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CONSTRUCTION TESTING & ENGINEERING, INC,
SANDIEGO,CA RNERSIDE,CA VENTURA,CA TRACY.CA SACNnMENTO,CA
241C Vineyard Arenuc 12155 Magnulia Avenue 1645 Pacific Avenue 242 W. Larch 3h2% A7adisnn Avenue
Suilc G Sui[e 6C Suite 107 Suite F Suite 22
Escondidu, CA 92029 Rivcrsidc, CA 92503 Oxnard, CA 93033 Tracy, CA 95376 N. Ilighlends, CA 956fi11
(760) 746-0955 (95I)352-67UI (805)486-fi475 (209)839-2890 (916)33Ifi030
(760) 746-9906 ~AX (951) J52-fi705 FAX (805) 486-9016 FAX (209) 839-2895 FAX (YI6) J3L60J7 FAX
PRELIMINARY GEOTECHNICAL INVESTIGATIOv
PROPOSED COMMERCIAL DEVELOPi~IENT
CREEKSIDE CENTRE
SW CORNER OF OVERLAND DRIVE AND NICOLE LANE
TEMECULA, CALIFORNIA
PREPARED FOR:
DAVCON DEVELOPMENT, INC.
42389 WINCHESTER ROAD, SUITE B
TEMECULA, CA 92590
PREPARED BY:
~ CONSTRUCTION TESTING & ENGINEERING, IrC.
12155 MAGNOLIA AVENUE, SU[TE 6-C
RIVERSIDE, CA 92503
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CTE JOB NO. 40-1758
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DECEAIBER 1~, 2004
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ENGINEERING, INC.
December 14, 2004
Mr. James Pattoo
Davcon Development, Inc.
42389 Winchester Road, Suite B
Temecula, CA 92590
Subject: Preliminary Geotechnical Investigation
Proposed Commercial Development
Creekside Centre
SW Comer of Overland Drive and Nicole Lane
Temecula, Califomia
Mr. Patton:
CTE Job No. 40-1758
Construction Testing and Engineering, Inc. has prepared this report of geotechnical investigation for
the proposed commercial development located at the southwest corner of Overland Drive and Nicole
Lane in the City of Temecula, California. The at[ached report discusses the findings and conclusions
of our geotechnical investigation and provides preliminary geotechnical recommendations for use
during project design and construction. The project is considered feasible, from a geotechnical
viewpoin[, if the recommendations presented in this report aze incoiporated into the design and
construction of the project.
If you have any questions regarding our findings or recommendations, please do no[ hesitate to
con[act this office. The opportunity to be of service is appreciated.
Respectfully submitted,
CONSTRUCTION TESTING & ENGINEERING, INC. ~
odn~lar~~173 Vmc t J. atula, CEG #2057
Geo[echnical Engineering Manager Senior Engineering Geologist
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CEOTECHMCAL•ENVIRONP7h:N"fAL.CONS'1'RUCTIONINSPF,C"I'IONAND'I'ESTINC•CIVII,h:NCINN:P:RINC•SURVp:I'INC ~
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~ TABLE OFCONTENTS
I.0 EXECUTIVE SUMMARY ...................................................................................... ................1
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' 2.0 INTRODUCTION AND SCOPE OF SERVICES .................................................. ................2
2.1 Introduction ....................................................................................................... ................ 2
2.2 Scope of Services .............................................................................................. ................2
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, 3.0 SITE LOCATION AND DESCRIPTION ............................................................... ................3
4.0 FIELD AND LABORATORY INVESTIGATION ................................................. ................3
~ 4.1 Fieid Investigations ........................................................................................... ................3
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~ 4.2 Laboratory Investigation ................................................................................... ................4
5.0 GEOLOGY .............................................................................................................. ................4
5.1 General Physiographic Setting ........................................................................... ...............~
~ 5.2 Geologic Conditions .......................................................................................... ...............~
5.2.1 Engineered Fi11 ........................................................................................... ...............6
, 5.2.2 Quaternary Pauba Formation - Sandstone (Qps) ....................................... ............... ~
~ ~ 53 Groundwater Conditions .................................................................................... ...............7
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5.4 Geologic Hazards ...............................................................................................
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,~ 5.4.1 Tsunamis and Seiche Evaluation ............................................................... ...............8
5.4.2 Landsliding or Rocksliding ........................................................................ ...............8
5.4.3 Compressible and Expansive Soils ............................................................ ...............8
'~ 6.0 FAULT RUPNRE AND EARTHQUAKE HAZARD EVALUATIONS .............. ...............9
6.1 Local and Regional Faulting .............................................................................. ...............9
6.2 EaRhquake Acceleration .................................................................................... ...............9
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' 63 Seismic Loading Recommendations .................................................................. .............10
6.4 Liquefaction Evaluation ..................................................................................... .............10
~ 6.5 Seismic Settlement Evaluation ..........................................................................
7.0 CONCLUSIONS AND RECOMMENDATIONS ................................................... .............11
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7.1 General ............................................................................................................... .............1 I
7.2 Site Preparation .................................................................................................. .............12
~ 7.2.1 General ....................................................................................................... .............1 ?
7.2.2 Site Excavations ......................................................................................... ............. I?
7.2.3 Fill Placement and Compaction ................................................................. .............13
~ 7.2.4 Transition Pad Condition ........................................................................... .............14
7.3 Foundations and Slab Recommendations .......................................................... .............1~J
~ 7.3.1 General ....................................................................................................... .............1 ~4
7.3.2 Shallow Foundations .................................................................................. ............. t ~
7.3.3 Settlement of Foundations ......................................................................... ............. I~
' 7.3.4 Concrete Slabs ........................................................................................... .............16
7.4 Retaining Walls ................................................................................................. .............17
7.5 Vehicular Pavements and Site Improvements ................................................... .............19
~ 7.6 Reactive Soils .................................................................................................... .............20
7.7 Exterior Flatwork ............................................................................................... .............21
7.8 Drainage ............................................................................................................. .............31
~; 7.9 Plan Review ..........................................................................._.......................... .............21
~ 8.0 LIM[7'ATIONS OF INVESTIGATION ................................................................... .............21
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FIGURES
FIGURE t
FIGURE 2
FIGURE 3
APPENDICES
APPENDIX A
APPENDIX B
APPENDIX C
APPENDIX D
SITE LOCATION MAP
BORING LOCATION MAP
RETAINING WALL DESIGN RECOMMENDATIONS
REFERENCES CITED
FIELD EXPLORATION METHODS AND BORING LOGS
LABORATORY METHODS AND RESULTS
EARTHQUAKE ANALYSIS
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~ Preliminary Geotechnical Inves[igation Page 1
Proposed Creekside Centre
~ Overland Dr. & Nicole Ln., Temecula, CA
December 14, 2004 CTE Job No. 40-1758
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1.0 EXECUTIVE SUMMARY
~ Our investigations were performed to provide site-specific geotechnical information for the proposed
development to be located at the southwest comer of Overland Drive and Nicole Lane in the City of
r Temecula, Califomia. The proposed development is to consist of the construction of four
commereial buildings along with normal infrastructure including pavement, exterior flatwork,
underground utilities, and landscaping. The proposed structures will be a combination of wood-
~' framed and masonry block wall supported on shallow continuous and spread footings with slab-on-
grade base floors.
Based on our investigations, the site is underlain by engineered fill materials, with underlying
medium dense to very dense Quaternary-age non-marine deposits (Pauba Formation-sandstone)
~ below the proposed structure foundation levels. These soils are capable of supporting the proposed
structure on conventional shallow foundations as recommended herein.
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The subject site is located approximately 0.25 mile northeast of the active Elsinore Fault Zone.
Based on reviewed geologic literature for the site area, the site is not traversed by an active fault.
~ Therefore, the potential for fault displacement occurring during the useful life of the structure should
~ be considered low.
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Proposed Creekside Centre
~ Overland Dc & Nicole Ln., Temecula, CA
December 14, 2004 CTE Job No. 40-1758
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Groundwater was encountered at the time of our investigation at a depth of 49 feet below the surface.
~ Groundwater levels will likely fluctuate during periods of high precipitation; however, groundwater
~ is not expected to impact the proposed development.
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~ 2.0 INTRODUCTION AND SCOPE OF SERVICES
~ 2.lIntroduction
Construction Testing and Engineering, Inc. (CTE) has prepared this geotechnical engineering and
~ geologic reconnaissance report for Davcon Development, Inc. Presenied herein are the results of the
~ subsurface investigation performed as well as recommendations regarding the geotechnical
engineering and dynamic loading criteria for the proposed development.
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~ The proposed project wilt consist of the construction of four commercial buildings along ~vith
~ normal infrastructure including pavements, exterior flatwork, underground utilities, and landscaping.
The proposed structures will be a combination of wood-framed and masonry block wall supported
~~ on shallow continuous and spread footings with slab-on-grade base floors.
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, 2.2 Scope of Services
~ Our scope of services included:
• Review of readily available geologic reports pertinent to the site and adjacent areas (Appendi~ A
contains a list of cited references).
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Proposed Creekside Centre
~ Overland Dr. & Nicole Ln., Temecula, CA
December 14, 2004 CTE Job No. 40-1758
~ • Exptorations to determine subsurface conditions to the depths influenced by the proposed
construction.
1 • Laboratory testing of representative soil samples to provide data to evaluate the geotechnical
design characteristics of the site foundation soils.
• Definition of the general geology and evaluation of po[ential geologic hazards at the site.
~ • Preparation of the report detailing the investigation performed and providing concfusions and
geotechnical engineering recommendations for design and construction.
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~ 3.0 SITE LOCATION AND DESCRIPTION
~ The subject site is a wedge-shaped parcel located at the southwest corner of Overland Drive and
Nicole Lane in the Ciry of Temecula, Califomia. Currently, the site is an empty, previously-graded
' lot with fill slopes on all sides. The site is bordered by Overland Drive to the north, Nicole Lane to
~ the east, commercial development to the south, and a Riverside County flood control channel (Long
Canyon Creek) to the west. Currendy, the ground surface is bare, with minimal vegetation and no
~ observed surface obstructions. A storm drain inlet is located in the southwest corner of the site.
^ 4.0 FIELD AND LABORATORY INVESTIGATION
~ 4.1 Field Investi atQ ions
' Field explorations, performed on November 10, 2004, induded a site reconnaissance. the exca~ation
_ of five soil borings and in situ testing of subsurface deposits. The soi( borings were excavated to
~ investigate and obtain samples of the subsurface soils. The borings (designated B-1 through B-5)
~ were excavated using a truck-mounted eight-inch diameter, hollow stem auger drill rig tu a
maximum explored depth oY approximately 51 %: feet below existing grade (fbg).
