUP G-2 Figure 17
N 0
0 O
0 O
N57oE 60oS Dip N95 E
32 N Dip N68 W P lunge 66o O,TO 0
O 0
p @0 Qp 0Q 8
00 0
00 Opqp NI60oE Plunge 16o 0
0 0 0 VELOCITYMODEL:
University of Washington 'Southee model LOWER HEMISPHERE EQUALAREA PROJECTION Compression 0
Dilatation
~ P Axis of maximum compression eT Axis of maximum tension
~ Direction of horizontal component of motion on fault plane Project No.
WASHINGTON PUBLIC 13891C POWER SUPP I Y SYSTEM COMPOSITE FOCAL MECHANISM FOR GROUP G-3 'igure 18
N24 W 67 E Dip N32 E
Plunge go
~ p N67 W Plunge 43 E
~
N85 E 52oS Dip VELOCITYMODEL:
University of Washington "South" model LOWER HEMISPHERE EQUALAREA PROJECTION Compression Dilatation
~P Axis of maximum compression
<<T Axis of maximum tension Direction of horizontal component of motion on nodal plane Project No.
WASHINGTON PUBLIC 13891C POWER SUPPLY SYSTEM COMPOSITE FOCAL MECHANISM FOR AREA C Figure 19
N 00+
0 0
0 0
0 0
N70o E 0 O Dlp42 N 0
0 0
N58 E
78o Plunge
~T O
0 N88oE Dip 50oS 0
p N172 E
5o Plunge VELOCITYMODEL:
University of Washington "South" model LOWER HEMISPHERE EQUAL AREA PROJECTION 6
Compression 0
Dilatation
~P Axis of maximum compression oT Axis of maximum tension Project No.
WASHINGTON PUBLIC
'I3891C POWER SUPPLY SYSTEM UVooderard Ctyde COMPOSITE FOCAL MECHANISM FOR AREA 1 Figure 20
N N48 W Dip 48 NE MFW EUK OA N30oE Dip 68 NW 0
~0 0
+0
+
0 NEW OB P
O N91 W Plunge 11 0
o N166 E
Plunge 48 VELOCITYMODEL:
University of Washington "South" model LOWER HEMISPHERE EOUALAREA PROJECTION 8
~ Compression 0
~ Dilatation
+
~ Weak compression Weak dilatation P
~ Compression axis T ~ Tension axis A
Fault Plane Protect No.
WASHINGTON PUBLIC 13891C POWER SUPPLY SYSTEM FAULTPLANE SOLUTION FOR THE APRlL 8, 1979 EARTHQUAKE Figure 21
N15oE Dip SPW N70 W VIC Dip 84 N SEA+
SIT0 CMO 0
SPO P
N56 E
Plunge 22 BZM 0
DEN 0
FER 0
BRK
~
0 RVR TIN, PAS MWC
+TUO
~T N161 E
Plunge 32 LOWER HEMISPHERE EQUAL AREA PROJECTION F I RST MOTION
+
Compression Dilatation S-Wave AMPLITUDERATIO 0
S>P ScP Project No.
WASHINGTON PUBLIC 13891C
'OWER SUPPLY SYSTEM FAULTPLANE SOLUTION FOR THE JULY 16, 1936 EARTHQUAKE Figure 22
I I
Woodyard Clyde Corisultants Date O. T.
APPENDIX A SEISMICITY OF WASHINGTON NOVEMBER 1961 -'UGUST 1965 (Racine and others, 1979)
Lat(N)
Long(W)
Depth(km)
Mag(MS Source 7 Nov 61 15 Mar 62 17 Oct 62 6 Nov 62 9 Nov 62 ll Nov 62 31 Dec,62 24 Jan 63 2 Mar 63
'6 Jul 63 28 Nov 63 22 Dec 63 15 Jan 64 8 Apr 64 26 Apr 64 15 Oct 64 29 Apr 65 0129-08.4.
45.70 2253-51.9 0603-15. 4 0336-46.9 1352-18.1 47 ~ 00
- 47. 15
- 45. 80 46 ~ 14 2210-43.;2
- 46. 69 2049-35.2 47 F 10 2143-11.7 0104-27.3
- 47. 60
- 46. 76 0845-07o2 46.22 1114-18.6 47.72 0254-08.2 48.50 2306-36
~ 2 45 ~ 90 0535-00.0 0142-3.8.4 47.14 50.00 1432-37.5 47.70 1528-43 '
47.4 122 ~ 40 121. 00 119. 32 122.50 121 ~ 64 118.
59'22
~ 00 122.10 118. 54 118.66 120. 50 119. 90 120. 00 117. 85 121. 50 122 F 10 122. 4
- 33. 0 6.0 0
17 '
0 33.0
- 33. 0 57.0 0 ~ 0 2.8 2.5 3 ~ 2 2.6 2.0 2.6 3.2 0.0 2.8 3.8 Mb = 4.1 (0. 0)
'b
= 6.5 (0. 0)
NEIS SDL SDL NEIS SDL SDL NEIS NEIS SDL SDL SDL NEIS NEIS SDL SDL NEIS NEIS NElS SDL NOTE:
O.
T.
National Earthquake Information Service Teledyne Geotech A value of zero for NEIS events indicates data not available.
A value of zero for SDL events indicates insufficient data to determine.
Computed origin time in G.M.T.
I I
I
Mood@card Clyde Consultants APPENDIX B MICROEARTHQUAKE LOCATED IN THE HANFORD REGION 24 MARCH 1969 THROUGH 28 SEPTEMBER 1979
{MALONE, 1979a)
DATE ORIGIN LAT N LONG 8 69 83 2232 20.23 46 34.03 119
.78 69 85 2232 7.62 47 6.82 119 4.41 69 86 2240 47.34 46 36.42 119 9.90 69 90 1715 18.94 46 39.65 119 6.92 69 91 419 54.69 46 39.29 119 7.34 69 95 15 5 -51.36 47 7.67 119 38'3 69 96 1515 58.61 46 57,06 119 14.67 69 98 226 4.30 47 2.42 119 4.38 69 SB 649 18.18 47 7.52 119 56.12 69 98 1115 55.01 46 59.05 119 34.26 69100 112 12.48 46 43'5 117 49.34 69101 035 29.10 46 57.55 119 2.33 69102 321 45.63 47 5.06 119 6'3 69102 1110 30.28 46 58.31 120 21.1S 69109 546 3.20 45 53.33 119 44.51 69111 1416 35.51 47 7.80 119 36.46 69112 2059 50.17 46 37.12 119 7.18 69114 143 2.1S 46 40.21 117 47.59 69114 12 3 57.91 47 4.20 119 37.93 69114 12 9 35.50 47 7.51 11S 37.69 69119 15 8
,67 46 36.08 119 9.60 69120 2033 2'3 47 5.97 119 36.80 69120 2143 59.72 46 35.06 119 10.45 69121'652 S.03 46 51,88 119 44.40 6S122 1836 59.56 46 36.51 119 8.82 69124 925 4.54 47 6.64 119 38.26 691 25 1835 4.63 46 36.08 119 10.12 69127 S48 36.35 46 52.38 119 18.44 69127 2036'0.11 46 25.54.119 38.26 69128 1556 21.27 46 36.17 119 8.65 6S130 1937 21.43 46 49.68 119 35.85 69130 1955 34.36 46 50.77 119 36.71 69134 2321 48.14 46 59.18 119 32.57 69137 0
1 28.52 46 39.19 119 7.66 69138 3 0 33.02 46 49.87 119 42.SB 69142 148 4.71 46 44.70 117 49.D2 69142 933 22.23 46 45'2 119 21.14 69143 S45 42.88 46 49.59 119 43.41 69152 1216 44.78 46 2S.48 119 17.07 69154 413 3.01 46 43.11 119 36.07 69157 926 43.71 47 6.50 119 6.33 69159 9 3 58.64 46 49.96 119 23.82 69159 1236 12.09 46 25.49 119 16.89 69161 1450 27.14 46 25.53 119 16.53 69166 453 36.35 46 25.46 119 16.42 69174 5 7 45.49 46 54.34 11S 40.15 69178 241 20.28 46 25.64 119 16.40 69183 2333 21.86 46 37.53 117 58.6D 69192 2340 47.57 46 35.29 118 11.57 69196 430
.86 46 25.36 119 16.30
.13 3.DO 2.36 1.00
.61 1.50 6.24 7.70
.75 1.42
.50 1.31 3.83 8.37 3.00 1.20
.11
.50 1,05 1.50 6.70 1.20 3.00 3.DO
.76 3.00 3.00 3.00 5.12 6.39 1.4'1 6.09 1.50 1.50 1.42
~ 50 3.92 3.00 1.42 3.00 7.63 1.5D
.85 2.23 3.DD 5.83 3.00
.2S
.50
.75
NAG 1.27 2.51 1.08 2.D3 2.03 2.43 1.86 2.12 2.23 1.93 2.83 2.15 2.23 2.38 3.14 2.88 2.31 3.01 2.31 2.38 1.43 1.89 1.62 2.17 1.33 2.43 1.43 1.96 1.58 1.58 2.83 1.27 2.03 1.58 1.08 2.59 1.58 lo27 1.43 1
~ 33 1.78 2.03 1.78 2.51 1.58 2.03 1.93 2.67 2.69 2.38 50 GAP DM 7 236 11.9 9 303 43.1 6 168 15.2 10 210 11.6 6 205 11.8 7 314 29.5 5 284 23.7 7 294 35.2 7 321 37.9 7 296 13.9 10 328 98.8 8 285 28,0 7 299 39.2 12 326 57.3 9 318 50.5 8 314 29 7 10 194 15.3 9 329 99.7 6 308 23.0 7 314 29.2 6 169 15.9 5 336 26.3 5 232 16.0 6 268. 9.3 7 177 15.4 7 313 27.6 5 164 1S.7 7 248 16.4 5 205 22.9 6 177 16.1 9 131 4.2 7 142 1.9 7 295 14.9 4 201 11.7 5 237 8.3 8 328100.1 6 223 10.7 6 236 S.D 6 138 17.9 5 146 16.1 6 302 41.S 6 206 17.2 7 112 17.7 113 17.2 6 134 17.1 7 286 6.1 6 134 17.0 9 325 85.0 6 323 67.9 9 116 17.0 RMS
~ 17
.38
.05
.12
.09
.28
.06
.29
.21
.07
.49
~ 12
.22
.15
~ 33
~ 30
.28
,49 F 15
.27
.08
.21
.31
- 27
.15
.26
.05
.21
.01
.21
.12
.09
.22
.01
.09
.49
.09
.14
.03
.05
.12
.10
.21
.03
.07
.08
.05
.45
.18
.24 ERH 1.5 7.7
.3
.9 1.0 3.9
.9 4.0 4.4
.9 12.3 1.1 10.6 1.4 4.7 3.2 1.5 13.6
.2 3.9 2.6 8.9 1
~ 3 2.8
.6 3.7.5 1.7
~ 1 3.5.5 1.4 F 1
.0 1.9 13.4 1.1 1.5
.2.6 2.7.8 1.0
.2.5 1.1
.4 8.8 2.4 F 1 ERE Ql 1.4XC 11.7 D
1.3PB 1.5 C 1.5 C 3.3 D
.6 C 43.1 D
3.1 D
1.2 C
6.0XD 1.0 C 15.9 D
.8 C 7.5 D
2.8' 1.7XC
- 6. 6XD
.2 C 3.4 D
2.7 C,
3.9 D
.8 D
3.4 D
. 1.1 B
2.5 D
4.5 C 2.5 C
.3 C 3.4 C
1.3 B
.9 C 4.5 C
.0 C 63.4 D
8.4XD 1.0 "C 7.0 D
56.3 C 7.1 D
3.1 D
58.8 D
3.9 C
.4 B 6.1 C
.6 C 4.7 C 3.3XD 1.9XC 2.5 C
I
APPENDIX B Continued RPTH 2.49 12.07
.25 2.55 2.10
.96 1.50
.41
.38
.11
.75
.40 1.D1 1.50
- 8. 95 4.77 4.4S 1.50 4.92 4.00 3.00
.75 3.80
- 3. 00
.66 3.0D 3.00
.75 3.00 12.98 3.0D
.08 3.00 4.34 1.50 1.50
.50 1.50
.55 5.57 5.07 3.00 3.82 3.75 4,73 3.00 1.30 6.79
.06
.50
.45 1.20
.50
.50 4.S4 5.33 3.00 DATE ORIGIN LAT N LnNr. W n
69196 2354 10.36 46 25.43 119 16.44 69199 431 40.63 46 47.97 120 1S.54 69204 255 15.53 46 57.95 119 17.40 69204 257 38.S1 47
.32 119 16.16 69205 1013 36.29 46 25.65 119 16.51 69209 1555 1.88 47
.33 119 15.39 69210 142S 23.77 46 '19.03 11S 33.99 69212 614 21.95 46 25.56 11S 16.89 69212 21 9 45.50 46 25.23 119 15.81 69213 1248 19.86 46 25.67 'lls 16.12 69214 2141 39.02 46 25.34 11S 16'5 69217 2339 25.92 46 34.39 118 S.41 6921S 1918 27'6 46 5'2 11S 23'0 69223'50 15.60 46 25.57 119 16.00 69223 1336 35.46 46 42.98 11S 51.88 69224 1418 3.00 46 25.36 119 16.05 69227 1141 53.7D 46 25.50. 119 16.22 69227 1623 4.04 46 25.02 11S 15.20 69230 1439 18.29 46 49.74 11S 28.85 69230 1850 57.24 46 2S.40 119 16.18 69233 148 30.08 46 25.73 119 16.86 69234 844 1.3S 46 25.62 119 16. 18 69243 252 27'0 46 25.82 119 16.76 69243 1118 7.66 46 25.71 119 16.88 69243 lllS 31 '1 46 25'0 11S 17e41 69244 035 47.93 46 25.51 119 16.81.
6S244 2027 43.13 46 25.51 119 16.81
'69245 034 10 '4 46 25.10 1'l9 16.36 69245 1241 52.3S 46 25.92 11S 16.83 69245 2150 31.09 46 41.51 119 32.9D 69247 1817 11.24 46 25.56 119 15.45 69249 2228. 34.62 46 2S.63 119 14.S4 69253 1214 58 F 00 46 58 ADO 119 37e'l7 69255 021 52.51 46 35.23 118 25.84 69264 1021 20.93 46 26.01 119 16.9S 69269 1436 6'1 46 42.65 11S 34 ASS 69270 1
2 46 ~ 11 46 37e82 118 Se37 69275 OSS F 19 46 58.47 118 26'9 69275 214 27'9 46 26.03 119 16.43 6927S 3 0 47.58 46 42.29 11S 20.52 69275 637 4S.26 46 26.43 119 16.30 69276'56 50.93 46 41.66 119 '14.92 6S279 11SB 5'6 46 25'3 11S 17'5 69279 12 4 le30 46 25 F 58 119 17'5 69279 2230 19.48 46 53.67 120 26.38 69287 724 57 ~ 64 46 41 '7 119 16'5 69288 1S52 58'3 46 48e39 119 3'8 69289 1530 46.87 46 50.92 120 24.74 69289 1913 43.10 46 41.58 119 14.28 6929D 1810 37.66 46 48.80 120 21.77 69290 20 8 1.70 46 42.52 117 59.78 692S2 730 24.12 46 17.94 118 24.99 69293 2329 4.03 46 42.24 117 52.60 69294 2235 39'0 46 32.36 118 10'2 69296 1741 11 '8 46 SO.SD 120 23.70 692S6 2348 44.43 46 50.39 120 24.35 69297 447 5.19 46 41.71 1'ls 14.30 NA rQ'P Qg 2.20 7 114 17.2 2.84 10 314 47.9 2.26 10 277 25.8 2.26 5 286 29,9 2.09 8 113 17.1 2.20 7 286 29.8 1.38 6 220 21.3 2.91 7 112 17.6 2.40 8 119 16.5 2.40 7 1'l4 16.6 2.17 7 115 17.1 2.88 11.321 70.3 1.89 6 281 21.5 2.12 7 132 16.5 2.57 9 264 13.9 1.86 6 132 16.7 1.78 5 133 16.8 2.63 10 123 15.9 1.78 7 187 11.1 1.86 6 133 16.8 1.99 4 136 17.5 2.28 13 114 16.7 1.48 7 136 17.4 2.79 8 112 17.6 2.59 8 114 18.3 1.71 5 137 17.6 1.48 5 137 17.6 2.20 10 117 17.2 2.38 5
1 11 17.4 2.76 9 103 12,5 2.28 7 118 15.9 2.38 7 126 15.2 2 74 9 225 11.5 2.79 9 257 62 '
1.66 6 115 17.5 1.38 6 152 15.7 3.08 11 279 76.7 2.81 10 251 43.3
'- 2. 12 8 110 16.9 1.62 8 11S 10,3 1.48 7 132 16.5 1.86 7 121 S.S 1.82 8 143 18.9 1.78 6
141 18.5 2.83 9 323 60.5 1.99 7 133 7.0 1.75 4 3D2 13.8 2.65 8 319 56.3 2.31 10 123 5.4
'2.28 8 297 51.1 2.47 9 283 85.8 2.89 11 277 52.7 2.28 7 289 94.1 2.47 7 276 68.3 2.38 8 319 55 1
2.74 8 319 55.4 1.53 7 133 5.1
.10
.11
.19
.03
.24
.09
.05
.08
.16
.11
.16
.35
,04
.14
.23
.08
.01
.27
.07
.02
.01
.24
.DB
.11
.08 F 03
.03
.18
.07
.32
.02
.15 e21
.30
.09
.07
.36
.27
.05
.23
.17
.12
.11
.13
.11
.11
.06
.10
.16
.26
~ 34
.27
.41
.30
~ 35 F 09
.13 RH ERZ Ql
.4 1.3 B 1.7
.8 C 2.6 2.4 D
.8
.6 C
.4
.7 C 1.2 2.3 C
.6 89.8 D
.5 1.0 B
.6 1.3 C
.5 1.3 B
1.0 3.3 C 4.6 2.7XD
~.'9 1.4 C
.2
.7 B 2.5 2.4 D
.5 1.6 B
.1
.4 C
.9 2.6 C
.5
.8 C
.1
.4 B
.0
.0 C
.9 1.2 C
.4 3.8 C
.6
.6 B
.4 1.3 B
.4 6.3 D
.4 6;3 D
.8 2.1 C
.8 1.7 C
1.7 4.2 C
.2
.3 B
.9 1.4 C
2.4 1.8 C
4.5 8.6XD
.5 56.3 C
.7 44'4 C 7.2 3.7XD 3.1 3.8PD
.2
.5 B 1.0 1.S B
.8 1.4 C
.7 1.5 B
.4 4.3 C
.7 8.3 C
2.1 1.7XC
.6 1.4 B
.0
.0 C 2.1 3.2XC
.6 1.0 B 4.5 3.7XD 5.3 3.1XD 1.9 1.8 C
12.9 7.8XD 6.4 4.5XD 7.0 S.BXD 1.8 2.7XC
.8 1.7 B
I I
I I
APPENDIX B Continued DATE'RIGIN LAT N LONG W DEPTH HAG NO GAP DM Rgg ERH ERZ Ql 69301 039 47'7 46 50 'S 120 23'l 69301 416 55'9 46 50.61 119 18.11 69301 513 3.07 46 44.47 1'19 19.75 69302 034 37.17 46 49.89 120 25.27 6S303 1616 36.6S 46 50.39 120 24.64 69305 0 0 24.22 46 50.31 120 22.37 69305 112 47'9 46 50.55 120 25'3 6930S 041 29.21 47 8.34 118 14.56 6S309 1940 45.58 46, 51.05 120 23.4D 69310 021 30.92 46 48.24 120 21.60 69312 1140 20'4 46 43.76 119 7.45 693'l2 12 2
.58 46 43.67 119 7.35 69314 056 15.34 46 33.62 119 39.12 69314 814 17.25 46 44.34 119 6.85 69314 852 18.52 46 43.S1 11S 7.12 69314 185S 8.26 46 43.64 119 7.76 69314 1S 3 27.14 46 43.93 1'l9 8.1D 69322 1817 37.26 46 32.37 119 39.24 69325 423 57.87 46 30.62 119 37.76 69325 1631 55.99 46 37.33 118 53.66 69327 5 8 31.6D 46 42.32 119 22.20 69330 1216 28.82 46 31.57 119 39.19 69330.2231 8.66 46 25.79 119 15.72 69334 240 42.09 46 3S.37 118 46.42 69335 23 1 46.36 46 13.31 118 40.92 69337 2018 48.59 46 46.77 119 45.43 69347 17SS 56.92" 46 41.00 119 13.33 69382 2137 SS.87 46 41.12 119 13.38 69352 2257 39.62 46 41.36 119 13.'09 69364 141 56'.SS 46 40.69 11S 13.11 70 1
616 9.75 46 17.67 118 24.2D 70 1
644 28.24 46 19.47 118 23.79 70 2
858 51.43 46 44.82 1 19 22.16 70 10 117 19.93 46 55.81 118 12.59 70 15 1326 SS F 08 46 25'6 119 15'6 70 19 1133 1.73 46 58.31 119 40.94 70 19 1810 44.83 46 53.54 11S 24'l 70 20 184 S8.22 46 25.60 119 16.82 70 24 1358 32.50 46 25.79 119 17.99 70 30 035 31.46 46 50.63 118 17.07 70 30 557 49.48 46 26.34 119 15.05 70 31 1122 17'7 46 26'2 119 14
~ 56 70 32 1751 50.52 46 25.83 119 16.44 70 34 552 3.04 46 25.49 119 17.83 70 36 118 18.87 46 25.76 119 17.15 70 38 747 45.49 46 25.73 119 17.52 70 38 2249 56.51 46 56.13 119 25.60 70 39 2013 17.S4 46 25.S6 119 14.99 70, 40 053 28.05 46 52.40 11S 25.23 70 40 SSO 49.3S 46 S1.66 119 42.99 70 40 1618 54.73 46 5'7 119 25.14 70 41 S29 15'4 46 52.1 1 119 25.58 70 41 935 29.49 46 51.73 119 25.49 70 42 1037 15.81 46 52.S2 119 28.25 70 42 1047 11.40 46 26.16
'l 19 15.2S 70 43 319 33.79 46 26.10 119 17.56 70 44 247 35.57 46 45.47 119 2'l.97 6.24 5 ~ 33
.75 5.20 1.86
.50 5.32 1.80 2.52 2.10 1.58
.08 1D.28 1.49 3.00
.96
,1
~ 93 7.48 6.57
.36
.75 3.00 1.06 3.00 1.50 1.6D 3.00 5.16 3.00 4.21 1.35
.68 3.DO
.12 4.30 1.35 3.00 1.50
.59 2.70 1.89 3.0D
.42 5.86
.75
.09 3.00 3.00 3.00 7.39 2.36 1.35 3.0D 3.00 3.00 3.94 2.12 2.89 1.43 2.12 3.02 2.91 2.94 3.22 3.48 2'8 2.79 1
2.40 1
1.78 2.17 1.89 1.93 2.47 1
2.06 1.62 1.38 3.56 2.38 1.27 1.78 2.36 2,45 1
2.59 1.86 1.66 2.12 1.78 2.61 2.95 1.78 2.84 1.71 2.28 1.48 2.26 2'2 3.04 2.09 1.93 1.93 1.71 2.31 2'2 2.12 2.20 1
~ 86 1.33 2.12 1.78 1.71 2.03 2.59 1.58 1.48 S 318 54.8 7 277
'l 3. 3 1SO 8.6 8 319 56.0 7 331 55.7 8 318 53.1 8 319 56.3 9 326 86 '
8 319 54.9 0 31S 50.5 1
146
~ 7.2 8 146 7.3 6 161 10.2 7 262 7.8 7 147 7.5 0 145 6.8 7 144 6.3 6 24S 11.6 5 177 15.3 7 207 21.6 9 120 12 '
5 178 1 2 '
7 115 16.1 8 220 30.5 0 274 39.7 8 228 14.1 6 149 6.2 5 148 6.0 9 126 5.5 6 125 6.8 9 302 53.9 10 301 53.3 8
93 11.7 9 272 58.3 7 128 15.8 10 234 13.1 7 242 16.9 9 112 17.5 6 143 18.9 10 264 62.2 7 114 15,0 9 123 14.5 6 112 17.0 5 143 18.8 10 113 17.9 9 114 18 '
8 263 16.'7 7 117 15.1 8 141 15,1 6 261 7.5 11 146 15.3 6 224 14 F 6 6 220 14.7 10 145 15.2 8 114 15.4 8 140,18.3 5 21811.6
.09
.46
.14
.11
.09
.08
.06
.48
.11
.12
.25
.15
.08
.11
.19
.23
.11
.28
.08
.08
.13
.01
.07
.20
.37
.19
.07
.03
.16
.04
.35
.24
.11
.33
.03
.26
.11
.14
.07
.38
~ 23
.16
.04
.09
.16
.23
.22
.08
.27
.20
~ 12
.05
.12
.31
.10
.12
.07 1.8 6.1
.6 2.1 2.5 2.6 1.2 7.8 2,1 2.0
.9
~ 2
.8 1.1 1.2
.9
.8 6,6
,1.2.7.5
.2
.3 1.3 4 '2.2
.8
.4
.7
.3 2.4 4.1
.6 5.8
.2 2.1 1.6.5
.3 4.7.7
.6
~ 1.9
.6
.9 1.8.5 1.2 1
~ 0.5
.8 1.9 1.5.5
~ 4 1.0 2.3XC 3.2 D
1.1 B
3.1XC 3.8XC 2.0XD 1.8XC 4.2PD 2.9XC
- 2. 1XC 1.8 C
.4 B 1.2 B
1.4 C 2.3 C
2.4 C
1.5 B
4.9 D
1.8 C
3.3XC
.8 B
.4 C 1.9 B 1.4PC 2.2PD 1.3 C 1.5 B 1.4 C
.9 B
.4 B 2 '
D 2.5 D
.9 B 3.9PD
.3 B 4.2 C 1.0 C
1.3 B
.7 B 4.0PD
'.5 C
2.2 C
.4 B
1.1 C
1.3 C 2.3 C 1.6 C
.9 B 3.6 C
.7 C 1.3 B
89.0 D
B.l D 1.6 C
.9 B 4.1 C
10 ~ 5 D
APPENDIX B-Continued PTH 1.36 3,00 1.27 3.00
.67 1.45 F 00
.43 1.48 1.29
.68
.42 1.65 3.51 4.48 3.00 1.27 3.00 2.46 3.00 1.32 13.44 4.87 2.79 3.00 1
~ 50 2.53 3.00 1.50 3.00 3.00 3.00 1.35 13.80 3.00 1.50 3.00 3*00 1
~ 00 1.89
.15 2.03 3.00
.95 a.og 1.20
.40
.43
.29 3.00 3.00
.75 1.50
.50 16.70 1.51 3.00 70 44 959 52.34 46 52.28 119 25 F 02
,70 45 1337 27.03,46 55.02 119 23.03 70 45 1349 50.94 46 53.27 11S 25.36 70 46 617 1.43 46 53'3 11S 24.39 70 46 1836 20.16 46 52.S2'19 24.39 70 48 221 57 ~ 95 46 25e53 119 16'2 70 49 719 7.76 46 55.66 119 2S.75 70 52 1228 12.93 46 52.70 119 24'3 70 52 1232 9.93 46 52 F 08 119 24'6 70 52 1232 19.56 46 52.90 119 24.04 70 52 13 5 31.85 46 52.61 119 24.77 70 53 045 25.17 46 52.52 119 24.99 70 56 6 2 12.08 46 23.65 1 19
~ 70 70 57 1820 44'6 46 24.82 119 1.87 70 60 1051 11.67 46"52.37 119 25.62 70 61 1233 40.38 46 52.66 119 25.26 70 62 158 40,04 46 26.03 119 14.97 70 62 846 2.98 46 54.08 119 26.37
'70 62 851 4.51 46 52.90 119 26.S2 70 62 1728 7.92 46 52.93 119 25.64 70 62 1736 23.89 46 43.63 119 6.02 70 63 023 36.67 46 39.01 119 17.66 70 63 047 59.18 46 52.32 119 25.59 70 65 920 50.56 46 49.41 119 3.57 70 65 2147 49.63 46 40.06 119 16.57 70 65 2151 41.53 46 40.96 119 17.58 70 67 1819 54.35 46 40.S6 llg 17.67 70 69 233 5.78 46 53.06 119 25.02 70 69 1440 34.58 46 52.34 119 25.S3 70 71 02S 36.S4 46 15.42 11S 32.71 70 71 S48 7.05 46 53.28 llS 25.S4 70 71 10S6 59.49 46 24.63 119 1.75 70 72 042 40.01 46 51.75 119 24.84 70 75 1548 21.31 46 32.37 1'lg, 33.04 70 78 13 3 50.68 46 38.82 118 45.76 70 80 2043 13.82 47 19.S7 119 1.92 70 84 023 34'9 46 40.75 118 13.22 70 88 1527 46.36 46 52.95 119 25.09 70 88 1542 50.21 46 53.01 119 25. 12 70 SO 434 43 F 19 46 25.61 11S 16.38 70 S4 240 14,54 46 14.14 120 1.60 70 94 1043 27.52 46 25.68 119 16.56 70101 154 31e19 46 53'2 119 25eas 70101 252 46.8S 46 54.18 119 26.87 70105 1718 51.34 47 28'4 119 54.72
, 70112 342 38.39 46 53.11 11S 26.38 70112 22 3
.50 46 18.22 120 6.'15 7011S 220 36 F 15 46 25e63 119 16'5 7011S 228 57.41 46 1$.98 120 4.73 70123 1031 26.23 46 25.81 119 15.91 70126 050 17.68 46 49.11 119 18.87 70126 1715 37.74 46 53.83 119 27.26 70128 848 29.09 46 25.75 'llg 17.50 70128 18 9 19.3S 46 22.23 120 3.53 70132 1159 51.42 46 7.83 119 32.22 70132 2152 38.55 46 22'7 118 23.68 70133 2030 11.0S 47 21 '9 118 49.02 DATE ORIGIN LAT N LONG W
DE NAG NO GAP DM 1.82 7 227 15.3 1.71 6 287 23.6 2'6 8 148 15.1 2.31 11 148 16.4 2.03 9 144 16.2 2."17 8 112 17.7 1.96 7 259 16.1 1.58 7 233 16.0 1.71 6 226 15.8 2.12 7 236 16.7 1.86 9 142 15.7 2.28 6 230 15.4 1.43 7 255 8 7 1.62 6 249 6.1 2.65 8 141 14.6 1.71 6 231 15.1 1.S9 "7 117 15.0 2.12 6 244 14.2 1.89 8 148 13.,1 2.65 7 146 14.7 2.53 9 151 9.0 2.09 12 108 11.5 2.31 9 141 14.6 1.99 5 156 15.2 2.28 9 114 9.1 1.86 6 145 8.6 1.53 8 158 8.7 2.06 11 146 15.5 2.03 6 226 14.2 2'8 7 239 17.7 2.38 9 149 14.9 1.62 5 24S 6.5 1.SS 6 222 15.5 2.38 12 145 9.5 2.83 S 222 30.4 2.73 9 237 21.9 2.8'1 9 269 68.5 2.03 10 145 15.4 2.26 7 235 15.3 2.09 7 113 17.0 3.01 10 294 46.7 2.20 7 112 17.2 2.15 12 147 15.0 2.09 9 159 13.7 2.67 12 289 72.4 1.99 8 149 13.8 2.95 10 2S4 43.3
- 2. 15 9 112 17.6 2.78 7 291 41.1 1.53 8 131 16.3 1.99 7 117 11.6 2.83 6 157 13.0 1.99 8 lla 18.3 2.43 7 287 35.4 1.86 7 287 20.5 2'3 9 272 52.0 2.53 11 267 7.6
.05
.36
.19
.42
.12
.06
.26
.03
.02
.11
.09
.10
.35
.08 F 19
.04
.06
.07
.06
.07
.10
.31
.18
.05
.26
.14
.07
~ 37
.18
.42
.42
.06
.06
.a8
.20
.14
.37
.32
.06
~ 22
.40
.18
.43
.30
.31
.16
.21
.10
.19
.15
.13
.17
.12
.18
~ 22
.19
~ 33 S
ERH ERZ 01
.7 1.3 C 5.0 5.9 D,
1.2 2.1 C
1.9 2.1 C
.9 B
.3 1,4 B
3.1 D
.4
.3 C 26.2 D
1.5 2.0 C
.7 B 1,6 1.8 C
3.3 25.6 D
1.2
.7 C 1.2 1.5 C
.4 C
.3 86.9 C 1
~ 3
.9 C
.5
.9 B
.5
.8B
.5
.8 B 1.1 1;4 C 1.0 '9 C 1.2 3.5 C 2.5 B 1.5 53.8 C
~ 3
.6 B 2.0 1.8 C
.g 1.1 C
4.-3 D
2.0 2.2 C
1.6 2.5 C
.g 4.5 D
2.0 2 '
C 1.3 1.4PC 2.1 53.1PD S.SPD 1,5 1,7 C,
~ 8 F 1 C
1.8 87.4 C
5.8 3.8XD 1.3 2.5 C 1,5 2.2 C 4.3 C 2.2 2.6PD
.8 1.9 C 3.0 2.3XD
~ 5
.SB.