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~ Preliminary Geotechnical Investigation
Proposed Creekside Centre
~ Overland Dr. & Nicole Ln., Temecula, CA
December 14, 2004
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CTE Job No. 40-1758
Soils encountered within the borings were classified in the field during the exploration operations i^
accordance with Unified Soil Classification System. The field descriptions were later modified (as
appropriate) based on the results of our laboratory-testing program. [n general, soil samples were
obtained at 5-foot intervals. Specifics of the soils encountered can be found in the Boring Logs,
which are presented in Appendix B.
4.2 Laboratorv Investi~ation
Laboratory tests were conducted on representative soil samples to evaluate physical properties and
engineering characteristics. Specific laboratory tests include: ma~cimum dry density and optimwn
moisture content, in-place moisture and density, resistance value, expansion index, gradation, direct
shear, Atterberg limits determination, and chemical ana(yses. These tests were conducted to
determine the material strength, compressibility, grain-size distribution, physical properties, and
corrosivity of the on-site soils. Test method descriptions and laboratory results are presented in
Appendix C.
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Proposed Creekside Centre
Overland Dr. & Nicole Ln., Temecula, CA
December 14, 2004 CTE Job No. 40-1758
5.0 GEOLOGY
5.1 General Phvsioaraphic Settine
Geomorphically, the subject site lies within the central portion of the Peninsular Ranges Geomorphic
Province, adjacent to Long Canyon Creek and approximately one-half mile southeast of Santa
Gertrudis Creek. The Peninsular Ranges Geomorphic Province is characterized by a northwest-
southeast complex of blocks separated by similar trending faults (Webb and Norris, 1990).
The three prominent fault zones in the province are the San Andreas (east), San Jacinto (central) and
the Elsinore Fault Zone (west). Activity along these fault zones resulted in the ranges having a
gradual west facing slopes and steep east facing escarpments. Separating the ranges and adjacent to
the escarpments are inland vaileys. These inland valleys consist of TeRiary and Quatemary-age non-
marine sediments, derived from granite, non-marine sedimentary and metasedimentary rocks.
5.2 Geoloeic Condi[ions
Site soil materials consist of engineered fill materials, ranging from 7- to 22-feet in thickness. ~~ith
underlying Quaternary-age sedimentary rock identified as the Pauba Formation (Kennedy 1977)
encountered to the maximum explored depth of 51.5 feet. Below is a brief description of the soils
encountered durin~ the investigation. More detailed descriptions are pro~ ided in the Boring Logs in
Appendix B.
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Preliminary Geotechnica- Investigation
Proposed Creekside Centre
Overland Dr. & Nicole Ln., Temecula, CA
December 14, 2004
Page 6
CTE Job No. 40-1758
5.2.1 EnRineered Fill
Engineered fill materials were encountered in each of Ihe five borings. The thickness of the
encountered fill ranged from approximately 7-feet to 22-feet. In general, the fill is shallower
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in the east-southeast poRion of the site and deepens toward the west-northwest. The
encountered fill materials consist offine to coarse grained silty sands (SM) and clayev sands
(SC), which are in a dense to very dense condition and can be described as red-bro~~n ro
gray-brown, moist, and non-expansive. [n boring B-3, which is in close prosimity to the
storm drain inlet, the fill transitions from clayey sand to a less dense, dark gray, very fine
grained silty sand beginning at a depth of 6-feet extending down to the contact with natural
soils at approximately 12'h feet In boring B-2, a 1-foot layer of silt (ML) was encountered
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at the contact with natural soils at a depth of approximately 2]- to 22-feet. This silt has
moderate organic content and is described as very stiff, moist. dark gray.
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5.2.2 Ouaternary Pauba Formation - Sandstone (Qps)
Quaternary-age Pauba formational materials were encountered beneath the fill to the
maximum explored depth of 51'/ feet below existing grade (fbe). The Pauba Formation is
generally described as a succession ofla[e Pleistocene-age ~cell-indurated and e~tensicel~
crossbedded siltstone, sandstone, and conglomerate facies (Kennedy 1977). Speciticall~, the
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Pauba formational materials encountered at the site are predominantly beds of silt} sands
(SM) with interbedded layers of sandy silt (ML) and poorly-graded sands with silt (SP-S~t 1.
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Proposed Creekside Centre
Overland Dr. & Nicole Ln., Temecula, CA
December 14, 2004 CTE Job No. 40-1758
The si-ty sand layers are in a medium dense to very dense condition and can be described as
damp to very moist, fine to coarse grained, weakly to moderately cemented, orange-brown to
light tan to gray in color, and occasionally iron-oxide stained. The sandy silt (ML) can be
described as stiff to very stiff, moist to very moist, and gray to orange-brown. The poorl}~-
graded sand with silt (SP-SM) layers can be described as dense to very dense, damp to moist.
light gray to light brown, and containing trace to occasional fine gravel.
53 Groundwater Conditions
Groundwater was encountered in boring B-2 at an approximate depth of 49 fbg, Ground~cater
elevations typically fluctuate on a seasonal basis due to changes in precipitation, irrigation, pumping.
etc. However, based on our investigation, we do not expect grotmd~~~ater to affect the proposed
development.
5.4 Geoloeic Hazards
From our investigation it appears that geologic hazards at the site are primarily limited to those
caused by violen[ shakino from earthquake generated ground motion waves. Based on the site
distance from the nearest identified fault and the remedial grading recommendations presented in
Section 7.2 of diis report, we anticipate the poten[ial for damage from seismic displacement or fault
movement beneath the proposed structures to be low. A complete discussion of earthquake hazards
(including earthquake accelerations) is presented in Section 6 of Ihis report.
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Preliminary Geotechnical Investigation
Proposed Creekside Centre
Ovedand Dr. & Nicole Ln., Temecula, CA
December 14, 2004
Page 8
CTE Job No. 40-1758
5.4.1 Tsunamis and Seiche Evaluation
Due to site elevation and distance from the Pacific Ocean, the site is not considered to be
subject to tsunamis. Based on the absence of large bodies of water in [he area, seiche
(oscillatory waves in standing bodies of water) damage is not expected.
5.4.2 Landsliding or Rocksliding
The potential for landsliding or rocksliding to affect the site is considered remote. No
features typically associated with landsliding were noted during the site investigation. In the
reference review, no evidence of landslides was found to have occurred within the area of the
site.
5.4.3 Compressible and Expansive Soils
Based on geologic observation, laboratory and in situ testing, materials located at the
proposed structure foundation level generally consist of dense to very dense fill materials
with very low compressibility characteristics.
A sefected sampie of site soil was analyzed for expansion potential using UBC test method
18-2. The expansion index of the soil was found to be 14, whicll indicates a very lo~~
potential for expansion.
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Preliminary Geotechnical Investigation Page 9
Proposed Creekside Centre
Overland Dr. & Nicole Ln., Temecula, CA
Decembet 14, 2004 CTE Job No. 40-1758
6.0 FAULT RUPTURE AND EARTHOUAKE HAZARD EVALUATIONS
6.1 Local and Regional Faulting
As stated, the subject site lies approximately 0.25 mile nor[heast ofthe genera(ly northwest-southeast
trending Elsinore Fault Zone (EFZ). Evidence of Holocene (within the last 11,000 years) surface
rupture on strands of EFZ has been discovered during several recent studies (Caltech Website, 2000).
Therefore, the Elsinore Fault is considered "active."
Other principal active faults in this region include the San Jacinto, Newport-Inglewood, and Whittier
Faults (Blake 1996). According to the California Division of Mines and Geoloay, a Fault is
considered active if it displays evidence of activity in the last 11,000 years (Hart and Bryant, revised
1997).
6.2 Earthquake Acceleration
The evaluation of possible bedrock acceleration at the site was performed using the deterministic
approach which identifies one or more controlling seismic sources and events residtin~~ in a
determination of maximum ground acceleration.
We have analyzed possible bedrock accelerations at the site using the computer soft~~are program
EQFAULT (Blake, 1997). The program uses the attenuation relationship developed by Campbell
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Proposed Creekside Centre
Overland Dr. & Nicole Ln., Temecula, CA
December 14, 2004 CTE Job No. 40-1758
and Bozorgnia (1997) for alluvium and soft rock conditions. Based on this analysis, the maximum
credible site ground acceleration (0.919g) was generated by a 6.8 magnitude earthquake associated
with the Elsinore-Temecula Fault.
Design of structures for seismic loading should comply with the requirements of goveming
jurisdictions, applicable building codes, and practices of the Association of Structurai Engineers of
~ California.
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6.3 Seismic Loadine Recommendations
According to the 1997 Uniform Building Code, the site is within seismic zone 4 with a seismic zone
factor Z= 0.40. The Elsinore-Temecula Fault, a seismic source Type B, is located approximately
0.25 mile (0.4 km) from the site subject site. Based on our investigation and review of geologic
fiterature, the site has a soil profile type of So. Based on these parameters, the site near-source
factors are N~ = 1.6 and Na = 13, and seismic coefficients C„ = 1.024 and C, = 0.572
6.4 Liauefaction Evaluation
Liquefaction occurs when saturated fine-grained sands or silts lose their physical strength during
earthquake-induced shaking and behave as a fiquid. This is due to loss of point-to-point ~,rain
contact and transfer of normal stress to tlie pore water. Liquefaction po[ential varies ~cith
groundwater levef, soil type, material gradation, relative density, and the intensity and duration of
ground shaking.
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_ Proposed Creekside Centre
~ Overland Dr. & Nicole Ln., Temecula, CA
December 14, 2004 CTE Job No. 40-1758
, , We have performed a preliminary screening for liqueFaction potential in accordance with the
California Division of Mines and Geology, Special Publication 117 (1997). Based on the existing
~ soil conditions (compacted fil( materials and relatively dense natural soils) and the depth to
' groundwater, we find the potential for liquefaction of site soils to be very low.
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' 6.5 Seismic Settlement Evaluation
Seismic settlement occurs when loose to medium dense granular soils densify during seismic events.
~ The underlying site materials are generally in a medium dense to very dense condition, and are not
considered (ikely to experience significant seismic settlement. Therefore, in our opinion, the
~ potential for seismic settlemen[ resulting in damage to site improvements is considered low. We also
expect that any loose or disturbed materiats present on the site will be mitigated through removal and
' recompaction in order to facilitate the proposed construction.