2.3 2.4XC
.6 ST 4 C
.8 1.6 B 1.8 3.6 C
.6 1.9 B 5.4 4.5XD 3.6 1.7 D
3.0 2.3PD 3.0 2 'PD
I I
I l
I
APPENDIX B Continued DATE
.42
- 3. 00 4.40 1.93 2.70
.75
.42 1.36 2.16 3.00 6.32 3.00 5.95 1.63 3.00 2.52 2.63 3.62 6.23 6.5S
.25 5.87 6.66 3.00 15.90 1.50 3.80 12.73 1.38 1.50
.75 3.00
.58
.03 1.17 2.68 5.21 11 21 7.33 1.76 7.60 1.35 2.08
.10 1.50 5.56
.20
.29
.43 3.00 3.00 3.00 1.20 3.00 9.67 13.24
.75 ORIGIN
'AT N LONG N DEPTH 70138 622 37.12 46 25'7 119 15.72 701,'39 2322 42 F 84 46 35.17 119 4.82 70140 1228 5.08 46 38.66 119 16.93 70140 23 7
.02 46 22,31 120 5.84 70143 19 2 32.45 46 IS.30 119 23.S2 70144 IS48 40.43 46 25.7S IIS 17'3 70148 1234 17.13 46 49.56 IIS 21.87 70149 llSS 29.63 46 25.S3 119 18.00 70153 858 53'6 46 3S
~ 4S 119 4'4 70154 1248 SS.41 46 48.30 119 22.29 70154 1730 27.32 46 48.27 119 22.29 70'l54 1949 13 '1 46 48.61 119 21.72 70155 2155 56.90 46 45.57 119 24.22 70156 217 8.45 46 48.33 119 22.57 70159 936 30.08 46 45.21 I 19 24.62 70162 1043 26.04 46 48.S6 119 18,32 70167 1529 17.83 46 57.32 119 34.44 70168 2040 52.70 46 5S.IS 119 28.66 70170 IS41 S.30 46 38.39 118 46.84 70170 2118 14.67 46 18.74 119 58.44 70173 053 56.87 46 26.28 120 10.20 70173 226 25.31 46 38.08 118 44.27 70175 2134 3.22 46 14.20 119 6.2S 70176 222 47.97 46 52.29 119 17,38
~ 70177
'010 4S.74 46 11.47 119 6.36
,70177 132S 29.79 46 25.30 IIS 15.43
'70193 1023 33.84=46 SORY 16 119 24.41 701S6 1357 57.51 47 6.75 119 13.89 701S8 1324 35.05 46 48.57 119 23.31 70199 021 24.37 46 48.36 119 23.36 701S9 316 25.62 46 48.14 119 23.43 70208 035 49.66 46 49.69 119 19.13 70208 2159 42.32 46 48.74 119 22.61 70210 1320 52.69 46 48 '5 IIS 22.S9 70210 2310 44.93 46 49.61 IIS 27.89 70211"'l743 20.54 46 49.34 119 22.77 70212 618 29.41 46 42.07 I'IS 55.02 70214 1519 5.13 46 39.38 119 5.64 70215 1611 38.35 46 28.77 119 38.46 70217 1.52 28.17 46 51.74 119 25.77 70222 2121 26.73 46 48.91 119 20.36 70228 S 0 54.59 46 32 '2 118 7.78 70235 1111 40.67 46 44.69 IIS 20.69 70235 1216 55.41 46 44.84 119 20.20 70236 1157 21.52 46 44.97 1'19 20.58 70236 1238 57.77 46 49.48 119 18.6S 70236 21 7 29.06 46 44.83 119 20.13 7023S 1126 11.9S 46 39.64 'llS 35.65 70240 16 9 S.65 46 50.23 119 18.63 70244 1348 43.04 46 42'7 118 IS.31 70246 2242 51.01 46 44.92 119 20.61 70247 557 31.12 46 41.54, 119 37.00 70248 1417 40.51 46 53.39 119 32.64 70250 17 7 46.95 46 44.78 IIS 20.87 70254 220 '54.11 46 38.53 120 23.17 70255 1326 52.29 47 10.07 119 26.49 70257 IS26 28.72 46 44.S6 119 23. 17 MAG NO GAP DH RMS ERH ERZ Q1 2.06 8 115 16.'l
.10
.5 1.3 B
1.58 6 205 13.6
.32 4.0 5.6 D
2.12 11
'110 11,7
.22
.9 1.1 B
2.23 5 300 37.3
.03 1.4
.SXC Io66 7 172 11.5
.32 I
~ 8 3.6 C
2.38 7 116 18.9
.09
.2
.5 B 2.09 10 IIS 14.9
.24 1.0 1.9 C 2.28 7 116 18.9
.05
.2 71.1 C
1.75 5 205 14.2
.06 1.0 1.8 C
1.66 7 193 13.9
.14 1.1 2.0 C 1.75 5 192 13.9
.06 1.7 1.2 C 2.03 6 ISS 13.6
.10 1.6 13.3 D
1.43 7 154 14 '
~ 06
~ 3
.4 B 2 09 9 112 14 3
F 14
.8 1.6 B 1.53 5 216 14.9
.02
.6 4.8 C
1.71 5 219 10.9,
.07 1.4 I, 6 C 1.96 7 291 10.8
.10 1.3 1.1 C
1.86 6 286 17.4
.10 1.7 1.4 C
2.28 ll 220 28.9
.48 3.4 6.7PD 2.45 6 286 37.2
.16 6.3 9.0XD 3.08 10 2S3 37.0
.33 4.2 3.2XD 2.28 7 233 31.1
.17 2,4 5.3PD 2.67 8 261 16.4
.15 3.1 2.8 D
1.78 8 251 15.8
.24 I.S 2.9 C 2.03 7 280 17.0
.17 2.0 1.1 C
I+99 S 120 16 '
~ 35 2 '
30 '
C I.03 6 22S 2.1
.03
.3'4 C
1.16 15 166 17.2
.35 1.0 2.8 C 1.16 6
96 1.8
.19 1.6 6.5 C 1.14 7
97 2.2
.17
.8 3.3 B
1.21 8
79 2.6
.16
.5 1.1 B
1.08 5 134 5.1
.08
.8 2.9 C 1.46 10 71 1.6
.20
.5
.5 B 1.02 6 162 2.5
.09
.2
.2 B
1.77 9 128 6 I.'l2'6 1.8 B 1.23 11 100
.5
.37 1.1 2.2 C I ~ 2S 6 324 15e4 F 04
~ 6
~ 3 C
.55 6 142 13.1
.05
.4 1.1 B
.79 6 171 10.6
.08 29.5 38.4 D
I ~ 22 10 137 5.4
.11
.4 5.7 C
.54 6 156 3.6
.02
.3
.4 B I.SS 15 278 61.6
.41 2.3 2.2 D
3.35 15 58 9.4
.11
.3
.6 B 1.58 14 127 9.2
.16
.4
.6 B I
~ 34 13 131 9.0
~ 23
.7 15.9 C
1.3S 10 118 5.6
.2S
.9 2.1 B
1.35 14 Sl 9.1
.22
.6
.9 B 1.88 24 70 12.4
.19
.3
,6 C 1.60 13 144 5.8
~ 17
.6
.9 C 2.85 20 261 46.1
.35 2;4 2.6 D
1.53 8 132 9.1
.20
.8 4.3 B I ~ 19 8 128 14.1
.26 1.2 22.2 C
1.01 5 238 6.4
.12 3.4 4.0 D
1.34 12, 13S 9.2
.29
.9 2.5 B 3 47 17 282 46 5'2 I 6 I ~ I C
I
~ 52 15 193 31.6
~ 38 1.7 I
~ 5 D 1.30 11 68 8.4
.14
~ 5 r 1.0 B
I 1
APPENDIX B - Continued DATE ORIGIN LAT N LONG W DEPTH MAG NO GAP DM RMS ERH ERZ Ql 70260 70262 70262 70263 70265 70268 70268 70272 70272 70272 70272 70273 70274 70274 70274 70274 70274 70275 70275 70276 70277 70280 70282 70285 70286 70287 7D288 70288 70288 70288 70290 70290 70292 70293 70294 70297 70303 70305 70305 70309 70310 70310 70310 70311 70311 70311 70311 70312 70314 70315 7D315 70315 70316 70318 70323 70326 70326 527 4 250 1125 2 17 2 224 5
537 3
1215 3
322 3
1750 1
1851 1
2247 5
2112 2
744 1045 2
11 7
1146 5 13 7 1556 2
1682 11 71 1922 2
656 1
825 2 435 2
822 1
1016 21 22 21 43 2130 2
2135 4
1623 1
1651 4
715 0 7 3
652 4 21 1
1 533 4 333 3
454 4 854 14 2 5 1417 4 1815 1
719 3
719 4 844 1433 D51 1139 536 16 3
16 4 139 1540 2040 045 1059 1.10 46 48.76 119 21.65 5.75 46 25.53 11S 15.36 6".19 46 36.79 119 6.51 5.50 46 16.35 119 30.82 1.33 46 49.92 119 32.38 9.97 46 42.89 119 20.82 5.58 '46 5D.19 119 32.12 6.82 46 45.44 119 22.40 4.15 45 50.08 119 6.76 9'6 46 45.86 119 23.20 2.94 46 56.75 119 45.15 6.56 46 21,51 119 4.64 0.93 46 49.95 119 33.16 5.34 46 49.83 119 33.38 6.63 46 50.21 119 33.11 2'8 46 45.45 119 22.42 1.47 46 5D
~ 05 119 32.62 4.73 46 45.63 119 22.29 3.42 46 45.26 119 22.40 8.18 46 44.84 119 21.94 6.14 46 44.96 119 22.77 4.91 46 10.S6 119 38.82 1.79 46 45.14 119 22.89 4.95 46 44.54 119 21.13 0.46 46 38.S3 llS 3,82 1.21 46 45.25 119 23.80 4.84 46 38.48 119 5.78 5,09 46 38.17 119 6,36 3.06 46 38.51 119 5.82 2.38 46 38.64 119 5.48 4.59 47 8.71 119 38.30 8.17 47 8.63 119 39.75 8.09 '46 54.24 117 41.03 2.33 46 38.52 119 5.76 4.71 46 37.68 119 6.84 2.37 46 44.92 11S 22.26 0.57 46 38.53 119 5.47 8.64 46 44.75 119 20.74 4.61 46 48.81 11S 33.55 8'3 46 34.68 11S 3.45 4.88 46 40.S8 1 18 52.80 2.60 46 49.95 119 21.23 6.77 46 41.47 118 53.02 8.24 46 25.65 11S 17.99
- 4. 14 46 25.60 119 17.61 38.64 46 25.35 119 17.90 22.57 46 25.38 11S 17.81 41.72 46 24.31 118 59.98 6.24 46 45.12 119 22.05 11.24 46 43.10 119 20.S2 37.01 46 41.43 118 52.60 36.91 46 41.43 118 53.30 38.01 46 39.04 119 2.89 45.SO 46 25.81 119 17.31 25.40 46 38.33 119 5.17 3.57 46 SD.01 120 20.83 25.20 46 38.58 119 5.14 1.50
.10 6.10 6.90
.34 3.00
.06 3.00 6.17 3.00 10.28 5.33 3.00 3.00 3.00 4.65
~ 33 3.78 3.53 1.12 3.00 12.29 3.00
.75 3.00 3.00
. 1.29 4.60
.35 1.24 1.50
.19 3.00
.43
.68 3.00 6.05 1.86
.81 6.98
.75 5.37 3.00 1.31
.84
.70
.26
.61 1.50 3.00
.2. 33
.38 11.69
).72
.08
.50 3.00 1.54 7 107 '.3 1.65 10 119 2.6
.68 8 '115 15.3 1.54 11 228 14.4 1
~ 12 12 123 6.S
.97 8 133 10.3 1.16 6 161 7 0 2.08 15 94 12.2 2.40 18 320 47.2 2,8D 17 90 6.8 2.61 19 172 13.8
.93 5 227 11.9 2.34 18 120 6.0
.84 10 143 5.9 1.34 10 135 5.8 2.91 14 87 7.6 1.70 13 124 6 '
3.34 14 87 7.3 1.73 10 101 7.9 1.97 15 100 8.8 1.34 9 194 12.5 1.71 15 284 23.6 1.78 18 97 8.1 1.53 11 138 9.5 1.S6 14 97 11.2 1.42 12 110 7.9 1.40 11 90 13.8
.91 6 154 14.2 1.69 13 90 13.9 1.66 11 92 13.4 1.96 9 246 31.4 1.78 11 246 31.4 3.20 1S 300 S2.2 1.73 12 91 13.8 1.62 13 146 14.6 2.15 14 87 8.6 1.49 8 127 13.4 1.58 12 94 9 '
1.47 15 113 7.1 1.45 8 128 12.6 1.14 6 286 4.4 1.54 8 156 2.5 3.08 15 199 5.0 1.78 8 106 1.0 2.84 19 108
.7 1.47 6 108 1.3 1.9D 8 10S
'1.2 1.88 14 21S 8.1 1
~ 56 15 81 8.2 1.39 8 130 10.4 2.13 11 201 5.2 1.61 8 198 4 7 1.12 6 141 10.0 2.85 17 108
.2 1o69 10 91 13.1 2.82 20 293 30.7 1.04 6 143 13.0
.35
.03
.16
.19
.16
.20
.13
.28
~ 18
~ 31
.36
.02
~ 26
.24
~ 22
.13
.10 elS
.10
.28
.12
.36
.32
.24
.22
.'18
.11
.07
.12
.17
.40
.34
.aa
.07
.45
.08
.13
.20
.46
.15
.24
.11
.23
.09
.15
.08
.13
.28
.30
~ 12
.18
.13
.06
.09
.09
~ 12
.05 1.1
.1
.7 1.6
.5
.8 1.1
.8 1.9
.7 1.5
,4
.7 1.1 1.0
~ 4
.3
.6.5.6
.7 2.4
.7
.7
.6
.7
.5
.a
.6 2.6 2.a 6.4
.2 1.0
.3.5.6 1.1 2 '
3.1.7 1.1
.4
~ 3.6
.6 1
~ 4
~ 7.6 1
~ 0
.8
~ 5
~ 2
~ 3 2.7.3 2.9 C B
3.4 C
1.2 C
.8 B
6.6 C 1.5 C 1.6 C
1.1 C
1.2 C 3.2 C 1.6 C
1.0 B 4.9 C
4.5 B
.5 B
.5 B
.8 B
.6 B 2.2 B
1.2 C
1.6 D
1.6 C
1
~ 3 C 1.5 C 1.2 B 1.0 B
1.0 B
.7 B 1.2 C 5.9 D
2.3 D
5.7 D
.3 B 1.3 C
.5 B
.7 B 2.3 B 3.1 C
2.0 B
2.8 D
.7 B
.9 C 1.2 B
.8 B
.5 B
.6 B 1.4 C
5.7 C
2.1 C
1.1 C
1.3 C 1.2 B
.5 B
.5 B
- 2. 1XD 3.3 C
I l
APPENDIX B-Continu ed
'AG NO GAP DM RHB ERH ERZ Ol DATE ORIGIN
'AT N LONG W 'EPTH 70326 1215 50.24 46 38.82 119 '2.87 70326 1219 19.90 46 25.68,119 17.45 70328 1'l18 24.61 46 56.DB 11S 26.89 70329 728 7.24 46 3S.48 11S 35.63 70329 915 45.14 46 34.60 119 4.80 70329 1239 14.99 46 55.45 119 18.06 70330 450 58.78 46 39.56 'llS 35.91 70330 626 31.19 46 39.33 119 35.75 70330 727 20.66 46 39.51 119 36.03 70331 551 49.42 46 26.47 'l19 15.83 70331 613 10.08 46 26.03 119 15.52 70331 739 27.88 46 26.21 119 15.47
- 70331, 8 3 10.24 46 25.54 11S 15.SB 70331 912 51.65 46 55.5S 119 38.81 70331 1127 30.21 46 34.97 119 6.11 70331 12 2 30.31 46 48.28 'l19 24.14 70332 16 1 51.90 46 49.61 1'l9 24.03 70333 101S 27.86 46 40.83 118 '51.87 70333 1021 1.36 46 34.62 119 5.88 70333 1040 24.95 46 41.28 118 52.74 70333 11 S 36.19 46 49.09 119 24'8 70333 1132 13.22 46 41.57 118 52.48 70333 17 9 49.72 46 49.61 119 24.,06 70333 1721 25.47 46 48.94 119 24.39 70333 1824 1.27 46 39.50 118 SS.'55'0333 2315 53.87 46 11 'D 120 6.47
70334 1035 16'9 46 48'6 119 23'3 70334 1117
- 7. 11 46 48.92 119 24. 10 70334 1248 53.84 47 7.79 119 37.89 70334 1847 53.22 46 48.60 119 23:60 70334 20 1 56.45 46 41.35 118 52.73
'7033S 7 6 38.76 46 41.83 118 52.50 70335 942 25.41 46 34.78 119 4.83 70335 23 4 1.87 47 8.79 119 38.58
.70336 411 50.17 46 48.99 119 23.67 70336-430 28.51 46 49.14 119 23.79 70336 436 1.51 46 48.SB 11S 23.63 70336 ll 1 46.52 46 34.70 119 4.17 70337 351 49.60 46 34.72 119 3.68 70337 358 27.31 46 34.82 119 3.08 70338 1846 21.23 46 39.57 1 19 6.31 70338 2253 56.08 46 38.02 119 4.98.
70343 2319 45.59 46 16.73 119 56.27 70344 1151 6.77 46 38.53'1S 5.22 70345 053 20.15 46 34.94 119 4.20 70345 054 8.45 46 34
~ 55 119 3.00 70345 6 2 31.27,.46 48.51 119 24.49 70345 191D 35.27 46 48.86 119 24.12 70345 1939 S5.90 46 48.57 11S 24.01 70345 2027 11 '8 46 48'1 119 24'4 70346 913 27.58 46 SD.12 119 24.18 70346 'l344 32.44 46 48.77 119 24.20 70346 1745 22.87 46 4S.32 119 23.90 70347 140 7.23 46 49.23 119 23.87 70347 6 8 34.28 46 48.43 11S 24.30 70347 717 31.52 46 48.62 119 24.07 70347 725 36.49 46 49.01 119 24.10 7.89 1.50 3.00 5.23 7.20
.22
.15 3.00 2.91
.22 1.55 1.72
.67 3.00 6.58
.75
- 2. 66 3.00 7.59 3.00
.38
.13 2.57
.37
.43 6.50
.12
.75
.92
.10
.75
.Oa 7.72 3.00 1.66 1.75 2.53 8.28 4.63 6.78 3.00 7.23
.50 6.9S 3.00 7.97 1.50 1.27 1.71
.65 3.00 1.99 1.54 1.41
.52 2.31
.42 1.56 6 138 10,0 2.00 11'08
.5 1.50 11 202 13.1 1.32 6 126 10.5 1.22 6 157 12.5 1.86 11 1SS 12.7 2.05 30 71 1D.4 1
~ 36 6 128 10.8 2.06 24 71"10.5 1.74 S
161 2
1 1.93 12 182 2,3 2.19 11 179 2.4 1.8S 9 187 1.8 1.84 1D 202 7 '
.71 5 167 13.5 1.83 1'I 99 2.6 1.30 7 220 1.2 2.22 13 204 5.0 1.58 7 108 12.8 1.99 10 201 4 '
l.79 13 123 1.8 1.97 7 243 5.5 1.48 9 175 1.2 1.46 11 121 2 '
1.77 4 200
.9 2.98 18 297 4S
~ 6 1.55 10 88 2 5 1.37 10 121 1.7 2.49 16 1S9 29.7 1.29 11 S2 1.8 1.84 10 242 5.0 2*31 7 243 5.9
.7S 7 116 12.9 2.04 13 204 33.5
.65 7 154 1.2
.77 7 171 1.1
.77 7 152 1.2
.47 5 151 12.6 1.24 11 126 12.7 1.14 8 131 12.8
.65 6 137 12.3
.61 6 145 12 '
2.74 16 261 29.7
.36 6 144 13.1 1.41 14 120 13,1 1.01 8 133 12.4 1.06 10 113 2.6 1.14 14 113 1.8 1.51 14 104 F 1 1.35 13 97 2.8
.81 8 252 1.8 1.45 19 112 2.0
.SB S 146 1.1 1.13 10 124 1.1 1.18 14 107 2.5
'1.48 20 107 2.1 1.13 8 127 1.6
.OS
.30
.24
.09
.07
.11
~ 27
.07
.21
~ 27
.16
.09
.27
.12
~ 12
.14
.12
.31
.12
.26
.23
.14
.13
.25
.06
.34
.12
.27
.19
.28
.20
~ 14
.16
.19
.08
.10
.10
.05
.18
.24
.11
.18
.21
.04
'24
~ 22
.IS
.17
.15
.16
.08
.29
.09
.13
.20
~ 18
.07
.2 C
.9 C
.2 C
.3 C
.5 D
.6 C
.7 C
.6 C
.6 C 1.1 C
1.4 C
.9 B 1.4 C 1.2 C 5.8 D
.5 B 1.1 C
1.4 D
6.4 c 1.3 C
.7 B 1.6 C
.8 B
.8 B
.0 C
- 3. 5PD
.4 A
.8 B 1.4 C
1.1 B
2.2 C
1.7 C 6.2 C 2.7 C 1.5 B 1.7 C 1.5 C 5.1 D
1.3 C 2.6 C 6.5 C 0.5 D
1.3XC 3.7 C
1.7 C
8.8 C 3.8 B
1.4 B
B
.8 B
.5 C 1.0 B 1.1 B
1.4 B
.5 B
.6 B
.4 B 1.1 4
.8 1
1.2 3
.5 2
5.2 6
.6
.3 3
.3 1.4
.9
.6
'l.9
.7 1.4
.3 1.5 1.5 1.0 2
1.3.6
'1.5
.7.7
.0 3.2
.3
.8
.9.8 1.9 1.5 2.1 2
1.9 1.0 1.3 1
~ 4 1.0
.6 2.6
.9 B.S 1
2.3
.3. 0
.6 1.6.5.4.5
~ 4
.6.6.4.5
.4
.4.4
l
APPENDIX B continued DATE ORIGIN LAT N LONG W D
70347 7S4 2.72 46 49.85,119 24.D3 70347 8 5 38,53 46 49.00 119 24.00 70347 1647 55.97 46 48.Sl 119 23.72 70347 1827 28.19 46 49.03, 119 23.99 70347 18S3 40.16 46 48.42 119 23.80 70347 1930 38.47 46 49.01 119 23.83 70347 1S44 44.44 46 38.38 11S
.87 70348 014 2.48 46 48.98 119 23.80 70348 120 1S.54 46 39'67 119 6.82 70349 521 44.24 46 41.27 118 52.70 70353 5 9 34.38 46 41.30 118 54.06 70353 531 52.38 46 41.12 118 52.04 70353 621 41.45 46 41.91 118 49.87 70353 2050 8.81 46 38.61 119 5.11 70355 1031
.49 46 6.14 119 26.87 70355 1347 37.44 46 7.44 119 27.15 70355 1538 18.61 46 44.54 1 19 23'7 70355 2112 28'0 46 37.63 119 9.70 70356 013 31.64 46.6.98 119 26.91 70356 014 12.63 46 7.88 11S 28.60 7D356 021 2'l.02 46 8.57 119 29.15 70357 854 'l4.36 47 2.33 11S 26.17 70358 1027 24 '1 46 53.79 119 33.00 70358 2044 23.S9 46 48.55 1 19 23.83 70358 21 1 33.56 46 55.59 119 32.50 70358 21 7 40.51 46 55.25 11S 32.88 70359 1436 4.87 46 4S.42 119 33.08 70359 2049 12.97 47 3.08 119 26.5D 70360 038 32.60 46 49.27 119 32.73 70360 123 11.41 46 49.59 11S 32.81 70360 8
1 47.21 46 49.05 119 32.59 70360 946 56 F 88 46 52.92 119 29.'35 70360 14 7 7.56 46 44.55 119 24.10 70360 1936 27.81 46 54,40, 11S 32.49 7036D 2029 18.23 46 50.09 119 32.63 70361 7
1 45.72 46 4S.31 119 33.19 70361 719 30.49 46 38.20 119 5.36 70361 15 1 16.60 46 38.84 119 3.88 70361 1925 12.61 46 38.23 119 5.74 70362 5 4 11 '1 46 38.21 119 6.00 70362 1526 34.83 46 38.16 119 6.05 71 1
1243 28.54 46 23.72 119 1.71 71 2 2022 26.73 46 49.06 119 23.36 71 2 2324 32.S3 46 49.07 119 23.35 71 Z 2356 2.28 46 49.80 119 22.69 71 3 2047 3.51 46 49.16 119 23.83 71 4
119 30.60 46 48.88 119 23.98 71 4
128 33.30 46 49.07 119 23.56 71 4
438 28.85 46 49.5D 11S 23.55 71 4
744 18.SO 46 48.73 119 23.36 71 4 1610 34.02 46 14.69 11S 21.21 7'I 4 1837 58.34 46 48.90 'll9 23.56 71 4 1842 36.66 46 48.84 119 23.62 71 4 2034 54.22 46 49.47 119 23.Z4 71 5
030 35.15 46 49.00 119 23.86 71 5
136 44.43 46 49.16 119 24.07 7'I 5
138 16.4D 46 4S.OS llS 23.68
.5
.8 C
.4 1.0 8
.7 1.2 8
.6
.7 8
.3 1.9 8
.5
.6 8
.7 4.9 8
.4
.6 8
.5 6.3 C 1.2 1.7 C
.9
.8 C 1.8 1.4 C
1.'2 2,2 C
.9 8.2 C
4.7 56.9 D
6.4 9,5 D
.4 3,7 C "
."4 5.6 C
4.5'4.1 D
6.'2 6.6 D
3.2 1.8 D
.8 1.1 C
.8 2.8 C
.4
.S 8
.4 2.8 C
.6 1.8 C
.3 1.0 8 1.2 1.9 C
.7 3.2 C
.9 2.4 C
.5, 1.5 8
.3
.4 8
.3
.9 8 1.4 2.2 C
.4
.7 8
.1
.3" C 1.1 12.7 C
.5
.9 C
.4 1.4,C 1,1 14.8 D
.5134D 1.5 1.5 C
.5
.5 8
.3
.2 8 1,7
.9 C
.6
.5 8
.4
.4 8
.3
.3 8
.4
.2 8
.6 2.1 8
.9
.BXC
.4
.4 8
.5
.9 8
.8
.8 8
.5,
.68
.5
.6 8
.7 1.0 8
.06
~ 17
.09
.24
.15
.24
.15
.18
.13
.18
.24
.25
.07
.07
.18
.19
.06
.12
.18
.18
.12
.20
.23
.09
.05
.08
.13
.26
.17
.33
.14
.10
.11
.26
.25
.01
.14
.18
.04
.11
.05 F 08
.08
.04
.18
.09
.15
.12
.04
.14
.20
.07
.13
.10
.16
.18
.23
.82 7 241 1.3 1.39 16 115 1.5
.99 6 152 1.4 1.17 l2 122 1.4 1.0S 10 94 2.2 1.75 20 113 1.3 1.06 9 133 7.6 2.24 20 113 1.3
.65 6 149 11.7 1.42 1D 201 4.9 1.98 17 187 4.1 1.37 8 245 5 2 1.07 5 295 8.3
.64 6 142 12.9
.S5 6 3D7 17.8 1.29 BI'296 16.1 F 80 6.'77 13.7
.68 8l05 13. 1
,90 6 303 16.6
.97 6 291 16.8 1.26 7 286 16.5 2.04 18 162 23.6 1.30 13 154 6.4 1.08 S
98 2.0
.97 8 274 9.1
.96 S 269 8 '
1
~ 20 14 112 6.7 1.34 17 166 24.4
.78 9 138 '7.2 1.29 14 116 6.8 1.23 ll 97 7.6 1.09 13 172 10.D 1.04 14 S3 9.3 1.30 11 207 7.6, 1,6D 16 125 6.5
.54 5 136 6.7
.68 7 123 13.3 1.9D 16 S2 11.3
.47 5 149 13.8
~ 39 5 151 14 1
.44 5 152 14.2
.62 6 265 8.1
.73 8 102
.9
.71 7 102
.9
,79 7 208
.7
.72 6 12S 1.1 1.80 14 115 1.6 1.83 16 107 1.0
.77 7,164
.6
.99 7
85 1.5 3.02 16 188 3.0 1.26 8 101 1.3 1.44 11 99 1.4 1.22 8 144
.2 1.71 15 113 1.4 1.94 15 114 1.4 1.54 14 115 1.1 3.00 1.4S 2.19
.48 1..50 3.00 3.00 3.00 7.60
.74 F 00.
4.24
.89 7.84 7.82 7.41 3.00 3.00 7.84 5.82
- 5. 54 3.00 3.00
.10 2.03 3.00 3.00
.53 3.00 3.00
.75
.34 F 00 3.00
.38 4,51 7.83 2.89 7.45 F 00 7.54
.24
.40
.54 1.06
.46
.65
~ 72
.69 1.35
.25
.40
'I.70 2.16 2.05 2.90 2'2 EPTH NAG NO GAP
APPENDIX 8 Continued EPTH DAT 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 71 E
ORIGIN LAT N LONG M D
5 258 52.04 46 4S.DO 11S 23.77 5'14 40.52 46 49.01 119 23.53 5
319 30.96 46 4S.D7 11S 23.63 5
327 54.19 46 49.28 119 23.5D 5
331 58.65 46 49.07 119 23.19 5
334 10.93 46 49.16 119 23.48 5
357 19.58 46 48.98 119 23.36 5
423 30.49 46 48.7S 119 23,46 5
456 46.82 46 49.14 119 23.52 5 1254 21.81 46 49.20 'l19 23.D6 5 195'l 52.18 46 49.01 11S 23.36 6
841 49.04 46 4S.44 11S 23.26 6 1019 32.35 46 49.22 119 23.90 6 1339 11.2S 46 44.90 11S 25.02 7 12 4 55.57 46 44.60 119 21.46 8
112 13.54 46 50.50 119 23.33 8
8 0 49.54 46 39.4S 119 34.69 8 'll 8 15.12 46 53.17 119 17.56 9 2023 15.58 46 38.45 119 6.36 9 2045 13.62 46 37.89 119 6.25 11 3 5 33 F 10 46 38.66 119 4.76 11 14 5 26.57 46 41.16 118 52.16, 14 1539 45.29 46 39.49 119 34.80 15 17 5 22.60 46 38.99 11S 4.26 16 2050 2.31 46 54.40 llS 33.37 18 1821 31.42 46 38.99 119 3.81 19 628 17.62 46 41.47 118 50.48 19 937 49.70 46 38.40 119 4.97 20 1725 51.55 46 39.49 119 34.87 20 2025 53.48 46 38.6D 119 6.21 20 2058 46.30 46 38.13 119 6.47 21 18 2 48 '7-46 40.89 118 51.98 21 1848 32.01 46 '38.57 119
" 6.58 21 224'4 SD.75 46 38.17 119 6.49 22 413 52,41 46 38.38 119
- 7. 19 22 '1225 44.26 46 54.26 11S 32.47 22 15 7 17.89 46 54.06 119 32.71 22 16 5 4D.15 46 38.08 11S 7.46 22 18 7 35.78 46 37.2S 119 S.49 22 2159 '57'4 46 16.51 120 23.08 23 228 44.17 46 37.40 119 9.67 23 243 22.10 46 37.67 11S S.69 23 2329 55.43 46 37.37 119 9.92 23 2332 37.54 46 37.23 11S 9.48 24 025 2.07 46 49.65 119 23.13
~ 24 21 4 41 '5 46 37.75 119 8.18 24 21 5 48.D2 46 37.47 11S 10.DS 24 2110 13.57 46 37.44 119 10.40 25 053 41.29 46 37.63 119 10.48 25 927
.38 46 37.86 119 10.14 25 1745 16.32 46 49.50 118 46.04 26 413 38.23 46 55.74 119 32.59 26 841 4.83 46 55.59 119 32.83 26 1017 5.02 46 55.28 119 33.28 26 1335 26.99 46 53.37 119 32.68 26 1857 4.31 46 54.S8 119 32.67 27 649 29.43 46 55.53 119 32.37
.18 1.25
.29
.84
.49
.61
.61
.03
.62
,86
.54
.92
.66 7.17 3.00 1.82 5.64 5.97 1.50 3.00 2.07
.29 6.08 5.76 3.00 1.71 1.53 3.00 3.00 11.45
- 2. 86 1,50 7.83 3.00 4.29 2'3 3.00 3.00 5.83
.25
.68 3.00 1.80 3.DD 2.45 1.50 2.82 2.43 2.1D 3.00 4.32 3.00 1.17 1.36 1.23 3.00 1.50 MAG NO GAP DM lo31 12 116 1
~ 3 1.79 13 104 F 1 1.21 11 114 1.1 1.13 8 126
.7 1
~ 51 12 83
.8 1.37 S 111-
- 8 1.63 15 90 1
~ 0 1.71 14 91 1
~ 4
.77 8 113
.9 1,14 8 129
.6 1.54 11 94 1.0
.81 6 177
.2
.58 8 137 1.2 1.04 8 104 8 '
1.63 17 56 9.,3
.93 6 256 1.9 1.13 7,'24 10.4
.47 6'85 9.8 1.07 9 111 13.8
.70 5 155 14.5 1.0S 10 93 12 '
1.49 8 203 5.2
.82 7 124 10.4
.62 6 137 11.8 1.54 13 205 6.8 li75 16 98 11.2 1.15 6 293 7.2
".71 5 142 12.8
.47 5 125 10.4
.80 6 151 13.7 1.85 18 86 14.2 1.56 7 204 5.0 1.17 7 123 13.4 1.70 14 86 14.1 1.65 11 82 13.3 2'2 12 134 7.4 2.69 12 133 7.0 1.55 7
85 13.6 1.69 S 166 13.8 3.02 16 3D4 60.9 1.46 12 78 13.5
.68 6 105 13.1 1.13 7
97 13.5
.79 6 107 13.9
.79 6 247
.3 1.16 7 163 13.7 2.38 10 78 13.3 1.21 5 192 13.2 1.14 6 144 12.8
.76 7 141 12.5
?.08 12 207 22.3 1.56 10 215 9.3 1.80 12 139 8.9 3.22 11 138 8.1 1.51 11 1S2 6 3 1.54 10 210 8.1 1.45 12 214 9.2
.09
~ 14
.08
.10
.07
.06
.13
.D9
.07
.06
.09
.04
.09
.11
.12
.11
.06
.D3
.18
.10
.08
.08
.07
.07
.12
.18
.08
.02
.01
.04
.14
.14
.12
.17
,.15
.13
.11
.06
.29
.25
.13
.13
.09
.11 F 08
.12
~ 14
.09
.07
.19
.13
~ll
~ 12
.09
~ 22
.08
.17
.3 B
.9 B
.3 B
.8 B
.2 A
.3 B
.3 B
.3 B
.4 B
.5 B
.4 B
.5 B
.4 B 1.5 B 1.0 B
1.8 C
.9 B
.7 C 3.3 C 0.9 D
1.7 B
.7 C 1.0 B 2.3 C 1.2 C 1.3 C 1.6'C 1.9 C
.5 C 1.0 B
.7 B 3.2 C 1.5 C
.9 C 1.3 C 1.1' 1.0 B 4.7 C
1.7 C
- 2. OXD
.8 B 11.4 C
24.6 C 8.1 C
.9 C 33.4 C
1.5 B 3.1 C
14.0 C
11.5 C
.7XC 3.2 C
2 '
C 1.0 B 4.0 C 1.8 C 1.5 C
.3.5
.3'8
.2
~ a
.3
.2.5
.5
.3.8;6.6
.3 2.0
.3.3.6
.8 1
.3.5.3.5
~ 6.5 1.2.2
.0
.a
.3 1.3.9 1
.5.5
.6.5 1.6 4.4.4.9.6.7 1.5:8.7
~ 2.5 1.0
.8.8.5.4 1.2.5.7 RMS ERH ERZ {}I
l
APPENDIX B - Continued EPTH 1.05 4.72 6.42 3.00 4.66 3.65 3.00 3.00 2.69 1.60 3.00 3,00 3.00 2.45 3." 00
- 3. 47 3.35 4.50 3.00 2.03 7.06 3.DO
.37 5.20
.5D
.77 3.00 3.00 3.00 3.00 3.00 10.04
.65 1.47 2.84
.25 7.37
.50 6.14 3.00 8.46 6.63 6.76 7.18 7.37 6.10 7.88 6.44 3.00 5.87 9.84 2.01 2.00 3.00 4.09 7.08 7.15 DATE ORIGIN LAT N LONG W
D 71 27 914 20.75 46 65.05 119 32.78 71 27 1344 39.62 46 S4.36 11S 33.15 71 27 1347 27.65 46 53.21 1 19 34.49 71 27 1441 6.96 46 54.62 119 32.48 71 27.1910
.31 46 46.30 120 28.80 71 27 20 8 6.14 46 49.81 118 46.64 71 27 2322 45.84 46 40.S6 118 52.71 71 28 015
.64 46 S4.19 119 33.04 71 28 148 10.14 46 49.44 118 47.42 71 28 1639 25.12 46 54.85 119 32.29 71 29 1049 1
~ 82 46 37.28 119 9.72 7} 30 19 8 5.2D 46 54.12 119 32.66 71 31 1129 39.63 46 54.33
'}19 32.15 71 32 1615 22.46 46 40.62 118 53.55 71 32 1638 1D.74 46 64.01 119 32.44 71 34 2218 8.71 46 39.23 119 7.14 71 35 1754 39.'79 46 22.02 119 5.09 71 35 1915 29.30 46 46.69 120 26.07
71 36 035 49.39 46 54.12 119 32.17 71 37 130 42.S7 46 21.96 119 5.35 71 38 1545 44.56 46 38.49 119 4.40 7} 40 452 S5.99 46 21.62 119 4.78 71 41 425 48.06 46 54.28 119 32.13
'71 42 327 12.31 46 44.65 119 24.90 71 43 2225 11.19 46 16.6'} 120 21.20 7} 43 2229 34.89 46 26.54 119 15.55 71 44 154 52.24 46 26.40 11S 15.49 7}. 44, 8 5 50.06 46 56.07 119 33.53 7}'6 149 2.13 46 38.71 119 4.11 71 46 3 9 43.83 46 54,81 119 33.49 71 46 16 7 13,08 46 38.95 119 3.83 7} 47 2136 29.83 46 51.39 118 32.31 71 48 1446 36.92 46 49.S}
119 25.27 71 48 20 2 9.31 47 3.30 119 26.12 71 49 3 3 9.81 46 23.93 llS
.46 71 49 2234 2.13 46 23.41 118 25.72 71 50 1
2 14.73 46 49.33 118 29.46 71 60 2023 S.S}
46 43.19 117 54.30 71 50 2260 1.5} 46 43.93 120 27.18 71 51 413 42.15 46 41.10 118 53.64 7}
61 1226 12.05 46 39.70 119 34.84 71 51 2222 27.15 46 36.47 119 5.23 71 51 2238 54.70 46 36.34 119 5.3S 71 51 2256 19.05 46 36.47 119 5.13 71 52 043 16'S 46 36'3 119 Se22 71 52
'045 46.88 46 36.42 119 5.05 71 52 046 28.35 46 36.39 119 5.07 71 57 529 13'7 46 3S
~ 52 llS 34e67 71 57 1059 46.19 46 39.48 119 34.94 71 57 2255
.91 46 43.75 120 26.64 71 60 1829 26.07 46 34.31 119 3.02 71 61 845 26.94 46 41.21 119 11.80 71 63 256 36.43 46 40.52 118 54.09 71 64 1419 57.31 46 24.56 119 24'0 71 64 2058 48.52 46 43.17 120 28'6 71 65 21 3 48.18 46 34.47 119 38.01 7} 65 21 4
7.25 46 34.58 11S 38.08 HAG NO GAP DM 1.03 10 211 8.2 1.24 9 205 6.9 1.6D 13 150 4.2 1.D4 7 260 7.8 1.99 16 297 42.9 1.86 15 2DS 22.4 1.95 13 242 4.4
'.23 11 204 6.8 1.29 11 266 21.3 2.D7 19 136 8.3
.61 9
79 13.7 1.52 14 156 7.1 1.46 11 204 7.8 1.97 18 199 3.3 1.57 13 155 7.2 1
~ 32 11$
93 12.1 1.31 10 209 11.1 1.90 12 296 39.5 1.52 12 156 7.6 1.13 10 208 11.2
.58 6 138 12.1
.61 6 225 11 '
2.26 19 134 7.8
.85 6 100 9.3 2.33 13 287 59.0
.98 10 11D 2.5 1
~ 13 8 112 2.5 1.48 11 209 7.6
.71 5 135 11.6 1.34 7 208 7.2
.83 6 137 11.2 1.98 17 238 36.7 1.36 9 126 2.9 1.72 13 166 24.1
.89 7 266 8.3 2.21 15 269 47.5 2.22 15 244 37.6 2.16 21 288 77.8 2.53 17 292 43.5 1.73 14 197 4.0
.91 6 126 10.0
.68 10 103 14.0
~ 47 6 155 14.3
.57 7 107 13.9
.47 6 155 14.1
.65 7 105 13.8
.63 8 105 13.8 1.29 8 123 10.4 1.49 14 79 10.5 2.75 13 294 43.2
.42 6 142 11.9 1.35 12 93 6.0 1.07 6 235 2.8
.87 11 101 9.5 2.47 15 296 45.9
.81 8 123 10.7
.57 8 123 10.5
.11
.08
.35
.06
.13
.16
.16
.08
.15
.24
.17
.10
.10
.19
.10
.13
.20
.1}
.08
.19
.'}2
.07
.14
.04
.23
.12
.12
.08
.05
.08
.07
~ 37
.06
.15'10
.24
.16
.36
.20
.18
.02
.13
.10
.06
.06
.11
.10
.07
,12
,12
.08
.11
.07
.09
.14
.10
.07
.8.7 1.6 1.0 1.2
.8 1.0.5 1.5
~ 7
.7
~ 4
.6
.9
,4 1,6.3 1.1 4.9 1.1
.5.5 4.1
.4
.6
.6
.8.5 2 '
~ 2.7 1.5 3,1 1.1 3.8 2.1
.9
~ 2
.3 1.0
.9.6.6
~ 2.4 2 '.6
.4 1.0
.3 1.7
~ 4.3 2.0 C
.5 C 1.1 C
1.9 C
- 1. 2XC 1.OXC
.7 C 1.3 C
'}.3PC 1.6 C 7.6 C
1.4 B
2.0 C
,7 C
'}.7 B 4.9 C 1.9 C
1.3XC
}.4 B 3.1 C
6.9 C
1.1 C
.9 B 2.0 B 2.8XD
.7 B 1.2 B 1.0 C
4.8 C 2.4 C
4.6 C 2.5XD
.5 B 1.6 B
}.0 C
- 2. SXD 2.1XC 1.7XD 1.7XC
.8 C
.7 B 1.0 B
1.4 B 1.3 B
.9 B
.9 B 8.9 C
.2 B
.6 B
- 1. SXC 2.1 C
1.1 B
.9 C 1.1 B
1.4XC
'.4 B
.3 B RMS ERH ERZ al
l
APPENDIX B-Continued DATE 71 65 71 68 71 68 71 68 71 69 71 72
)71 76
, 71 76
)71 78 71 78 71 79 71 79 71 79 71 80 71 80 71 81 71 82 71 82 71 83 71 83 71 83 71 86 71 92 71 93 71 95 71 95 71 95 71101 71102 71102 71102 71102 71103 71103 71103 71104 71104 71113 71114 71118 71119 71123 71124 71129 71129 71129 71131 71131 711 31 71132 71138 71146 71155 71156 71156 71161 71161 EPTH ORIGIN LAT N LONG W D
2113 16.14 46 34'.88 119 37.86 816 24.8S 46 42.93 117 53.60 951 lS.60 '46 47.83 119 33, 14 14 0 7.88 46 39.29 119 9.67 2321 52.75 47 2.54 1'19 25.39 828 28'5 46 40'2 118 53'5 957 1.97 46 41.3D 118 53.01 2019 27.35 46 50.50 llS 21.71 1258 27. 18 46 51.84 119 57.48 20 6 51.09 46 40.89 118 54.28 649 26.14 46 40.77 118 53.31 7 0 24.46 46 40.90 118 54.00 8 2 57.92 46 40.66 118 54.'67 650 28.65 46 4.75 118 31.14 655 37.08 46 3.26 118 26.42 256 28.05 46 31.54 119 43.72 238 6.37 46 40.68 118 53.95 11 6 24.80 46 36.04 119 5.16 2045 40.57 46 41.06 118 53.17 2222 32.08 46 38.26 119 5.28 2259 1.72 46 49.66 120 1.55 1522 48.28 46 51.26 119 27.32 15 7 2S.68 46 54.S4 1 19 26.82 2346 28.00 46 50.22 119 30.41 1
0 9.30 46 50.18 119 20.63 1117 34.28 46 49.10 11S 33.07 2228 48'6 46 49.01 119 22.02 2212 57.32 46 40.50 1'l8 54.47 525 12.91 46 41.17 118 54.46 527 54.31 46 41
~ 18 118 53.SS 540 56.63 46 41.35 118 53.30 556 11.79 46 41.62 118 52.49 623 59 F 00 46 52.41 11S 13.34 1056 51.26 46 41.06 118 53.95 1057 41,26, 46 40.91 118 53.81 723 22.51 46 38.85 119 37.53 1136 36,19 46 40.90 118 53.61 548 56,35 47 2.97 119 26 F 50 1252 14.60 46 53.2S 119 22.73 1434 39.57 46 41.42 118 53.79 10 7 45.41 46 9.75 119 34.36 1935 52.86 46 39.21 119 37.68 16 9 53.88 46 53.01 119 22.21 1319 10'0 46 49.81 119 25.43 1348 56.S5 46 49.85 119 25.82 16 9 36.20 46 49.86 119 25.62 1051 31.83 46 22.08 119 5.52 1148
~ 13 46 22 '1 119 5.61 1428 36.81 46 21.94 119 5.15 1156 21.29 46 49.97 11S 25.18 4 9 9.80 46 55.67 119 18.53 1913 1.22 46 21.26 119 3.88 446 27.38 46 46.72 119 58.26 625 9.64 46 40'5 118 54.76 19 1 52.46 46 39.19 119 4.50 938 4.58 46 34.91 119 38.36 1053 10 '2 46 34.84 119 38.14
- 7. 41 1.22 14
~ 88 3.00 3.00
.67
.41 1.30
.75 3.00 4.23 3.00 1.51 2.16
.42 7.62 3.00 6.38 1.45
, 3.00
.28 5.91
.30
.35 3.00 3,0D 2.84 3.00 3.48 3.75 1.63 3.00 12.14 1.66 2.31 3.92 1.81 3.88
.58 1.86 6.61 4.00
.45 1.18
~ 62 1.60
~ 87 1.86 3.00
.79 3.00 3.48 4.77 2.94 5.80 7.95 6.53 HAG NQ GAP DH
,43 6 152 10.6 2.22 13 289 78.6
.77,10 108 5.4
.58 6 115 10.3 1
~ 53 12 163 22.8 1.04 8 240 4.0 2.79 17 200 4.7
.96 9 171 2 5 1.11 7 196 1D.7 1.68 14 226 3.3 1.38 13 240 3.7 1.77 17 193 3.4 2.16 18 218 2.8 2.28 13 311 59.7 2.32 12 314 66 '
.23 5,202 10.0, 1.61 11'236 3.1
.68 8 107 14.2 1.38 7 240 4 2 1.27 10 124 13 '
1.69 6 232 14.8
.76 6 262 6.3 1.14 9
1SO 14.3 1.71 14 168 9.0 1.26 10 128 3.4 1.54 14 107 7.1
-1.66 10 1D1 1.7 1.76 11 186 2.6 2.19 16 181 3.8 1.8D 13 231 4.0 1.24 5 240 4.6 1.22 7 243 5.6 1.'18 10 143 12.3 1.32 6 232 3.7 1.33 7 236 3.6
.82 6 136 11.1 1.08 7 239 3.7 1.08 8 258 24.4 1.67 11 144 7.0 1.56 7 232 4:4 1.63 9 276 21,3 1.73 9 116 11.1 1.16 8 158 6.6
.95 10 130 3.0
'.11 11 131 3.5 1
~ OD 1D 131 3.3 1.74 9 216 11.1 1.77 8 205 10.5
.99 8 220 11.2 1.20 9 132 2.8 1.16 9 177 12.8 1.22 7 217 12.3
.92 9 211 20.0 F 10 12 179 2.0
.77 6 139 12.1 1.08 8 121 9.9
.98 8 120 10.3
.05
.26
.12
.D8
.30
.09
.11
.11
.31
.25
.18
.26
.16
.32
. 26'27
.17
.14
.10
.18
. 2'1
.05
.18
,18
.10
.14
.19
.17
.19
.20
.03
.11
.22
.07
.06
.03
.11
.10
.07
.10
.09
.10
.06
.08
.14
.11
.15
.10
.16
.08
.14
.07
.07
.16
.08
.09
.06
.9 3.2
.7
~ 9 1.5 1.1.6.5 4.6 1.4
.8 1.1
.8 4.1 6.5 0 3 1'.1
.6
.9.6 3.4 1.2
.8.5
~ 4
~ 4
.8 1.0 1.1 1.1
~ 4
.9 1.0
.8.5
~ 2
~ 9.8
~ 3.9 1.3.5
~ 3
~ 3.5
.4 1.0
.7 1.3
.2
.7.7.4 1.D.7.4
.2
.9 B 3.1 D
1.1 B
6.9 C
2.4 C
1.5 C 1.0 C
4.8 C
2.8 D
1.0 C
.7 C 1.0 C
.7 C 3.9 D
3.1 D
'l'.3 C
.9 C 1.2 B 1.5 C 2.4 C 4.7 D
~ 4 C
.9 C
.8 C 1.0 B 1.1 B
1.0 B
.7 C
.8 C
.8 C 2.0 C
1.4 C 2.0 C
3.9 C
.8 C 1.2 B
1.5 C
.7 C
.5 B 1.4 C
.9 C 2.8 C
.7 B 1.1 B
.7 B 1.9 B 3.1 C
9.6 D
8.6 D
.3 B 4.3 C
.9 C
.5 C
.8 C 2.6 C 1.6 B
.8 B ERH ER2 Ql
I l
APPENDIX B Continued EPTH 7.03 11.98 7.45 4.93
.58
.09
.08
.50 5.36 1.50 1.42
.86 1.05
.19 1.55 2.70 2.70 3
DO
.5D 3.DO 1.50 3.DO 1.92 21.62 3.0D 1.54 3.00
.31 7.29 7.18 5.94 5.27 6.62 6.83 5.67
.54 10.80 3.00
, 3.00
.15 9.91 1.38 5.38 6.61 2.89 3.00 3.00 3.00 19.77 3.00 3.00 2.'60 3.00 1.59 F 00 3.DO 1.82 DATE ORIGIN LA N
LONG W D
71164 1146 14.41 46 18'6 119 23.44 71169 1727 S.87 46 34.39 1'lS 47.86
- 71171, 747 41.85 46 17.83 119 23.16 71171 748 6.52 46 18,04 119 24.00 71'l76 19 S
.02 46 52.22 119 41.42 71178 247 57'6 46 27.23 119 20 '7 71180 1937 49.69 46 25.22 119 22.55 71180 2115 44.90 46 25.34 119 22.77 71181 059 20.99 46 50.86 11S 41.62 71187 543 3.42 46 44,44 119 20.05 71190 038 47.28 46 5D.48 119 41.26 7119D 2317 42.62 46 39.74 1 18 54.88 71191 433 25.19 46 50.42 119 41 '6 71191 2218 17.07 46 51.34 119 40.77 71191 2222 9.12 46 51.08 119 41.32 71195 737 14.20 46 40,.91 119 16.S2 71195 737 22.55 46 41.02 119 16.28 711S5 1828 40 F 61 46 44'4 119 19'B 71196 446 1.79 46 25.52 119 21.97 71196 12S5 5D.BS 46 44.23 119 20.35 7'l201 449 14.34 46 44.34 1'l9 20.52 71204 1047 51.'ll 46 44.27 119 20.74 71205 723 52.99 46 44.27 119 20.06 71207 1945 27.58 47 7.27 119 1D.BS 71209 173S 53'5 46 51.24 119 40.82 71216 2112 39.94 46 48.37 119 23.24 71218 912 16.21 46 48.29 119 26.00 71221 9
1 45.42 46 44.44 119 20.40 71229 730 6.69 46 34.6D 119 38.03 71232 1838 40.87 46 16.26 119 35.94 71232 1839 1.68 46 16.46 119 36.34 71232 19 7 26'8 46 17.26 119 35.12 71232 1923 17.35 46 16.34 119 35.42 71233 143 31.39 46 15.57 119 37.48 71233 615 18.84 46 48.41 118 57.99 71233 1044 17.99 46 42.35 119 20.93 71234 1142 30.08 46 42.40
'119 19.4S 71234 1146 14.20 46 42.48 119 20.S7 71234 2048 7.80 46 42.38 119 20.69 71237 1325 40.30 46 50.16 119 31.56 71238 849 26.75 46 33.28 11S 3.64 7'l238 927 32.D7 46 52.54 119 28.94 71238 1917 53,09 46 42'7 11S 21. 14 71 23S 826 52. 1S 46 16.05 1 lS 36.75 71239 1129 41.87 46 42'4 119 20.76 71239 1S56 21.96 46 42.69 11S 20.36 7123S 2027 4S.45 46 42.40 119 20.26 71240 014 3D.04 46 48.17 119 25.59 71244 637 38.SS 46 22.09 119 34.99 71248 9 9 25.95 46 38.98 119 '.18 71249 9 6 55.D1 46 40.62 118 32.67 71252 1548 7.32 46 48.24 119 25*82 71253 037 6.35 46 41.61 11S 14 ~ 19 71254 733 IS,32 46 50.71 119 24.83 71254 8 5 23.80 46 41.34 119 'l5.05 71254 15 2 4.63 46 41.30 119 13.S2
'71255 10 5 11.65 46 41.23 119 14.19 MAG NO GAP DM RMS ERH ER2 Ql 1.3D 6 161 9.3
.18 1.7 2.2 C
.99 8 251 5.3
.1S 1.4 1.4 C 1.34 6 161 8,7
, 13 52.9 62.4 D
F 10 9 166 9.7
~ 20 1
~ 2 1
~ 3 C
'1.25 11 123"23.9
.24
.9 1.3 C
1.09 6 127 4.4
.16
.8 2.5XB 1.45 6 180 6.9
.12
.4 1.0XB 1.51 5
Sl 7
1
.05
.5 8 4XD 1.D3 7 242 6.0
.06
.6
.5 C
.Se 11 66 S.O
.12
.3 9.1 C
1.21 10 126 5.8
.11
.5 12.4 C
1.56 11 217 1.1
.13
.8 1.2 C
1
~ 36 10 125 6.0 ol3
.5 2 '
B 1.79 17 137 4.8
.30
.7 1.4 C 1.S4 16 117 5.6
.26
.7 2.3 B
.54 10 96 7.8
.50 1.4 13.6 C
1.15 S
" S5 7.4
.45 1.2 11.2 C
.81 9 120 8
~ 9
.10
.4 2.2 B 1.56 9
BB 6.0
.08
.4 1.9XC
.S3 8 122 9.4
.20 1.0 6.4 C
1.89 22 54 9.6
.27
.5 2.5 B
1.71 19 66 9.9
.20
.5 1.7 B 1.67 12 63 9.0
.08
.3 3.8 B
.77 7 218 17.1
.09 1.4 1.2 C 1.32 1D 142 4.9
.22 1,6 2.3 C 1
~ 33 12 75 2 ~ 1
~ 14
~ 5 1.3 A
.95 S 124 4.3
.08
.4, 1.2 B
1.47 18 66 9 4
.15
.3
.5 B
.80 6 147 10.6
.05 1.2 1.2 C
1.26 10 241 13.4
.14 1
~ 0
.8 C
.94 8 241 13.1
.11 1.0
.6 C 1
~ 09 10 234 11.5
.19 1.1
.9 C 2.13 15 240 13.2
.15 1.1
.8 C
.97 11 248 14.9
.13 1.0
.6 C 1.06 6 204 17.5
.12
.7 3.3 C 1.27 17 44 10.8
.16
.4
.7 C
.86 8 154 9.0
.D7
.4
.8 B 1.08 16 71 10.7
.21
.5 4.0 C 1.37 20 70 10.5
.24
.5 2.3 C 1.26 9 163 7.6
.05
.2
.4 B
.47 7 169 1D.O
.10 1.0 1.8 C 1.50 16 126 9.3
.13
.4 1.4 B 1.10 9 142 13.1
.10
.8
.8 B 1.10 10 244 13.9
.16 1.2
.8 C 1.78 22 41 10.5
.18
.4
.8'C 1.37 12 104 9.9
.16
.5 1.9 B 1.41 9 143 '9.9
.15
.6 1.5 C 1.38 16 115 12.9
.27
.7
.9 C 1.29 21 207 2.6
.23 1.0 1.3 C
.55 6 137 11.7
.04
.2 2.3.C 1.52 8 294 28.6
. 15 2.0 1.3 C 1.46 14 115 4.2
.24
.7 1.7 B
.78 8 135 5 3
.26 1
~ 5 5 5 C,
.73 8 211 3.1
.04
.3
.7 C
.79 7 137 6.1
.1D
.7 2.1 C
.76 S 140 5.8
.16
.9 2.9 C
.73 10 133 6.0 14
.6 6.0 C
APPENDIX 8-Continued EPTH 2o02 6.98 2.04 3.00 5.16 3.00 3.00 14.29 3.00 3.00 3.00 1.70 1.35 2.98 3.00 1.22 5.54 12.04 3.00 2.96 6.66
.33 3.04 1.89 3.00 5.66 4.38 F 00 3.00 3.00
.07 3.00
.60 3.95 1.36 2.13 2.41
- 5. DS
.43
.53 3.00 5.06 3.00
.38 2.04 5.95 1.68
.33
.48 5.28 4.89 3.00
.SB
.75 3.00 1.35
.13 DATE ORIGIN LAT N LONG W
D 71256 'l2 6 33.32 46 4'l.33 119 14.03 71263 550 26.17 46 11.77 119 2.98 71264 1316 25.6S 46 41,10 119 13.54 71264 1322 9.82 46 41.16 119 14.04 71265 550 2.41 46 41.15 119 14.15 71268 437 44.28 46 41.23 119 13.85 71268 2216 21.49 46 41.19 119 14.02 71269
'041 4.19 46 35.39 119 37.36 7'l269 647 2.67 46 41.D9 119 14.09 71269 843 21 F 09 46 41 '4 119 13.59 71271 343 18.41 46 52.99 119 43.36 71274 1048 47.15 '46 41.18 119 15.13 71279 2019 53.37 46 17.83 119 43.50 71281 2251 21.26 47 6.04 118 48.44 71282 358 38.06 46 44.97 119 21.58 71282 631 S,76 46 38.19 1'lS 29.86 71284 453 28.46 46 27.03 120 23'9 71284 536 30.05 46 26.96 120 23.95 71286 13 2 56.63 46 41.08 119 13.57 71286 2121 29.71 47 5.88 118 48.90 71286 2218 13.SB 46 35.18 11S 30.10
'71287 1449 49.08 46 40.77 1'lS 13.46 71288 1651 23.30 47 6.03 118 48.67 "71293 1S54 6.46 47'.23 118 49.03 71294 1655 35.41 46 40.SS 11S 15.75 71296 1444 33.45 46 42.02 119 14.28 71297 1 5 49.97 46 40.70 119 13.64 71 297
,230 21.25 46 40.65 119 13.74 71297 321 50.7S 46 40.67 11S 13.75 712SB 756 48.53 46 40.79 11S 13.45 71298 1852 48.98 46 42.53 llS 32.SO 71298 1917 10.14 46 42.67 119 33.10 71300 1350 42.49 46 40 '9 119 13.30 71300 2139 11.12 46 42.69 119 33.14 71304 211 1.65 46 42.51 119 33.20 71306 747 15.11 46 48.40 119 24.24 71.307 711 22.35 46 40.72 119 12.54 71307 1819 24.D3 46 42.81 119 33.18 71308 1959 35.60 46 40.46 118 53.33 71308 2349 48.64 46 40.54 118 53.81 71309 829 30.44 47. 6.88 119 6.33 71310 629 28.63 46 46.87 11S 58.76 71315 1135 37.21 46 41.07 119 13.68 71316 201D S.44 46 42.66 119 22.56 71317 741 16.16 46 49.03 119 22.23 71320 754 4'9 46 40.68 118 34.11 71320 1527 28.58 46 43.20 119 21.80 7'I321 716 15.97 46 42.52 119 22.00 7'l321, 1253 47.78 46 42.80 119 22.54 7132'l 2138 20.20 46 39.98 118 34.65 71321 2335 54.94 46 53.51 119 22.79 71322 023 23.82 46 42.52 11S 22.71 71322 511 6'8 46 42.7D 119 21.98 71322 2250 17.11 46 16.33 118 S.87 71323 024 51.79 46 42.70 119 22.36 71324 1342 21.97 46 43.03 119 21.46 7132S 20 3 41@10 46 43.41 119 21 '1 MAG NO GAP DM 1.08 16 86 5.7 1
~ 1S 9 270 21.1 2.59 17 71 6.0 1.32 16 70 6.0 1.07 11 132 6.1 1.41 14 124 5.9 1.30 12 123 6.0
.13 5 198 10.9 1.74 20 70 6.2 1
~ 10 12 141 6.0
.88 5 173 8 3 1.55 17 69 6.5 2.05 16 242 28.6 1.95 13 178 23.4
.98 12 76 8.6
- 43 7 117 5 2 1.39 13 293 51.7 1.35 12 293 52.3
.SS 10 125 6.1 2.6D 13 176 23.8
.83 16 65 18.4 1.18 14 93 6.6 1.8D 16 177 23.5 2.D5 20 167 23.2 1.15 19 68 7.2
.55 12 117 4.6
.57 16 86 6,8
.42 14 85 6.9
.72 16 85 6.9
.82 14 124 6.6 3.82
'16 94 5.3 F 88 24 123 5.0 1.89 23 65 7.1
.84 14 107 4.9
.'l2 8 171 5.2
.39 9 150 2.5
.89 17 130 6.7
~ 38 6
1 11 4 7
.97 13 178 3.2
.74 9 173 3.0 1.49 22 107 16.4
.71 S 213 19 '
.62 13 87 6
1 1.80 16 70 2.5
.89 12 97 1.4 loll 11 270 21.0 1.74 21 70 1.3
.76 7 136 2.1
.61 8 150 2.4 2.20 26 217 2D.S
".70 8 234 7.4 1.38 22 45 2.8 1.15 22 42 1.9 1.77 16 248 45.1
.79 14 132
- 2. 3
.82 20 67 1.0
.60 15 69
.8
~ 'l2
.19
.13
.13
.19
.19
.18
.Dl
.20
,26
.17
.14
.34
.14
.09
.09
.17
.12
.14
.17
.34
.14
.18
.17
.12
.12
.17
.18
.14
.12
.11
.15
.12
.13
.D7
.07
.16
.08
.18
.16
.25
.04
.14
.09
.12
.15
.34
.07
.03
.29
.08 F 19
.20
~ 33
.18
.27
.22
~ 3 2.7
~ 3
~ 3
.6
.6
.6
~ 2
.4 1.0 1.7
~ 3 1.6
.9
~ 3.4 3.6 1.0
.6 1.1 1
~ 0 1.0
.9
~ 3.5
~ 4.5
~ 4
.4.3
.3
.2.5
.3.5
~ 4
.6.6
.8
.8
.2
~ 4
.2
.4 1.7
.7
.4
.2 1.3.7
.3.3 3 '.5.5.5 RMS E
ERZ Q1 2.8 8 4.6 D
.9 8
.7 8
'l.o 8 1.5 8 1.7 8
.2 C 1.0 8 2.5 C 4.3 C
1.5 8
- 1. 5PD 1.3XB
.8 8 22.5 C
5.8 D
.6 C 3.4 8 1.2XC 1.5 C
.7 8 1.7XC 1.1XC 1,1 8
.6 8 1.4 8 2.6 8 1.8 8 1.3 8 1.2 8
,8 8
.4 8 1.2 8 9.4 C
1.2 8 1.0 8 1.1 8
.7 C 1.0 C
1.0 C
.2 C 1.3 8
.4 A
.6 8 1.1 C
2.4 8
.4 8
.2 8 1.1 C
.7 C 1.6 8
.4 8 2.3PD 1.7 8 2.3 8
.7 8
APPENDIX B-Continued EPTH 3.00 6,71 3.00 1.55
.03
.75
- .22 3.00 3.00
.28
.08 1.71
.25 5.22
.86 1.84 3.00 2.08 3.00 6.09 6.45 8.93 10.69 6.45 F 00
.SD
- 5. 06 3.00 7.11 6;85 7.64
.45
.25 15.37 5.12 3.00
.16 1.50
.01 3.00
.79 7.18 3.00 3.00 3.00 1.11 3.DO 6.00 4.69 6.88 3.00 11.62 3.00 3.00 3.00 17.72 3.00 DATE ORIGIN LAT N LONG W D
71325 2225 58.S3 46 42.03 llS 21.56 71326 1313 58.76 46 50.20 11S 16.17 71327
'654 17.26 46 42.58 119 22'7
.71328 6 4 2S.13 46 42.77 119 22.01 71328 1015 7.47 46 42.47 11S 21'.40
'1329 1050 19.25 46 42.41 119 21.69 71330 330 32.08 46 42.60 119 21.77 71330 115D 1.96 46 51.24 11S 2.73 71330 2041 22.D4 46 40.55 118 53.43 71330 2044 16.04 46 40.03 118 53.33
.71331 1736 17.42 46 43.22 119 22'4 71335 516 30.28 46 43.79 119 20.52 71335 21 0
9.4S 47 4.24 118 50.66 71337 2 2 9'2 46 53 ~ 65 119 22'6 71338 1454 3.68 46 48.58 119 25.03 71339 2155 25.93 46 39'1 118 52'5 71339 22 2 17.36 46 39'5 118 52'2 71342 1 52 48'0 46 42 '1 119 21 '9 71342 333
~ 20 46 48'8 119 25+03 71344
- 2029, 6.51 47 5.08 118 51.64 71346 2251 59.63 46 11.93 119 35.54 71347 353 53.19 46 11.86 1 19 37.33 71347 550 33.83 46 1 1.02 1 19 37.2S 71348 23 3 8.09 47 5.10 118 57.60 71350 1630 32.70 46 45.50 119 22.30 71351 2217 50.45 47 5.1 1 118 50.78 71352
. 850 13.71 46 43.22 119 33.61 71352 914 49.10'6 42.31 119 22.59 71355 2223,24.02 46 46.01 118 59.61 71355 2353 19.88 47 5.55 118 51.98 71356 7 2 5.80 46 46.13 118 59.42
'1361 2325 48.18 47 4.23 118 4S.37 71361 2342 18.70 47 4.07 118 50.24 71362 838 7.90 46 32.84 120 6.02 71364 2220 1.94 47 4.20 118 50.59 72 4;,12 3 12.92 46 54.14
'1'1S 22.41 72 7
445 34,46 46 53.52 119 35.91 72 8 2025 25.77 46 38'6 118 45.S8 72 17 2018 36 F 10 46 20.20 119 23.39 72 20 18 9 21.32 46 45.19 11S 32.92 72 22 456 55.15 46 19.57 119 24.61 72 22 5 3 9.26 46 20.19 119 22.59 72 22 750 57.27 46 4D F 50 119 14.01 72 26 2118 25.65 46 54.05 119 22.71 72 26 2156 10.50 46 49.28 119 33.31 72 27 1440 42.20 46 26.00 119 15.66 72 28 344 31.77 46 50.05 119 22.49 72 28 1759 36.01 47 4'18 119 23o73 72 2S 036 33.04 46 53.37 119 30.88 72 2S 114'6.31 46 49.27 119 6.53 72 30 10 8 35.62 46 42.55 119 32.97 72 30 1330 13.07 47 16'6 119 38.64 72 31 255 14.84 46 53.SS 119 22.54 72 33 2146 28.88 46 53.25 119 21.57 72 34 1112 17.96 46 51.41 119 1.96 72 34 1119 9.07 46 51.22 119 4.49 72 35 952 20.92 46 52.82 119 21.12 RH ERZ Ql
.9 4.3 C
.7
.9 B
.4 1.6 B
.4 2.0 B
.5
.7 B
.2
.3 B
.5
.6 B 4.3 42.1 D
.7
.8 C
.4
.4 C
.4
.5 8
.3
.8 A
.9 2.4XC
.9 1.1 C
.7 2.1 C
.8 3.4 C
.9 1.2 C
.6 1.4 C
-.4
.6 B
.,6 1.4XB
.7,
.6 C
.9 1.1 C
~ 7 1.3 C
.7 1.6XC
.4
.1.4 B 2.1 3.2XC.