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, 7.0 CONCLUSIONS AND RECOMMENDATIONS
, 7.1 General
' Based on our investigation, the proposed construction on [he site is feasible from a geotechnical
standpoint. provided the recommendations in this report are incorporated into the desisn of the
, project. Recommendations for the design and construction of the proposed development are
' included in the subsequent sections of this report.
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Preliminary Geotechnical Investigation
Proposed Creekside Centre
Overland Dr. & Nicole Ln., Temecula, CA
December 14, 2004
7.2 Site Prepazation
7.2.1 General
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CTE Job No. 40-1758
Prior to grading the site should be cleared of any existing vegetation, debris and other
deleterious materials. In areas to receive structures or distress-sensitive improvements,
expansive, surficial eroded, desiccated, bunowed, or otherwise loose or disturbed soils
should be removed to the depth of competent material. Organic and other deleterious
materials not suitable for structural backfill should be disposed of offsite at a legal disposal
site.
7.2.2 Site Excavations
Based on our findings, the site is underlain by propedy compacted fill materials, on the order
of 7- to 22-feet in thickness, with competent underlying natural soils. Therefore, the majority
of the site will require only minimal surface treatment as follows.
Within the limits of site grading and five feet laterally beyond the proposed building
footprints. site soils should be scarified to a depth of 12-inches, moisture-conditioned to
slightly above optimum, and recompacted to 90 percent of the maximum dry densit~ as
determined by ASTM D 1557. If loose or disturbed soils are encountered during site
preparation, they should be excavated to the depth of properly compacted fill or competent
natural soils.
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Proposed Creekside Centre
~ Overland Dr. & Nicole Ln., Temecula, CA
December 14, 2004 CTE Job No. 40-1758
' Prior to structural fill placement, the exposed subgrades should be evaluated by a
geotechnical representative from this office to confirm that properly compacted fill materials
' aze present and uniform bearing conditions exist.
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' 7.23 Fill Placement and Compaction
All additional structural fill and backfiil should be compacted to a minimum relative
' compaction of 90 percent as evaluated by ASTM D-1557 at moisture content of optimum or
~ slightly above. The optimum lift thickness for fii soils will be dependent on the type of
compaction equipment being utilized. Generally, fill should be placed in uniform horizontal
~ lifrs not exceeding 8-inches in loose thickness. Placement and compaction of fill should be
, performed in general conformance with geotechnical recommendations and local ordinances.
' Alt soils generated from on-site excavations are suitable for use as structural fill, provided
, they are free from deleterious material. Any imported material should be evaluated by the
' project geotechnical engineer prior to being placed at the project site.
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~ 7.2.4 Transition Pad Condition
A geotechnical representative should be on-site during grading operations to ensure that a
' cudfill transitional bearing condition «ill not exist for the proposed structures. Based on our
, findings, it is anticipated that the proposed footings will be founded en[irely in properlp
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Proposed Creekside Centre
~ Overland Dr. & Nicole Ln., Temecula, CA
December 14, 2004 CTE Job No. 40-1758
, compacted fill materials. If deep foundations are proposed, additional earthwork
recommendations will be provided.
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~ 7.3 Foundations and Slab Recommendations
' 7.3.1 General
' Foundations and slabs should be designed in accordance with structural considerations and
the following recommendations. Foundations will be founded entirely in properly compacted
, fill materials. These recommendations assume that the soils exposed at finished pad grade
~ will have a very low potential for expansion as anticipated.
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7.3.2 Shallow Foundations
, In general, allowable bearing pressures for shallow spread and continuous footings will be
~ dependent on the footing size as well as the allowable settlements. We recommend that
shallow spread and continuous footings be constructed a minimum of 15 inches wide and be
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east 18 inches below the lowest adjacent subgrade.
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, Foundation dimensions and reinforcement should be based on an allowable bearing pressure
of 2500 psf for footings constructed as stated above. The allowable soil bearing pressure
, may be increased by 250 psf for every additional foot of depth to a maximum of 3000 psf.
' The allowable bearing value may be increased by one third for short duration loading which
includes the effects of wind or seismic forces.
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Proposed Creekside Centre
, Overland Dr. & Nicole Ln., Temecula, CA
December 14, 2004 CTE Job No. 40-1758
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Footing reinforcement should consist of a minimum of four #4 bars, two located at the top of
' the footing and two located at the bottom.
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, Lateral loads for structures supported on spread footings may be resisted by soil friction and
by the passive resistance of the soils. A coefficient of friction of 0.35 may be used ben+een
' foundations or the floor slabs and [he supporting soils. The passive resistance of the soils
, may be assumed equal to the pressure deve(oped by a fluid with a density of 300 pc£ A one-
third increase in the passive value may be used for wind or seismic loads. The frictional
~ resistance and the passive resistance may be combined without reduction in determining the
' total lateral resistance.
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' 7.3.3 Settlement of Foundations
We have anal
zed settle
t
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i
y
men
potent
a
ur
ng construction and for long-term performance.
, Construction settlement is expected to occur as Ioads are applied and structures are brought
to their operational weight. Long-term setdement is expected to occur over time as a result
, f
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compression of wetted or partially saturated soil. Anticipated setttements are related to an
' applied bearing pressure for the proposed building of 2000 psf and a footing yidth of
, approximately 18 inches.
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Proposed Creekside Centre
Overland Dr. & Nicole Ln., Temecula, CA
December 14, 2004 CTE Job No. 40-1758
It is anticipated that shallow foundations designed as recommended will experience
maximum total and differential static settlements on the order of 1.0 inch and 0.5 inch,
respectively.
7 3.4 Concrete Slabs
Concrete building slabs-on-grade should be designed for the anticipated loading. Floor slabs
should be a minimum of five inches thick and should be reinforced with a minimum of #3
reinforcing bars placed on 24-inch centers, each way at mid-slab height. The conect
placement ofthe reinforcement in the slab is vital for satisfactory performance under normal
conditions. The floor slab on foundations should be tied together by extending the slab
reinforcement into the footings.
In [he areas to receive moisture sensitive floor covering, a polyethylene moisture barrier (10
mil or greater) shoufd be placed beneath the slab. A two-inch layer of coarse clean sand
shou(d underlie the polyethylene moisture barrier. To assist in the curing of the concrete
slab, we recommend that approximately two-inches of clean fine sand be placed over the
polyethylene vapor barrier.
The above values assume non-expansive backfill and free draining conditions. Drainage
measures should include free draining backfi(I materials and perforated drains. Drains
should discharge to an appropriate offsite location.
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Preliminary Geotechnical Investigation
Proposed Creekside Centre
Overland Dr. & Nicole Ln., Temecula, CA
December 14, 2004
Page 17
CTE Job No. 40-1758
It is recommended that a low water-cement ratio (0.5 maximum) be used for concrete, and
that the slab be moist-cured for at least five days in accordance with methods recommended
by the American Concrete Institute. On-site quality control should be used to confirm the
design conditions.
7.4 Retainine Walls
For the design of walls below grade where the surface of the backfill is level, i[ may be assumed that
the soifs wil- exeR an active lateral pressure equal to that developed by a fluid with a density of 40
pcf. The active pressure should be used for walls free to yield at the top at least 0.2 percent of the
wall height. For walls restrained so that such movement is not permitted, an equivalent fluid
pressure of 60 pcf should be used, based on at-rest soil conditions.
In addition, a design passive resistance vahie of 300 pounds per square feet per foo[ of depth [0 2000
psf may be used. The earth pressures recommended above are based on the assumption that free
draining select granular soils will be used as backfill and that walls are provided ~~ ith a backfill drain
system to prevent a buildup of hydrosta[ic pressures.
We recommend that walls be backfilled with soil having an expansion index of 20 or less. The
backfill area should include the zone defined by a 1: I sloping plane, extended back from the base of
the wall. Wall backfill should be compacted to at least 90 percent relative compaction, based on
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Preliminary Geotechnical Investigation
Proposed Creekside Centre
Overland Dr. & Nicole Ln., Temecula, CA
December 14, 2004
Page 18
CTE Job No. 40-1758
ASTM D1557-91. Backfill should not be placed until walls have achieved adequate structural
strength. Heavy compaction equipment, which could cause distress to walls, should not be used.
7.5 Vehicular Pavements And Site Improvements
The pavement section evaluation presented here is for preliminary consideration only. Pre(iminary
pavement sections presented below in Table I for flexible pavement are based on a laboratory
determined Resistance "R"- Value of site materials and the assumption subgrade and base materials
aze compacted to 95% relative compaction.
TARi.F. I
Tra~c Area Assumed Determined AC Class II
Traffic Index Subgrade Thickness Aggregate Base
"R"-Value (inches) Thickness
(inches)
Load Areas 6.0 21 3.5 10.0
/Drivin~ Lanes
Auto Parking Areas 5.0 21 ;.0 8.0
We recommend that soils underlying all proposed pavement areas be prepared in the following
manner. Loose or disturbed subgrade soils shouid be removed to the depth of properly compacted
fill material. Exposed soils should be scarified, moisture conditioned and recompacted to 95% of the
maximum dry density (ASTM D-1557). Soils should then be compacted in 6-inch lifts to subgrade
elevation at 95% of the maximum dry density as determined by ASTM D 1557. All Class II
aggregate base materials should be compacted to at least 95% of the laboratory maximum densit~
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Preliminary Geotechnical Investigation Page 19
Proposed Creekside Centre
Overiand Dr. & Nicole Ln., Temecula, CA
December 14, 2004 CTE Job No. 40-1758
(ASTM D-1557). In addition, it is recommended that all pavement areas conform to the following
criteria.
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All trench backfills, including utility and sprinkler lines, should be properly placed and
adequately compacted to provide a stable pavement subgrade.
2. An adequate drainage system should be provided to prevent surface water or subsurface
seepage from saturating the subgrade soil.
3. Placement and construction of the recommended pavement section should be performed
aggregate base should be used as outlined'and should have a minimum R-Value of 78.
in accordance with the Standard Specifications for Public Works Construction. Class II
Final in-place density of the Class II aggregate base should be 95 percent oF the
maximum dry density per ASTM D-1557.
4. Surface run-off and irrigation water should be directed away from the parking areas to
avoid contributing to wet or samrated soils beneath the pavement.
5. Pavement sections are prepazed assuming that periodic maintenance of pavements will be
done, including sealing of cracks and other measures.
6. Pavement around areas of heavy loading should be paved with a minimum of 5 inclies of
concrete reinforced with No. 3 bars on 18-inch centers.
7.6 Reactive Soils
Moderate to high levels of sulfate containing solutions or soil can have a deleterious effect on the in-
service performance of concrete foundations and reinforcement steel. In order to evaluate the
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Preliminary Geotechnical Investigation Page 20
Proposed Creekside Centre
Overland Dr. & Nicole Ln., Temecula, CA
December 14, 2004 CTE Job No. 40-1758
foundation environment, a representative sample of site soil, taken from B-2 at a depth of 2 to 4 feet
below grade, was tested for soluble sulfate and pH. The results of the tests are as follows: 95 parts
per million (ppm) soluble sulfate and 7.2 pH. Based on UBC Table 19-A-4, a sulfate exposure of 95
ppm is considered low; therefore, we recommend concrete containing Type II cement be utilized.
Compressive strength of the concrete should be designed to meet the structura] requirements of the
pro~ect.
On-site soils are expected to be mildly corrosive to ferrous metals. Therefore, ~ve recommend that
non-metallic pipes be used, or if inetallic pipes are used, that they be wTapped ~vith the appropriate
non-corrosive materials.
7.7 Exterior Flatwork
Exterior concrete flatwork should have a minimum thickness of4-inches, unless otherwise specified.
To reduce the potential for distress to exterior flatwork caused by minor settlement of foundation
soils, we recommend that such flatwork be instailed with crack-control joints at approp~iate spacing
as desired by the structural engineer. Flatwork, such as driveways, sidewalks, and architectural
features, should be installed with crack con[rol joints. All subgrades should be prepared in
accordance with the earthwork recommendations previousiy given prior to placing conerete. Positice
drainage should be established and maintained adjacent to all flat~vork.
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' Preliminary Geotechnical Investigation Page 21
Proposed Creekside Centre
I Overland Dr. & Nicole Ln., Temecula, CA
December 14, 2004 CTE Job No. 40-1758
, 7.8 Drainaee
Surface run-off should be collected and directed off-site by means of appropriate erosion reducing
, devices. Roof gutters and downspouts should be installed on the completed structures and positive
' drainage should be established. Positive drainage is defined as drainage away from structures at a
, gradient of at least 2 percent for a distance of at least 5 feet. The project civil engineer should
thoroughly evaluate the on-site drainage and make provisions as necessary to keep surface water
' from entering the structure areas.
~I
, 7.9 Plan Review
, CTE should review project grading and foundation plans before the start of earthworks to identify
potentiai conflicts with the recommendations contained in this report.
'
, 8.0 LIMITATIONS OF INVESTIGATION
, The recommendations presented herein are preliminary in nature and may be subject to change based
, on further evaluation and additional information discovered during the completion of this
investigation.
'
, The recommendations provided in this report are based on the anticipated construction and the
subsurface conditions found in our explorations. The interpolated subsurface conditions should be
checked in the field during construction to verify that conditions are as anticipated.
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Proposed Creekside Centre
' Overland Dr. & Nicole Ln., Temecula, CA
December 14, 2004 CTE Job No. 40-1758
'
Recommendations provided in this report are based on the understanding and assumption that CTE
, will provide the observation and testing services for the project. All earthworks should be observed
, and tested [o verify that grading activity has been performed according to the recommendations
' contained within this report. The project geotechnical engineer should evaluate all footing
excavations prior to reinforcing steel placement.
,
' The field evaluation, laboratory testing and geotechnical analysis presented in this report have been
conducted according to current engineering practice and the standard of care exercised by reputable
' geotechnical consultants performing similar tasks in this area. No other warranty, expressed or
' implied, is made regarding the conclusions, recommendations and opinions expressed in this report.
Variations may exist and conditions not observed or described in this report may be encountered
' during construction.
'
, Our conclusions and recommendations are based on an analysis of the observed conditions. If
conditions different from those described in this report are encountered, our office should be not;fied
' and additional recommendations, if required, will be provided upon request. CTE should review
' project specifications for all earthwork, foundation, and shoring-related activities prior to the
solicitation of construction bids.
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Overland Dr. & Nicole Ln., Temecula, CA
December 14, 2004
Page 23
CTE 7ob No. 40-1758
We appreciate [his opportunity to be of service on this project. If you have any questions regarding
this report, please do not hesitate to contac[ the undersigned.
Respectfully submi[ted,
CONSTRUCTION TESTING & ENGINEERING, INC.
odn~~~GE #2173
Geotechnicai Engineering Manager
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Staff Geologist
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~
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BY F[LTER FABRIC (VtIRAFi
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RETAINING ~VALL DETAIL
DEC 200~ ~ 3
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~ APPENDIX A
~ REFERENCES
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REFERENCES
' l. Blake, T. F., 1997, "EQFAULT," Version 3.000 Thomas F. Blake Computer Services and Software.
~ 2. Califomia Department of Conservation Website, 1999, California Strong-Motion -nstrumentation
Program (CSMIP), www.consrv.ca.eov.
~ 3. Califomia Division of Mines and Geology, ( 997, "Guidelines for Evaluating and Mitigating Seismic
Hazards in Califomia," Speciai Publication 1] 7.
~ 4. Califomia Test Method 643, 1978, Method for Estimating the Service Life of Steel Culverts,
Department of Transportation, State of California.
5. Day, R. W., 1999, Geotechnical and Foundation Eneineerin ,~ Desi~n and Construc[ion.
~~
6. Duncan, J.M., and Buchignani, A.L., 1976, An Engineering Manual For Settiement Studies, from
_ Luther Davidson Lecture.
" 7. Hart, Earl W. and Bryant, W.A., Revised 1997, "Fault-Rupture Hazard Zones in California, Alquis[-
Priolo Earthquake Fault Zoning Act with Index to Earthquake Fault Zones Maps," Califomia Division
'~ of Mines and Geology, Special Publication 42.
8. Kennedy, M.P., 1977, Geologic Map of the Elsinore Fauh Zone, Southern Riverside County.
~, California.
9. Kennedy, M.P., 1977, Recency and Character of Faulting Along the Elsinore Fault Zone in Southern
Riverside County, California Division of Mines and Geology, Special Report 131.
10. Petra Geotechnical, lnc., 2001, Geotechnical Investigation, 37-Acre Commercial Parcel Located West
~ of Margarita Road and South of Overland Drive, City of Temecula, Riverside County, California.
January 26, 2001.
;,' I L Rogers, Thomas H., 196~, Geologic Map of California, Santa Ana Sheet, Fifth Printing 198~, Scalz
R i:zso,ooo.
I 2. Seed, H.B., Tokimatsu, K., Harder, L.F., and Chung, R.M., 1984, [nfluence of SPT Procedures in Soil
'~,i Liquefaction Resistance Evaluations.
13. Southern California Earthyuake Center, University of Southem California; 1999; Recommendzd
~ Procedures for Implementation of DMG Special Publication 117 Guidelines for Anal}zing and
Mitigating Liquefaction Hazards in California.
14. Uniform Building Code, 1997, Chapters 16 and 19.
I5. Webb, R.W. and Norris, R.M., 1990, Geology ofCalifornia.
1
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~ APPENDIX B
1 FIELD EXPLORATION METHODS AND BORINGS LOGS
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, APPENDIX B
FIELD EXPLORATION METHODS AND BORINGS LOGS
~ Soil Borine Methods
Relativelv "Undisturbed" Soil Samnles
~ Retatively "undisturbed" soil samples were collected using a modified California-drive sampler (2.4-
inch inside diameter, 3-inch outside diameter) lined with sample rings. Drive sampling was
conducted in genetal accordance with ASTM D-3550. The steel sampier was driven into the bottom
~ of the borehole with successive drops of a 140-pound weight falling 30-inches. Blow counts (N)
required for sampler penetration are shown on the boring logs in the column `Blows/Foot." The soil
was retained in brass rings (2.4 inches in diameter, 1.00 inch in height). The samples were retained
~ and carefully sealed in waterproof plastic containers for shipment to the Construction Testing &
Engineering ("CTE") geotechnical laboratory.
~' Disturbed Soil Samnling
Buik soil samples were collected for laboratory analysis using two methods. Standard Penetration
,_ Tests (SPT) were performed according to ASTM D-1586 at selected depths in the borings using a
'~ standard (1.4-inches inside diameter, 2-inches outside diameter) split-barrel sampler. The steel
sampler was driven into the bottom of the borehole with successive drops of a 140-pound weight
falling 30-inches. Blow counts (N) required for sampler penetration are shown on the boring logs in
~ the column "Blows/Foot." Samples collected in this manner were placed in sealed plastic bags.
Bulk soil samples of the drill cuttings were also collected in large plastic bags. All disturbed soil
~ samples were returned to the CTE geotechnical laboratory for analysis.
~
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CONSTRUCTION TESTING & ENGINEERING, INC.
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S' e GEOTECHNIC.~L ANO CONSTRUCTION ENGINEERING TESTING ~N~ INSPECTION
~ 3~1~ VINEYARD ~VENUE. SUItE G ESCONDI00 fw.91n391t.1v) l~fi~~93f
[r+cL~FHUNCIr+c
PROJECT: Crmkside Rctail Crnter DRILLHR: 2R Drilling SHEET: 1 of 3
CTE JOB NO: 40-1758 DRILL METHOD: 8" HSA/SPLITSPOON DRILLMG DATE: 11/10/04
LOGGED BY: R. Ellerbusch SAMPLE METHOD: 140 LB / 30" ELEVpTION: As buill pad
~ " a
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° " F ~ ' " " ~ BORING: B-1 Laboratory Tests
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so rock in sampler shoe
------- - - ----------------------------------------------
Ouaternarv Pauba Formation - Sands[one (Ops)
-~ e WA (33°.o flnes)
9 i> 9 SM Medium Dense, Moist, Li~tht Oran~e-Brown. ~I
6 Fine Siltv SAND
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PROIECT: Creeksido Retail Cenrer DRILLER: 2R Drilling SHEET: 2 of 2
CTE JOB NO: 40-1758 DRILL METHOD: 8" HSA/SPLITSPOON DRILLMG DATE: I I/10/04
LOGGED BY: R. Elicrbusch SAMPLE METHOD: 140 LB / 30" ELEVATION: As built pad
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Borin~ terminated at 26.5 ft.
No Groundwater encountered.
Borina backfilled wi[h soil cunin~s.
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CTE JOB N0: 40-1758 DRILL METHOD: 8" HSA/SPLITSPOON DRILLMG DATE~. I I/10/04
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iz with some oreanic content .