.5
.9 B
.4 1.7 B
2.3 3.2 B
.7 3, 1XC 1.4 26.6 C
1.0 1.5XC 1.0 2.1XC
.8
.4 C 1.0 1.2XC 1.6 7.0 D
.4
.3 C 1.3 27.0 D
1.2 1.2 C
4.4 1.8 D
'5
.SC
.6
.6 B
.6 2.9 B
.4 1.7 C
.7 1.0 B
.6 1.1 B
.8 1.5 B 1.2 1.6 C
.5
.5 C
.3
~ 3 B
.3 1.1 B
.8
.8 B
.6 1.0 B
.6 2.9 C
.4
.8 B
.9 1.7 B
.8 2.8 C M
RMS E
.38
.16
.15
.14
.26
.12
.18
.42
.17
.07
.13
.09
.14
.21
.09
.17
.18
.15
.16
.13
.08
.15
.13
.20
.18
.39
.13
.08
.27
.16
.25
.24
.17
.22
.16
.29
.09
.24
.14
.12
.26
.10
.17
.07
~ 22
.]4
.27
.17
.07
.06 F 11
.07
.22
.17
.13
.07
~ 13 2:6 8.9 2.4 1.8 1.7 2,0 1.8 14.9 3.3 2.7 2.2
.9 25.4 7.8 3.0 3.1 3.1 1.1 3.0 25.0 7.4 5.2 5.9 18eS 4.4 25.8 3.8 2.9 13.1 25.1 12.9 26.8
- 25. 7
- 27. 0
- 25. 4 8.6 3.5 11 e7 12.6 2.2 12:4 12.2 7.2 8.4 6.7 F 1 1
~ 3 22.2 8.4 12.3 5.2 9.4 8.3 7 '
15 F 1 13.9 6.6 MAG NO GAP D
1.22 17 94
,40 S 131 F 11 16 69
.80 12 93 1.40 1S 50 1.04 19 91
.76 13 75
.69 7 186, 1.16 13 176 1
~ 04 10 181
~ 54 11 120
.69 11 76 1.70 13 162
.83 12 164
.40 5 173
.85 10 186
.86
'10 188
.57 10 135 1.58 18 118 2.18 16 156
.47 7 203 1.01 13 209 1,52 14 1S7 1.72 15 131
.'S5 17 64 2.04 15 16D
~ 16 1'l 107
.60 7 135
.26 7 127 2.D9 14 163
~ 36 S 128 1.81 13 168 1
~ 59 11 164 1.66 36 231
'1.99 14 162
.67 9 204
.32 8 230
.60 8 249
.78 8 196
.35 5 250 2.17 24 94
.75 8
98
.48 11 127
.64 8 204 2.32 18 65
.64 10 114
.7S 16 130
.72 13 146 1.01 8 236
.51 9 120
.31 15 66
.90 10 166 1.46 1S 84
.66 11 159 1.04 15 104
.63 6 144
.53 8 153
l
APPENDIX B Continue DATE ORIGIN LAT N LONG W DEPTH NAG NO GAP DM PNS ERH ERZ Ql 72 35 2337 59
~ 83 45 43,16 120 5.96 72 37 352 28 ~ 58 46 53o63 119 22.38 72 42 1
7 35 87 46 50.57 11S 45 57 72 45 747 41.45 46 42 '3 11S 33.50 72 56 049 52.36 46 52.59 119 32.49 72 57 4 6 15.66 46 1S.56 118 16.86 72 57 2028 58 ~ 03 46 52+57 119 32'S 72 59
'640 21.69 46 52.20 119 21.S2 72 59 924 55.32 46 52.18 119 22.20 72 59 1617 20.05 46 52.34"119 21.81 72 60 1526 53.45 46 52.23 119 21.71 72 62 1411 43.00 46 53.17 119 21.70 72 64 950 10.16 46 26.79 119 3.64 72 65 0 7
.10 46 52.23 119 32.37 72 65 448 1S 57 46 49 74 119 22e69 72 65 817 30.30 46 51.80 119 22.38 72 67 1S34 10.54 46 48.74 119 22.54 72 68 828 54.1S 46 56.80 119 16.44 72 68 1950 19.07 46 54.87 11S, 24.17 72 68 2113 54.28 46 53.26 119 22.17 72 70 1917 51.89 46 32.94 119 3.57 72 70 2348 43.77 46 53.10 119 32.56 72 71 1735 23.82 46 6'3 119 38.48 72 72 331 2,87 46 50.64 119 21.10 72 72 735 11.12 46 52.64 119 22.20 72 72 2345 33.80 46 39.35'19 36.81 72 73 015 18.84 46 50.48 119 21.13 72 74 1357 21.08 46 56.48 119 34.SS
. 72 79 14 7 23.78 46 49.96 119 17.29 72 82 14 6 37.45 46 25.37 119 16.70 72 88 736 54.69 46 52.30 119 21.54 72 91 639 16'4 46 SO ~ 65 119 20'0 72 98 1111,15.55 46 49.56 119 16.99 72107 855 51.06 46 56.99 119 25.01 7211'1 21
- 2. 56.43 46 19.92 119 23.07 72112 1032 25.85 46 41.22'118 35.20 72113" 7 9 34.50 46 48.80
'119 5.44 72113 721'0.30 46 48.75 119 6.37 72113 730 5,02 46 48.72 119 6.17 72113 813 9.16 46 48.72 119 7.76 72113 816 25.00 46 48,66 11S 6.12 72114 649 35 F 50 46 51 '6 119 21 '3 72114 1353 56.02 46 51.3S 119 22.21 72114 1450 58.26 46 51.88 119 21.70 72120 1844 19.87 46 50.61 11S 39.18 72123 15 4 53.S7 46 11.49 11S 21.97 72130 911 39.76 46 51.80 119 22.33 72135 749 54.23 46 23.96 11S 37.77 72137 S26 22.S5 46 49.23 119 22.17 72137 1621 27.99 46 55.87 119 19.28 72139 527 34.66 46 49.27 119 22.84 72139 1322 51.36 46 42.69 119 32.85 72139 1458 3.46 46 43.84 119 20.61 72142 534 26.57 46 50.45 119 21.84 72147 1831 16.77 46 S.35 119 10.63 72148 1615 55.22 46 6.38 119 15.13 72155 444 11.29 46 45.05 120 21.88 1.80 3.00 2.88 3.00 3.00 1.50 3.00 2.88 2.42
.95 1.17 3.00
- 6. 53 1.77
.73 3.00 2.04 3.00 1.50 4.98 14.67 3.00 6.73 3.00
.75
.41 2.11
.45 5.82
.35 3.00 1.98 6.55 6.27 4.87 1.61 3.00 3.00 4.7S 7.01 6.51 1.43 3.00
.50 3.40 9.36
.21 20.04 1.71 1.34
.91 3.00 1.23 2.79 5.27 8.30 6.26 2.13 14 294 63;5
~ 59 9 199 7.7 2.47 17 66 11.0
.29 7 162 5 4
.63 12 176 6 '
1.27 12 211 40.8
.72 12 175 6.2 1.20 16 85 5.2
.18 5 224 5.1
.89 6 186 5.5 1.04 10 149 5.3
.53 8 158 7.0
.42 5 239 2.0
.91 13 144 6.0
.34 7 248
.7
.52 S 184 4.3
.95 9
87 1.6
.45 8 185 10.3
~
,70 7 216 10.0
.68 8 1S6 7.0
.24 7 136 7.2
.73 11 230 6 '
.88 9 283 12.2
.96 16 169 3.3
.80 8 190 5.9
.35 7 127 2.0 1.04 12 168 3.1
.70 12 132 9.1
.51 5 'l32 7.4
.62 10 114 1.3
.41 6 185 5.5
.50 6 166 4.1
.48 6 124 7.8 o47 7 235 14.1
.61 7 138 12,0 1.07 5 181 25.5
.81 12 123 12.7
.30 8 150 11.7 1.22 15 11S 11.S
.40 9 137 10.5
'.79 14 119 11.9
.96 10 145 4.4
.86 11 141 3.6
.S4 8 26S 4.7
.67 8 213 3.4
.92 10 159 6.1
.78 9 184 4.4
.78 20 141 3.3
.60 7 112 1.3
.60 7 230 12.7
.75 8
83
.5
.40 5 179 5.1
.35 9 112 1.0
.82 8 171 2.4 1.23 8 186 13.9
.92 S 184 15.1 1.20 14 277 34.0
~ 37
.16
.14
.12
.09
.25
~ 10
.10
.03
.10
.06
.16
.30
.06
.05
.14
.19
.17
.20
.06
.07
.18
.12
.23
.14 F 11
.17
,24
.06
.06
.06
.10
.06
.12
.02
.10
.20
'.17
.12
.18
.19
.15
.12
.06
.03
.09
.13
.09
.12
.04
.04
.01
.09
.11
.31
.28
.33 3.1 4
.9 3
.5
.9 2
.4 1
2.3 2
.5 1
.3.7 2
.8
~ 2 1.2 3.0
.2.5 1.0
.9 1.1 1.2 2
~ 4
.6 1.0 1,2
.7 1.1
.6
~ 6.9.9
~ 2.5 1.0
~ 4 1.5
.1 1.7.7 1.0
~ 3 1.7.5.6 1
.6
.3.5
.8
~ 4.8.4
~ 2
~ 2.3
.6 3.7 1.8 3.3
.3PD
.2 C
.6 B
.0 C
'3 B
.3 C
.3 B
.6 B
.2 C 2.9 C
.9 B 3.2 C
.5 D
2.1 C
.2 C 1.6 C
1.3 B 6.6 D
2.0 D
.7 C 1.3 B 2.6 C
.8 C
.9 C 1.6 C
.5 B 1.7 C
1.4 B 2.5 C
.4 B 1.3 C 2.5 C 1.1 B
C
.5 B 3.4 'C 6.8 C 8.4 C 1.1 B
1.6 C
1.0 B 1.6 C 1.3 B
.7 C
.4 C
.8 B
.9 C
.4 B 1.1 B
56.4'D
'.2A
.8 C 1.2 B 1.8 B 2.5PD
'.3 D
5.2 D
l ll
~
APPENDIX B-DATE ORIGIN LAT N LONG W Continued DEPTH MAG NO GAP DM ERH ERZ Ql 72156 1540 S.96 46 2D.37 11S 23.51 72158 1026 10.25 46 20.51 119 23.47 72160 23D 11.44 46 5.26 118 41.37 72164 1137 45.64 46 18.59 119 32.76 72171 6 2 25.74 46 51.16 11S 25.50 72179 149 21.75 46 39.08 119 37.31 72182 432 33.94 46 24.37 119 25.18
'2184 1957 55.S6 46 S0.22 119 23.77 721 89 2229 1 7 ~ 1 0 46 25o 50 1 20 6eDD 72199 710 16.51 46 59.27 119 33.40 72208 2228 46.86 46 3D ~ 46 119 50.D6 72209
'655 8'7 46 54.11 119 22.72 72210 1954 30.95 46 31.04 119 50. 18 72212 1755 12.92 46 7'5 119 8.80 72213 632 21.20 46 31.58 119 3.47 72214 81 1 46.08 46 51.90 119 22.92 72218 947 56.01 46 28'.53 119 43.03 72219 452 39.58 46 49.98 11S 27.29 72220 22 7 18 F 90 46 49.68 llS 27'1 72222 551 29.71 47 2.98 118 3S.D3 72226 6 8 12.03 46 49.53 1 19 24.17 72227 1737 23.32 46 25.67 119 39.86 72228 657 28.42 46 49.84 119 27.27 72228 21 7 6.47 46 49.61 119 27.14 72228 21 7 '}6.71 46 49.73 119 27.36 72229 143 43.5D 46 49,89 119 27.36 7222S 1429 16.54 46 4S.61 119 27.27 72229 1452 32.19 46 49.61 11S 27.41 72229 1548 39 '1 46 49.71 119 27.34 72229 1551 52.86 46 49.61 119 27.82 72229 1714 44.12 46 49.61 119 27.50 72229 1859 2.50 46 49.38 11S 27. 10 72229 19 2 16.81 46 49.61 11S 28.03 72229 19 5 47.39 46 49.61 119 28'6 72229 19 S
5'D 46 49'7 119 27'6 72229 1S16 3S.60 46 49.61 1 19 27.59 72229 1917 17.70 46 49.67 119 27.78 72229 1S21 41.76 46 49.61 119 27.83 72229 1922 2lo01 46 49'1 119 27a47 72229 1'923
.71 46 49.79 119 27.85 72229 1923 22.28 46 49.96 119 28.21 72229 1926 1D.D6 46 49.64 119 27.63 7222S 192S 42.75 46 49.80 11S 27.52 7222S 1941 56.84 46 49.61 119 27+80 7222S 1944 59.25 46 49.62 119 27.6S 72229 20 5 37.13 46 49.61 119 27.63 7222S 2011 28.'}4 46 49.SB 119 27.S4 72229 2349 49.43 46 49.66 119 27.88 72230 119 41.01 46 49.61 119 27.73 72230 619 23.44 46 49.40 119 27.53 72230 838 38. 19 46 49.61 119 27.88 72230 175D 22.36 46 49.54 119 28.1S 72231 S26 50.38 46 50.27 119 27.58 72231 1830 8.63 46
.87 119 25.63 72233 8 7 44.12 46 50.14 119 28.09 72233 1552 32.71 45 40.28 119 57.91 72233 1816 9.31 46 50.49 119 28.31 5.51 3.0D 6.02 8.94
.06 2.67
.90 3.00 1.DS 8.55 3.00 1.20 3.00 12.71 13.32 1.8D 17.67
.88
.39 3.00
.15 24.08
.42
.71
.65
.59
.27 2,63 3.00 3.00 2.72 3.00 5.27 3.00 3.00
~ 25
.09
.08 3.00 3.00 1.50 1.70 1.35 3.00
.12
.75 2.28
.71 3.00
.54 3.00 3.00
.78
.11 2.07
.75 1.50
.51 10 92 13.0
.43 6 135 12.8
.94 8 141 19.4 1.44 14 109 9.6
.79 11 144 4.3
.96 15 112 1.4
.32 8 171 1D.5
.68 8 249 1.6
.77 8 302 31.1
.42 9
98 14>>6
.61 6 261 9.1
.64 12 205 8.5
.75 9 262 9.3
.81 13 166 18.1
.25 14 143 6,8
.Sl S 187 4.4 1.37 24 160 4,1
.53 9;191 5.4
.79 15 189 5.5
.97 9 216 29.5
.53 6 213 1.4
.82 12 209 7.1
.75 9 22S 5.4
.81 9 187 5.2 1.75 11 189 5.4
.87 12 191 5.5 1.27 15 188 5.3 1.18 16 154, 5.5
.81 S 189 5.4 1.10 12 191 6.0 1.16 13 189 5.6 1.73 14 126 5.1 1.26 12 192 6.3
.82 8 193 6.6 1.21 12 191 5.8 1.26 12 189 5.7
.76 10 191 6.0 1.73 12 191 6.0 1.20 11 189 5.6 1.17 11 192 6.1 1.01 11 196 6 6 1.40 13 19D 5.8 1.18 12 191 5.7 1.20 11 190 6.0 1.49 15 128 5.8 1
~ 50 17 128 5.8 Sl 8 234 6 2
.97 10 191 6.1 1.05 10 190 S.S 1.16 11 187 5.6 1.57 21 127 6.1
.95 S 192 6.5
.84 10 240 5.9 1.31 11 219 25.9
.69 8 238 6.5 2.26 12 2S1 64 ~ 0
.72 6 246 6.9
.09
~ 3
.4 B
.10
.6 6.7 C
.30 2.5 3.7 C
.46 1.4 3.9 C
.17
.5
.5 C
.21
.5 1.5 B
.15
.4 1.2 B
.15 1.2
.9 C
.29 1.8 3.7PC
.09
.5 3.5 B
.24 4.4 12.7PD
.10
.5 25.9 D
.16 1.5 4 2PC
.16
~ 9 1.7 C
.14
.6
.6 B
.09
.5 2.2 C
.25
.8
.8 C
. 13
.8 2.3 C
.16
.5
.7 C
.3S 2.6 3.2 D
.16 1.6 1.0 C
.07
.6
.6 C
.12
.9
.8 C
.08
.5
.6 C
.09
.5
.6 C
.13
.6
.8 C old
.S
.6 C
.25
.7 2.9 C
.07
.4
.9 C
.20
.8 2.3 C
.18
.6 2.1 C
.20
.6 2.9 B
.22
.9 1.6 C
.20 1.6 6.8 D
.20
.8 2.4 C
.17
.6
.8 C
.19
.8 1.0 C
.21
.7 1.0 C
.21,
.8 2.3 C
.21
.9 2.7 C
.21
.8 11.6 D
.18
.6 5.7 D
.25
.8 22.3 D
.16
.6 2.0 C
.'}7
.4
.7 B
.11
.2
.3 B
.06
.5 1.7 C
.12
.5
.6 C
.15
.7 1.9 C
.15
.4
.6 C
.18
.4
.8 B
.11
.6 2.1 C
.1}
.8
.8 C
.20 1.3
}.SXC
.03
.3 1.2 C
.22 2.6 1.2 D
.08
.7 12.2 D
APPENDIX B - Continued DATE ORIGIN LAT N LONG 8 72234 5 0 31.92 46 2S.18 119 19.99 72234 1023 10.30 46 49,99 119 27.54 72234 1116 56.S4 45 41.32 119 55.80 72235 1830 57.80 46
.77 119 24.11 72237 858 18e38 46 50'2 11S 21e98 72237 1728 6.16 46 50.17 11S 28.01 72238 1 9 48.82 45 36.97 119 5S.86 72240 831 2'8 45 39'5 120
~ 15 72241 2134 57.11 46 52.23 119 21.60 72244 1648 24.59 46 49.27 119 27.47 72246 1359
.98 46 49.57 11S 28.49 72246 22 5 1S.S8 46 49.13 119 28.3S 72247 322 21.42 46 1S.28 11S 25.15 72247 442 29.S1 46 45.03 11S 23.70 72247 925 41.44 46 18.97 119 25.18 72247 1217 10'0 46 50
~ 17 11S 28'4 72247 1235 56.29 46 49.80 119 27.92 72248 549 27.41 46 44.52 11S 20.56 72248 1014 48.09 46 18.51 119 25'.SS 72248 1632 49.21 46,39.25 119 36.SO 72249 18 8 7.65 46 50.24 119 28.00 72250 1
3 30'9 46 4S.S1 119 26.20 72251 353 33.89 46 40.61 119 18.18 72251 1037 52.00 46 49.61 119 27.93 72251 11 5 47.77 46 4S.61 119 28.27 72251 18 6 11.95 46 44.25 119 19.S3 72251 1854 32.87 46 44.22 119 19.95 72252 1S48 31.29 46 4S.61 119 27.24 72254 555 35.72 46 44.11 119 22.64
- 72254 1040 16.65 46 27.08 119 35.01 72255 619 41.S7 46 27.59 119 35.21 72256 852 49.26 46 43.10 11S,20.67 72256 19 9 26.00 46 52.32 119 22.57 72256 lSl'1 36.03 46 51.79 119 22.60 72256 1911 51.83 46 52.40 11S 22,55 72256 1912 41 '6 46 52.21 11S 22.17 72257 748 36.13 46 19.60 119 25.90 72258 4 0 29.6'1 46 50.39 119 28.32 72260 1315 25.60 46 51.08 119 23.70 72261 519 56'3 46 44 F 58 119 22'4 72261 92S 41.20 46 40.64 119 17.55 72261 938 31.12 46 40.90 11S 17.49 72261 21 4 46.81 46 33.03 120 2.56 72262 13 S 37'3 46 44'2 11S 19@62 72262 'l410 14.10 46 40.96 119 17.77 72263 1257 37.50 46 52.24 119 44.38 72264 1023 6.92 46 50.06 119 27.88 72264 1424 52 ~ 23 46 50 F 05 119 27'7 72265 4 2 27.93 46 50.03 11S 28.54 72265 4 4 17.85 46 49.85 119 28.40 72265 4 5 22.72 46 50.16 119 27.83 72265 1210 26.37 46,49.8S 119 27.SS 72266 348 36.42 46 44.49 119 20. 12 72266 728 30.49 46 34.25 119 42.41 72266 819 50.48 46 4S.SS 119 38.73 72267 1659 22.99 46 49.74 119 28.26 72267 22 0 52.09 46 50.06 119 28.23 DEPTH 3.00 1.20
.19
.45 2.38 3.00
.68
.38 3.18 3.00 4.85 3.00 6.15 2.72 7.98 1.50
.75
.50 7.44
.75 F 00 1
~ 25 3.00, 3.00 3.00
.59 1.54 3.00 2.04 19.07 18.09
.57 2.02 3.00 1.66 3.00
'4.26 1.50 5.52
.13 1.35
.05 16.43 3.00 3.00 3.00 3.00 2.44
.03 2.23
.23 3.00
.21 17.33 3.00 3.98 3.00 HAG NQ GAP DM
.35 9
Sl 6.9
.75 8 193 5.7 2.56 23 280 61.2 1.26 11 237 25.5 1.02 10 171 2.2
.72 7 239 6.4 1.99 9 332 70.6 2.44 14 2S2 65.6 1.71 23 75 5.4 1.40 14 125 5.6
.70 11 194 6.9
.91 11 189 6.8
.70 8 102 12.4
.70 10 95 4.8
.96 8 102 12.0
~ 54 8199 68
.88 111193 6.2
.54 9'7 2.2
.58 7 175 12.1
.29 7 169 1.8 1.03 11 197 6.4 1.00 7 185 4 0
.62 9
1 34 6.1 1.48 19 67 6.2 1.01 12 193 6.6
.61 12 81 2.1
.98 10 91 2.0
.66 9 187 5.3
.Sl 14 80 2 7 1.40 31 107 6.7
.49 12 149
,7.6 1.21 16 53
.5
.87 11 189 5.3
.76 10 185
- 4. 3
.89 9 190 54 1.05 10 187 5.1
.64 5 161 13.5
.86 8 243 6.9
.45 6 250 3.0
.46 S
80 2.S
.42 10 81 6.5 1'.00 15 56 '6.2 1'.16 24 243 22:7
.78 14 123 3.2
.49 9 111 5.9
.95 7 200 18.1 1.09 14 157 6.2 1.80 25 68 6.2 1.96 22 68 7.0 1.82 22 116 6.8 1.78 21 89 6.1
.91 9 194 6.2
.46 8 114 2.3
.45 10 133 6.3
~ 84
'lO 147 10.4 1.18 18 129 6.6 1.'ll
'10 1S7 6.6
.08
.09
.20
.34
.09
.05
.23
.16
.13
.18
.11
.17
.12
.16
.17
.18
.19
.12
.14
.16
.11
.11
.08
.19
.16
.07
.09
.11
.14
.18
.11
.09
.11
.19
,12
.13
.10
~ 06
.Oa
.05
.08
.11
.20
.13
.11
.43
. l2
.22
.15
.22
.16
.16
.37
.36
.13
.14
.'lO ERH ERZ Ql
.3 1.3 B
.5 26.7 D
1.9 1.0 C
1.8 1;6XD
.4
.6 B
.5 1.2 C 3.7 1.7 D
2.0 1.0 C
.3
.5 B
.5 1.8 B
.5
.9C
.7 2.6 C
.7 1.1 B
.7 2.6 B 1.2 5.7 C
1.1 ll.l D
,8 1.1 C
,.6
.8 A 5.0 6.5 C
.9 1.4 C
.5 1.5 C
.7 66.5 D
.4 1.3 B
.5 '8 B
.6 2.3 C
.2
.2 A
.4 1.7 B
.7 1.4 C
.4 1.4 A
.4
.7 B
.7
.5 B
.2
.2 A
.5 2.3 C
.9 1.6 C
.7 5.5 D
.6 2.5 C 1.6 11
~ 3 D
.2 3.8 C
.5
.4 C
.2
~ 3 A
.3 11.3 C
.3
.6 B
.9
.6 C
.4 1
~ 2 B
.5 1.7 B
3.8 27.3 D
.5 1.1 B
.5
.8 B
.3
.7 B
.5 1.2 B
.3
.6 B
.8 2.4 C 1.9 2.8 C 2.5 2.1 C
.8 2.3 C
.4
.8 B
.5 1.5 C
APPENDIX B - Continued 72268 72268 72269 72269 72269 72269 72270 72272 72274 72274 72274 72274 72274 72275 72276 72280 72280 72280 72280 72281 72281 72285 72288 72290 7229'l 72291 72291 72292 72292 72292 72292 72293 72294 72294 72295 72295 72295 72296 72296 72296 72297 72297 72299 7230D 72300 72300 72301 72301 72301 72301 72301 72302 72304 72305 72305 72306 72307 621 24.86 46 50.10 11S 28.19 1327 36.17 46 44.02 119 23.27 156" 7.90 46 40.57 119 17.85 1914 59.50 46 51.64 119 16.52 2021 3S.9\\
46 50.13 1'lS 27.73 2028 27.61 46 5D.76 119 15.43 629 1.49 46 5D.06 11S 28.28 255 56.24 46 27.36 119 34.66 142 32.45 46 49.90 119 28.18 1154 32.58 46 2S.18 119 1S.SO 1154 41.18 46 29.43 119 18.93 1214
.50 46 2.19 119 28.0S 1851 11.06 46 42.34 119 21.13 250 30.99 46 44.46 119 20.67 1342 24.59 46 50.70 11S 47.12 635 42.72 46 49'.98 119 28.78
',644 32.80 46 49.72 119 27.93 722 27.74 46 5D ~ 03.11S 28.89 1046 33.96 46 49.76 119 28.59 7 5 17.68 46 42.84 119 21.49 916 46.46 46 46.26 119 19.87 1229 20.88 46 44.02 119 23.75 1041 33.39 46 50.80 119 46.19 1618 26.56 46 5D.74 119 46.19 728 13.33 46 44.51 119 23.99 1734 48.79 46 44'0 1 19 24.10 1832 10.60 46 44.81 119 23.98 0 2 28.SS 46 44.76 'l19 24.25 621 51.24 46 45.05 119 22.47 10 7 29.4D 46 50.01 119 ~28.94 2133 24.22 46 44.66 119 24.28 2147 56.00 45 40.76 118 52.18 844 18.76 46 44.66 119 24.16 1848 57.57 46 24.35, 119 2.67 122 54.55 46 44.52 119 24.06 1311 51.80 46 44.26 119 23.95 1343 7.40 46 43.SS 119 24.08 729 36.28 46 43.90 11S 24.01 2043 47.91 46 42.19 119 56.4S 2044 58.71 46 42.62 119 56.19 225 'l9.45 46 42.00 119 55.43 3 5 42.02 46 42.16 119 56.75 1125 3.33 46 44.35 11S 23.63 156 25.40 46 44.70 11S 24.05 720 56.49 46 17.54 119 21.80 723 SO.S5 46 17,65 11S 23.40 736 27 F 00 46 5D.46 11S 27.57 744 22.39 46 44.37 119 24.23 846 19.35 46 17.49 119 22.05 849 10.21 46 17.8S 119 22.34 2236 59.55 46 24.27 119 3.43 13 4 57.20 46 52.88 11S 26. 12 2 9 18.83 46 44.83 119 23.50 135 14.29 46 44.45 11S 23.S6 2132
.92 46 23.67 119 1.91 2227 23.43 46 39.44 11S 37.56 518 9.35 46 44.72 119 24.25 DATF ORIGIN LAT N LONG W
DEPTH 3.69 2.05 3.00 14.24 3.07 12.14 3.00 16.S1 3.00 5.19 5.86 6.41 3.00 1.24 3.89 3.00 3.00 3.00 3.00 2.33 3.0D 2.01 2.08 3.00 1.80 3.00 F 00
.D3 2.50 2.64 1.30
.10 2.32
.25
.54
.26
.95 1.49
- 6. 84 8.04 6.07 7.17 1.00 1.35 3,00 5.76 1.,98 3.00 3.00 6.06
.06
.10 2.20 3.84
.25 5.85 3.00
'MAG NO GAP DM
.82 12 197 6.6
.46 9
88 3.4
.98 17 78 6.4 1.33 31 71 9 2 1.66 21 130 6.D 1.29 21 136 10.0 1.67 24 68 6.7 F 58 10 114 7.3
.93 10 195 6.5
.51 5 191 6.8
.42 5 205 6.8
.77 10 291 24.9
.76 14 63 1.9
.66 11 68 2.1
.82 14 132 12.4 1.91 27 i 62 7.3 1,35 14 '129 6.2
'l.32 15 159 7.4 1.22 12 196 1.0
.67 7 140 1.2
.57 10 79 5.6 1
~ 34 15 86 3 9 2.03 1S 67 11.7
.64 8 178 13.4 1.72 21 '9 4.6 1.67 13 93 4.7
.67 S
95 4.S 1.15 9 135 5.1 1.36 24 60 3,8 1.29 13 199 7.5 1.74 23 54 5.0 1.75 12 271 40.9
.82 12 95 4.9
.76 10 208 6.7
.43 10 93 4.7
.60 12 90 4 '
.50 10 Sl 4.3
.Sl
'l2 87 4.2
.95 11 211 S.3 1.70 24 191 8.4
.68 10 207 9.5 1.12 13 212 9.4
.Sa la so a.o 1.00 13 85 4.8 1.09 11 100 7 '
1.18 5 165 8.7
.80 12 197 5 '
.78 13 82 4,7 1.4S 13 102 7.4 1.48 13 153 8.2 1.07 13
'145 6.7
.76 6 172 10.5
.77 13 6S 4.4
.81 12 111 4.5 1.00 14 214 '
1
.46 8 135 11.2
.64 8
96 5.1
.07
.12
.06
.47
.19
.33
.18
.10
~.18
.01
.06
.2S
.13
.11
.21
.20
.09
.09
.14
.09
.13
.08
.14
.07
.11
.08
.12
.05
.12
.10
.15
.21
.11
.13
.11
.12
.07
.12
.21
.16
.19
~ 23
.15
~ 08
.20
.35 F 14
~ 12
.26
.36
.11
.16
.10
.16
.14
.19
.11
~ 3.5
~ 2 1.0
~ 4
.9
.4
.6 1.0
~ 2.8 3.7
~ 4
~ 3.6
,4
~ 3
~ 3.6.6.5
~ 2
.4
.4 4 2
~ 2
.5
.2
.2.5
- 3 2.1
.3 1.0
.4
.3.3
~ 4 1.5.6 1.4 1.3
.4
.2
.7 1.0
.6
.9 1.4.4 1 ~ 2
~ 3.6.9
.8.6
.7 C 2.1 B
.8 B 1.7 B
.7 B 1.7 C
.7 B
~ 8 B 2.6 C
.3 C 1.0 C
5.1 D
.6 A 9.5 B 1.7 C
.6 B 1
~ 1 B
.7 B 1.2 C
.7 B 1.4 B
1.2 A
.8 B 3.2 C
1.6 A
.6.B 2.7 B
.4 B
~ 6 A, 1
~ 8 C 1.3,B
- 2. 6PC 1.7 B 1.2XC
.7 B
.5 A 1.1 B
4.1 B
.7 C 1.6 C
.7 C
.6 C 1.6 A 7.0 B 2.0 B
3.3 D
3.0 C 1.1 A
2.1 B
1.3 C
. 9XB 2.1 C
1.5 A 1.3 B 1.0XC 3.0 B 1.6 B RMS ERH ERZ Ql
l
APPEN DIX B - Continued DATE OR1GIN LM' LONG W 723'll 2315 15.44 46 44.83 119 23.67 72312 7 0 18.24 46 45.05 11S 22.43 72312 2310 10.16 46 44.78 'llS 23.15 72313 2340 17.64 46 25.21 119 2.32 72317 255 33.09 46 49.8S 119 29.13 72318 2'll3 4.72 46 23.66 118 59'0 72318 22 9 5.78 46 25.38 119 2.32 72319 2359 7.22 46 24 F 80 11S 1.52 72320 911 8.01 46 4S.51 11S 28.27 72320 1841 14.72 46 26.06 119 2.64 72321 1254 8.48 46 44.89 119 22,39 72321 2354 21.51 46 25.5D 11S 2.44 72322 9 0 21.46 46 19.34 119 25.75 72323 1115 26.01 46 31.99 120 5.63 72325 1247 7.46 46 19.23 11S 25.32 72325 17 6 18.45 46 42.49 119 23.00 72325 2352 33.41 46 25'7 11S 2'2 72326 653 36.64 46 44.77 119 22.63 72327 112 27.14 46 25.42 119 2.03 72327 825 57.48 46 44.86 119 22.44 72327 1437 59.30 46 45.33 119 22.64 72327 1759 52.55 46 25.22 119 1.20 72328 D14 27.52 46 25.49 11S 2.96 72328 837 45.49 46 44.80 119 22.01 72328 1532 54.18 46 50.84 119 24.27 72328 184'1 57.26 46 28.67 11S 38.S4 72329 1037 35 F 92 46 28.74 119 38.77 72329 2158 14.98 46 28,40 11S.,39.93 72330 735 57.75 46 44.88 119 22.82 72332 2024 37.91 46 25.19 120 10.55 72332 2252,38.30 46 44.95 119 22.91
'72332 2254 15.76 46 44.87 119 23.04 72333 0 8 55. 18 46 25.28 119 2.07 72333 1217 6.30 46 46.69 119 17.02 72333 22 0 9.02 45 41.15 118 52.43 72334 356 14.22 46 45.03 119 23.07 72334 932 10.34 46 45.12 llS 22.98 72334 1028 45.90 46 45.20 11S 22.S2 72334 1D35 26.90 46 45.10 119 23.08 72334 1213 14.49 46 45.11 119 22.82 72334 13 5 31.05 46 44.97 11S 23.08 72334 2339 33.71 46 25.64 11S 3.00 72335 242 2'7 46 44'4 11S 23 F 11 72335 20 0 6.07 46 45.26 11S 23.20 72336 347 27.45 46 44.79 11S 23.35 72336 648 57.56 46 24.96 119 1.32 72337 14 4 42.13 46 45.42 11S 23.34 72337 1450 47'0 46 45el2 119 23'5 72339 11 0
4.54 46 23.38 119
.27 72339 1543
.30 46 23.43 118 59.54 72339 2356 51.41 46 25.15 119 2.46 72340 2020 39.33 46 45.21 119 23.38 72340 2346 47.76 46 25.58
'11S 3.0S 72341 2024 42.16 46 39.78 119 8.32 72341 2327 54.12 46 25.40 1'1S 2.63 72342 1524 27.76 46 44.41 119 23.40 72342 18 9 19.38 46 45.18 119 22.35 F 00 1.74 3.70
.13 3.00 1.91
.13
.50 3.0D 1.97 1.86
.13 4',64 5.84 6.25
- 5. 17
.25
.41
.20 1.93
.09
.79
.39 2.38 2.29 6.08 4.84 6.78 3.00 1.50 2.83 2.15
- 3. 00 3.00 1,50
.30 2.48
.D4
.61
.89
.55
.30 2.52
.76 3.00
.75
.42
.18
.75
.72
.65 2.79
.09 2.05
.75
.62 2.90 1.13
'17 69 4.6 1.5S 21 60 3.8
.65 9
93 4
0'91 12 206 5.2
.6S 11 199 4.0 1.00 11 225 9.6
.82 11 206 4.9
.92 9 259 6.3
.73 12 192 3.6
.60 7 247 3.6 1.1'1 19 71 3.5
.89 14 205 4.6
.99 11 100 13.0
.83 15 251 27.0
.74 8 162 12.5
.47 10 86 12.7 1
~ 12 19 149 4.6
.42 12 71 3 5 88 12 150 5 0 1.58 27 57 3.5
.75 16 62 4.4
.88 10 211 5.8
.93 14 146 4.5
.63 13 60 3.1 1.26 21 130 2.9
.29 8 153 6.4
.62 15 119 6.5
. 56 1 2 171
- 5. 8
.49 13 61
'3.8 1.10 13 264 36.8 2.11 1,9 57 4 '
.74 14 64 4.0
.77 13 207 5.2
.36 12 104 6.7 1.59 22 256 40.1 1.38 18 59 4,3 1.97 24 59 4.3 1.16 18 6D 4.4 1.49 21 58 4.4
.87 16 60 4.2
.99 16 58 4.2
.95 17 146 4.2
.88 13 58 4.2 1.39 16 60 4.7
.65 13 62 4.2
.62 11 211 6.1 1
~ 41 28 43 1.7
.98 20 61 1.9
.77 8 269 9.4 1.04 9 270 9.7
.85 15 206 5.3 1.78 26 42 2 0
.75 12 202 4.3
.45 8 129 7.0
.84 10 252 4.8
.68 9 110 3.8
.68 1 1 62 3.9
.19
.11
.10
.13
.14
.17
.13
.11
.16
.08
.13
.13
.13
.31
.24
.12,
.15
.15
.09
.24
.21
.18
.15
.D9
.13
.17
,.19
.08
.12'44
.10
.07
.15
.15
.49
.07
.12
.09
.12
.10
.10
~ 18
.13
.08
.09
.23
.20
.09
.17
.13
.16
.18
.13
.08
.22
~ 14
.DS
~ 4
~ 2
~ 4.5
.7
.9
~ 7 1.2 1.0
.9
~ 3
.6.5 2.6 1.6.5
,5
~ 4
.4
.4.5 1.5.4
~ 2
~ 3 1
~ 1
,5.6
.'4 2.2
.2
.2
.8
.5 2.1
.2
.2
~ 2
.2
.3
.3.7
~ 4
~ 3
.3 1.3
.3
~ 2 2.5 2.3.9
.4.4
.4 2 '.6
~ 3 1.1 B
1.2 A
1.0 B
. 6XC 1,7 C
2.0 C
.BXC 1.0XC 1.1 C
1.4 C
1.0 A
.7XC 1.4 B
3.7 D
1.3 C
.7 B
. 7XB
.8 A
.8 B 1.5 B
.7 B 1.8 C
.7 B
.7 A
.6 B 2.0 C
1.1 B
.4 B
.9 A
1.7 D
.3 A
.8 A
1.DPC 2.2 B
1.6 D
2.2 B
.5 A
.4 A
.8 A 1.4 A 1.0 A
. SXC 2.1 B
.7 A
.6 A 1.6 C
.3 B
.2 A 2.4 D
2.4 C
1.0 C
.6 B
.3 C 2.9 B
2.3 C
1.0 B
.7 A DEPTH MAG NO GAP DM RMS ERH ERZ Ql
l
APPENDIX B - Continued DATE ORIGIN LAT N LONG W 72343 510 18.62 46 44.68 119 23.27 72343 537 39.39 46 44.81 119 21.98 72344 1134 48.44 46 48.23 1 19 31 F 90 72344 15 9 1.90 46 24.68 119
.41 72344 1829 30.13 46 24.92 119 1.56 72344 1859 17.59 46 49.63 119 28.58 72344 lS44 7.28 46 24.93 11S 1.35 72344 1945 18.68 46 25.21 119 1.80 72344 1951 53'9 '46 25'1 119 1
~ 32 72344 21 9 15.72 46 24.82 119 1.07 72344 2217 45.96 46 25.84 11S 2'4 72345 759 42.47 46 24.03 118 59 '1 72346 322 9.10 46 25.06 11S 1.92 72347 1453 27.70 46 25.01 119 1.13 72348 243 19.27 46 23.02 119
.20 72349 2317 30.85 46 44'.80 119 22.24 72351 1818 27.87 46 44.80 119 22.08 72351 2258
.06 46 23.44 118 59.52 72351 23 0 7.53 46 23.57 118 59.62 72354 245 34.38 46 25.02 119
.67 72355 1035 54.'87 46 49.63 119 29.06 72355,23 9 59.16 46 40.99 119 34.44 72357 6 5 1.77 46 44.92 119 21,62 72359 2043 58.80 46 39.34 119 8.81 72361 2325 56.52 46 25.11 119 2.55 72362 856 56.38 46 38.82 118 52'5 72362 1114 2.36 46 39.28 118 51.09 72362 1459 55.13 46 34.85 119 4.87 72363 317 56.76 46 24.55 1'19 1.00 72363 1141 43.73 46 38.74 118 52.58 72366 1835 5.65 46 28.20 119 40.41 73 2 1750 34.45 46 3.71 11S 4.44 73 2 20 6 49.07 46 44.71 11S 25.54 73 12 2D52 54.75 46 44.45 119 21.01 73 18 1453 6.03 46 21.56 119 4.97 73 25 137 27.19 46 50.4S 119 34.70 73 26 2334 59.53 46 31.70 119 2,63 73 27 1629 27.13 46 38.15 118 53.26 73 27 1640 48.43 46 42.12 119 23.57 73 27 1641 58.88 46 42.05 1 19 23.62 73 28 2138 44.01 46 4.23 118 25.93 73 30 2157
.57 46 24.44 1'1S 2.77 73 32 5 4 46.27 46 51.15 119 18.84 73 32 1625 20.60 46 44.50 119 25.22 73 33 2159 49.32 46 25.12 119 2
F 08 73 34 2 4 27.02 46 51.15 119 18.21 73 35 1340 50'7 46 3S ~ 15 11S 10 '1 73 35 1716
.95 46 24.89 11S 3.17 73 36 8 9 45.87 46 39.34 119 8.4D 73 36 1329 2.14 46 32.76 119 36.00 73 36 2330 36.32 46 24.22 119 3.12 73 37 834 31.64 46 23.36 119 1.85 73 38 21 8 11.56 46 25;41 119 2.31 73 39 2243 23.00 46 25.22 119 1.74 73 40 2355 38.48 46 42.18 119 23.83 73 41 19 2 58.70 46 32.49 119 34'7 73 42 11 1 40.56 46 33.2S 11S 36.7S DEPTH 2.77 2.6D 4.08 2.13
.99 3.00
.50
.90 2.65 1.50
.14 3.00 1.17
.90
.38
.38
,25 3.00 3.00
,73
.34 6.70
.05 5.30 1.35 3.00 1.50
.75 1.28 1.50 18.05 5.95
.40 2.05 1.18 3.69 3.00 1.09 3.85 3.91 4,43
.04 1.35 3.00 3.00 1.50 1.5D 1.50 2.70 20."26
.75 1.50 1.46
.25 1.72 14.92 11
~ 14 yAG NO GAP DM
.80 16 69 4 '
1.30 21 72 3.1
.58 10 218 3.2
.93 9 216 7.2
.60 9 211 6.1
.76 16 229 3.7 2.50 30 123 6.2
.77 7 255 5.4 2.44 31 123 5.7
.50 7 259 6.5
.58 8 248 3.9
.77 9 221 8 '
~ 36 7 209 5.6
.55 7 258 6.2
.45 7 271 10.0 1;08 22 52 1.3
.47 16 53 1.1
.55 10 224 9.7
.49 11 223 S.5
.68 9 214 6.5 1.04 21 156 3.6 1
~ 13 15 116 6.1 1.00 18 62
.5
.51 9 121 6 4
.60 8 206 5.3
.7D 7 282 2.7
.62 5 288 5.0
.43 10 115 3.4
.64 7 261 7.0
.49 7 283 3.2
.83 15 144 5.7
.75 7 216 11.1
.89 19 61 6.5
.66 13 83 2
1
.81 11 254 11.9
.76 16 118 3.8
.S4 1S 154 7.2
.88 10 242 2.9
.66 11 131 4.1
.71 11 131 4 3 1,89 34
'184 18.7
.68 11 207 6.5
.44 6 265 6.2
.65 10 85 6.0 1.24 12 208 5.5
.32 7 157 6.9
.39 7 183 7.2 1.3D 16 204 5.6
.48 13 91 6.2
.71 16 86 9.6 1.45 12 146 6.8 1.34 15 152 8.7 1.45 16 120 4.9
.84 11 209 5.5
.73
'12 85 4.4 1.18 16 72 10.4
.38 11 106 9.2
.17
.25
.16
.18
.14
.11
.23
.23
.27
- le
.23
.17
.07
.16
.18
.15
.08
.19
.24
.16
.09
.21
.32
.16
.15
.26
.23
.26
.19
.30
.13
.18
~ 17
.13
.15
.14
.16
.10
.09
.08
.28
,13
.17
.10
,14
.34
.29
.24
.27
.13
.17
.23
.12
.16
.11
.2D
~ 29 ERH ERZ Ql
.4 1.1 B
.5 1.3 B 1.3
.8 C 1.3 10.5 D
1
~ 3 3 '
C
.5 F 1 C
.7
.7 B 3,3 7.3 D
.6
<<7 B l.a la.o D
1.1
~ 8 C 1
~ 1 1.8 C
.8 2.5 C 2 6 6
1 D
2.6 2.6 D
.3
.3 A
.2
.2 A 1.1 1.5 C 1.4 1.9 C
1.5 2.0 C
.2
.3 B
.7
.6 B
.6
.6 B
.6 1;4 B
.7 10.3 D
2.4 4,3 C 4.2 32.9 D
.5 1.0 B 1.7 70.6 D
2.8 13.7 D.