------- ---------------------------------------------------------------
Ouaternarv Pauba Formation - Sandstone (pps)
SM Medium Dense, Moist, Oranee-Brown. Fine
Silri SAND
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CTE J08 NO: 40-1758 DRILL METHOD: 8" HSA/SPLITSPOON DRILLING DATE: 11/10/04
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3 ------- - ---------------------------------------------------------------
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i9 5.5 SP-SM Dense, Damp, Li~ht Brown Poorlv-eraded M
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PROIECT: Creeksidc Rctail Ccnter DRILf,ER: 2R Drilling SHEET: 3 Of 3
CTE JOB N0: 40-1758 DRILL METHOD: 8" HSA/SPLITSPOON DRILLMG DATE~. I I/10l04
LOGGED BY: R. Ellerbusch SAMPLE METHOD: 140 LB / 30" ELEVATION: As bui~t pad
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0 9
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Borine terminated at 51.5 ft.
Groundwater encountered at 49 ft.
BorinR backfilled with soil cuttin~s and
benronite chips.
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CTE JOB NO: 40-1758 DRILL METHOD: B" HSA/SPLITSPOON DRILLMG DATE: 11/10/04
LOGGED BY: R. Ellerbusch SAMPLE METHOD: 140 LB / 30" ELEVATION: As built pad
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33 SAND AL(LL=26, PI=8)
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6 SAND WA (35°o fines)
------- - - ----------------------------------------------
Ouaternarv Pauba Forma[ion - Sandstone (Oas)
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weaklvi cemented
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Borino terminated at 21.~ ft.
No Groundwater encountered.
Borino backfilled with soil cuttinos.
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PROIECT: Cmcksidc Retail Crnter DRILLER: 2R Driliing SHEET: I Of I
CTE JOB NO: 40-1758 DRILL METHOD: 8" HSA/SPLITSPOON DRILLRJG DATB: 1 I/10/04
LOGGED BY: R. Elkrbusch SAMPLE METHOD: 140 LB / 30" ELEVATION: As built pad
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Borin~ terminated a[ 21.5 ft.
No Groundwater encountered.
Borino backfilled with soil cuttin~s.
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CTE JOB NO: 40-1758 DRILL METHOD: B" HSA/SPLITSPOON DRILLMG DATE: I I/10/04
LOGGED BY: R. EIIerEusch SAMPLE METHOD: 140 LB / 30" ELEVATION: As built pad
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26 SAND, siiehdv coarser
------- - - - - - ----------------------------------
Ouaternsrv Pauba Formation - Sandstone (Oas)
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22 I23.o io.o SM Very Dense, Moist. Tan. Siltv SAND MD
aa cemented W A( I 8% fines)
5 ------- --------------------------------------------------------------
6
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i0 to Siltv SAND WA (53% fines)
0 ------- -------------------------------------°°----------------------
6
S ia.3 Sn4 Medium Dense, Mois[, Oranee-Brown Siltv M
9 AND
Borine terminated at 21.5 ft.
No Groundwa[er encountered.
Borin¢ backfilled with soil cuttines.
FIGURE: B-5
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e t~I~VINEYARDAVENUE.5l11TEG ESCONDI~OCG.910t9~>6tl)1~6~~9J1
PROJECf: CreekSide Relail Crntef DRILLER: 2R Drilling DRILLING DATE:
CTElOBNO: 40-1758 DRILLf.¢THOD: 8"HOLLOWSTEMAUGER II/10/2004
LOGGEDBY: R.Ellerbusch SnI~LEPAETHOD: DRIVE
NORMALIZED BLOW COUNT SUMMARY
aampier t,onverson
SPT Blow Count = 0.62' MoCified California Blow Count
SPT = 0, Mod. Cal = 1
Sampler Corrections
CH Overburden Pressure, CN =(P,/a'~)'~~, where Pa=2000 psf
CE Energy Ratio, CE = 1 A(Aulo Trip Hammeq
Ca Borehole Diameter, CB = 1.0 (hollow stem)
Cq Rod Length, CR = 0.75, 0.85, 0.95 for lengths < 33'; 1.0 for lengihs > 33'
Cs Sampler Liner Correction, CS = 72 (Sampler w/o lineq
Cp Dia (type) of Sampler, SPT Blow Counl = 0.62 ' Modified Calitomia Blow
Average
Borehole Number Normalized
Depth (N) Normalized 8lowcounts per Depth
B-1 B-2 B-3 B-4 B-5 Nfio
2.5 65 52 79 43 53 58
5 35 26 44 71 54 46
7.5 37 37
10 20 49 16 53 50 37
15 29 18 30 55 11 29
20 15 21 20 25 18 20
25 23 23 23
30 33 33
35 21 21
40 24 24
45 43 43
50 10 10
55
60
65
70
75
80
85
90
Avera e Normalized er Borehole
29 38 49 37
Averaae Normalized Vertical Profil~
Soil Profile
SD
FIGURE: NB-I
E:\PROJECTS~LIQUIFACTION CHARTS\40-1758 Normalize 81ow Counts.XLS
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' GEOTECNNICAL ANO CONST0.UCTtON ENGINEERING TEStING ~NOINSPECTION
p L1~ VINEY~RU I.VENUE. SURE G ESCONDI~O CI.. 9303a O60) 1~6-~9ff
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P0.0JECf: CrceASidc Retail Ccn[er DRILLER: 2R Drilling DRILLMG DA7E: I I/102004
' ~ CTE JOB NO: 40-1758 DRILL A~THOD: 8" HOLLOW STEM AUGER
LOGGED BY: R. EllcrbuSCh SAMPLE METHOD: DRIVE BOREHOLE: I
NORMALIZE BLOW COUNTS
~ Depth ro GW ~
I Dw = 49.0 ft
~ UNIT WEIGHT WET 142
Sampler Conversion
SPT Blow Count = 0.62' Modified California Blow Count
~. ~ SP7 = S, Mod. Cal = C
Sampler Corrections'
CH Overburden Pressure, CN =(P,/d~)°0, where Pa=2000 pst
CE Energy Ratio, CE = 1.0 (Auto Trip Hammer), BO/60
Ca Borehole Diameter, CB = 1.0 (hollow stem)
CR Rod Length, CR = 0.75, 0.85, 0.95 for lengths < 33'; 7.0 for lengths > 33'
CS Sampler Liner Correction, CS = 1.2 (Sampler w/o liner)
Co Oia (type) of Sampler, SPT Blow Count = 0.62 ' Modified Califomia Blow
Soil Profle Dala: Corrections Normalized
f1 Nm SPT~S OVERBOROEN ENE(!GY BOREOIA RODLENGiN MEiH00 TYPE
Depth Blow Rod Sleeved Type a'~ CH CE Ca CR Cs Co Nao
Sample Count Leng(h SPT? Sampler (ps~
' 2.5 44 FROM B-1 10 N C 355 2.37 7.33 1.00 0.75 1.00 0.62 65
5 34 FROM B-7 10 N ~ C 710 1.68 1.33 1.00 0.75 1.00 0
62 35
I 7.5 43 FROM B-7 10 N C. 1065 1.37 1.33 1.00 075 7.00 .
0.62 37
~ 10 . 27 FROM B-1 ~ t0 N C 1420 1.19 7.33 1.00 075 1.00 0.62 20
- 15 48 FROM B-1 10 N C ~ 2130 0.97 7.33 7.00 075 1.00 0.62 29
I 20 75 FROM B-1 10 ~ N S 2840 0.84 1.33 1.00 0.75 1.20 1.00 15
' 25 25 FROM 8-1 10 N S 3550 075 1.33 1.OD 075 720 1.00 27
30 FROM 8-1 4260 0.69 1.33 1.00 0.75 0.00 0.00
I 35 FROM 8-1 4970 0.63 1.33 1.00 0.75 0.00 0.00
40 FROM B-1 5680 0.59 7.33 7.00 0.75 0.00 0.00
45 FROM B-1 6390 0.56 1.33 1.00 0.75 0.00 0.00
~ I 50
55 FROM B-1
FROM B-1 7038
7436 0.53
0.52 1.33
7.33 1.00
1.00 0.75
0.75 0.00
0.00 0.00
0.00
~ 60 FROM B-1 7834 0.57 7.33 1.00 0.75 0.00 0.00
65 FROM B-1 8232 0.49 1.33 7.00 0.75 0.00 0.00
I 70 FROM B-1 8630 0.48 1.33 1.00 0.75 0.00 0.00
~ 75 FROM B-1 9028 0.47 1.33 1.00 0.75 0.00 0.00
- 80 FROM B-7 9426 0.46 1.33 1.00 0.75 0.00 0.00
~ 85 FROM B-1 9824 0.45 1.33 1.00 0.75 0.00 0.00
, 90 FROM B-1 10222 0.44 1.33 1.00 0.75 0.00 0.00
~
~
~'Relerence: DMG SPECIAL PUBLICATION 11]
~
Average Normalized Blowcount for this Boring = 32
~ ( ~
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F^i ~ GEOTECHNICAL eN0 CONSTRUCiION ENGINEE0.ING TESTING ~ND INSPECTION
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C~ 3~I~ VINEY~0.D AVENUE. SUITE G ESLONDIDO CA.93039 (]60) t~fi~~915
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PROIECT: Crcekside Retail Crnler DRILLER: 2R Drilling ORILLMG DnTE: 11/102004
CTE J08 NO: 40-USB DRILL Fff7HOD: 8" HOLLOW STEM AUGER
LOGGEDBY'. R.EIICIbUSCh SAMPLEhffTHOD: DRIVE BOREHOLE: 2
NORMALIZE BLOW COUNTS
. Depth to GW
Dw = 49.0 R
UNIT WEIGHT WET 140
'~ Sampler Conversion
~ SPT Blow Count = 0.62' Modified Califomia Blow Count
SPT = S, Mod. Cal = C
Sampler Corrections'
CH Overburden Pressure, CN =(P,/a'~)'~, where Pa=2000 pst
CE Energy Ratio, CE = 1.0 (Auto Trip Hammer), 80/60
Ca Borehole Diameter, CB = 7.0 (hollow slem)
Cq Rod Length, CR = 075, 0.85, 095 for lengths < 33'; i A for lengths > 33'
Cs Sampler Liner Correction, CS = 12 (Sampler w/o liner)
Cp Dia (rype) of Sampler. SPT Blow Count = 0.62' Modified California Blow
Soil Profile Data: Corrections ~ Normalized
~ X Nm SPT:S OVEHBUROEN ENERGY BORE01~ ROpLfNG1M MEiX00 TYGE
Depth Blow Rod S~eeved Type a~ CN CE Ce ~a ~s ~o Nca
-Sample Count Length SPT? Sampler (psQ
~ 2.5 35 FROM B-2 10 N C 350 2.39 1.33 1.00 0.75 7.00 0.62 52
5 27 FROM B-2 10 N C 700 1.69 7.33 1.00 0.75 1.00 0.62 28
I 7.5 FROM B-2 1050 1.38 1.33 7.00 0.75 0.00 0.00
~ 70 66 FROM B-2 10 N C 1400 1.20 1.33 1.00 0.75 1.00 0.62 49
" _ 15 30 FROM B-2 1 ~ N C 2100 0.98 1.33 1.00 0.75 1.00 0.62 18
I 20 21 FROM B-2 10 N S 2800 0.85 1.33 1.00 0.75 1.20 1.00 27
~ 25 25 FROM B-2 10 N S 3500 0.76 1.33 1.00 0.75 1.20 1.00 23
30 ~ 40 FROM 8-2 10 N S 4200 0.69 1.33 1.00 0.75 1.20 1.00 73
I 35 28 FROM B-2 10 N S 4900 0.64 1.33 1.00 0.75 1.20 1.00 21
~ 40 - 34 FROM B-2 70 N S 5600 0.60 1.33 1.00 0.75 1.20 1.00 24
45 64 FROM B-2 70 N S 6300 0.56 7.33 1.00 0.75 1.20 1.00 43
50 15 FROM B-2 ~ 10 N 5 6938 0.54 1.33 1.00 0.75 120 1.00 10
I 55 FROM B-2 7326 0.52 1.33 1.00 0.75 0.00 0.00
~ 60 FROM B-2 7714 0.57 1.33 1.00 0.75 0.00 0.00
65 FROM 8-2 8102 0.50 7.33 1.00 0.75 0.00 0.00
I 70 FROM B-2 8490 0.49 1.33 1.00 0.75 0.00 0.00
, 75 FROM B-2 8878 0.47 1.33 1.00 0.75 0.00 0.00
" 80 FROM B-2 9266 0.46 1.33 1.00 075 0.00 0.00
I 85 FROM B-2 9654 0.46 1.33 1.00 0.75 0.00 0.00
, 90 FROM B-2 10042 0.45 1.33 1.00 0.75 0.00 0.00
r
~
~~'ftelemnre~. OMG SPECIAL PVBLICAiION 11]
'
Average Normalized Blowcount for this Boring = 29
URE:I NB-3
~
~~
~
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~ CTE lOB NO:
LOGGEDBY~.
~ONSTRUCTION TESTING & ENGINEERING, INC.
~ q0 GEOTECNNICAL ~NU CONITRUCTION ENGINEERING TESTING ~NO INSPECTION
~ ~ UI~ VINEY~0.~ AVENUE. SURE G ESCONOIOO CA. 93039 (1fi0~ )~6-~9U
Q:GWEFLI:GIVC
Crcekside Retail Ccn[er DRILLER: 2R Drilling
40-1758 DRILL t~neTHOD: 8" HOLLOW STEM AUGER
R.Elkrbusch SnMPLEn~THOD: DRIVE
~' Depth to GW
Dw = 49.0 ft
UNIT WEIGHT WET 743
~ Sampler Conversion
SPT Blow Count = 0.62
, SPT = S, Mod. Cal = C
NORMALIZE BLOW COUNTS
DRILLMG DATE: I I/102004
BOREHOLE: }
Sampler Corredions'
CH Overburden Pressure, CN =(P,/a'~,)'~~, wheie Pa=2000 psf
CE Energy Ratio, CE = 7.0 (Auto Trip Hammer), 80/60
Ca Borehole Diameter, CB = 1.0 (hollow stem)
Cq Rod Length, CR = 075, 0.85, 0.95 for lenglhs < 33'; 1 A for lengths > 33'
Modified Cali(omia Blow Count Cs Sampler Liner Correction, CS = 12 (Sampler w/o liner)
Cp Dia (type) o( Sampler, SPT Biow Count = 0.62' Modified California Blow
Soil Profile Data : Corrections Normalized
I ry Nm SPT•5 OVERB~R~EN ENERGY BOREOU qODLENGTH METn00 ivpE
Depth Blow Rod Sleeved Type a'~ C„ CE Ca CR Cs Co Nco
Sample Count Length SPT? Sampler (ps~
~ 2
5 54 FROM B
3
. - 10 N C 358 2.37 1.33 7.00 075 1.00 0.62 79
~ 5 42 FROM 83 10 N C 715 1.67 1.33 1.00 0.75 1.00 0.62 44
I ).5 FROM B-3 1073 1.37 1.33 1.00 0.75 0.00 0.00
~ 10 11 FROM B3 10 N S 1430 1.1 B 1.33 1.00 0.75 120 1.00 16
- 15 26 FROM B3 10 - N S 2145 0.97 1.33 1.00 075 1.20 1.00 30
~ I 20
25 20 FROM 8-3
FROM B-3 10 N S 2860
3575 0.84
0.75 1.33
1.33 1.00
1.00 0.75
0.75 1.20
0.00 7.00
0.00 20
30 FROM 8-3 4290 0.68 1.33 7.00 075 0.00 0,00
I 35 FROM 8-3 5005 0.63 1.33 1.00 0.75 0.00 0.00
~ 40 FROM 83 5720 0.59 1.33 7.00 0.75 0.00 0.00
45 FROM B-3 6435 0.56 1.33 1.00 0.75 0.00 0.00
I 50 FROM B-3 7088 0.53 7.33 1.00 0.75 0.00 0.00
~ 55 FROM 83 7491 0.52 1.33 1.00 0.75 0.00 0.00
60 FROM B3 7894 0.50 1.33 7.00 0]5 0.00 0.00
65 FROM B-3 8297 0.49 1.33 1.00 0.75 0.00 0.00
I 70 FROM B-3 8700 0.48 1.33 1.00 0.75 0.00 0.00
~ 75 FROM B-3 9103 0.47 1.33 1.00 0.75 0.00 0.00
~ 80
85 FROM 83
FROM B-3 9506
9909 0.46
0.45 1.33
1.33 1.00
1.00 0.75
0.75 0.00
0.00 0.00
0.00
90 FROM B-3 70312 0.44 7.33 7.00 075 0.00 0.00
w
,
~'Relerence OMG SPECIAL PUBLICATION N i
,
~
Average Normalized Biowcount for this Boring = 3e
~ \
~~
~ ~.1
~~ ~CONSTRUCT[ON TESTING & ENGINEERING, lNC.
GEOTECMNIC.~L AND CONST0.UCTION ENGINEERING TESTING ANO INSPECT~ON
e LI~ VINEYARO AVENOE. fUITE G ESCONDIDO C.~ V10I9 (l60) ]~6~~Vff
FTGQ+tFLAGPI[ _
PROIECf:
ICTEIOB NO:
~ LOGGED BY:
~
Crcckside Rctail Ccntcr
40-1758
R. Elkrbusch
DRILLER: 2R D~illing
DRILL R~'HOD: 8" HOLLOW STEM AUGER
SAMPLEA~THOD: DRIVE
DRILLMG DATE: ~ ~/102004
anacuro c
NORMALIZE BLOW COUNTS
Depth to GW
Dw = 49.0 ft
UNIT WEIGHT WET 140
~ Samplei Conversion
SPT Blow Count = O.fi2' Modified California Blow Coun[
, SPT = S, Mod. Cal = C
Sampler Correclions•
CN Overburden Pressure, CN =(P,la'~)'n, where Pa=2000 psf
CE Energy Ratio, CE = 1 A(AUto Trip Hammer), 80/60
Ce Borehole Diameter, CB = 1.0 (hollow stem)
CR Rod Length, CR = 0.75, 0.85, 0.95 for lengths < 33'; 1.0 for lengths > 33'
Cs Sampler Liner Correclion, CS = 1.2 (Sampler w/o liner)
C^ Dia (type) of Sampler, SPT Blow Count = 0.62 ' Modifed Califomia Blow
~al Profile Data: Corrections ~ Normalized
~~ Nm SPT•S OVEFBUROEN ENEPGV BOREOIL RODLENGTH METHOD TYPE
I Depth Blow Rod Sleeved Type a'~ CH CE Ca Cq Cs Co Nco
Sample Count Length SPT? Sampler (ps~
~ 2.5 15 fROM B-4 10 N ~ S 350 2.39 1.33 1.00 0.75 120 1.00 4J
5 35 FROM 84 10 N S 700 1.69 1.33 1.00 OJS 1.20 1
00 71
I 7.5 FROM B~ - 1050 1.38 7.33 7.00 075 0.00 .
0.00
~ 70 37 FROM B-4 10 N S 1400 1.20 1.33 7.00 0.75 1.20 1.00 53
- 15 47 FROM B-0 10 ~ N S 2100 0.98 1.33 7.00 OJS 120 1.00 55
I 20 25 FROM 8-4 10 . N S 2800 0.85 1.33 1.00 0.75 1.20 1.00 25
~ 25 FROM B-4 3500 0.76 7.33 1.00 0.75 0.00 0.00
30 FROM B-4 4200 0.69 7.33 1.00 0.75 0.00 0.00
I 35 FROM B-4 4900 0.64 1.33 1.00 0.75 0.00 0.00
1 40 FROM 8-4 5600 0.60 1.33 1.00 0.75 0.00 0.00
45 FROM B-4 6300 0.56 7.33 1.00 0.75 0.00 0.00
~ 50
55 FROM B-4
FROM B-4 6938
7326 0.54
0.52 1.33
1.33 1.00
1.00 0.75
0.75 0.00
0.00 0.00
0.00
60 FROM B-4 7714 0.51 1.33 1.00 0.75 0.00 0.00
65 FROM B-4 8102 0.50 1.33 1.00 0.75 0
00 00
0
~ 70 FROM B-4 8490 0.49 1.33 1.00 0.75 .
0.00 .
0.00
75 FROM B-4 8878 0.47 1.33 7.00 0J5 0.00 0.00
- 80 FROM B-4 9266 0.46 1.33 1.00 075 0.00 0.00
~ 85 FROM B-4 9654 0.46 1.33 1.00 0.75 0.00 0.00
90 FROM B-4 10042 0.45 1.33 7.00 0.75 0.00 0.00
±~
~
, ~elerence. pMG SPECIAL PUBLICATION 11].
~
Average Normalized Blowcount for this Boring = a9
N B-5
,
6~1
1
~" ~CON3TRUCTION TESTING & ENGINEERING, INC.