.7
.7 B
- 8. 1 11.7 D
.3
.6 B
.4
.9 A 2.0 4.1 C
.4
.7 B
.4
.6PC
.8 1.0 C
.3
.7 B
.3
.5 B 1.8 1.8 C
.8 1.OPC 2.1 32.5 'D
.4 1.'4 B
. 7 1.'3PC 1.8 38.5 C 1.6 18 '
D
.8 16.4 D
.8 4.2 B
.7
.8 A
.3
.6PC
.7 2.2 C
.3
.SXB 1.3 1.6XC
.4 4.'7 B
.8 1.5 B 1.3 3.0 B
APPENDIX B - Continued DATE ORIGIN LAT N LONG W
DEPTH MAG NO GAP DM RMS ERH ERZ Ql 73 43 23 8 5S.11 46 2S.42 119 1.S3 73'5 2115 3S.S4 46 38.76 119 8.36 73 45 2138 17.67 46 25.25 llS 1.76 73 46 1138 40.20 46 39.20 119 7.45 73 50 4 2 14.97 46 39.14
'119 7.11 73 52 1327 29.27 46 48.3S 119 24.42 73 54 1510 3S.07 46 39.38 119 7.70 73 55 S32 7'5 46 39'9
'l 19 F 00 73 61 1844 25.SO 46 6.82 119 26.86 73 62 02S 12o83 46 25'7 119 2a64 73 65 820 31.91 46 52.27 119 21.49 73 65 2333 43.63 46 39.23 11S 6.33 73 66 115S 47.S3 46 21.34 119 35.39 73 68 6 6 35.97 46 46.94 119
.43 73 69 257 42.03 46 39.95 118 37.65 73 70 1325 40.03 46 46.30 119 23.36 73 71 8
1 19.16 46 45.93 119 23.36 73 73 815 37.02 46 3S.55 119 8.12 73 73 819 21.52 46 39.56 1'lS 7.98 73 73 9
1 35.34 46 39.59 119 8.89 73 74 519 16.56 46 46.66 119 23.36 73 74 2315 38.11 46 25.d3 119 2.40 73 76 636 52.61 46 14.31 119 7.66 73 76 645 46.06 46 14.52 119 6.28 73 87 2314 3'l.45 46 38.38 119 8.51 73103 021 55.73 46 24.54 119 3.04 73112 351 32 '1 46 57. 12 11S 47.70 73115 951 2.24 46 26.44 119 16.08 73115 1252 16.00 46 26'3 119 16.04 73118 613 25.62 46 52.S9 119 1S.69 73121 440 24.77 46 25.89 119 16.34 73121 S46 4.22 46 26.03 1'lS 16.60 73123 042 18.d3 46 39.62 1'lS 7.52 73123 2 5 47.97 46 45.00 11S 23.33 73125 1232 26.80 46 19.0S 119 25.46 73132 2012 35.21 46 21.81 11S 26.09 73153 2343 42.81 46 49.95 119 20'2 73155 1839 30.43 46 24.87 119 3.16 73155 2314 49.52 46 25.12 119 3'2 73157 2324 56.42 46 24.27 11S
.Sl 73158 20 1 44.88 46 50.12 119 19.57 73162 243 39.24 46 24.56 119 2S.68 73'l63 147 34.26 46 25.04
'l19 2'9 73164 2036 52.46 46 22.64 119 7.74 73164 23 2 37.08 46 50.51 11S 23.54 73165 311 48.70 46 24.80 11S 2.55 73165 410 26.82 46 24.86 11S 2.68 73168 1026 36.19 46 50.16 119 23.68 73168 1529 45.30 46 39.87 119 35.23 73170 912 56.60 46 24'6 11S 2.28 73172 757 1.63 46 50'6 119 20.89 73174 727 38.88 46 48 F 05 119 13.41 73174 1319 35.93 46 49.76 119 23.37 73174 2155 44.42 46 5'9 119 23.57 73175 1032 2.08 46 56.61 119 4'1.62 73179 1811 12.83 46 39.03 11S 7.88 73180 1437 41.63 46 24 F 80 11S 1.16 1.18
- 4. Sl 1.32 2.69 3.00
.59 1.35 3.0D
.41
.17
.23 3;00
- 18. 40
- 3. 00
.67
.37 1.80 3.00
- 1. 34 3.0D 3.88
.19 5.81 5.83 3.00
.33 11.78 1.50 1.79 3.00 1
~ 27 1.06 1.50 3.00 7.88 1.ee 2.58
.72
.75 2.05 11.86 12 F 19
.75
.67 2.90
.78 2*80 1*28
.57 1.26 3.00
- 16. 07
.84 1
~ 28 3.00 2.70
.79
.90 12 207 5.0 i.47 10 95 5.2
.72
'lO 20S 5 '
1.43 25 S3 5.7
.68 9
93 5.5
.72 11 107 2.7
.71 13 75 6.1
.82 13 76 6 3 1.71 18 2S6 16.8
.76 12 148 5.0
.98 14 184 5.5
.76 9
95 5.7
.73 13 126 4 '
1.15 16 135 15.9 2.11 21 206 22.2 1.19 18>
65 6.0 1.15 16 70 5 '
.83 14 93 6 '
.59 1S 73 6.5
.35 12 92 6.9 1.D2
'13 104 5.3
.77 9 205 4.8
.67 11 126 14.7
.47 10 131 16.4
~ 55 10 97 4 7 i53 8 233 6.2
.87 13 106 14.6
.55 9 109 1.8 1.53 15 112 1.6
.87 13 171 7.8
.53 1'l 112 1.2
.48 13 110
.9
.48 10 95 6,4
.53 10 93 4.4
.82 9 101 12.4
.86 13 81 12.2
.56 10 150 3.1 1.49 13 204 5.6
.66 12 202 5.1 1.13 14 216 7.5 1.47 21 80 4.6
.64 13 69 7.5
.68 12 206 5.4
.71 11 193 11.1 2.21 26 67 1.9 1.80 27 207 S.S
.97 12 206 5.7
.47 12 174 1.4.
1.48 18 70 3.8
.55 12 210 6.9
.62 12 156 3.0
.66 15 S2 6.9
.41 10 166
.6 1.25 14 108 1.7
.S4 9 219 10.7
.63 13 91 5.S 1.40 5 248 6.5
.11
.18
.10
.27
~ 14
~ 09
.33
.23
.25
.10
.08
.20
.21
.17
~ 22
.34
.24
.28
.17
.37
.'13
.06
.25
.10
.35
.09
.29
.2D
.16
.13
.16
.17
.15
.15
.18
.10
.27
.11
.18
~ 18
.38
~ 24
.10
.24
.23
.35
.17
~ 15
.18
.23
.12
.26
.08
.06
.26
.31
.07
~ 7
.8
.7 2
.6
.6
.9
.7 3.0
~ 3
~ 3.9 1.1'5 1.4
.7
..6
~ 7
~ 4 1.4
.5
~ 4
.7
.4 1.0
.9 1.7.6.6.5.5.5.5.5
.9
.4 1.D
~ 4.9.8 1.1 1.1.5 1.0.5 1
~ 5.8.5 4
1.1
.3 1
~ 1
.3
.2 1.7.8 3.1 1.6 C
1.0 B
1.6 D
1.2 B
3.1 B
.7 B 5.9 C
2.6 B
1.9XD
.6 B
.4 C 4.1 B
1.0 B 1.0 C
1.2XC 1.5 C 8.7 C
5.9 C 2.5 B 4,8 C
.9 B
.5 C 1.1 C
.6 B 4.7 C 1.0PC 4.6 B 2.4 B
.8 B
.8 B 1.8 B
.7 B 13.5 C
2.9 B 6.5 C 5.1 C
4.5 C
.5 C 1.0 C
1.9 C
2.4 B
1.7 B
.5 C 1.4 C
.5 B 1.4 D
1.2 C
2.4 C
.8 B 77.1 D
.7 B 1.2 B
.4 B
.5 B 13.2 D
5.6 C
57.5 D
APPENDIX B Continued 3.00 3.04
.68 22.38
'l.73
.75 1.57 1.69 1.20
.38 4.83 3.00 3.00 2.07 7.51
.08 7.21 2.41 3.17 6.21 3.00 3.00 12.70 3.00 3.00 F 00 3.DO 1.73 3.DO 3,00
.98 3.00 1.08 1.95 1.29 4.60
.10 5.'64 3.0D 1.83 4.57 1.75 2.05
.51 6.08 5.20 4.17 1.86
,4.64 2.53 2.04
.12 3.00 1.45 3.0D 2.11 3.00 DATE ORIGIN LAT N LONG W DEPTH 73185 22 9 11.64 '46 49 '1 119 18.83 73190 749
. 9.18 46 11.05 119 36.86 1
73191 9 3 45.76 46 25.31 119 16.69 73193 219 6.D5 46 38.D1 119 35.94 73197 1355 5.59 46 39.37 119 5.23 73201 044 27.89 46 48.01 117 3D.72 73202 212 11.61 46 25.15 11S 1.87 73205 855 11 '8 46 45.36 119 23.54 7321'l 1623 42.15 46 4S.93 119 20.58 73211 1927 41.69 46 49.89 119 20.26 73215 154 21.79 46 50.39 119 20.93 73215 837 41.83 46 38.82 119 6.27 73218 814 2.49 46 50,46 1'l9 2D.94 73218 1423 36.95 46 50.52 11S 23.14 73220 743 44.11 46 16.24 119 32.95 73220 2331 17'3 46 50".03 119 2D ~ 1S 73222 0
1 24.15 47 2.00 119 16.25 73224 744 26.07 46 50.39 11S 20.90 73227 235 52.58 46 51.D1 119 36.99 73233 4 3 33'9 46 15e36 119 33'8 73233 2131 5.26 46 43.43 11S 17.S1 73235 1221 49.32 46 38.71 119 41.SO 73238 11S2 31.80 46 14.02 119 34.83 73242 1355 50.59 46 49.81 119 44.91 73245 1
2 57.24 46. 36.S6 120 24.42 73245 23 8 51.01 46 41.42 119 15.87 73247 9 2 22.66 46 49.63 119 45.13 73250 212S 2S.SB 46 47.,36 119 34.78 73250 2252 55.69 46 37.02 120 22.73 7325l 2324 32'6 46 SO.S6 119 36.80 73251 2326 59,75 46 50.77 119 37,39 73252 ll 8 45.52 46 51.96 11S 30.54 732S3
'il7 4D ~ 57 45 54'0 119 18'5 73253 234 18,22 46 36.95 120 21.86 73255 2054 54.87 46 SD.03 119 44.68 73256 31S 40.49 46 41 F 09 119 17.73 73256.1429 50'4 46 44 F 89 119 20a98 73257 1910 2.94 46 50
~ 14 11S 11.61 73258 331 15.73 46 44.67 119 20.56 73259 7 2 58.D3 46 50.40 119 36.12 73259 1137 4.44 46 41. 13 119 13.95 73259 1737 54,88 46 44.53 llS 20.63 73259 1741 26.4S 46 44.55 119 20.46 73260 239 16.43 46 SO ~ 24 119 23'2 73264 155 30.94 46 S0.32 119 11.85 73268 2112 13.24 46
,4'0 118 26.04 73268 2349 35.71 46 50.19 119 11.75 73269 850 30.35 46 41.15 119 15.85 73272 826 54.00 46 4D.SS 119 14.69 73273 1514 26.72 46 40.98 119 15.92 73273 2045 46.66 46 4S.87 119 44.89 73274 2221 4S.74 46 41.57 119 14.96 73275 16 6 23.52 46 41.42 119 1S.79 73275 1622 22.91 46 41.30 119 15.60 73275 1654 3.92 46 41 '7 119 15.70 73278 1738 15.94 46 41.27 119 15.79 73281 12 6 16.95 46 44.24 11S 20.54
.4 1.0 B
.9
.6 D
.6
".8 B
.7 1.0 B
,6
.7 B
'2 4.0PD
.4
.SB
.4 1.1 B
.6 1.7 C
,5
.9 B
.6
.7 C
.6 1.7 B
.5 1.2 C
.6
.7 B
.6 41.3 C
.5
.6 B 2.2 1.9 C
.4 1.3,.B
.5
.6 C
.6
.7 B
.4
.9 A
.8 3.9 B
1.0 1.5 C
.3 2.7 C 1.6 2.3PC
.3
.9 B
.5
.6 B 1.2 3.3PC 1.1 1.8PC 1.8 3.1 C
7.6 40.7 D
.4 4.0 C
1.0 2.3PD 1.0
.7PC
.4
.8 B
.4 1.0 B
.3
.2 B
.3 1.5 B 1.0 1.6 B 1.2 4.2 C
.4 1
~ 1 B
.4 1.6 A
.2
.7'A
.5
.3 C
.4
.5 B 3.1 5.0 D
'.3
.6 B
.2 2.6 B
.5
.9 B
.2
.6 B
.4
.7 B
.5 1.1 B
.4
.8 B
.4 8.9 C
~ 3 1.2 B
.4 1.0 B
.7 1.6 B
.70 16 131 5.4
.16 1.35 32 192 6,3
,30
.91 14 114 1.4
.24
~ 18 'll 107 11.4
.13 1.80 28 79 6.2
.24 2.48 25 274108.7
.38 7
2.24 20 121 5.5
.13 1.46 30 SS 5.1
.25 1
~ 05 24 126 3.3
~ 32
.98 24 125 3 '
.29
,67 11 162 3.2
.17
.73 14 84 4.9
.22
,63 10 163 3.2
.16 1.76 19 68 1.9
.19
.95 15 136 12.3
.21 1.34 17,126 3.8
.22
.61 11 '269 12.0
.15
.64 12 162 3.2
.13
.55 9 1Sl 1.4
.07
.74 12 146 10.6
~ 15
.85 13 74 3.7
.14
.91 12 85 6 4
.28
.56 11 164 8.4
. 18
.85 15 122 10,6
.10
'1.64 19 271 41.6
~ 17 1.10 21 73 6.5
.16 2.54 17 1D6 11.0
.12 1.04 9 241 4.2
.11 1.88 19 266 39.6
.12
.21 7
181 1.6
.17
.03 5 211 1.9
.12 1
.BS 5 208 8.0
.04 1.73 8 228 32.5
.33 1.68 11 284 38.7
.09 2.33 18 65 10.2
.14
.51 11 147 5.7
.11
.92 8 144 2.9
.05
.70 7 175 10.9
.04
.50 9 109 2.5
.18
.27 5 165 2 '
.08
.46 10 106 6.1
.10
.79 11 61 2.2
.11
.58 10 64 2.3
.05
'44 8 284 1.4
.05 1.03 8 150 11.2
.06 1.49 9 202 18.5
.20 1.12 12 101 11.0
.07
.61 8 109 6.'9
.05 e76 8 112 6.6
. 11
.79 1D 11D 7.3
.05 2.36 16 67 10.6
. 12 1.40 12 107 5.7
.13 1.69 15 97 6.5
.14 1.16 10 107 6.5
.08
.70 1D 108 6.8'06 1.78 'l4 97 6.7
- 12
.71 10 90 1.7
.18 MAG NO GAP DM RMS ERH ERZ Ql
I k
S
APPENDIX B-DATE ORIGIN LAT N LONG W Continued DEPTH HAG NO GAP -DN RMS ERH ERZ Ql 73282 3 3 37.37 46 44.92 119 19
~ 84 73282 1831 52.25 46 41.32 119 14.61 73282 2142 12.87 46 41.66 '}19 14.24 73285 1252 49.07 46 39.08 119 6.'}7 73286 21 7 54.00 46 40,95 119 16.15 732S7 230 1S.SO 46 41.26 11S 15,1S 73287 247 41 '7 46 41.42
'}19 14.76 73287 253 34.08 46 41.43 119 14.70 73287 1315 31.49 46 41.31 119 14.92 73287 1315 46.17 46 41.40 11S 15.02 73288 20 2 2lr19 46 39'6 119 Sr87 73289 1829 55.03 46 53.86 119 43. 12 73289 2224 15.SS 47 3.20 119 55.50 73290 2140 12.62 46 53.81 11S 43.53 73291 153 12'0 46 39'S 119 7'9 73291 3 4 33.84 46 39.13 1 19 7.44 73291 2126 26.48 46 43.93 119 22'2 73293 254 44.76 46 50.44 119 37.16 73302 1259 5.25 46 39.17 119 8.03 73302 15 8 40.07 46 15.58 119 29.19 73303 233 15.47 46 39.44 119 8.36 73304 716 4S.58 46 49.66 119 44.S6 73307 822 39.71 46 44.35 119 21.69 73307 1055 8.58 46 44.10 11S 18.16 73307 2016 31.34 46 20.68 1 1S 24.62 73310 1645 8,03 46 51.88 119 34.61 73313 15 3 27.87 46 38.96 119 8.21 73313 1956 8.53 46 53.79 1'19 43.53 73313 233S 15.03 46 39.67 119 8.'}6 73326 1958 45.12 46 40.81 119 18.41 73330 456 34.49 46 5.41 118 43.84 73333 832 13.99 46 39.11 119 5.22 73339 1435 11.79 46 17.20 119 23.06 73339 1934 31.17 46 54.00 11S 43.78 73344
'}516 17.15 46 43,43 11S 10.23 73345 1049 19.06 46 24.75 119 15.43 73353 325 5.96 46 52.36 119 22.51 73354 1 8 28.24 46 52.13 119 21.23 73354 355 55.84'46 52.24 119 21.17 73354 550 23.19 46 52.60 119 22.75 73354 819 42'3 46 51 '5 11S 21 '1 73356 1510 27.60 46 51.91 1 19 21.62 73356 1552 25.57 46 51.75 119 21.27 73357 817 31rl8 46 52 ~ 29 119 22'5 73357 1020 1.09 46 52.00 119 21.10 73357 1512 9'5 46 47'5 119 32r91 73358 036 48.76 46 50.37 119 38.75 7335S 11 7 24.58 46 50.77 119 40.20 73360 522 13.61 46 52.10 119 21.08 73360 1156 47.77 46 52.45 11S 21.56 73360 1248 15.46 46 5'}.84 '}19 21.77 73363 937 26.89 46 2.63 119 40.65 73363 938 14.24 46 3.43 119 39.20 73363 951 35.86 46 3.01 119 41.02 73363 11 3
" 8.78 46 2.98 11S 41.20 73363 1114 9.10 46 3.97 11S 3S.28 73364 35S 48.SS 46 50.47 119 38.58
.36 1.50 3.00 1.25 3.00 1.94
.88 1.40 1.50
~ 52
.29
- 3. 00
.50 3.00 1.32
- 1. 27 1.75
.94 3.00 3.00
'I.45 2.62 2.65 1.80
.45 5.37 3.00 3.00 3.00 3.00 7.53 3.00 3.00 3.00
.22 1.04 1.35 2.35 2.77
.67
.91 3.00
.53 1.28
.47 1.20
.51 1.66
.60
.11 1.6S 6.42 10.38 8.91
$.86 12.01 1.99
.64 10 106 3.2 1.01 11 79 6.0
.81 11 119 5 2 1.30 12 94 5.4
.S4 13 69 7.4
.93 13 72 6.4 1
~ 56 20 70 5.9 1.51 18 70 5 8
.6'4 14 75 6.1
.96 13 74 6.0 1.13 10 154 6.3
.87 9 106 8.6 1
~ 41 11 193 11.6
.68 11 104 9.0
.93 13 94 6.2
.68 13 92 5.5
.56 11 77 2.8
.82 12 115 2.5
.83 10 Sl 5.8 1.33 11 149 13.3 1.11 14 92 6 4 1
~ 31 16 68 10.8
.96 12 60 2.2
.72 10 132 3 7 1.11 7 106 }3.5
.78 9 178
- 3. 1
.83 12 89 5.5
.97 12 96 9.0
.57 11 94 6.7
'}.37 20 57 5.6 1.27 9 142 16.4 1.16 17 96 5.7 1.61 9 168 7.7
.90 8 140 9.5
.74 11 108 3.9
.50 8 124 3.2
.57 9 189 5.3 4.38 21 71 5.4 1.86 24 71 5.6
.95 14 164 '5.7 1.08 10 183 4.8 1.56 1S 73 4.8
.80 11 179 4.7
.75 10 188 5.3
.61 10 181 5.3
.53 6 216 4 4
.84 13 102 3.4
.67 14 128 4 '
1.09 12 181 5.4 1.13 13 136 5.8
.64 8 182 4.6 1.65 18 248 1$.8 2.75 2S 246 '}7.5 1.91 20 248 18.1 1.68 21 248 18.1 2.22 22 245 16.5
.88 13 67 3.1
.08
.17
.09
.14
.11
.17
.16
.14
.14
.11
.07
.18
.09
.05
.16
.16
.10
.18
,07
.30
.15
.14
.26
.20
.10-
~ 29
~ 22
.09
.21
.19
.15,
.21
.24
.08
.11
.28
.25
.11
.20'20
.08
.17
.19
,.08
.06
.20
.15
.13
.11
.12
.12
.14
.20
.13
.13
.16
.13
~ 2
.6 14
.4 2
.4 1
~ 3.5 5
.4
.4
.4 9
.3.3 1.1
.7
.3.5
.4 8
.3
,9
.3 1.4
.4
,4
.8.8
.1 2.3
.7
~ 4
.7.5
.8 9
.5 1.2
.6
.3 1.3 1.5 2
.4,
.5
~ 4.3.5.7
~ 3
.4 3.4.5
.4.6.3 1
~ 2.8 1
~ 2
~ 8.8 1.4
~ 4
.3 B C
.I B
.9 B
.9 B
.7 C 1.5 B 1.0 B
.7 C
.7 B
.7 B 2.3PB 1.3XC
.6PB 2 '
B 6.6 C 2.2 B
2.5 B 1.4 B
2 '
C 2.2 B
.9 B 2.6 B
5.7 C
.1XB 1.4 C 3.9 B
.7PB 4.8 B
1.1 B
9.5 C 1.2 B
2.3 C
.7PB
.4 B 3.4 B
7.4 D
.6 B
.7 B
.9 C 1.2 C
.8 B 1.1 C
11.7 D
.4 C 43.8 D
1.1 B
3.6 B
1.0 C
.6 B 4.3 C
.9 C
.6 C
.9 C
.9 C
.6 C
.9 A
APPENDIX B DATE ORIGIN LAT N LONG W
Continued DEPTH
'MAG NO GAP DM RMS ERH ERZ Ql 73364 74 3
74 3
74 4
74 5
74 6
74 6
74 6
74 6
74 7
74 7
74 8
74 9
74 10 74 18 74 20 74 20 74'0 74 20 74 21 74 21 74 22 74 23 74 26 74 26 74 31 74 34 74 35 74 36 74 39 74 46 74 51 74 51 74 54 74 58 74 66 74 69 74 69 74 87 74 Sl 74 93 74 95 74 95 74 SS 74101 74107 74107 74107 74107 74107 74108 74109 74112 74113 74113 74118 74121 636 18.06 46 52.14 119 20.62 647 12.53 46 52.39 119 21.66 2237 30.57 46 52.14 119 21.40 315 21.58 46 51.78 119 22 F 16 1332 26.86 46 42.18 119 4.82 128 SS.64 46 51.94 11S 22.83 1013 1.76 46 51.49 119 22.07 101S 52.64 46 39.34 119 5.54 2044 S.S8 46 50.08 11S 36.22 2 9 47.06 46 52.40 119 21.82 1913 7.00 46 52.38 119 21.02 5 0 59.43 46 Sled 17 119 23.36 947 5.08 46 47.57 119 21.56 1630 11.22 46 52.35 119 21.59 017 48.39 46 50.52 119 38.51 1214 16.39 46 45 F 19 119 14.35 1215 5.4S 46 45.54 119 14.67 1247 2S.08 46 45.70 11S 14.59 1322 28.97 46 46.04 119 14.52 6 5 43.62 46 51.94 11S 20.50 1439 49.31 46 51.94 1'19 20.26 1445 9.15 46 42.32 119 4.53 725 40.43 46 51.73 119 22.25 16 2 55.39 46,44.75 119 13.11 16 4 19,53 46 44.75 11'9 13.99 1254 30.44 46 13.40 119 1S.37 19 6 34.41 46 52.23 119 21.64 545 1.85 46 51.19 119 4'3 918 57.71 46 50.99 11S 38.33 831 11.54 46 52.21 119 21 '5 2137 40.40 46 13.61 119 45.60 1242 26.73 46 50 F 51 1 19 21.78 2026 49.80 46 14.02 11S 43.51 21 7
- 9. 17 46 51.58 119 21.02 036 15.68 46 2.00 119 4S.54 4 8 59.24 46 38.78 119 37.45 9 2 53.53 46 52.15 119 21.11 1536 3,74 47 2.65 1'1S 31.23 2336 54. 15 46 36.83 119 6.63 loss ss.7o 47 14.eo >>9 3s.es 2149 57.53 46 22.31 118 55.20 0 4 54.27 46 50.61 1'19 11.90 1919 42.59 46 50.70 119 12.12 13 S 44.89 46 48.23 llS 40.20 1241 40.92 46 50.00 119 45.17 253 33.25 46 51.01 11S 11.75 258 7.77 46 50.92 119 11.26 3 4 13.78 46 50.70 119 12.16 1542 25.91 46 47.64 11S 40.85 1542 37.13 46 47.95 119 41.03 0
1 56.51 46 46.01 119 19.67 12 6 29.77 46 36.88 119 6.44 049 23.37 46 32.35 119 38.29 657 3.08 46 49.61 119 23.10 2119 10.93 46 50.68 119 11.33 1234 8.00 46 52.10 11S 5.63 1346 36.50 46 50.33 119 22.80 2.72 1.51 3.00 1.03 3.00 2.47 2.53
.75 1.42
.32 1.84 3.00 1.92 1.35 1.45 1.48
.45 1.50
.14
.20
.15 1.54 3.S4 4.45 1.35 17.85 3.00 19.16 1.62
.89
.38 1,26
.38 1.59
.07 2.39 3.00 1.50
.22 11.92 2.50 5.28 3.00 3.00 2.33
.1.22 1.23 2 +43 1.89 1.50 1.90
.25 17.56
.19
.41 3.00
.22 1.08 14 106 5.8 1.22 15 86 5.6 1.08 13 88 5.3
.72 10 183 4.4 1.44 20 93 11.2
.75 11 187 4.5
.67 10 180 3.9
.43 10 137 6.0
.65 11 136 3.3
.89 13 161 5.6 2.58 26 71 5.9 1.29 14 150 3.1 1.37 23 75 4.1
.96 15 "110 5.6
.88 14 96 3.0
.36 12 116 2.3
.85 19 83 3.1 1.16 16 84 9.1
.94 15 85 3.7 1.03 14 177 5.6
.69 13 176 5.8 1.84 22 95 11.4 1.57 14 110 4.3 1.07 14 101 10.2
.81 15 98 1.5 1.23 21 193 1.3
.Sl 12 185 5.4
.59 12 126 14,2 1.43 15 69 2
2 1.53 15 109 5.5 2.14 15 251 6.0 1.11 15 124 2.5 2.15 20 219 3.8
.93 11 141 4.7 2.14 22 257 22.7
.41 S 126
.9
.89 12 182 5.5 1.21 12 96 21.5 1.17 17 93 1.2 1.30 10 138 11,7 1.48 18 142 14.9 1.03 12 118 11.7 1.11 8 117 11.8 1.11 17 107 7.7 2'5 14 66 10.8
.94 15 119 12.5
.91 13 122 12 4 1.19 13 100 11.8
~ 78 10 111 9,0 1.23 13 111 8.7
~ so lo 7e s.2
.67 11 94 1.3
.82 10 76 6.6 1.1S 9 126
.2 1.21 20 122 11.9 1.13 12 122 11.9 1.40 15 124 1.6
,12
.11
.14
.10
.26
.23
.07
.16
.13
.21
.21
.46
.21
.16
~ 11
.05
.15
.32
.24
.13
.12
.15
.27
.25
.27
~ 23
.15
.19
.20
.15
.34
.14
.43
.14
.34
.06
.16
.15
.18
.09 F 15
~ 13
.09
.26
.10
.24
.31
.09
.12
.20
.06
.19
.50
.14
.22
.23
.22
.5
~ 4.5.5
~ 7 1.2
.4
~ 4
.8
.8.5 2.1
.5
.5
.3
~ 2
~ 9.5
.4
.4 1.0
.7.6 1.1
.6 1.0
.6
,5 1.5
~ 4 2 '.5 1.6
.2.6
.4.5
.8.5.5
.5
.6
.4
.6
.8
~ 4
.3.9
.2
.6 3.3.7.5.9.7
.9 B 1.0 B
1.0 B 2.0 C
.9 C 3.2 C
.9 C
.8 C 7.7 C 1.7 C
.7 B 2.2 C
1.0 B
1.0 B
1.1 B
.9 B
.5 B 4.3 C
.6 B
.5 B
.6 B.
.6 C 1.5' 1.3 C 3.7 B
.9 C 1.6 C 1.5 B 1.3 B 1.8 B
1.4 D
1.6 B 2.1 D
7.8 C 1.8PD
,5 B 1.4 C
.9 C
.6 B 1.3 B
.7 C
.7 B 3.3 C 1.2 B
.8 B 2,4 C
4.3 C
.9 B 5.5 C 24.0 C 2.0 B
.7 B 5.1 C-
.5 B 1.0 C 1.8 C 1.3 B
APPENDIX B Continued DATE ORIGIN LAT N LONG W DEPTH MAG NO GAP DM RMS ERH ERZ Ql 74123 74127 74129 74130 74135 74136 741 36 74136 74139 74142 74143 74144 74152 74160 74163 74165 74167 74172 74189 74191 74198 74203 74209
'74219
'423D 74234 74235 74237 74237 74238 74246 74247 74251 74252 74257 74260 74264 74264 74274 74277 74288 742S4 74298 74301 74301 74303 74305 74306 74312 74319 74319 74323 74324 74324 74328 74329 74329 138 59.56 46 36.91 119 7.18 2313 30.87 46 9.78 119 4.63 242 37.81 46 4S.56 11S 11.22 147 43.80 46 14.92 1 19 42.40 645 34.39 47 10.11 11S 3S.64 3 2 46.8S 46 50.96 11S 11 '6 315 39.55 46 50.17 119 12.17 2312 55.04 46 56.98 119 27.66 630 12.25 46 36.81 11S 6.61 041 10.22 46 49.79 11S 25.20 1516 31.55 46 49.79 11S 2S.DO 1730 20.S4 46 49;44 119 40.30 1838 50.01 46 4S.61 119 24.17 2213 50.50 46 15.77 119 33.94 816 12.15 46 49.61 119 23.60 1252 44.77 46 49'.48 11S 24.58 1447 17.88 46 50.S6 119 22.98 1326 53. 15 46 38.71 119 37.2S 012 53.87 46 50.47 119 41.18 045 58.61 46 35.S4 119 41.52 1833 45.70 46 24.56 119 21.48 051 20.64 46 38.22 119 29.57 7 6 45.00 46 49.66 119 39.79 052 13'6 46 50.45 119 24.10 1757 33.91 46 49.97 119 41 '8 733 26.S7 46 3.95 11S 36.22 2254
.70 46 51.59 119 1S.66 17 4 32.66 46 14.42 119 28.59 17 8 25.34 46 4.67 11S 36.19 043 35.97 46 3.53 11S 36.17 1
3 11.16 46 51.03 11S 23.17 1
4 28.42 46 52.70 119 21.40 2253 26.74 46 44.37 119 2D.93 043 25.91 46 44.32 119 20.06 2156 19.63 46 52'8 11S 22e38 1719 2.11 46 B.BD 119 8.68 112S
'13.45 46 52.25 119 21.64 1855 57'0 46 49'4 11S 41 '5 1927 54.88 46 52,49 11S 22.03 737 34.83 46 43.43 11S 21.S3 447 15.35 46 19.73 119 19.02 025 29.80 46 50.23-119 31 '7 1755 1.49 46 42.51 119 23.23 518
.83 46 46.58 119 2D.OO 610 6.93 46 46.38 11S 2D.1S 2338 33.S9 46 49.78 119 30.S4 947 48.95 46 42.34 11S 15.52 2128 13.59 46 57.80 119 41.35 937 47.70 47 13.35 119 55.65 758 55.91 46 44.95 119 22.40 920 27.92 46 44.78 119 22.36 2031 45.28 46 44.SS 119 21.53 3 0 43.42 46 44.9S 119 21.98 315 16.54 46 4'l 119 21 LSD 20 3 43.15 46 42.81 119 22.59 039 18'9 46 42.84 119 22,60 531 44'9 46 42.61 119 22.77
.16 3.00 3.00
.76 3.00 1.09 1.35
.30
.10
.07
.71
.85 3.00 10.89 3.00
.09
.11 1.98
.53 14.1D 17.53 3.00
.86
.38 1.06 6.S4 1.50 6.33 11.37 6.75
.08
.50
.41 1.02 1.34 14.13
.75
.69
.90 6.12 7.93
.73 1.6S 3.00 3.00 1.97 1.24
.06 3.00 2.15
.65 1.06 3.00 1.50
.84
.23 1.48 1.22 18 90 16.1 1.11 11 137 17.3 1.16 10 135 15.1 1.67 11 196 4.3 2.06 13 147 21.0 1.12 16 122 12.5
.70 6 169 10.9 1.98 21 76 15.0
.84 "11 104 1.2
.72 8 226 2.7
.92 8 179 2.5 1.61 24 '4 6.0
.85 S 127 1.4
.81 10 140 10.8
.82 11 127
.7
.84 9 127 1.9 1.25 10 139 2.7
.78 7 139
.7 1.08 12 115 12.9
.85 8 126 5.5 1.1S 18 96 5.9
.68 12 113 5.0 1.15 14 101 5.2
.99 12 135 2.2 1.80 21 113 6.2 1.31 7 289 17.5
.80 7 169 5 8 1.16 7 166 12.3 1.29 11 285 16.3 1.42 15 291 18.3
.80 10 140 2.8 2.79 22 69 6.3
.Sl 10 69 1.S 1.07 13 64 2.1
.90 9 188 5.2 1.19 8 155 16.5 1.58 21 122 5.4 2'5 21 109 6.6
.82 10 189 5.7
.66 8 110 1.4
.73 7 108 10.5 1.75 20 87 5.2 1.01 14 63 3 4
.64 12 79 6.1
.91 12 79 5 7 1.37 ll 83 4.2
.77 14 62 4.S 1.82 16 101 12.4 1.76 20 231 28.9 1.58 19 58 3.6 1.37 15 100 3.3 1.38 16 109 3.1 1.61 20 106 3.4
.98 6 109 3.1 1.49 19 70 2.4
.99 10 71 2.4 1.05 8 104 2.8
.16
.37
.13
.22
.20
.32
.05
.13
.19
.07
.05
.18
.17
.DS
.'21
.13
.05
.14
.12
.07
.15
.14
~ 27
.11
.20
.07
.26
~ 19
.16
.22
.08
.19
.09
.07
.05
.15
.16
.12
.11
.41
.17
.19
.15
.25
.15
.12
.10
.19
.21
.11
.16
.11
.17
.11
.11
.12
~ll
~ 3 1.9
~ 5 1.7 1.4.9.5 9
~ 4
.5 1.1
~ 3.5 1.0
~ 3 1.0.5
.2
.9
.4
,8
.5.5.9
~ 3
.7 1.1 2.6 3
2 ~ 2 2.1 1.7.3.5
.3
.2
.3 1.7
~ 5
'.3
.6 2.4 1.6.5.4
.9
.6.5
.3.5 1
~ 4.3.5
~ 3.5
.7 4 3.5.7
.6 C 2,5 C 1.4 B
2.4PC 1.7 C
3.4 C
0.0 C
3.3 C
.6 B
.9 C
.9 B
1.5 B
.9 B
.7 B
1.2 B
.8 B
.4 B
1.1 B
1.0 B
.9 B
.6 B 2.5 B 5.3 C
.5 B 1.9 B
.9 C 3.3 C 2.0 C
1.4 C 1.4 C
.5 B 3.3 B
.5 A
.6 A 8.0 D
1.7 C 1.1 B
1.7 B 1.5 C 4.6 C
5.1 C
1.1 B
3.9 B
4.5 B 1.6 B
.1.5 A
14.8 B 2.0 C
2.6 C
.5 A 2.4 B 1.2 B
.7 B 5.9 C
.9 Pl
.6 A 4.6 B
APPENDIX B-Continued DATE ORIGIN LAT N LONG N 74331 118 32.16 46 13.S4 119 7.69 74332 358 7.61 46 44.68 119 21.58 74332 2145 53.65 46 44.78 119 24.41 74334 033 23.52 46 42.85 119 23.02 74334 237 50.62 46 43.01 119 22.17 74334 24D 10.62 46 42.82 119 22.32 74335 023 18.41 46 42.62 119 22.66 74335 6 5 21 '4 46 42 '1 119 23'0 74336 742 15.22 46 36.35 119 43.56 74336 1837 37.04 46 42.87 119 21.72 74337 1557 57.58 46 44.66 119 21.60 74339 1554 23.63 46 44.84 119 21.06 74342 512 14.83 46 42.75 119 21.80 74344 159 2.32 46 57.24 119 39.38 74348 1
9 35.62 46 45.44 119 23.37 74348 1743 9.66 46 49.83 119 30.90 74348 2045 37.1S 46 49.96 119 30.48 74349 D33 33.73 46 44.78 119 21.32 74349 1446 48.58 46 50.17 119 30.82 74349 1527 46.40 46 44.71 1'lS 20.80 74349 1534 20.27 46 14.18 11S 7.05 74349 1843 7.01 46 50'5
'119 30'0 74350 17 9 56.SS 46 43.79 119 21.96 74351 2225 3.63 46 44.72 11S 21.45 74355 445 12.SS 46 23.86 119
.51 74355 10 2 35.94 46 49.76 119 30.38 74356 2143 11.72 46 42.63 1 19 23.92 74358 1431 43.32 46 50. 14 119 30. 19 74362 648 29'7 46 50'3 119 30'7 74363 1930 51.67 46 23.66 119 9.63 74365 426 14.17 46 44.66 119 21.35 75 1
348 21.55 46 49.64 119 30.12 75 1
18 3 5.18 46 23.78 119 10.38 75 2
7 0 19.18 46 24.80 119 1.93 75 2 12 1
10.31 46 49'2 119 29.58 75 2 1839 21.65 46 44.46 119 20.63 75 12 034 44'2 46 24+61 119 1+46 75 14 21 4 53 '0 46 47.83 119 28.87 75 22 4 4 3.09 46 24.58 118 59.66 75 22 439 21.52 46 24.36 119
.65 75 31 1126 9.09 46 26.03 119 15.76 75 33 559 30'3 46 38 'D 119 6'7 75 34 1432 10.73 46 36.54 119 35.64 75 36 1010 40.36 46 14.73 119 29.28 75 36 2259 10.00 46 9.89 118 38.37 75 41 033 7.61 46 51.78 11S 22.12 75 41 1810 54.98 46 14.80 11S 2S.7S 75 42 2052 17.77 46 14.6D 119 2S.68 75 48 1220 40'9 46 36'8 119 45+12 75 56 142 39.51 46 51.98 119 10.20 75 56 720 6.60 46 24.04 118 59,74 75 S5 741 4.76 47 6.84 11S 44.53 75 99 1253 15.88 47 6.S6 119 22.98 75 99 2026 55.61 47 4.43 118 2.45 75100 2129 34.50 46 25.42 119 15.86 75101 1624 58.90 46 42.88 118 20 F 1 2 75103 6 0 2S
~ 95 46 25.73 11S 15.24 DEPTH 2.70 1.57
.66 1.02 1.11
.87 1.31
.29 14.55 1.43 1.21 1.80
.76 2.00
.25 2.13 3.87
.62 1
~ 13 1.22 2.70
.49 3.00 1.03 1.97 3.27 1.78 1.42 3.00
.31 1.77 3.00
.94 1.76 3.88 1.48
.70 1.88
.06
.75
.91 1.84 15.32 1.50 3.00 1.96 3.00
.06 7.41 2.21
.17 12.43 1.50 2.70 1.40 3.00
.75 MAG NO GAP DM 1.22 7 127 14.6 1.DS 9 105 2.7 1
~ 06 9 116 5.3 1.55 20 73 2.9 1.40 17 77 1.8
.S6 10 78 2.1 1.77 19 63 2.7
.92 9 116 3 3
.45 10 147 8.9 1.03 10 65 1.4
.87 7 105 2.7 1.53 14 112 2.8 1.15 15 57 1.6 1.54 8 119 10.5 1.27 12 96 5
1 1.97 13 SS 4.3 1.57 'll 163 4.3 1.30 10 109 2.8
).84 17 103 4.8 1.02 11 112 2.6 1.49 8 136 15.4 1.66 18 103 4.7 1.26 10 93 1.7 1.20 9 107 2.7 1.31 10 158 8.4 2.D2 16 100 3.9
.91 1D 82 4 2 1.82 16 104 4.6 1.21 12 167 5.0 1.57 12 111 10.7 1.32 10 107 2.6 1.50 11 157 3.6
.79 8 106 9.7
.73 10 186 6.1
.86 13 165 4.1
.34 7 'l10 2.1 1.14 9 188 6.6
.80 9 122
.8
.8S S 198 7.9
.89 10 195 7.5
.45 8 117 2.0
.40 11 203 13.3
.71 11 93 3.9
.36 6 161 13.2 1.23 13 183 26.3
.48 7 230 4.4
.92 S 160 13.9
.87 10 163 13.7
.47 9 159
-.9
.80 11 260 14,6
.44 7 207 8.6 1.93 9 328 29.5 1.23 6 322 32.3 2.45 6 3271D3.1
'.87 6 117 2.1 2.23 7 315 62.0 1.27 6 118 2.7
.25
.09
.06
.10
.17
.15
.11
.09
.13
.09 F 06
.07
.08 F 08
.15
.08
.16
.07
.12
.09
.32
.08
.27
.06
.10
.14
.15
.18
.11
.1D
.09
.17
.20
.14
.26
.09
.12
.23
.24
.19
.21
.18
.08
,19
.11
.'7
.19
.10
.04
.12
.09
.14
.22
.09
.06
.21
.06 1.6 2
.4 2
.3
~ 2.5.6
~ 3
.4
~ 7,
~ 4
.3 9
.3
~ 3.9
.6
.4
'.8
~ 3
.4.3 3
1.2
.2 1.0
~ 3.5.5
.4
~ 7.5
~ 4.4.9.9.7 1.2
.6.9 1.2 1.0 1.2 1.2 1.4.5 1.6 1.3.9 1.2
~ 4
~ 3 1.9
.9 15.6 3.4 40.8.5 26.9
.4
.8 C
.3 B
.9 B
.7 A 1.0 B
1.7 B
.9 A
.5 B 1.9 B 1.1 A
6.1 C
.8 B
.3 A 2.5 C 2.5 B
.8 B 1.1 C
.9 B 1.7 B
4.7 C 2.6 C
.7 B 2.1 B
.8 B 2.7 C
.6,.B 4.4'B 1.4 B 1.5 B 9.5 C 1.9 B
1.2 C
5,8,C 9.6 D
1.6 C 3.1' 1.9 C
1.9 B
8.8 D
2.5 C 2.2 B
1.8 C 1.1 B
5.5 C 2.3 C 1.3 C 1.9 C 5.7 C
.1 B
1.1 C
43.2 D
3.2 D
4.8 D
51.0 D
1.1 B
24.2 D
4.7 B RMS ERH ERZ Ql
I I
APPENDIX B-DATE ORIGIN LAT N LONG W
Continued DEPTH MAG NO GAP DM RMS ERZ Q1 751 03 751 03 751 03 75103 75l03 75103 75103 75103 75l03 75104 75'I 04 751 04 75'l 05 751 06 751 07 751 07 751 07 75110 75112 75112 75113 75116 75117 75119 75119 75122 75125 751 26 75126 751 29 751 29 751 31 75131 75131 75132 75132 75132 75132 751 32 751 32 75134 75135 75135 75135 75136 75136 75136 751 37 751 37 75138 75138 75138 75139 751 41 751 41 751 41 75141 625 32 '1 46 25.64 119 15.17 633 22.20 46 25.73 119 15.63 654 20 ~ 54 46 25.35 'll9 15o35 71 1 31.55 46 26.64 119 15.58 1619 18.43 46 25.70 11S 15,36 1626 38.66 46 25.19 119 15.30 1639 25.45 46 25.56 119 15.32 1742 67.92 46 25.78 119 15,16 2358 5.21 '6 25.87 119 15.78 1
5 64.11 46 26.18 119 15.22 1238 11.88 46 25.74 119 15.54 1435 54.73 46 26.25 119 15.68 3
1 15.18 46 25.86 119 15.66 029 50.55 46 36.50 118 69.31 315 4S.63 46 25.66 119 15.33 18 0 10.58 46 36.20 119 1.54 1912 30.54 46 25.20 11S 14.S1 1748 10.91 46 26.35 119 15.2S 1216 30.89 46 26.30 11S 14.95 1355 40.D5 46 25.73 119 15.42 2221 3.12 46 26.48 119 15.44 532 44.80 46 35.63 119 56'2 829 1.63 46 26.32 119 15.21 3 0 66.15 46 26.33 119 15.96 2146 29.04 45 49,24 119 3.66 240 38.80 46 26.08 119 15'5 2013 21. 19 46 26.13 119 15.31 7
1 35.2D 46 26.06 119 15.26 7 7 40.78 46 26.62 119 16.10 934 25.25 46 26.01 119 15.83 2052 16.81 45 45.53 118 33.15 242 21.32 46 25.98 11S 15.66 354 20.35.46 26.37 119 15.80 1010
.39 46 25.90 119 15.76 921 55.94 46 25.99 119 15.80 S52 41.92 46 25.57 11S 15.74 10 9 19.38 46 26.11 119 15.67 10 9 46.56 46 26.07 119 15.83 1029 23.34 46 26.43 119 15.87 1236 30.59 46 25.66 11S 16.56 530 20.63 46 26.3S ltS 15.42 920 22.02 46 25.8S 11S '15.80 936 52.88 46 25.91 119 16.19 939 33.36 46 25.83 119 16.02 246 30.88 46 26.00 119 15.9D 420.'18.07 46 27.13 llS 16.57 2139 38.SO 46 25.44 11S 15'0 916 41.14 46 26'4 119 16.21 1S42 17.77 46 26.84 119 15.57 228 31.03 46 54.S1 'llS 35.78 1635 3.32 46 26.34 'l19 15.99 192S 58.67 46 25.78 llS 15.73 2311 58.85 46 25.74 11S 15.28 231 57.99 46 SD.BO 119 1D.57 826 58.81 46 26.00 11S 16.52 1545 8.69 46 25.84 119 15.42 1640 27.48 46 26.12 119 15.54
.17 1.35 1.20
.30 1.00
.61
.22 1.5D 1.80 2.08 1.14 1.20
.46 1.51
.40
.80
.75 1.11 1.10 3.50 2.68 5.30
.29 2.60 3,00 2.67
.17
.08
.73 1.30 3.00
.30
.42
.44
.64
.70
.04 1.20
.90
.75
~ 32 1.D5 3.00
.55
.72 1.70
.18 2.33
.40
.76
.10
.60
.30 1'. 50
.76
.60 1.8D 1 o43
.79 1.16 1.35 1.57
.98 1.SS 1.08 1.73 1.84 1.17 1.77 1.20 1.01 1.32
.SB
.97 1.78 2.00 1.94 1.45 1.43 1.D1 1,65 2.23 1.40 1.99 1.84 1.14 2.83 2.74 2.28 1.07 1.58 1.66 1.45 1.08 1.34 1.27 1.18 2.06 1
~ 51 1.25 1.80 1.23 1.67 1.84 1.61 1.39
.79 1.23 2.07 1.24 1.27 1.30 1.28 2.19 6 119 5 156 6 120 7 123 7 117 6 122 7 188 5 118 9 1'l4 S 114 6 116 8 112 5 163 7 249 7 118 7 234 5 192 9 113 8 114 6 117 5 122 7 269 4 181 6 120 7 305 5 118 7 205 7 115 5 185 10 185 5 287 8 114 7 120 6 116 8 113 6 117 7 113 7 113 6
121 7 117 ll 112 6 114 4 132 9 114 5 117 5 102 14 119 6 119 6 187 5 286 5 166 8 184 6 117 10 277 5 'l16 6 116 10 113 2.8 2 '2.7 2.6 2.5 2.9 21.8 2.7 2 '2.7 2:3 2.2 2.1 16.8 2.6 15.6 3.3 2.7 3.1 2.4 2.6 13.7 2,8 1.9 26.8 2.2 2.6 2.6 2.0 1.9 19.7 2.1 2.1 2.0 1.9 F 1 2.1 1.9 2.0 2.3 2.5 1.9 16.6 1.6 1.8 2.4 2.5 1.5 2.8 6.0 1.8 2.0 2.6 12.4 1.0 2.4 2 '
.01
.10
.10
.10
.04
.03
.08
.10
.07
.18
.D2
.05
.02
.04
.05
.03
.09
.02
.05
.D7
.02
.07
.01
.03
.10
.Dl
.04
.03
.04
.04
.25
.11
.05
.05
.04
~ 03
.05
.07
.06
.09
.D7
.04
.06
.10
.11
.20
.27
.04
.04
.08
.03
.13
.02
.'l l
.04
.DS
.03
~ 1 1.5
.7.5
~ 3
~ 3
~ 4.5
.4
'1.0
.1
.3
.4
~ 4.5 1.8
.1
.3
.6
~ 2 2 '.0.3 1
~ 7
.1
.4
.1
.8
~ 3 27.0.7
.2
.4
.2
~ 3
.4.5.6
.6
~ 3
~ 3
.0.5 1.3 2.7
~ 7
~ 3.4 1.0
~ 2 t!1.2
'l.2
.5
~ 4
.2
.1 B
4.8 C
73.4 C
.5 B
.5 B
.8 B 2.9 C 2.3 C
.8 B 1.5 B
.3 B 64.6 C
.3 C
.6 C
.4 B
1.0 C 2.8 C
.2 B 67.4 C 1.0 B
.5 C
.8 C
.0 C
.3 B
.9 C
.4 C
.2 B
.8 C
.8 C 17.6 D
.8 B
.2 B
.4 B
.2 B 1.0 B
.5 B 4.9. C 1.1 B
1.3 B
.4 B
.6 B
.0 C
~ 5 B 1.1 C
6.8 D
1.0 B
.5 B
.3 C
.8 C
.2 C
.7 C
.3 B 1
~ 2 C
.4 C
.4 B
.3 B
I l
I I
APPENDIX B DATE ORIGIN LAT N LONG W Cont:inued DEPTH NAG NO GAP DH ERZ Ql 75141 75142 75142 75142 75142 75143 75144 75144 75145 75148 75148
~ 751 49 75150 75150 75152 75154 75155 75156 75158 75158 751 58 751 58 751 58 751 58 751 59 75160 75164 751 65 751 65 75166 75166 75166 75167
,75168 75168 75169 75176 75176 75179 75179 75179 751 79 751 79 75179 75179 75179 751 79 75179 75180 75180 75182 75182 75188 75198 75198 75198 75200 1936 422 1331 2018 2022 016 026 2027 226 2257 2258 1951 652 1241 23 4 1248 1 250 055 424 646 654 928 11 3
1451 1450 1026 1047 1040 1518 1427 1751 2159 1959 216 le 1
054 416 2216 721 1619 1633 1 651 1 654 2217 2217 2224 2227 2358 124 1042 446 528 2041 756 1 320 1833 1 721 1.24 46 26.19 1 1S 15.51 54.4e 46 25.67 119 15.64 33.35 46 23.71 119 10.24 56.93 45 42.68 118 33.66 48.32 46 23.23 11S 9.80 2.59 46 50.54 11S 15.50 58.43 46 26.36 119 16.23 59.85 46 25.75 119 16.05 18.47 46 5.35 119 37.42 26.90 47 23.50 119 19.95 20.74 46 16.11 118 10 '6 26.46 46 25.83 119 15.99 6'6 46 25.1S 119 16.97 27.76 46 26.33 119 16.44 59.83 45 59.13 118 22.30 21.95 46 26.23 119 16.09 13.69 46 26.26 119 16.48 25.67 46 51.55 119.10.13 57.93 46 46.89 119 50.31 59.69 46 25.93 119 15.81 34.60 46 25.93 119 16.49 49.42 46 26.41 119 16.63 8.57 46 26.64 11S 'l6.35 21.80 46 26.87 119 15.62 14.61 46 26.14 119 18.85 4.47 46 25'7 119 16.65 34.74 46 25.00 11S 16.83 23.60 46 26.62 119 16.47 36.09 46 36,81 1 19 47.42 40.80 46 26.60 1 19 16.6S 31.49 46 14.25 119 6.23 35.45 46 26.39 119 16.82 48.13 46 36.83 119 32.79 41 '0 46 14.57 11S 6.S3 9.71 46 14 34 11S 5.75 33.14 46 36.54 11S 47.46
~ 15 46 26.41 119 16.32 9.77 46 25.87 11S 16,84 45.80 46 26.43 11S 16.49 51.19 46 7.61 119 41.06 43.66 46 7.77 119 42.13 48.49 46 7.23 119 41.65 19.19 46 6.95 119 41.81 1.92 46 8.13 119 40.90 52.65 46 7.09 119 41.83 38.80 46 7.29 119 41.72 46.81 46 7.63 119 41.95 4S.41 46 7.41 119 42.85 13.71 46 6.05 119 43.02 45.86 46 5.13 119 44.57 19.59 46 48.73 119 23.15 2.24 45 37.68 120
.11 17,79 46 4.45 118 26.98 45.63 45 56.39 118 7.94 53.44 46 26.00 119 17.12 59.55 47 24.08 120 8.61 40.22 46 31.19 119 2.67 1.10
.50
.29 3.00
.45 17.69
.60 3,00 12.00 3.00 2.00 1.20
.07
.60 3.00 1.30 1.44 1.55 1.46 1.50 1.70 F 80
.06 1.50
.Oe
.60
.73
.14 10.10
.90
.07 1.28 3.90
.09
.46 9.80
~ 17
.90
.36 F 80 10.67 7.90 10.40 8.90 10.35 8.10 8.20 9.67 10.92 10.30 1.20 1.50 2.50 7.20 1.77 4.27 15.74 2.02 10 113 2.3 1.18 6 116 2.2 2.83 11 164 9.9 2.83 7 284 24.5 1.88 5 172 10.8 2.36 10 261 9.8 1.58 8 120 1,6 1.55 5 114 16.5 2.23 6 285 14.5 1.48 7 328 62.6 2.15 6 275 44.2 1.25 5 115 1.7 1.32 6 196 1.4 1.56 8 108 1.3 2.20 10 236 9.5 2.15 7 110 1.6 1.48 8 109 1.2 1.38 7 285 13.9 1.84 6 259 19.1 2.33 7 114 1.9 1.43 5 111 1.0 1.13 6
111 1.2 1.46 6 111 1.8 1.53 6 185 2.8 1.22 9
80 2.0 1,66 9 'l14 1.3 1.11 6 191 1.8 1.54 11 106 1.6 1.20 8 238 2.3 4.28 6 112 1.5 3.12 10 141 16.5 2.01 9 106 1.0 2.51 11 79 6.9 1.86 5 257 15.6 2.06 10 143 17.1 1.12 7 238 2.4 1.13 6 110 1.5 1.85 9 110
.6
.55 7 120 1.4 1.95 7 292 9.5 3.30 10 260 9.3 2.36 10 251 10.3 1.55 5 299 10.8 1.96 9 285 8.6 3.81 12 251 10.5 1.26 6 297 10.2 4.35 10 251 9.6 1.46 7 288 10.1 2.20 10 292 12.7 2.20 9 295 14.8 1.58 6 11S 1.4 3.59 11 27S 69.5 3.18 10 294 36.8
'1.62 5 267 21.6 2'3 6 160
.2 2.65 10 17S 14.8
'\\.75 1 1 139 6.2
.04
.03
.06
.10
.14
.04
.10
.05
.20
.09
.08
.03
.03
.06
.26
.08
.02
.10
.18
.10
.01
.07
.04
.15
.30
.10
.06
.11
.10
.09
.16
.07
.04
.07
.16
.06
.02
~ 14
.07 F 15
.12
.15
.12
.10
.14
.07
~ 12
.05
.04
.05
~ 26
~ 21
.20
~ 14
.04
.10
~ 12
~ 2
.2
~ 2 5.3 1.8
.6
.6.8 6.4 66.4 3.2.5
~ 2
~ 3 3 '.5
.1 1.7 4.3.7
.6.3 1.1
.9
~ 4
.9
~ 4 1.0
.8
.8
.3
.2 2.1
.9.9
~ 2.7 4
11.8 2.0 2.7 a.a 1.3 2.1 2.0 2.2 1.4 1.4 1.8 1.2 7.3 8.5 9.3.5.7.8
.4 B
.2 B 2.0 C
2.7 D
4.4 C
.2 C
.5 B 14.2 D
6.3 D
69.8 D
4.2 D
74.8 D
.2 C
..3 B
3.0PD 1.9 B
.3 B 26.0 D
3.8 D
1.9 B
.2 C 1.7 B
.4 B 5.2 D
1.1 B
,3 B
.5 C
.4 B 1.0 C
1.3 B 4.9Fc
.7 B
.3 B 10.1 D
2.8 C
.7 C
.2 B
.7 B
.4 B 7.1 D
".9 C 2.4 D
3.6 D
1.5 C
. SFC 2.2 C 1.6 C 1.2 C
.4 C
.6 C 82.5 C 7.9 D
3,4 D
12.3 D
.4 B 1.6 B
.6 B
I
APPENDIX B Continued LONG W DATE ORIGIN LAT N 75203 1845 52.S7 46 26,51 11S 17.06 75204 1323 46.00 46 26.32 119 15.18 75204 1937 16.12 46 15.90 119 23.77 75209 '18 52.91 46 26.18 119 15.95 75212 1917 15.19 46 26.21 119 16.02 75224 1831 48.30 46 36.80 119 32.94 75226 628 35.44 46 25.65 119 16,44 75232 2230 22.10 47 14.61 119 59.39 75234 1915 28.43 45 54.18 119 10.88 75237 2D11 F 88 46 18.62 117 59.27 75242 3 5 4.04 46 36.96 119 45.45 75242 3 9 6.92 46 36.86 119 46.46 75242 344 24.S7 46 36.65 119 46.74 75242 349 22.50 46 37.62 119 47.93 75242 1537 19.29 46 37.23 119 44.21 75242 1743'.30 46 36.38 11S 45.24 75243 3 9 7.24 46 38.84 'llS 42.9S 75248 9
1 46'1 46 15'5 11S 28'6 75251 449 11.69 46 7.57 11S 41.92 75251 1044 44.65 46 7.88 11S 41.24 75260 2 2 44.05 46 41.42 118 S2.86 75269 3 0 43.S9 46 43.29 118 56
~ 19 75275 021 22 '0 45 39.28 1'lB 34.16 75284 656 11.18 46 41 '4 1 18 55.20 75284 1315 56.39 46 41.22 118 55.44 75287 1
3 44.89 46 25,24 119 15.74 75288 "546 6.73 46 41.04 118 54.78 75288 550 21.31 46 41.79 118 54 '2 7529S 1844 31.7S 46 40.50 118 54.S6 75301 2012 4.56 46 34*80 119 32.83 75305 1830 7.48 46 34.11 11S 47.S1 75308 1259 33.90 46 25.78 119 15.90 75308 1415 17.89 46 25.36 1'l9 16.12 75308 1946 45.00 46 3.80 119 35.79 75309 13'l5 55.18 46 25.28 11S 'l5.18 75311 449 28.44 46 52.72 11S 21.89 7532D 2'l4 31r67 46 25'0 119 15r91 7532D 4 6 31.63 46 25.53 119 15.79 75330 'l846 52.81 46 54.64 119 55.58 75333 547 59. 14 46 25.52 11S 15.86 75333 1 151 29 ISO 46 25'0 119 16r28 75342 2011 33.03 46 54.72 119 57.84 75346 1033 2.00 47
- 7. 19 119 36.94 75353 23 3,54.73 46 41.89 119 13.63 75354 715 34.94 46 40.5S 119 13.49 75354 750 26.84 46 40.8'l 1 19 13.63 75356 2355 32.34 45 38,57 118 57.18 75362 710 51.14 46 41.18 119 12.93 75363 1427 46.11 46 41.38 118 53.67 75365 323 26.11 46 41.18 11S 13.10 76 1
549 4,81 46 41.23 11S 13.10 76 3 1348 57.9S 46 42.12 119 14.00 76 3 1646 59'1 46 41 '7 119 13.Sl 76 5 2350 1.85 46 40.76 119 13'8 76 11 1213 52.11 46 43.37 118 57.82 76 14 027 23 F 68 45 39'0 118 5'8 76 15 1837 19.78 46 40.59 119 13.77 DEPTH
.94
~ 25
~ 36 1.40 1
~ 90
.13 1.10 11.88
.68 1.30 9.07 8.86 9.33 9.62 9.65 9.07 7.05
~ 37 12.63 13.76 4.1S 6.39 2.39 10.20 7.24
.63
- 5. 90 7.4S 6.28 18 '1 19.30 1.45 1.20 14.62 1.50 2.05
.40
.50
.75 1.17
.86 3.0D 12.17 19.35
.36 12.10
'.13
.Sl
- 5. 49 1.02 1.40 2.90 2.60 2.50 3.60
.50 3.20 HAG NO GAP DM 1.13 8 105 1.1
.96 9 113 2.8 2.21 ll 135 6.9 1.37 9 1'l 1 1.8 1.32 9 111 1.7 2.73 11 83 7.1 1.10 9 113 1
~ 2 1.78 8 154 31.7 2.10 11 10S 17 '
1
~ 82 8 279 55.6 2.31 18 114
.4 1.46 8 233 1.0 1.49 8.23S 1.4 F 06 6 270 3.3 2.06 14 9'l 2.0 1.33 8 174
.9 1.67 10 278 40.3 2.00 10 232 12.9 1.62 12 212 30.6 1.95 15 210 29.9 1.S4 9 212 26 '
1.91 14 129 21.5 2.4D 7 228 15.8 2.21 12 192 23.3 2.29 14 192 23.1 1.75 5 190 2 4 2.21 14 129 24,0 2.41 16 132 24.6 1.84 9 195 24.1 1.01 6
94 7.0 1.61 9 242 5.8 1.20 9 114 1.8 1.43 7 116 1.8 1.55 7 231 28.8 1.91 8 121 3.0 2.87 18 72 6.1 1.82 9 118 2.1
.74 7 187 F 1 1.85 10 159 7.D 1.93 9 116 2.0 1.04 7 182 1
~ 3 1.88 16 186 5.4 1.72 8 123 25.9 1.48 8 194 18.6
.86 7 188 2D.O 1.00 9 188 20.0 2.08 9 200 15.2 1.56 9 194 20. 1
- 2. 11 13 133 28.0 2.70 20 87 20.0 2.34 'l4 126 19.S 1.33 6 193 17.9 2.01 8 189 19.2 2.55 12 125 20.5 2.06 7 274 30.7 1.89. 11 192 15.6 1.38 9 123 19.7
.09
.12
.16
~ 15
.04
.D5
.18
~ 21
.17
.20
.18
.07
.03
.Da
.22
.09
.36
.14
,16
.13
.23
.14
.12
.32
.3D
.06
.25
.30
~ 15
.01
.07
.10
.08
.06
.25
.20
.10
.05
~ 28
.12
.06
.33
.12
.21
.10
.14
.19
.2S
.21
~ 27
.13
.21
.16
.13
.25
.29
.13
.4
.5
~ 7.5
~ 2
~ 2
~ 7 1.3.5 2.8.9
'l.1
.4 1.0 1.3
~ 7 6.4
.9
.9
.7 1.3.5 4.2
'l.8 1.6 1.0.9 1.1 1.3
~ 2
~ 7
~ 4 4
1.1.8.7
.4.3 1.8
.6.5 1.5.7 1.2
.6
.8 2.9 1.6.8.9.5 2.3 1.3.6 3.5 1.7
.6
.7 B
.5 B 2.0 B
3.2 B
,.SB
.BPB 1.0 B 1.8 C