' # ~ GEOTECHNIUL AND CONST0.UCTIDN ENGINEERING TESTING AND INSFECTION
~ LI~VINEYAROAVENOE.SUREG ESCONOIOOCA.Y3~39(l6U)>~6~~9ff
FAGVRAI.~'GIVC
PROJECT: Crcckside Relail Ccn[cr DRILLER: 2R Driliing
~ CTE JOB NO: 40-1)58 DRILL METHOD: 8" HOLLOW STEM AUGER
LOGGED BY: R. Ellerbusch SAMPLE h¢THOD: DRIVE
NORMALIZE BLOW COUNTS
' Depth to GW
Dw = 49.0 ft
~ UNIT WEIGHT WET 134
Sampler Conversion
SPT Blow Count = 0.62 ' Modified California Blow Count
~~ SPT = S, Mod. Cal = C
DRILLMG DATE: I I/IOQ004
BOREHOLE~. 5
Sampler Correclions' ~
CH Overburden Pressure, CN =(P,/a'~,)"~, where Pa=2000 pst
CE Energy Ratio, CE = 1A (Auto Trip Hammer), 80/60
Ca Borehole Diameter, CB = 1.0 (hollow stem)
CR Rod Length, CR = 0.75, 0.85, 0.95 for lengths < 33'; 1.0 for lengths > 33'
Cs Sampler Liner Correction. CS = 12 (Sampler w/o liner)
Cp Dia (type) of Sampler, SPT 81ow Count = 0.62 ' Modifed Caiifomia Blow
Soil Profile Data: Corrections Normalized
tl Nm SPT•5 OVERBUROEN ENERGV BOREDU ROOLENGTX METMOO TYPE
' Depth Blow Rod Sleeved Type a'~ C„ CE Ca Cq Cs Co Nw
Sample Count Length SP7? Sampler (ps~
' 2.5 35 FROM 8-4 10 N C 335 2.44 1.33 1.00 075 7.00 0.62 53
~ I 5
7.5 50 FROM B-4
PROM B-4 10
10 N
N C
C 670
7005 1.73
1.47 1.33
1.33 1.00
1.00 0.75
075 7.00
1.00 0.62
0.62 54
' 70 66 FROM B-4 10 N C 1340 7.22 1.33 1.00 0.75 1.00 0.62 50
° 15 17 FROM B-4 10 N C 2010 1.00 1.33 7.00 0.75 1.00 0.62 N
I 20 17 FROM B-4 10 N S 2680 0.86 7.33 1.00 0.75 1.20 1.00 18
~ 25 FROM B-4 3350 0.77 1.33 1.00 0.75 0.00 0.00
30 FROM 8-4 4020 0.71 1.33 1.00 0.75 0.00 0.00
I 35 FROM B-4 4690 0.65 7.33 1.00 0.75 0.00 0.00
~ 40 FROM B-4 5360 0.67 7.33 1.00 0.75 0.00 0.00
45 FROM B-4 6030 0.58 1.33 1.00 0.75 0.00 0.00
I 50 FROM B-4 6638 0.55 1.33 1.00 0.75 0.00 0.00
55 FROM B-4 6996 0.53 1.33 7.00 0.75 0.00 0.00
~ 60 FROM B-4 7354 0.52 1.33 1.00 0.75 0.00 0.00
I 65
70 FROM B-4
fROM B-4 7712
8070 0.51
0.50 1.33
7.33 1.00
1.00 0.75
0.75 0.00
0.00 0.00
0.00
, 75 FROM B-4 8428 0.49 1.33 7.00 0.75 0.00 0.00
~ 80 FROM 8-4 8786 0.48 1.33 1.00 075 0.00 0.00
I 85 FROM B-4 9144 0.47 7.33 1.00 0.75 0.00 0.00
~ 90 FROM B-4 9502 0.46 7.33 1.00_ 075 0.00 0.00
~5
, 'Re(erence: OMG SPECIAL PUBLICATION 11]
Average Normalized Blowcount for this Boring = 37
~'
~ FicuaE: uB-~
,
, ~
,
~
' APPENDIX C
~ LABORATORY METHODS AND RESULTS
~
'
~
~
~
1
1
1
1
1
1
r
' ~~
'
APPENDIX C
~ LABORATORY METHODS AND RESULTS
Laboratory tests were performed on representative soil samples to detect their relative
engineering properties. Tests were performed following test methods of the American
, Society for Testing Materials or other accepted standards. The following presents a brief
description of the vazious test methods used. Laboratory results are presented in the
~ following section of this Appendix.
Classification
Soils were classified visually according to the Unified Soil Classification System. Visual
~ classifications were supplemented by laboratory testing of selected samples according to
AS'fM D2487.
~
Particle-Size Analvsis
Particle-size analyses were performed on selected representative samples according to ASTM
~ D422.
Atterber¢ Limits
~ The procedure of ASTM D 4318 was used to measure the liquid limit, plastic limit and
plasticity index of representative samples.
~ Expansion Index
Expansion testing was performed on selected samples of the.matrix of the onsite soils
~ according to Building Code Standard No. 29-2.
In-Place Moisture/Densitv
, The in-place moisture content and dry uni[ weight of selected samples were determined using
relatively undisturbed chunk soil samples.
~ Direct Shear
Direct shear tests were performed on either samples direct from the field or on samples
recompacted to 90% of the laboratory maximum value overall. Direct shear testing was
, performed in accordance with ASTM D3080 -72 to evaluate the sheaz strength characteristics
of selected materials. The samples were inundated during shearing to represent adverse field
conditions.
LJ
,
~
'
~ ~
~ Modified Proctor
Laboratory compaction tests were performed according to ASTM D1557. A mechanically
~ operated rammer was used during the compaction process.
~ Resistance "R"-Value
The resistance "R"-value was determined by the California Materials Method No. 301 for
representative subbase soils. Samples were prepared and exudation pressure and "R"-value
~ determined. The graphically determined "R"- value at exudation pressure of 300 psi is the
value used for pavement section calculation.
~
'
~
~
~
r
~
r
~
~
~
i
~
~
~
' S`
TABLE G1
Maximum Dry Density and Optimum Moisture Content
(ASTM D 1557)
Job No. Test Location Soil Description Maxiroum Optimtim
Dry Density Moisture
(pc~ Content (°/a)
40-1758 B-I @ 2-Sft. Red-Brown Clayey SAND I33.4 7.6
(fill)
TABLE C-2
Direct Shear Test Results
Job No. Test Location Soil Description Cohesion Phi Angle
(ps~ (degrees)
40-1758 B-2 @ Sft. Red-Brown Silty Clayey 0 42
SAND (fill)
Red-Brown Clayey SAND
40-1758 B-1 @ ~.Sft. (fll) 0 36
TABLE C-3
Expansion Index Test Results
(UBC Standard No. 18-2)
1ob No. Test Location Soil Description Expansion Expansion
Index Potential
40-1758 B-I r~i ?-Sft. Red-Brown Clayey SAND Id Very Low
(fill)
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Type of Material:
Source of Material:
n0actor Air Pressure, tt.lbs.
alMOisture, %a
t weigM and Dry weight, g
:er Atlded, ml
sture at Compaction, %
Ot Briquene anA Mo10, g
Of Mold. a
REPORT OF RESISTANCE'R' VALUE-EXPANSION PRESSURE
Job No. 40-7758 Job Name: Creekside Plaza
La bllnvoice No. 14737, C-3072
Sampled By: Rob E. Date November 15, 2004
~.eddish Bm ClaYey Sand Submitted By: Rob E. Date: November 30, 2004
-5@2-5' Testedl Calc.By: Stu Sloan Date: December 2, 2004
al 301 Reviewed By: Douglass Johnston Date; December 2, 2004
i2 ii io
a5o 2z5 iao Exudation 21
4.5% 4.5 % 4.5 %
Expansion 64
60 70 80
s.~ io.s iis R-value 21
2049 1 2062
Wt. Of Briquitte,g 1137 1112 1278 TI 4.5
Height of Bnquette, in 2.44 2.42 2.69 Expansion 64
Initial Wt. Sample,g
Dry wt. Sample, g
Wet WL Sample, g
-- .__---. ..-- ----- --._ - -------._ .._---
.._. . .... .._._ - --
---
. R VALUE @ 700 LBS/IN2
1.5 . . ._.. _ _ . ____ ~_ _:-. _.. _ .... .. . ,. _ _ _ ;
' . ._. __._.
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0 0.5 t i.5 600 500 400 300 200 100
E%UDATION PRESSURE, LBS/IN]
. . . _ .... .. . .......... . . . . _
Cover Thickness by Expansion Pressure-Feet .. . _ _. .. ..
Expansion From Graph: 0.35
Douglass Jahnston
Laboratory Manager
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^..
E.S. BABCOCK
6 SONS, INC.
en.ew.a ~ooe
NELAP ~02f07CA ELApt1/56
6700 Quail Valley Court Riverside, CA 925p7-07pq
P.O. Box 432 Riverside, CA 925p2~z
PH (951) 653•3351 FAX (957) 653-1582
www.babcocklabs.com
Client Name: Construction Testing 8 Engineering, Inc.
Contact: Robert Ellerbach
Address: 12155 Magnolia Ave., Suite 6-C
Riverside, CA 92503
Report Date: 07-Dec-2004
Lab Samole # Ctient Samole ID Matrix
A4K1801-01 40-1758 B-2 @ 2'-4 Soil
' Creekside Plaza
Temecula
Analytical Report: Page 1 of 3
Project Name: Const. Test.-Soils
Project Number: [none]
Work Order Number: A4K1801
Received on Ice (YM): Yes Temp:
Sample Identification
Date Samoled ~
11/10/04 09:00
~EO ~N ACCOR09
` yc
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U ~
U -~
Q 2
Date Submitted ~
11/19/0416:30 Rob
Ellerbusch
o~
J~
' ' ``
~ ~ 6
~ I
NELAP 102701CA ELAp~~~~
6100 Ouail Valley CouM Riverside. CA 925p7.p7~y
P.O. Box 432 Riverside, CA 9ZSp2-0q~p
PH (951) 653-3351 FAX (g51) 853.7562
www.babcocklabs.com
Client Name: Construction Testing 8 Engineering, Inc. Analytical Report: Page 2 of 3
, Contact: Robert Ellerbach Project Name: Const. Test.-Soils
Address: 12155 Magnolia Ave., Suite 6-C Project Number: [none]
~ Riverside, CA 92503 Work Order Number: A4K1801
Report Date: 07-Dec-2004 Received on Ice (YM): Yes Temp: °C
, Laboratorv Reference Number
A4K1801-01
' Samole Descri otion Matrix Samoled DatelTime Received DatefTime
40-1758 B-2 @ 2'-4' Creekside Plaza Soil 11110/04 09:00 11/19/04 16:30
Temecula
'
Analyte(s) Result RDL Units Method Analysis Date Analyst Flag
' Saturated Paste
PH 72 0.1 pH Units S-1.10 W.S. 12/O6/04 18:35 imm
, Water Extract
Sulfate 95 10 ppm lon Chromat. 11l30/04 06:53 AA N-SAG,
N-WEX
'
,
,
'
'
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~ ~ ~
<~s
~ ~
._ _._..__. __ _..v d
NELAP l02101CA ELAPi1/58
"'-`.";+," "`t', ~. 6100 Ouail Valley Court Riverside. CA 92507-07p4
' P.O. Box 032 Hiverside, CA 92502-0q92
PH (951) 653-3351 FAX (951) 65,'i~1662
E.S. BABCOCK ~'~a~k~•~m
~ 8 SONS, INC.