- 3. 6PC 3.1 D
.7 B
.9 C
.4 C
.9 C 1.1 B
1.1 B
4.2 D
.8 C
.6 C
.5 C 1.5 C
.9 B 2.2PD 1.9 D
3.5 C
.7 C 1.9 C
2.9 C
3.1 C
.1 B
.9 C 1.8 B
28.7 C
.9 C 1.8 B
1.0 B
.4 B
.2 C 5.9 C
.8 B
.6 C 1.1 D
.9 B 3.6 C 1.3 C
2.9 C 5.0XD 5.3 D 1.5 C 2.2 C 1.0 B 3.6 C 1.4 C
.9 B 2.0 D
1.8XC 1.2 B
ERH ERZ Ql
APPENDIX B DATE ORIGIN LAT N LONG W Continued DEPTH MAG NO GAP DM ERH ERZ 01 76 17 76 }7 76 'l7 76 21 76 22 76 23 76 29 76 36 76 37 76 43 76 45 76 48 76 54 76 59 76 61 76 67 76 69 76 75 76 75 76 76 76 76 76 77 76 77 76 79 76 82 76,83 76 90 7611 1
76111 76112 76112 76128 76134 76134 761 34 76141 76146 76155 76159 76162 76168 76184 76184 76185 76185 76188 76190 76192 76192 76193 76195 76195 76196 76197 76199 76205 76206 2 7 47.34 46 25.90 119 15'9 240 2.23 46 25.76 119 15.17 2358 4S.17 46 40.67 119 13.74 2059 55.14 45 55.75 119 21.D1 2346 39.24 45 39.90 118 56.85 2219 1.16 46 2S.'13 119 3.78 829 18.28 46 25.78 119 14.80 040 53.42 45 55.30 119 17.86 011 47.91 45 41.12 118 54.60 2147 6.42 46 7.63 119 28.42 124 59.14 45 55.50 119 19.17 1954 36.97 46 SD.DS 11S 50.SB 2120 10.92 46 7.94
'}19 28.14 1729 20.53 46 54.64 11S 55.85 2310 43.93 46'.39 118 38.89 1459 59.73 46 52.84 119 34.76 753 51.47 46 3.88 118 55.86 8 36.96 46 26.23 119 15.24 1224 10.20 46 3S.S7 119 37.94 3 8 47.35 46 38.99 119 37.S5 63'l 9.77 46 39.Dl 119 38.24 3 3 36.48 46 26.06 119 15.0D 836 36.13 46 38.84 11S 37;84 1122 15.91 46 38.79 119 37.84 1223 20.77 46 26.18 119 14 ~ 95 445 22.28 46 38.81 119 37.75 845 16.71 46 39.11 1 19 38.12 754 38.23 46 39.23 1'lS 37.75 755 8.17 46 38.87 1 19 37.80 410 56.59 46 38.75 1 18 55.95 1029 17.SB 45 50.36 119 20.44 1718 40.80 47 13.95 120
.02 849 5S.43 47 7.00 119 38.03 1034 27.72 47 8.23 119 38.04 1041 32.46 47 7.34 119 38.64 034 2S.60 47 5.22 118 9.26 2017 35.04 46 16.17 120 20'0 2252 12.38 46 17.78 119 22.03 2231 35.67 46 18.24 119 21.72 2020 13. 15 47 1.17 118 45.85 033 38.11 46 15.48 120 19.66 135 54.27 46 59.14 1 18 32.36 20 1 23.59 46 36.95 11S 32.S4 1531 44.37 46 40.07 118 45.57 1718 15.49 46 38.55 118 47.68 11 7 11.11 47 3.S1 11S 55.31 2114 38.42 45 54.S6 119 41 '5 1040 35.26 46 50.24 1'}S 41 'S 1754 40.D9 46 59.42 118 32+50 545 6.34 46 10.32 1}9 3.65 1729 52.21 46 9,71'119 32.09 2227 34.40 45 48.66 119 51.62 1940 45.36 46 10.20 11S 31.94 2313 13'9 46 59'4 118 32'1 23 2 10.74 46 4.69 118 45.04 1759 36.78 46 4.79 118 44.71 442 40.07 46 15.02 119 27.47 2.87 2.60 5.53
~ 50
.50 3.63 1.10 1.50 2.78 1.12
.45 3.20 2.27 3.DO 3.17 16.69 12.48
.60
- 3. 50
.33 5.13
.89
- 6. 17 1.15
, 1.08
.64 1.39 3.00
".95
- 5. 80 4.27 12.45 11.10 15.65 1.80 5.80
.75
.11
.38 4.07
.19
- 3. 00
.23 5.39 3.00 11.43
.50 2.63
.02 5.10 7.43
~ 13 6.20 6'0 2.80 2.70 10.60
.86 8 117 2.6 1.21 8 118 2.7 1.19 7 187 19.8 1.15 6 128 10.7 1.99 7 187 15.6 1.27 5 21D
.5 2.DB 14 100 3.2 1.21 7 103 11.5 1.74 8 169 14 F 1 F 00 16 133 17 '
1.55 7 113 11.0
'}.58 10 158 17.3 1.95 13 130 16.3 1.97 14 162 6.8 2.08 22 132 25.3 1.74 10 132 3.5 1.34 7 146 2.2 1.06 8 180 2.7 1.55 10 189 23.9 1.55 15 74 1D.6 1.22 10 117 10.3 1.55 8 119 3.0
.68 7 113 10.7 1.38 10 113 10.6 1.80 13 98 3.0 1.77 11 76 10.8 1.55 13 76 10.5 1.27 8 134 11.1 1.84 11 75 10.7 1.57 7 194 22.3 1.S2 11 143 3.2 1.86 10 1SS 30.5 1.56 6 204 26.3 1.S2 7 199 24.1 1.78 11 128 25.8 2.10 13 207 51.0 2.34 11 256 SD.5 1.41 6 151 7.S 1
~ 25 6 143 8.4 1.94 7 229 29.4 1.67 7 276 49.8 2.69 13 163 3S.O F 98 11 82 7.0 1.76 9 152 33.8 1.77 10 194 28.3
.97 8 136 12.9
'}.7D 5 245 25.2
.81 8 110 6.6 2.86 17 163 45.8 1.DO 12 144 17.3
.43 8 134 13.0 1.89 7 165 24.5
.30 6 225 12.8 1.38 9 164 3S.l 2.38 'l3 115 14.6 3.05 12 153 15.D 1.18 10 84 11.0
.11
.09
.09
.13
~ 12
.01
.17
.41
.32
.14
.25
.24
.39
.38
.25
.30
.09
.08
.14
.12
.19
.09
.07
~ 13
.15
.08
.11
.09
.15
.22
.14
.14
.09
.25
~ 15
.27
.19
.08
.11
.10
.09
.27 F 09
.12
.29
.23
.12
.06
.21
.14
.04
.26
.09
.31
~ 17
.26
.22
.5
.6
.5 1.0 1.1.4
~ 7 2.6 3.4
.6
.7 1.1 1.9 1.9
.6 1.7 1.0
~ 3
..7
'.3 1.1
.4.5
.5
'.5
.3
~ 4
.6 2.1 1.2.6 1.6 2.7.7 1.8 2.2.5.7 1.3 3.0 1.5
.2
~ 7 1.5 1.6
.3
.2.7.8
~ 4 1.8 2.3 2 ~ 3.8 1.6 1.1 1.4 B
.9 B 3.3 C 2.1XC 2.0XC
.2 C 2.4 B
- 5. 9PC 7.5XC 1.3 B 1.0XC 1.7 C 3.2 C
1.9 C
.9 C 1.6 B
.8 B
.4 B 2.0 C
.7 B 1.4 C 1.1 B
.5 B 2.0 C
1.1 B
.6 B
.8 B 3.'5 C 1.5 C 2.0 C
1.0PC 1.6 B
3.6 C 2.1 D
21.5 C
1.8 C 7.2PD
.9 B 1.1 B
1.6 C 10.9PD 4.1 C
.6XB 1.7 B 2.1 C
2.8 C,
. 3XC
.4 B 2.2 C
1.2 B
.5 B
- 3. 7XC
.9 C 6.7 C 1.0 C 2.3 C 3.5 B
I I
I I
I I
I I
APPENDIX B-Continued DATE ORIGIN LAT N LONG W DEPTH 1&G NO GAP DM ERH ERZ Ql 76207 513 42.88 47 76208 721 7..84 45 76210 1855 3.75 47 76212 153 15.37 46 76218 138 16.25 46 76218 21 8
6.49 46 76220 2031 37.07 46 76221 734 23.74 46 76230 2144 51.01 45 76239 153 37.47 46 76239 153 40.98 46 76247 2321 46.73 46 76261 1727 52.92 45 76265 1718 11.40 46 76267 255 43.28 45 76284 241 13,19 46 762S8 350 38.54 46 76301 1210 21.10 45 76301 2246 25.99 46 76315 2042 24.0S 46 76327 2156 56'9 46 76328 2325 50.19 46 76349 1854 42.30 46 76352 1928 11.22 46 76357 1
2 24.96 46 77 10 1055 14.34 46 77 11 1812 4.01 47 77 11 2214 20.91 46 77 12 722 1.56 46 77 13 2224 42.21 46 77 22 0 8 56.76 46 77 22 2215 48.36 46 77 23 2011 20.17 46 77 27 747 29.20 46 77 56 012 20.35 46 77 57 421 14.68 46 77 61 344 22.91 45 77 70 22SO 11.41 45 77 73 1434 56.41 46 77 74 2239 33.96 47 77 76 2122.29.6S 46 77 82 042 51.55 46 77 82 2058 8.14 46 77 88 23 3 42.77 46 77 SO 222S 3.S3 45 77 94 2327 12.36 46 77 98 1533 21.28 46 77100 2313 44.36 46 77116 0 2 23.75 46 77118 2033 58.3S 46 77119 1623 30.84 47 77130 2213 4.43 46 77132 2326 17.7S 46 77133 2228 36.56 46 77136 13 5 5.14 46 77137 414 37.22 46 77137 10 3 48.46 46 11.01 119 37.36 39.94 119 55.99 11.33 119 54.88 57.02 119 33.52 27.79 118 2.32 25.41 119 1S.64 52.42 117 40.65 55.16 119 34.27 54.27 119 1S.52 58.18 118 32.81 49.75 118 48.87 9.68 119 11.01 48.14 120
.07 8.77 119 11.00 48.19 118 36.75 8.86 1 19 11 '5 23.67 119 10.78 48.77 118 48.65 45.97 118 22.04 45.90 118 19.11 5.74 119 2S.42 45.41 118 24.36 26.03 1'19 16.48 52.71 119 35.29 25.82 119 16.51 56.03 119 34.74 10.34 119 38.04 51.29 119 35.64 55.42 11S 17.86 48.29 119 25.26 31.21 'lie 37.37 9.99 119 21.88 42.09 119 30.37 56.34 119 35.57 39.72 119 38.09 39.63 119 37.48 42.49 118
.52 53.71 119 40.50 14.13 119 30.32 7.69 119 39.12 12.92
'119 15.99 10.65 llS 48.15 14.56 119 22.38 25.32 118 36.52 54.15 11S 3S.SS 10.52 119 17.74 50.7S 120 26.13 42.72 119 32.67 16*63 119 25.48 16.21 118 14.95 18.77 'l20 5.16 16.59 119 2S.42 16.44 119 25.62 50.97 120 28.03 48.49 119 21.88 53.66 119 34.12 55.81 120 26'6
.75
.78 1.50 1.55
~ 35 1.80
.63 4.85
.30 3.70 3.00 2.80 3.00
.24 14.39
.12
.06 1.60 3.00 3.00 1.47
~ 77 2.56
.35 1.49 1.80 4.34
.93 3.00 2.79 3.00 5.94 1.50 1.40 2.00 6.90 5.84
.08 2.85
'l3.94
.17
.47 3.00 5.30
.12
.50 2.99 2.50
.50
.59 2'3
.18
.72
.97 1.50 6.38 6.58 1.36 8 105 18.9 2.91 13 273 46.9 2'7 6 139 26.3 2.68 14 67 10.7 2.83 10 266 40.9 1.38 7 118 2.3 2.13 8 258 86.1 1.04 10 129 7.2 2.45 14 112 8.8 1.38 5 252 40.4 1.55 4 291 32.3 1.65 6 184 13.2 2.40 7 284 48.4 1.75 9 105 14.3 1.83 7 154 19.5 2.01 10 104 13.9
.90 5"121 9.3 1.19 8 146 22.6 1.55 10 225 43.8 1.62 9 233 45.1 1.53 7 177 19.9 1.98 6 290 59.6
.51 5 181 1.1 1.18 11 65 2.8
.65 7 183 1.0 1.76 15 74 8.4 1.23 7 109 20.2 1.07 8 133 2.0
.88 9
97 12.8
" 2.15 11 66 13.3 2.01 7 223 14.6 1.33 6 246 8.4
.99 12 143 7.9 3'8 15 74 8.7 1.52 9 123 10.9 1.07 7 118 10.8 2.43 5 28S 37.7 3.12 12 108 35.3 1.8S 6 169 14.2
- 2. 39 7 203 25. 3 1.43 7 273 4.5 1.27 5 309 9.8 1.10 6 161 4.4 2.21 12 182 4.6 2.91 14 136 23.0
.65 5 277 6.8 1.66 8 187 36.3
.17 7 177 F 1
- 2. 15 13 131 9.5 2.1'l 14 263 27.9 1.67 10 172 25.4 2.14 6 131 9.4 1.79 10 134 9.5 2.04 12 166 38.5
.36 5 237 2,4
.77 4 252 5
1
.95 9 173 34.3
.19
.21
.14
.24
.23
.14
.14
.18
.15
.09
.09
.10
.29
.15
.12
.OS
.13
~ 36
.34
.2S
.08
.09
.02
.22
.07
.36
.27
.04
.23
.22
.14
.07
.13
.20
.15
.07
.14
.35
.08
.25
.16
~ 12
.09
.19
.35
.15
.50
.17
~ 22
.30
.26
.15
~ 13
.40
.21
.10
.22 1.0 6 3.0.9.9 5.9
.9 1.9.8
.6 3.1 2
.0 1.1 6.0 1
.6.9
~ 4 1.6 1
2.6 2.9 3.6
.6 3.5 17 ~ 1
.8
~ 4 1o2 2.1
~ 2 1.0
.9 1.9 1.3,5
~7.6.5 S.4 1.0.8 4.0 1.3 4.6 1.0 1.8.7 4.7 5.8 1.1.8 3.2 1.4.6.5 3.1 3.1.0 2.5 2.1 C
2.0 D
4.8 C 1.4 C
3.1 D
2.7 B 2.1 C
.9 B 1.2XB 9.3 D
.0 C 1.9 C
- 1. 2PD 1.5 B 1.2 B 1.5 B 5.2 D
3.2 C
3.9PD 5.6PD
.7 B 1.8PD
.1 D
.8 B
.7 C 2.6 C
4.8 C
.4 B 1.9 C
1.1 C
1.6 C
.5 C 1.0 B 1.5 B 10.4 C
.5 B 12.7 D
1.4 C
1.0 B 3.5 D
1.3 C 5.3 D
1.5 C
- 1. 5PC 1.1 C
- 3. 6XD 6.4 D 6.3 C 1.4XB 2.6PD 25.2 C
S. SXC 1.1 B
3.1 C
9'9 D
.0 C 3.0 C
I I
I I
I I
DATE ORIGIN APPENDIX B LAT N LONG W Contin DEPTH ued MAG NO GAP DM RMS ERH ERZ Ql 77137 2258 12+78 46 10'6 119 13 'D 77138 20 6 47.71 46 30.19 117 37.60 7714S 1232 27.06 46 41 '0 118 33'7 77149 1232 27.0S 46 38.53 1 18 38.12 77153 2327 19.99 46 S.6S 11S 15.61 77154 627 9.20 46 41 '1 118 36.82 77163 20 4 47.99 46 50.70 119 38.86 77169 1744 15.30 47 17.96'19 51.21 77177 010 20 '9 46 40.45 119 28.87 77184 ll 4 51.72 46 42.71 11S 31.53 77186 1128 48.99 46 48.21 119 32.27 77186 14 7 35.20 46 48.87 119 33.27 771S6 IS 6 15.48 46 48.59 11S 32.56 77187 2137 46.05 46 12.28 119 16.5D 77188 1432 21.33 46 27.43 119 33.67 77194 1429 22 F 08 46 2S.75 120 2.81 77195 516 56.68 46 42.46 119 31.09 77196 1554 '.19 46 53.88 119 38.62 77198 2356 6.3D 46 7.80 119 27.65 77200 2110 40.86 46 43.93 119 15.36 77201 165'I 59.31 46 8.06 11S 27.81 77201 2113 59.55 46 38.98 119 37'4 77202 1518 23.30 46 7.63 119 27.49 77202 1929 52.92 46 4.98 119 26.59 77210 18 5 59.89 46 52.94 119 22.'10 77215 1437 9.45 47 11.89 119 52.30 77215 1716 7.07 45 44.29 118 5.70 77218 2018 6.51 46 50.9S 119 23.48 77219 857 42.86 46 42.64 119 31.41 77224 1816'4.64 46 50.8S 11S 10.68 77228 1652 38.70 46 22.44 11S 33.36 77230 443 52.24 46 39.06 119 37.6D 77231 2017 31.94 46 42.41 119 30.8S 77235 133 25.46 46 42.33 11S 31.5D 77235 2347 55.14 45 54. 11 119 19.15 77236 1220 38.53 46 42.18 119 31.28 77237 1740 43.14 46 50.98 119 10.58 77244 2
1 3.01 47 17. 12 119 50.59 77245 425 20.66 46 38.31 llS 21.28 77252 1440 15.37 46 42.15 119 32.27 77254 413 15.86 46 38.48 119 37.73 77257 1345 9.54 46 49.04 11S 32.SD 77257 14 5 56.93 46 51'.61 llS 33.64 77257 1925 52.45 46 49.09 119 33.10 77259 019 31.74 46 42.54 1'IS 31.82 77270 2043 3.97 45 53.2D 118 18.64 77273 2052 49.43 45 43.53 11S S.SD 77279,2327 19.55 45 40.11 118 52.81 77282 2320 8.65 45 43.05 118 20.17 77293 175S 54.12 46 14.51 118 53.S1 77293 2234
.93 45 38.83 118 57.95 77296 15'is 53.48 47 6.08 120 30.00 77310 1720 1
~ 82 46 27'2 119 40'l 77312 2223 32.06 45 51.65 119 43.25 77314 16 7 40.35 46 4.66 118 48.25 7731S 2D 4 52.50 46 22.41 11S 27.08 77322 9 8 37.81 46 22.59 llS 5.57 1.09 3.00 2.10
.87
.50
.75 1.50
.06 17.20
.DS 3.00 1.50 4.53 1.50 18.38 14.20 7.13 7.60 1.50
.63
.32 7.90
.75 3.45
.75 3.00 5.46 1.35 3.95 3.52 18.71
.75 3.00 4.82
.30
.16
- 3. 00 9.10 16.60 3.00 1.50 3.98 1D ~ 16 3.00 6.86
.99 3.00 3.00 1.69 4.00 1.80 1.85 20.95
.75 1.98 6.70 3.83 1.45 7 188 9 ~ 6 2.28 9 297 72.9 2.12 14 159 32.3 2.11 10 244 28.0 1.87 9 163 9.3 1.54 9 178 33.1
.42 5 256 3.0 2.33 16 120 20.3
.86 10 102 8.7
.71 7 118 6.0 1.56 S 137 6.5 1
~ 18 11 142 7.2
.42 6 225 7.0 1.38 7 313 4.7
.39 5 122 7.6
~ 58 6 311 25.5
.28 6 122 6.7 1.73 17 89 17.0 2.'I6 10 129 16.1
.85 11 77 3
1 1.86 10 160 15.9 1.04 7 131 10.9 2.20 8 196 16.2 1.61 7 278 19.4
.54 7 276 6.5 1,05 5 130 27.0 2.14 7 298 30.3
.48 4 26D 2.8
.41 6 11S 6 '
1.31 11 157 12.5
.58 7 232 3.1 1.17 11 74 11.1
.94 7 124 7.0
.22 7 11S 6.6 1.94 11 124 8.8 1.04 8 121 7.0 1.SD 12 161 12.7 1.28 11 247 20.1
.36 8
89 9.2
.00 5 112 6.3 2.70 15 69 10.6
.65 7 132 7.3
.51 8 192 4 4
.86 9 132 7.1
.31 7 116 6.0 2.44 7 271 7.6 1.67 5 224 33.8 1.86 5 201 11.1 1.98 6 265 21.3
.99 6 131 22.1 1.71 6 240 16.3 2.23 'I3 214 42.1 1.45 12 195 9.6 2.14 8 248 26.6 1.98 8
94 10.6 2.00 8 209 10.7
.58 S 147 10.2
.11
.16
.46
.49
.11
.3S
.09
.15
~ 23
.09
.14
.21
.04
.16
.17
.05
.11
~ 33
.17
.22
.15
.23
.12
.29
~ 23
.16
.13
.16
.04
.15
.21
.29
'06
.05
.18
.12
.1,9
~ 13
.10
.40
.07
.17
.19
.13
.16
.35
.23
.06
.17
.19
.20
.17
.19
.1S
.20
.05
. 6XC
.3PD
- 8 C
.1 D
. OXB
.5 C
.5 C
.8 C
.7 B
.6 B
.8 C
.7 C
.7 C
. 1PC
.1 D
1
~ 8 C
.8 B 2.6 C
.9PC 1.3 B 1.1PB 7.3 C 3.6PC 2.8PD 5.1 D
8.7 D
4.3PC
.0 C
.8 B
.SPB 1.2 C 2.0 C 2.6 B
.7 B 1.0 B
.7 'B 1.4PC
.7 C 1.3 A'.3D 2.0 C
1.7 B
1.7 C 2.8 B
.7 B 2.8PD 3.3PD
.3PC
.7 D 2.8 C
12.0 D
2.9PC 1.3 C 2.6 D 1.8PC 1.2 C
.4 B 1.4 3
S.6 3
2.0 44 4.0 5
.7 1
2.8 6
.8 3
.5 1
1.1 2
~ 3 1.1 1
1.0 2
1.0 1.0 2.7 2
.8
.8 1.2
.6.6.5 1.5.7 4.0 7.0 1.6 4 2.5
.0
.2.7 2.0 1.0.3
.2.5.3 1.1
.8
.7.9 1.0.5 1.7.7.7 4.0 10.7 1
~ 2 2.8 1.3 8.7 1.6 1.3 3.2
'I.1 1.7.3
APPENDIX 8 DATE ORIGIN LAT N LONG W Continued DEPTH MAG NO GAP DN RMS ERZ Q1 77323 77325 77330 77332 77339 77343 77346'7355 77358 77362 78 5
78 7
78 10 78 11 78 12 78 13 78 13 78 14 78 14 78 2l 78 22 78 24 78 26 78 28 78 31 78 32 78 37 78 37 78 37 78 40 78 40 78 41 78 41 78 48 78 50 78 51 78 51 78 51 78 53 78 54 78 54 78 54 78 60 78 63 78 63 78 64 78 65 78 69 78 '71 78 71 78 74 78 77 78 80 78 82 78 84 78 87 78 87 056 23.48 45 41.22 118 53.75 1952 55.34'46 28.43 118 10.72 320 36.89 46 13.90 119 29.63 23 5 38.46 46 13.09 118 35.94 041 S3.11 46 37.03 118 53.61 1627 17.27 46 37.14 118 54.79 S32 14.20 46 58.22 119 35.79 218 19.12 46 23.94 119 26.08 2 3 18.75 46 43.23 119 19.92 1340 50.14 47 6.18 120 26.47 458 36.59 46 20.7S llS 28.28 1656 4.76 46 23.61 119 57.10 711 45.80 46 49.71 119 20.72 2046 17.54 46 43.01 119 29.86 1428 5.16 46 42.43 119 2S.82 224 34.74 46 42.52 119 29.76 337 15.10 46 42.08 119 29.82 035 1.43 46 42.23 119 29.78 2254 37.73 46 42.40 'l19 29.90 1322 55.58 46 50.09 119 17'5 052 18.60 46 33.64 118 59.10 2358 35.SS 46 33.49 118 58.50 1812 53.59 46 47.58 119 22.05 016 36.33 46 35.97 118 56.83 2329 15.74 46 16.52 119 34.46 124 21.40 46 35.8S 118 54.91 049 46'7 46 15.97 119 17.64 058 56.04 46 16.11 119 17.94 1
2 27.63 46 16.06 118 18.00 1439 42.78 45 4'l.76 120 12.50 1958 2.81 46 56.76 119 53.52 0 8 22.78 46 40.12 118 56.03 1754 43.06 46 20.94 119 28.35 314 5'9 46 5D.41 11,9 26.31 2048 52.07 46 38.58 119 37.99 173S 27.33 46 23.41
'119 25.48 2123 16. 11 45 53.83 119 40.28 2227 45.9S 46 25.5S 119 2.30 1059 7.08 46 23.36 119 25.64 037 39.87 46 12.74 119 SD.22 048 59.62 46 1.28 118 25.18 655 36.22 46 38.82 119 38.44 20 1 54.58 46 39.12 11S 37.96 512 25.22 46 49.78 119 1$.35 1947 5.66 46 5.38 118 50 'S 1151 48.63 46 48.73 119 21.77 010 20 F 00 46 49'4 11S 21.61 614 26.21 46 3.78 118 49.85 0 5 3.22 45 53.35 119 18.74 2250 8.53 46 50.34 1'lg 21.19 2 5 33.65 46 28.54 119 38.13 BSD 34.69 46 25.38 119 23.38 6 5 21.DB 46 38.SB 119 37.89 547 42.15 46 50.11 11S 22'4 1517 25.37 45 53.49 119 20.27 6 2 17.46 46 48.27 11S 22.68 1516 16.24 46 48.44 118 22.15 3.00 4,80 1.79 1.70 3.40
.93 3.00 1.50 5.10 3.00 1.60 17.25 1.50 7.08 4.00 5.10 5.40 3.80 l.50 1.92 2.39
.45 5.03 2.67 3.89
.50 2.59 2.30 1.90 13.52
.50
.45 3.90 6.23 4.60
.90
.25 3.26 5.30
~ 25
,3.00 5.40 5.50 3.00 7.17
.06 1.20 3'DO
.90 1.20 8.07 16.20 1.00 1
~ 30 1
~ 54
.18
.55
.96 5 210 15.0 1".84 10 149 19.9
.SD 8 192 21.2 1.33 6 190 20.5 1.99 17 80 12.0 2.29 11 88 11.9
.30 7 227 12.3 2.08 12 20S 38.1
.93 8
92 10.3
.93 8 256 27.9 1.25 8 215 3.0
.83 6 135 7.3
.87 7 117 8.0 1.77 7
86 7.9
.73 6 134 8.4 1,00 6 119 8 2 1.21 8
133 7.9 1.05 10'33 12.3 2.16 13 107 12.1 1.28 10 203 12.2 1.23 8 185 13.0 2.12 14 116 17.3
.97 6 128 11.1 1.81 12 186 18.5
~ 79 7 206 3.9
.51 7 198 4.0
.93 7 197 3.9 2.10 10 227 7.5 2.04 9 116 7.4 2.03 10 266 23.'0 1.42 7
91 10 1
1.00 5 192 4.4
.88 7 111 10.3 2
OS 9
81 11.5 3.18 13 108 31.9
.68 8 190 4.S 2.01 6
88 11.7 1.75 7 278 11.7 2.39 S 190 13.2
~ 43 7 116 9.9
.41 7 132 10.7 1.18 8 120 6.1 2.80 19 89 8.7 1.16 S 176 2.2
.99l 6 207 1.S 1.57 6 176 8.1 1.90 7 195 34. 1 1.26 7 219 2.9
.72 6 169 10.1
.61
'8 95 7.9
.53 8 132 10.7 2'8 12 82 1
~ 3 1.90 6 198 35.7 1
~ 3'l 9
76 2.4 1
~ 14 7 154 2.3
.15
.23
.20
.12
'.25
.18
.15
.21
.10
.08
.28
.10
.12
.10
.18
.16
.19
.19
.17
.21
.25
.18
~ 23
.14
.05
.10
.03
.22
.12
.17
.'02
.'1 2
.1D
.12
.40
.05
.11
.14
.40
.15
.17
.20
.35
~ 12
.07
.25
.24
.08
.11
.09
.13
.13
.22
.12
.16 Zo29 7 18S 13.3
.49 1
1.94 6 298 30.7
.06 1,6 4.1
.7 1.5 1.2 1
~ 2.9
~ 3 1.1 1.9.5 1.1 2.5
~ 9
.7
.7 1.2 1.4
~ 7 1.1
.7 1.4 2.2
.8 l.2
.9.5
.9
.3 3.2
.7 1.9
~ l 3.6.6
.6.8
.6
.9 3.6 4.2.8
.8
.9 1.0
.8 1.0 2.1
~ 3 1.0 1.D
.6.4
~ 5 4.3.3 1.0 19.6PD 1.5 D 13.5 D
- 2. 2PC 1.9 C
4.2 C
1.4 C
.6 C 2.2 C
29.9 D
14.0 C
.6 C 3.0 D
.8 8 1.4 8 1.1 8
4.4 8 7.3 C 20.4 C
1.2 C
1.0XC 1.6XC 2.3 C
- 1. OXC 7.6 C 1.5XC 1.3 C 3.1 C
1.3 C
1.2 D
- 5. 2PC
- 2. OXC
.3 8 2.8 D
2.6 C 3.2 C
1.2XC
.7 C 3.4 C
- 4. 2XD 3.S D
2.4 8 3.1 8 2.5 8 1.3 C
.7 8 17.2 D
2.0 C
. 4PC 15.3 D
4.0 C 1.4 8 1.8 8
.8 A 5.0PD
.3 A 1.0 C
l I
I I
I I
I
(
, I r
i
DATE APPENDIX B ORIGIN LAT N LONG W
- Continued DEPTH MAG NO GAP DM RMS ERH ERZ Ql 78 89 78 91 78 94 78 97 78 97 78 97 78 98 78 99 78 99 78102 78106 781 08 78110 78121 78122 78122 78122 78122 78122 78122 78122 781 24 78124 78129 78131 781 32 78132 78132 78133 78135 78141 78144 78144 78148 78148 78148 78148 78148 781 48 78148 781 49 78'l 4S
,,78149 78149 78150 78150 78150 781 50 781 50 78150 78150 781 52 78155 781 58 78158 78158 78158 1545
.28 46 49.37 119 22.07 1145 46.76 46 48.95 llS 23.49 1118 20'9 46 32 '6 119 41.65 1214 14.53 46 48'6 11S 23.33 21 6
1.46 46 56.34 119 53.80 2114 7'1 45 53.80 119 18.76 1830 49.21 46 49.64 119.21.59 1843 42.34 46 49.31 119 20.87 1S45 58.56 46 49.02 119 2'1.26 1946 46.85 47 9.12 119 26.17 1040 83.58 46 50.36 119 21.00 439 34.20 46 80.64 119 20.27 1241 8.64 47 20.29 119 40.90 2258 56.07 46 38.71 118 51,22 556 13.24 46 48.97 119 32.88, 556 56.D7. 46 48.80 119 33.37 649
,3.D2 46 48.76 119 33.84 724 7.97 46 49 F 00 llS 33.54 730 58.33 46 48.86 119 33.31 1025 19.97 46 48.86 119 33.36 21 4
6.95 46 30.72 118 37.11 618 36.84 46 49.05 11S 33.14 712 21.05 46 4S.D6 119 32.92 2
3 20.11 45 47.95 118 22.98 1831 46.64 46 35.59 119 26.53 1550 46.92 46 48,85 119 33.67 2140 35.52 46 48.69 119 33.23 2352 15.24 46 48.58 119 33.88 1459 28.42 46 48.99 119 33.54 1210 21.12 46 32.13 119 24.37 1710 32.54 46 49.40 119 27.31 2224 22.91 46 49.15 119 23.24 2326 30.71 46 49.59 119 23.31 233 32,55 46 48.93 11S 33.72 357 51.92 46 48.92 119 33.66 546 20.51 46 48.89 119 33.38 758 38.49 46 49.72 119 21.18 1621 8.20 46 48.69 119 33.74 1711 33.34 46 4S.36 llS 27.26 1953 10.57 46 49.75 119 27.22 149 3.00 46 50.D6 119 26.73 2 6 15.46 46 50.17 119 27.32 10 2 13.49 46 49,84 119 27.28 1846 54.72 46 49.38 119 27.10 548 44'6 46 49.06 119 26.63 658 58.73 46 49.49 119 27.40 852 53.74 46 49.56 119 27.45 1434 4.58 46 49.68 119 26.81 20 0 S.14 46 49.2S 119 27.55
'2321 52.47 46 49.72 119 26.70 2354 22.18 46 49.42 119 26.61 1210 26.42 46 50.66 119 21.37 1744 26.30 46 24.65 119 11.27 024 54.89 46 48.97 119 26.S8 122 33.45 46 50.14 1 1S 27.49 123 47.03 46 49.63 11S 26.90 154 16.75 46 SD.05 11S 28.23 1.9D 1.50 20.00
.18 1.77
.25 2.07 1.40 1.30 10 ~ 10
.50
.13
- 12. 56
.25 1.88 1.00 1.60 2.44 1.40 1.16 3.00 1.70
- 5. 51 4.63 14.26 2.57 1.50 6.20 2.48
- 19. 31 3.00
.40
.6D 2.10 2.34 2.89
.45 2.00
.85 3.00 1.35
.38 1.61 1.5D 1.50 1.50 1.5D
.51 3.00 1.50
.38 1.26 3.70 1.55 1.26 1.67
.75
.SD
.93 1.55
.77 1.94 1.72
.53 1.27
.25 1.78
.66 1.15 1.02 1.99 1.55 1.53 1.49 1.20 1.37 1.00 3.08 1.28 1.13 2.23
.84
.92 1.22
.72
.38 1.52 1.50 1.01
.50 2.02
.%8
.98
.94 1.43 1.79 1.55 1.47 1.64 1.75 1.12 1.00 1.22 1.52 1.33 1.46 1.45 1.27
.54
- 85 1.27
'1.74 1.39 1.95 7 206 6
99 10 148 6 112 8 123 6 194 5 211 8 210 7 198 22 68 5 220 6 226 12 164 9 205 7
131 6 125 8 121 7 127 7 126 6 126 10 221 9 131 6 132 6 270
'12 91 7 123 6 124 6 117 6 137 9 113 8 158 6 118 6 197 10 107 7 140 9 104 4 213 8 109 7 157 7 168 7 179 5 179 7 171 6 158 6 149 7 161 6 162 6 167 7 155 7 169 6 160 6 222 6 207 12 147 11 178 12 165 13 173 1.3 1.1 9.4 2.5 F 2 33.7 1.9 2.8 2.5 25.3 3.1 4.2 6.7 25.5 7.4 7.0 6.8 6.8 7.1 7.1 13.6 7.1 7 '
36.2 20.5 6.9 6.9 5.8 6.6 14.6 5.4.7
~ 3 1.0 1.6 1.1 2.5 2 '5.3 5.3 4.7 5.5 5.4 5.1 4.6 5.5 5.5 4.7 5.7 4.6 4 '3.0 8.1 5.0 5.5 4.9 4*5
.15
.27
~ 23
.12
.11
.19
.02
.18
.16
.14
.08
.17
.13
.11
.12
.07
.17
.05
.06
.03
.'17
.11
.02
.08
.16
.07
.02
.13
.03
.08
.19.
.03
.08
.06
.02
.29
.06
.08
.13
.13
.21
.08
.13
.11
.06
.11
.15
.10
.19
.06
.11
.07
.20
.16
.D8
~ 17
.48 1.2 2.8 2.0
~ 3
.9 1.6
.3 2.0 2,0
.a
,1 1,9
.6
.8
~ 8
.6
.9.3
,4
.2 1.8.5
.2 2.0
.6
~ 4
.1.8
.2.6.8
.3.8
~ a
.1 1.1
.0.5
.7 1.4 1.5 1.0 1.2
.6.5.4 1.3.7 1.1.5
.9.9 2.4
.7.6.8 2.4 1.8 C
5.2 C
2.7 C
.4 B 1.3PB
- 7. SPD
.4 C 2.8 C 7.6 D
.6 B
C
.9 C
.7 B
- 3. 7XC.
2.0 B
3.1 B
2.4 B
.6 B
.9 B
.7 B 1.7PC 1.5 B
.6 B
- 2. 3PC 2.3 B 1.0 B
.3 B
.9 B 1.4 B 1.5 B 4.2 C
.3 B
.3 C
.4 B
.3 B 1.2 B
.0 C
.8 B 2.4 C 4.3 C'1.4C 1.7 C 2.2 C
11.7 C 7.8 C 8.4 C
17.3 C
1.3 B
5.9 C
1.0 'B
'.7 B
17.2 D
2.0 C
7.1 C
1.1 B
5.8 C 3.8 C
APPENDIX B DATE ORIGIN LAT N LONG W
Continued DEPTH MAG NO GAP DM RMS ERH ERZ {}1 78299 78300 78308 78308 78308 78309 78317 78318 78321 78325 78325 78325 78327 78338 78339 78342 78342 78343 78347 78347 78348 78348 78356 78358 78360 79 11 79 16 79 17 79 19 79 23 79 25 79 26 79 28 79 31 79 39 79 42 79 46 79 48 79 50 79 53 79 54 79 54 79 59 79 59 79 60 79 61 79 62 79 66 79 66 79 68 79 72 79 74 79 75 79 75 79 75 79 80 79 82 11 8 28.76 46 49.22 119 22.71 853 24.50 46 48.68 119 33.58 15 4 59.20 46 49.04 119 34.12 1530 40.13 46 48.67 11S 33.98 16 3 51.18 46 48.66 119 33.47 2 7 56.02 46 48.75 11S 33.48 2159 35.35 46 28.69 119
.85 22 5 5'4 46 28.77 119 1.00 649 57.25 46 48.32 119 24.79 1747 26.18 46 48.74 119 33.04 1751 47.67 46 48.81 119 33.43 18 9 47.32 46 48.S7 119 33.13 1631 14.67 46 48.95 11S 23.87 2 7 18.16 46 49.41 119 13.74 2110 35.29 46 28.73 118 59.94.
14 3 50.07 46 45.63 119 33.8S 2059 11.79 46 28.92 11S
.66 030 40.81 46 39.31 119 37.36 16 3 35.54 46 28.38 119
.37 2348 50.73 46 12.57 119 49.67 2148 13.33 46 28'4 119
.56 2350 38.74 46 12.68 119 49.62 17 6 10.53 45 53.15 119 20.44 1250 56.34 46 50.35 11S 38.88 1557 6.72 46 42.5D 118 37.06 20 1 25.22 45 53.79 119 19.52 2018 10.51 46 51.22 119 11.24 2312 23.49 46 51.25 119 11.13 1910 51.94 45 54.17 11S 18.83 711 23.79 46 24.41 11S 15.35 2328 40.17 46 13'.30 11S 48.66 23 9 11.66 46 12.28 119 50.08 18S8 28.69 46 2.15 118 16.64 525 54.48 46 39.43 119 38.38 2159
.89 46 28.1D 118 59.47 157 51.66 46 48.90 119 33.58 123 32.04 45 56.84 119 46.18 836 21.41 46 10.15 11S 56.11 116 4.42 46 50.15 119 38.20 124 42.20 45 40.03 118 55.08 017 2.71 46
$ 3.22 119 48.17 2250 4.63 46 51.52 119 '10.71 2314 38.98 47 19.54 11S
.92
'314 39.84 47 13,55 119 3.25 1929 15.51 46 3.28 118 53.SO 19 S 57.33 46 50.40 119 12.04 2326 45'2 46 49.63 119 20.69 0 7 56.44 46 14.0S 11S 46.54 2251 6.39 46 30.85 120 1;63 1642 58.74 46 32.74 119 57.69 23 0 22.34 47 10.90 118 59.64'157 31.80 46 32.53 119 57.59 1916 13.94 46 48.48 119 24.71 2140 12'0 46 48.33 119 25.25 2158 36'5 46 48.30 119 25.24 046 53.77 46 15.54 119 42.97 2149 23.43 46 31.93 119 59.43 1.04 1.36 3.83
.40 3.6D 2.10
.50
.50 2.19 2.90 3.54 3.54 1.40 1.02 1.34 21.39
.50
~ 23 1.23
.25
.5D
.23 1.62 2.90 1.80
.50 4.53
.50
.45 1.42
.50
.50 1.50 4.51 1.70
.77
.09 9.10 1.90 1.39 1.32
.50 3.00 3.00
.74 4.20 4.21
.25
.45
.25 3.00
.23 2.20
~ 23
.45
.40
.50 1.07 5 168 1.33 9
99 1.34 -6 123 1.36 9
S6 le24 7 122 1.36 10 106 1.26 7 201 1.70 7 271
.67 8 112 1.41 S 126
.80 7 124 1.00 9 129
.43 7 117 2.00 11 140 1.73 14 135
.76 7 118 1.48 7 134 1.24 12 115 1.21 6 286 1.45 5 278 1.36 6 202 1.59 7 277 2.55 5 200 1.64 S
98 2.09 11 178 1.98 7 139 1.60 8 156 1.56 7 278 2'7 7 135 1.75 12 127 1.92 7 269 1.SO 6 282 2.12 7 247 1.79 9 122 1.73 5 28S 1.31 10 106 2.12 7 253 3.59 18 163 1.42 10 96 1.71 5 181 1.82 6 277 1.82 8 257 2.73 10 98 1.89 8 314 2.69 11 129 1.55 7 169
.90 5 214 2.45 6 272 1.9S 7 279 2.24 1D 237 1.95 10 145 3.46 13 233
.71 7 116 1
~ 18 9 116 1.46 9 116 1.87 6 271 3.48 11 237
~ 7 6.1 6.3 6.1 6.1 6.2 3.8 3.6 3.1 6.3 6.3 6.7 1.4 9.4 4.9
.5 4 ~ 1 11.6 4.2 11.0 4.1 10.9
- 45. 1 3,5 35.0
'13.5 12.9 13.0
- 14. 5 3.8 9.7 11.5 45.6 10.5 5.2 6.5 22.1 36.4 3.3 13.6 25.2 13.6 20.6 51.2 2.9 11.3 3.1 22.6 23.2 17.1 23.4 17.2 2.8 3.5 3.5 17.7 19.8
.03
.12
.12
.13
.20
.10
.05
.26
~ 17
.08
.06
.04
.06
.18
.08
.12
.17
.16
.06
.06
.23
.08
.14
.13
.45
.11
.10
.16
.25
.13
.16
.12
.24
.12
.07
.08
.21
.25
.17
.22
.19
.24
.12
.17
.11
,17
.08
.D8
.20
.17
.08
.21
.DS
.07
.08
.10
.16
.6
.5 1.0
~ 4 1.4
~ 4.5 7.3.5
~ 4
.2.4
.8
~ 3 1.7 1,2
~ 3 1.2 1.5 2 '
1.4 2.5.6 2.8
.8
.8 4.4 1.1
.4 3.7 5.1 2.7
.7 2.1.3 4.0 1
~ 2.7 3.4 1.2 4.6.8 4.9
.5 1.2 2 '2.4 6.7 1.8
~7 1.4.9
~ 3
~ 4 3.3 2.1
.5 C 22.5 C 3.5 B 1.3 B 4.4 B
1.2 B
.8XC 8.2XD 1.9 B
.9 B 1.4 B
.8 B 1.3 B
3.0 C
.5XB 2.3 B
8.0XC
.6 C 1.1XC 2.6XC
- 14. 2XD 1.0XC 9.3PD
.8 B 5.0 C
5.7XC
. 8KB
- 8. 5XD
- 7. SXC 1.0 B
- 8. 1XD
- 6. 6XD 4.5 D
1.0 B
1.8PC
.7 B 2.7 D 1.4 C 3.8 B 4.8PD 1.SPC 4.4XD 13.8PC 6.1 D
2.2PB
'2.2 C 1.8 C 3.8XC 12.5XD 5.2XD 10.2PC 3.3XC 2.6 B
.3 B'8 B
- 7. 3XD S. 3XD
DATE 0 RIGIN APPENDIX B LAT N LONG W Cont,inued DEPTH
'MAG NO GAP DM RMS ERH ERZ Ql 45 32.94 118 45 37.28 118 46 28.46 119 46 57.38 120 46 57.03 120 45 59.71 118 46 56.40 120 46 55.48 119 46 39.40 119 46 6.76 117 46 52.46 119 46 52.43 119 46 52.52 119 46 49.08 119 46 53.45 119 46 48.74 119 46 48.92 119 46 49.13 119 46 48.79 119 46 49'6 119 46 49.06 119 46 31.27 119 46 28 '1 119 46 48.33 119 46 50.46 119 46 49.20 11S 47 15.96 119 46 29.41 119 46 43.75 119 46 49.12 119 46 42.78 119 46 49.13 119 46 49.'l2 119 46 29.33 119 46 55.39 119 47 6.70 118 46 29.45 11S 46 29.34 119 46 29.12 119 46 29.26 119 46 29.44 11S 46 29.46 11S 46 29.42 119 46 29,66 119 46 54.48 119 46 55'4 119 46 55.92 119 46 S4.86 119 79 86 22 D 51.02 7S 87 044 13 'lB 79 93 1919 58.58 79 97 347 23.62 79 97 741 55.40 79 98 729 37.81 79105 1947 41.49 79106 1325 20.15 79114 1361 51.58 79116 1766 43.44 79130 21 7 45.89 79131 1531 3.46 79140 1728 26.49 79}69 2027 26.05 7916}
9 6 37.76 79174 1649 45.28 79174 2027 36.24 79175 116 52.77 79177 21 1 24.42 79179 035 42.36 79181 6 6 16.75 79184 1949 40.72 79189 852 32.67 79194 939 6.80 79203 1525 55.87 79209 2043 36.65 79212 129 53.30 79214 740 34.96 79216 412 24.75 79227 1934
.81 79230 1217 27.06 79247 6 3 46.67 79247 810 27.62 79248 227 18.07 79248 1317 SD.SS 79248 21 3 34.47 79251 621 59.44 79251 643 1.75 79251 726 10.97 79251 845 33.68 79251 864 16.09 79251 865 25.86 79251 925 41.27 79252 15 1
8.92 7925S 22'lD 33.53 79266 1921 59.07 79266 1935 10.29 79271 622 17.72 51.42
- 59. 95
.88 24.70 23.83 26.83 26.23 33.00 38.62 55.39 24.65 24.64 25.20 33.70
- 24. 37,
- 34. 18 41
~ 74 32.62 34.01 33.72 33.25 57.64 39.22 24.27 24.76 34.04 19.16 37.83 57.56 32.SO 57.22 32.95 32.71 38.75 32.83 54.63 39.07 38.66 38.94 38.92 39.01 38.57 38'4 39.86 33.95 33.59 33.62 33.97
~ 50 3.00 F 56 9.83 12.12 4.70 8.6D 1.14
~
1.50 3.00 1.75 2.66 5.10 3.20 LSD 1.20 1.20 2.20 1.60 4.91 5.83 1.60 3.00 3.60
.SD 5.20 11.52 3.00 5.07
.75 5.05 2.07 2.42 2.60 4.40 1.50 2.86
- 4. 28 3.70 3.33 3.79 3.19 1.40 2.5D 1.5D 2.16 2.10 3.80 2.20 5 282
- 2. 12 6 239 1.67 8 200 2.99 17 133 2.44 13 214 4.15 13 174 1.70 14 218 1.19 7 274 1
~ 54 10 BD 1.9S 9 2S3 1.04 6 255 1.02 7 230
.89 6 229 1.16 9 127 1.08 6 268 1.95 12 84 1.17 6 216 1.14 7 136 1.67 11 97 1.06 6 127 1.12 7 130 1.96 5 272 1.72 9 146 1.20 6 156 2.89 14 72
.58 6 126 1.92 12 95 1.14 7 160 1.79 13 203
.74 5 134 1.45 8 213 2.16 8 134
.69, 5 135 1.48 6 142 1.25 6 273 2.06 8 148 2.44 10 143 1.24 6 169 1.36 6 173 1.76 9 143 1.60 8 143 1.30 6 167 1.44 8 141 2.09 12 148 1.73 5 265 2.03 13 80 1.24 6 282 1.27 7 271 10
~ 1 18.5 3.6 32.3 31.2 10.7 34.3 8.6 10.2 44.1 5.8 6 ~ 8 6.2 6.6 7.5 6,2 8.0 7,1 6.3 6.6 6.8 18.4 11.2 2.6 2.8 6.1 23.0 11.5 19.9 7.0
'}8.4 7.0 7.0 11.7 8.6 48.1 12.1 11.7 11.4 11.7 12.0 11.S 11.9 12.9 6.4 8.1 8.8 6.9
.11
.26
.04
.31,
.21
.10
.23
.08
.16
.36
.1 1
.15
.21
.08
.07
.08
.08
.08
.10
.05
.14
.05
~
.16
.07
.14
.07
.19
.10
.38
.06
.10
.07
.04
.11
.15
.24
.12
.03
.07
.04
.04
.02
.11
.12
.14
.18
.15
.11 3.3 5.6 1.6 1.5 1.2 1.6
~ 4
.6 1 1.7 2.7XD 7,4PD
.3 C 2.2 C
1.0 C
1.1 C
1.7 C
.9 C 1.9 C 8.8 D
8.3 D
5.0' 2.3 D
1.0 B
.9 C
.6 B
39.6 D
4.9 C
1.4 B
1.2 B
1.4 B
2.5PD 1.4 C
1.4 B
.7 A 1.4 B
1.2 B
4.5 C 1.4 D
.0 C
.7 C
.7 B 2.9 C
2.2 C
2.0 C
11.7PC
.8 B
.5 B 1,2 B
.4 B
.4 B
.3 B 58.5 C 1.0 B
.2 C 1.6 B
7.0 D
1.0 C
.9 1.2 5.1
.3
.8
.2
.8.5
~ 3.4.8 4.0
.9
.8.6.6
'l
~ 2
.9 1.6
.0 1.1
~ 4
~ 4 1.1
'l.7 1.7
.6
~ 3.6
~ 3
~ 3 4 2
.8.5
~ 3.9.9 1.1
WITH APPENDIX C MICROEARTHQUAKES LOCATED IN THE HANFORD REGION FOCAL DEPTHS OF 9 KILOMETERS AND GREATER (MALONE, 1979a)
AREA OR GROUP DATE G4 G3 G3 Gl G4 Gl 69199 65'245 69314 70 63 70 75 70132 7ax40 70177 70196 70214 70254 70255 70272 70280 70316 7X 20 71 47 G3 A
G2 G3 Gl A
G2 A
G2 G2'2 A
G3 G2 G2 G3 G3 G3 G2l 71169 71207 71234 71238 71244 71269 71284 71347 71362 72 30
]2 34 72 70 72123 72135 72212 72213 72218 72227 72254 7 )255 72261 72266 72269 72265'2272 72366 73 36 73 41 73 42 73 66 73112 73158 71 60 G4 71 68 71103 ORXGXN LAT N 46 47.5'7 46 41.51 46 33,62 46 39>01 46 32.37 46 7,83 46 38,66 46 11
~ 47 47 6.75 46 39'8 46 38.53 47 10>07 46 56.75 46 10.5'6 46 39.04 46 38.60 46 51.39'634.31 46 47.83 46 52,41 46 34.39 47 7.27 46 42.40 46 33,28 46 22 09 46 35 '9 46 26<<96 46 11.02 46 32>84 47 16
~ 46 46 51.22
- 46. 32 5'4 46 11.49 46 23,96 46 7 35 46 31<<58 46 28.53 46 25.67 46 27,08 46 27.59 46 33.03 46 34,25 46 51,64 46 50.76 46 27.36 46 28.20 46 32.76 46 32<<49 46 33
'9'6 21.34 46 57,12 46 50'2 431 2150 40,63 31 <<09 056 15,34 023 36.67 1548 21.31 1159 1228 010 1357 1519 220 51, 42
- 5. 08 45' 74 57,51 5> 13 54
~ 11 52, 29 52.94 14,91 38.01 1326 2247 656 139 2025 2136 53.48 25', 83 182'9 951 623 1727 1945 1142 849 637 041 536 550 838 1330 1119 1917 15 4 749 1755 632 26.07 19'. 60 55' 00 5'7 27>58 30 F 08 26.75 38.59 4>19 30 F 05 33.83 7.90 13.07 9.07 51.
85'3.97 54,23 12.92 21.20 947 56.01 1737 23.32 1040 16<<65 619'1.97 21 4 46,81 728 30.49 1914 59.50 2028 27.61 255 56.24 1835 5,65 1329 2.14 X9 2 58.70 11 1 40.56 1159'7.93 351 32,01 20 1 44<<88 LONG W
120 19.54 X19 32.5'0 119 39>12 119 17.66 119 33.04 119'2.22 115'6
~ S'3 119 6.36 119 13
'5'19 5.64 120 23.17 115'6
~ 49 119,45.15 119 38.82 119 2
~ 89 119 6.21 118 32
~ 31 119'.02 119 33.14 119 13.34 119 47.86 119 10 F 85 119 19
~ 49 3.64 119 34.95'1937 '6 120 23 AS'5 119 37
'5'206.02 1'19 38.64 119 4.49 119 3.57 119 21.97 115'7.77 119'
~ 80 119 3.47 119 43
~ 03 119'9.86 119 35>01 119 35.21 120 2.56 119 42;41 119 lb.52 119 15
~ 43 119 34.66 119 40'1 119 36 F 00 115'4>07 119 36.79 119 35.3S'1947.70 119 19.57 DEPTH 12<<07 12.98 10
~ 28 13
~ 44 13.80 X6. 70 14
~ 40
- 15. 90
- 12. 73 ll~ 21 9 67 13 24 10.28 12,29 11
~ 69 11
~ 45 10.04 9.84 14.88 12
~ 14 11.98 21 62 10.80 51 19
~ 77 14
~
25'2.04 10, 69 15 37 11.62 17<<72 14'7 9.36 20'4 12 71 13 <<32
- 17. 67 24.08 15'. 07 18.09 16<<43 17.33 14 '4 12.14 16
~ 91 18.05 20>26
- 14. 5'2 ii.14 18>40 11.78 11.86 HAG NO GAP 2'4 10 314 2.76 9 103 2.17 6 161 2,09 12 108 2.38 12 145 1<<86 7 287 2.12 11 110 2,03 7 280 1.16 15 166
.55 6 142 3<<47 17 282 1.52 15 193 2.61 19 172 1.71 15 284 1
~ 12 6 141
>80 6 151 1.98 17 238
<<42 6 142
,77 10 108 1
~ 18 10 143
.99.
8 251
.77 7 218
.86 8 154
,47 7 169 1.29 21 207
.13 5 15'8 1.35 12 293 1.52 14 197 1,66 36 231
.90 10 166
<<63 6 144
'24 7 136
>92 10 159
,78 20 141
>Bi 13 166
.25 14 143 1>37 24 160
.82 12 209 1,40 31 107
,49 12 145'
~ 16 24 243
<<45 10 133
<<33 31 71 1<<29 21 136
.58 10 114
>83 15 144
<<71 16 86 1.18 16 72
.38 il 106
.73 13 126
.87 13 106 1.47 21 80 DM 47.9 12.5 10.2 11
~ 5 9,5 20.5 11.7 17.0 17,2
'3
~ 1 46>5 31 6 13.8 23,6 10>0 13 '
36.7 11.9 5.4 12.3 5.3 17 '
9 '
10<<0 2,6 10.
S'2.3 5.
S'7.0 9.4 13,9 7 ~ 2 6 '3.3 18 '6.8 4.1 7>l 6.7 7,6 22.7 6 '
9<<2 XO.O 7.3 5.7 9.6 10.4 9.2 4.0 1,4<31,
.48
~ 2<<
,17
~ 3b
,05
~ 22
,38
.36
.36
,06
.04
~ 37
.aB
.12
~ 22
<<15
,09
,07
,10
>23
>01
.12
~ 13
,22
>07
.07
~ 07
,09
.09 F 16
~ 14 25
,07
.18
~ 11
.20 36
,47
.33
.10
~ 13 F 13
.20 2S'21
.25'38 ERH 1.7 1
~ 7
.8 1
~ 1 2 '3.6
~ 9 2,0 1.0
,4 1
~ 6 i>7 1.5
.5
,4 2 ~ 3
~ 6
~ 7 1>0 1
~ 4 1.4
,4 X.a 1.0
,2 1<<0
~ 7
>8.8
<<9
<<6
~ 5
~ 4.9.
,6
<<8
<<6
>4
~ 7 2.5 1
~ 0
.6.7
~ 7
,8 1.3 l<<l 1.7 1>1 ERZ 01
,8 C
4,2 C
1.2 B
1
~ 4 C
2.8 C
1.7 D'
~ 1 B
l,l C 2 '
C 1.1 B
11 C
l.'5 n 3.2 C
x,b n 1.2 B
1.0 B
2.5XD F 1 C
1,1 B
2.0 C
1
~ 4 C
1.2 C
.8 B 1,8 C
1
~ 3 C
C
.6 C
1.3 C
.4 C
.8 B
1
~ 7 B 1,3 B
,8 B
,4 B 1.7 C
~ 6 B
,8 C
.6 C
.7 B
,5 B
..6 C
2.1 C
1.7 B
X>7 C
.8 B
,7 B
.8 A 1
~ 5 B 3 '
B 1.0 B
4,6 B
2.4 B
I I
I f
I
APPENDIX C-Continued AREA OR GROUP G2l Gl G3 Gl Gl Gl G3 Gl G3 Gl G3 G3 l
Gl G3 G3 Gl Gl Gl Gl Gl Gl A
G3 G3 G3 G3 G3 Gl Gl A
G3 G3 Gl G4 G2 DATE ORIGIN 73162 73174 731 S'0 73193 73238 73363 73363 74 31 74 35 74 91 74112 74160 74191 74198 74237 74260 74336 75 34 75 95 75143 75145 75165 75169
,75179 75179 7517S'517S'5180 75180 75200 7523~
75141 75242 75242 75242 74~4 75 Jl 75251 75284 75301 75305 75308 7S346 75353 75354 76 67 76 69 76128 76134 76134 76188 76206 76267 77 74 77177 77188 77194 243 3S'.24 727 38.88 749 9,18 219
- 6. 05 1152 3je80 938 14.24 1114 9 10 1254 30.44 S45 1
~ 85 1056 59.70 049 23.37 2213 50.50 045 58 F 61 1833 45,70 17 8 25.34 1719 F 11 742 15.22 1432 10'3 741 4.76 016 2,59 226 18
~ 47 1518 3beOS'5433.14 1633 43.66 1654 1S'.lS'21752.65 2358 49.41 124 13.71 1042 45.86 f]of 40 >~
2230 22.10 3 5 4.04 344 24.97
,349 22.50 1537 1S',29 1743 7'0
'449 11.69 1044 44,65 656 11.18 2012 4.56 1830 7.48 1946 45.00 1033 2.00 23 3 54.73 750 26.84 1459 59,73 753 51.47 1718 40.80 849 5'9'3 1034 27.72 11 7 11.11 442 40.07 255 43 '8 223S'3.96 010 20.39 1432 21 '3 1429 22.08 LAT N LONG W 46 24.56 119 29e68 46 48.05 119 13 F 41 46 11.05 119 36.86 46 38.01 119 35.94 46 14
~ 02 119 34.83 46 3,43 119 3S' 20 46 3.97 119 39.28 46 13.40 119 19.37 46 51
~ 19 119 4
~ 13 47 14 F 80 11S'5 '9 46 32.35 119 38 '9 46 15. 77 119 33. S'4 46 35.94 119 41.52 46 24.56 119 21.48 46 4.67 119 36'9 46 8,80 119 Be.68 46 36'5 119 43.56 46 36'4 119 35.64 47 6'4 119 44 '3 46 50.54 119 15.50 46 5.35 119 37,42 46 36.81 119 47 F 42 46 36'4 119 47.46 46 7.77 119 42.13 46 6.95 119 41.81 46 7.0S'19 41.83 46 7.41 119 42 F 85 46 6.05 119 43.02 46 5.13 119 44.57 46 31 '9 119 2.67 47 '14.61 11S'9
'S'6 36.96 119 45.45 46 36'5 11S'6 '4 46 37.62 119 47 '3 46 37.23 119 44.21 46 36,38 11S'5.24 46 7.57 119 41 92 46 7,88 119 41,24 46 41.54 118 55'0 46 34>80 119 32.83 46 34.11 119 47.S'1 46 3 ~ 80 119 35
~ 79 47
" 7.19 119 36.94 46 41,89 11S'3 '3 46 40.81 119 13.63 46 52
~ 84 119 34.76 46 3,88 118 55.86 47 13,95 120
.02 47 7.00 119 38.03 47 8.23 119 38.04 47 3.91 119 55.31 46 15,02 119 27.47 4S 48.19,118 36.75 47 7.69 11S'9.12 46 40e45 119 28e87 46 27.43 119 33e67 46 29e75 120 2e81 DEPTH 12
~ '19 16e07
- 13. 04 22.38 12.70 10
~ 38 12.01 17'5 1S' 16 11
~ 92
- 17. 56 10.
BS'4.10 17e53 11
~ 37 14
~ 13 f4.55 15
~ 32 12.43 17
~
6S'2 F 00 10.10 9.80 10.67 10
~ 40 10,35 9 67 10.92 10.30
- 15. 74 11.88 9.07 S'. 33 9'2 9.65 9 07 12.63 13.76 10.20
- 18. S'1 19.30 14
~ 62 12e17
- 19. 35 12.10 16.69 12.48 12.45 lie 10
- 15. 65 11.43
- 10. 60 14.39 13.94 17e20 18.38 14e20 MAG NO GAP DM 69 7 '
92 6.9 192 6.3 107 11 '
164 8
~ 4 246 17.5 245 16
~ 5 193 1
~ 3 126 14
~ 2 138 11.7 76 6 '
140 10.8 126 5.5 96 5.9 285 lb.3 155 16.5 147 8.9 93 3 '
328 29.5 261 9.8 285 14.5 238 2.3 238 2.4 260 S'. 3 299 10 '
251 10 5 288 10.1 292 12.7 295 14.8 139 6.2 154 31 e7 114 e4
~35 1
~ 4 270 3.3 91 2.0 174
~ 9 212 30.6 210 "29
~ 9 192 23.3 94 7.0 242 5.8 231 28.8 123 25e9 194 18
~ 6 188 20.0 132 3.5 146 2.2 158 30e5 204 26.3 199 24 '
136 12.9 84 11
~ 0 154 19.5 203 25 3 102 8 '
122 7.6 311 25.5
.64 13
.66 15 1.35 32
~ 18, 11 e56 11
. 2.75 29 f.23 21
.SS'2 1.30 10
.82 10
.81 10
,85 8
1.19 18 1
~2S'l 1.19 8
.45 10
.71 11 1,S'3 9
2.36 10 2.23 6
1.20 8
1.12 7
3,30 10 1
~ 55 5
3.81 12 1
~ 46 7
2.20 10 2,20 1,75 11 1
~ 78 8
2 31 18 1.49 8
1.06 6
2.06 14 le33 8
1.62 12 1.95 15 1
~ 01 6
1
~ 61 S'.557 "1.72 8
148 8
F 00 9
le74 10 1.34 7
1.86 10 1.56 6
1.82 7
.97 8
1.18 10 1,83 7
2'9 7
e86 10 39 5
.58 6
~ 24
,26
.30 e13
,18
.20
,16
.19
.09
,50 F 05
.07
.15
,16
.15 e13
.08 14
.04
~ 20
.10 F 06
~ f2
,f2
.14
.05
,04 e05
~ 12
,21
,18
,03
,04
.09
,16 e13
~ 32
,01
.07
~ 06
~ f2
.21 e14
.30
. OS'14
.09
~ 2M
~g
~ 23
,12
~ 25
~ 23
,17 e05 1 el 1
1
.9
~ 7 1,0 1,2 1.4 1
~ 1 1,0
.8 3 '
,3
,8
~
~ 5 2, 1 1.7
~ 7
~.
15.6
.6 6.4 1.0
,9 2.0 4,4 2.1 le4 1.4 1.8 eB 1,3
'e9 1,0 1.3
~ 7
~ 7 1.8
~ 2
~ 7 1.1
~ 7 1.2.8 1,7 1.0.6 1.6 2.7 1.6 lel 4.0 1.1 2.7.8 1
~ 7 B 1,2 B
.6 D
1.0 B
1.5 C
,6
'C
.6 C
C 1.5 B
1
~ 3 B
5.1 C
~ 7
.9 P.
p 1,4 C
1.7 C
1.9 B
1.1 B
3,2 fl
~ 2 C 6.3 D
1
~ 0 C
.7 C
.9 C
3.6 D
.9FC 1.2 C
.4 C
,6 C
".6 B
1.8 C
~ 7 B
.4 C
e9 C
1
~ 1 B
F 1 B
~ 6 C 5
C le9 D
"1 B
.9 C
~ S'
.9 B
3.6 C
2.9 C
1.6 B
~ 8 B 1
~ 6 B 3.6 C
F 1 D
2eB C
3.5 B
1.2 B
3.5 D
2e7 B
2 ~ 1 D
18C RMS ERH ERZ Ql
I I
I lf I
APPENDIX C - Continued AREA OR GROUP G2 G4 G2 A
G3 G3 G3 G4 DATE 77228 77244 77245 77257 77310 78 7
78 40 78 77 78 94 78102 78110 78131 78135 78159 78168 78227 78342 79 48 79'7 79 97 79212 ORIGIN LAT 1652 38'0 46 2
1 3.01 47 425 20.66 46 14 5 56.93 46 1720 1>82 46 1656 4.76 46 1439 42.78 45 850 34.69 46 1118 20.39 46 1946 46.85 47 1241 8,64 47 1831 46.64 46 1210 21.12 46 2136 37 78 46 1932 32 99 46 2030 31.42 46 14 3 50,07 46 836 21 e41 46 347 23,62 46 741 55 40 46 129 53.30 47 W
DEPTH 33.36 18.71 50.59 9.10 21 o28 16,60 33,64 10'6 40
~ 01
- 20. 95 57.10 17.25 12.50 13 52 23.38 16.20 41
~ 65 20
~ 00 26'7 10'0 40.90 12.56 26.53 14.26 24.37 19.31 4iai7 11.06 18:60 20.20 25,49 14.90 33.89 21.39 56
~li
- 9. 10 24,70 9.83 23.83 12.12 19'6 11.52 N
LONG 22.44 119 17o12 119 38.31 119 51.61 119 27,52 119 23.61 119 41.76 120 25.38 119 32.56 119 9 ~ 12 119 20'9 119 35'9 119 32.13 119 39
~ 49 119 21I11 119 43.29 119 45.63 119 10
~ 15 119 57.38 120 57.03 120 15 96 119 7
11 8
8 12 8
10 8
10 22 12 9
13 8
7 1S 17 13 12 MAG NO
.58 1.28
.36 o51 1
~ 45 a93 F 10
,61 1
~ 55 1
~ 78 1.02
.84 1.52 1
~ 65
.89 2.06
.76 3.59 2.99 2.44 1
~ 92
,21 2.0
.13
.8
.10 7
~ 17 1
~ 7
,17 1
~ 3
,08
- 1. 1
~ 22 3,2
.09
.6
,23 2.0
,14 o4
.13
.6
~ 16
.6
.08
~ 6
.18 1.1
,06 o5
.11 e7
.12 1
~ 7
.25 io2 o31 1.6
.21 1.5
,19 1
~ 2 AP DM RMS 232 F 1 247 20 F 1 89 9 '
192 4i4 195 9' 6 256 27.9 227 7.5 95 7.9 148 9.4 68 25o3 164 6.7 91 20 '
113 14.6 144 7,6 99 9 '
68 11.2 118
.5 163 36 '
133 32 '
214 31o2 95 23.0 ERZ Q1 1.2 C
.7 C 1
~ 3 A 1
~ 7 C
1
~ 3 C
~ 6 C
12D 4 9 2,7 C
~ 6 E
~
~ 7 i3 2,3 F.
1
~ 5 9 C
.8 8 1.6 A
2.3 8 1.4 C
2,2 C
1.0 C
1.2 9
Woodward Clyde Consultants APPENDIX D EXPLANATION FOR MICROEARTHQUAKE CATALOG HEADINGS IN APPENDICES 8
AND C The earthquake origin date is given as a Julian
- date, with the origin time given in
- hours, minutes, and seconds.
Location coordinates are given as degrees and minutes with the focal depth in kilometers.
The local magnitudes were determined by using the coda length formula:
Mcoda
2 ~ 46
+ 2 ~ 80 log (Tcoda) where T
d is the duration of the event measured from first coda onset until the trace has returned to twice background level.
Other catalog headings are as follows:
NO
=
the number of stations used in the event location GAP
=
the largest azimuthal separation in degrees between stations.
=
epicentral distance in km to the nearest station RMS
=
root mean square error of time residual in seconds.
RMS =
Z R
/NO, when R
is the time residual for I
1 the ith station.
ERH standard error of the epicenter in km.*
ERH
=
SDX2
+
SDY,
where SDX and SDY are the Standard errors in lattitude and longitude, respectively, of the epicenter.
If ERH
= blank, this means that ERH cannot be computed because of insufficient data.
I I
I I
Woodyard Clyde Consultants APPENDIX D continued ERZ standard error of the focal depth in km.* If ERZ is blank, this means that ERZ cannot be computed either because the focal depth is fixed in the solution or because of insufficient data.
Ql X indicates an explosion event, where P indicates a possible explosion
- event, while the earthquake location quality is indicated as follows:
Q ~
~1 A
Excellent B
Good C
Fair D
Poor Good Fair Poor Poor This measure is intended to indicate the general reliability of the solution.
Ql is taken as the average of QS and QD (as defined below).
For
- example, an A and a
C yield a B, and two B's yield a B.
When QS and QD are only one level apart, the 1'ower one is used, i.e.',
an A and a
B yield a -B.
QS is rated by the statistical measure of the solution as follows:
- Statistical interpretation of standard errors involves assumptions that may not be met in earthquake locations; therefore the standard errors may not represent actual error limits (Lee and Lahr., 1971).
f i
l
Woodyard Clyde Consultants APPENDIX D continued QS RMS (sec)
ERH (km)
ERZ (km)
D
- 0. 15
< 0.30
- 0. 50 Others
< 1.0 2.5 5.0
- 2. 0 5.0 QD is rated according to the station distribution as follows:
QD NO GAP DMIN D
6 6
6 Others 904 135o 180' DEPTH or 5 km
< 2x DEPTH or.10 km 50 km REFERENCES
- Lee, W.H.K.,
and Lahr, J.C.,
HYPO 71:
A computer program for determining hypocenter, magnitude, and first motion pattern of local earthquakes:
U.S.
Geological Survey Open-File
- report, Office of Earthquake
- Studies, Menlo Park/
California, 100 p.
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