En.eri.e~ooe
Client Name: Construction Testing & Engineering, Inc. Analytical Report: Page 3 of 3
' Contact: Robert Ellerbach Project Name: Const. Test.~oils
Address: 12155 Magnolia Ave., Suite 6-C Project Number: [none]
~ Riverside, CA 92503 Work Order Number. A4K1801
Report Date: 07-Dec-2004 Received on Ice (YM): Yes Temp: °C
~
Notes and De finitions
' N-WEX Analyte determined on a 1:10 water extract from the sample.
N-SAG Results reported in ppm are expressed on an air dried soil basis.
ND Analyte NOT DETECTED at or above the reporting limit (RDL)
' NR Not RepoRed
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~ RDL = Reportable Detection Limit MDL = Method Detection Limit
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, Approvai
Enclosed are the analytical results for the submitted sample(s). Babcock Laboratories certify the data presented as part oF
this report meet the minimum quality standards in the referenced analytical methods. Any exceptions have been noted.
Babcock Laboratories and its officers and employees assume no responsibility and make no warranty, express or implied,
' for uses or interpretations made by any recipients, intended or unintended, of this report.
'
~ ~ ~~
~ ames K. Babcock ~ Allison Mackenzie ^ Lawrence J. Chrystal
, President General Manager Laboratory Director
cc: ShoR ESB Report
`~O ~N ACCpqo'y
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APPENDIX D
EARTHOUAKE ANALYSIS
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40-1758 EQFAULT
#44kCrt********4**A44#R4
# #
* E Q F A U L T °
* version 3.00 *
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.a.c.¢r,r.~~rae+n.a+.aa.
DETERMINISTIG ESTZMATION OF
PEAK ACCELERATION FROM DIGITIZED FAULTS
JOB NUMBER: 40-1758
]OB NAME: PROPOSED RETAIL CENTER
CA~CULATION NAME: TeSt RUn And1y5i5
FAULT-DATA-FILE NAME: CDMGFLTE.DAT
DATE: 11-18-2004
SITE COORDINATES:
SITE LATITUDE: 33.5191
SITE LONGITUDE: 117.1536
SEARCH RADIUS: 100 mi
ATTENUATION RELATION: 15) Campbell & BOZOfgflld (1997 rtev.) - soft ROCk
UNCERTAINTY (M=Median, 5=5igma): M Number of Sigmas: 0.0
DISTANCE MEASURE: cdist
SCOND: O
aasement ~epth: 5.00 km Campbell 55R: 1 campbell SHR: O
COMPUTE PEAK HORIZONTAL ACCELERATION
FAULT-DATA FILE USED: CDMGFLTE.DAT
MINIMUM DEPTH VALUE (km): 3.0
Page 1
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40-1758 EQFAULT
---------------
EQFAULT SUMMARY
---------------
DETERMINISTIC SITE PARAMETERS
-----------------------------
ABBREVIATED
' FAULT NAME
ELSINORE-TEMECULA
' ELSZNORE-JULIAN
ELSINORE-GLEN IW
SAN JACINTO-SAN JACINTO VALLEY
SAN JACINTO-ANZA
~ NEWPORT-INGLEWOOD <offshore)
ROSE CANYON
CHINO-CENTRAL AVE. (E15inOre)
SAN JACINTO-SAN BERNARDINO
' WHITTIER
SAN JACINTO-COYOTE CREEK'
SAN ANDREAS - SOUth2~f1
SAN ANDREAS - San Bernardino
' EARTHQUAKE VALLEY
PINTO MOUNTAIN
NEWPORT-INGLEWOOD (L.A.Basin)
CORONADO BANK
' PALOS VERDES
SAN ANDREAS - COdChE113
ELYSIAN PARK THRUST
NORTH FRONTAL FAULT ZONE (W25t)
' CUCAMONGA
COMPTON THRUST
SAN JOSE
C~EGHORN
~ NORTH FRONTAL FAULT ZONE (East)
BURNT MTN.
SIERRA MADRE ,
EUREKA PEAK
' SAN ANDREAS - Mojave
SAN ANDREAS - 1857 Rupture I
SAN JACINTO - BORREGO
' ELSINORE-COYOTE MOUNTAIN
HELENDALE - 5. LOCKHARDT I
LANDERS ~
LENWOOD-LOCKHART-OLD WOMAN SPRGS~
' CLAMSHELL-SAWPIT ~
RAYMOND ~
JOHNSON VALIEY (NOrthern) ~
EMERSON So. - COPPER MTN. ~
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APPROXIMATE
DISTANCE
mi (km)
0.
12.
14.
20.
20.
28.
31.
32.
34.
36.
37.
37.
37.
40.
44.
44.
45.
48.
48.
49.
50.
50.
51.
51.
52.
53.
53.
54.
56.
58.
S8.
59.
59.
61.
61.
65.
65.
66.
68.
70.
0.4
20.7
22.9
33.1
33.1
45.8
50.1
51.9
56.0
58.3
60.3
60.6
60.6
65.0
72.1
72.2
73.0
77.5
77.7
80.2
80.9
81.4
82.7
83.4
84.6
85.4
86.3
88.1
90.8
94.7
94.7
95.8
95.9
98.3
99.0
104.6
105.7
107.7
110.4
113.7
aage 2
ESTIMATED MAX
MAXIMUM
EARTHQUAKE
MAG.(Mw)
===6.8====
7.1
6.8
6.9
7.2
6.9
6.9
6.7
6.7
6.8
6.8
7.4
7.3
6.5
7.0
6.9
7.4
7.1
7.1
6.7
7.0
7.0
6.8
6.5
6.5
6.7
6.4
7.0
6.4
7.1 ,
7.8
6.6 I
6.8 I
7.1 I
7.3 I
6.5 I
6.7 I
6.9 I
EARTHQUAKE EVENT
---------------
PEAK
SITE
ACCEL. g
===0.919==
0.230
0.168
0.114
0.143
0.073
0.064
0.054
0.046
0.047
0.045
0.075
0.069
0.031
0.042
0.038
0.058
0.041
0.041
0.027
0.034
0.034
0.028
0.022
0.021 I
0.025 I
0.019 I
0.030 I
0.017 I
0.056 j
0.019 I
0.034 j
0.031 ~
0.015 ~
0.014 ~
0.017 I
0.019 I
EST. SITE
INTENSITY
MOD.MERC.
xz
Ix
VIII
VII
VIII
VII
vi
vi
VI
VI
vI
VII
VZ
v
vr
v
vr
v
v
v
v
v
v
Iv
IV
v
IV
v
rv
v
vI
IV
IV
v
v
v
iv
Iv
ZV
IV
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40-17 58 EQFAULT
' -------
DETERMI -------
NISTI ---------------
C
-------------- SITE PARAMETERS
---------------
' Page 2
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-
I -
~ESTIMATED MAX. EqRTHQUAKE EVENT
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~ABBREVIATED ~
~ APPROXIMATE
DISTANCE I------------
~ MA)(IMUM --------- ----------
~EST
SITE
FAULT NAME ~ Ilii (km) ~EARTHQUAKE ~ SITE .
~INTENSITY
________________________________ ~
1
=====__
__==== I MAG.(Mw)
1 ~ ACCEL. g ~MOD.MERC.
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VERDUGO
~
71.6( =
115.2) ==========
~ 6•~ I= ====____-
~ IV
HOLLYWOOD ~ 75.1( 120.8) ~ 6.4 ~ 0.011 ~ ZII
CALICO - HIDALGO ~ 77,q( 124.6) ~ 7.1
PISGAH-BULLION MTN.-MESQUITE LK ~ 78.3( 126.0) I ~'1 I IV
SUPERSTITION MTN. (San 7acinto) ~ 79.7( 128.3)~ 6.6 ~ 0.012 ~ Iii
' ELMORE RANCH ~ $2.1( 13Z.2)~ 6.6 ~ 0.012 ~ III
SANTA MONICA ~ $2.5( 132.8)~ 6.6 ~ 0.011 ~ Iii
SUPERSTITION HILLS (San 7acinto)~ 83.5( 134.4)~ 6.6 ~ 0.012 ~ III
BrtAWLEY SEISMIC ZONE ~ 84.2( 135.5)~ 6.4 ~ 0.010 ~ IZI
' SAN GABRIEL ~ 85.2( 137.1)~ 7.0 ~ 0.016 ~ IV
SIERRA rvwDRE (San Fernando) ~ 85.3( 137.2)~ 6.7 I 0.012 ~ IrI
MALIBU COAST ~
NORTHRIDGE (E. Oak Ridge) ~ $7,1(
89.0( 140.2)~
143.2)~ 6.7 ~
6
9 I 0.011
0
013 ~ III
' LAGUNA SALa,DA ~ 91.5( 147.3)~ .
7.0 ~ .
0.015 ~ IVI
GRAVEL NILLS - HARPER ~AKE ~ 94.5( 152.1)~ 6.9 ~ 0.013 ~ III
ANACAPA-DUME ~ 95.7( 154.0)I 7•3 I 0.015 ~ IV
SANTA SUSANA ~
~ 96.0( 154.5)~ 6.6 ~ 0.009 ~ ZII
' aa
xe~r.ee~+x~a+aaaaca~r~eaa,ts~,taa e+evreer.~enae~te trrxnerenas,r ~x~c~ase~r,*+r.~era,tse
-END OF SEARCH- 57 FAULTS FOUND WITHIN THE SPECIFIED SEARCH RADIUS.
THE ELSINORE-TEMECULA FAUL T 25 CIOSEST TO THE SITE
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IT IS ABOUT 0.3 MILES (0.4 krtl) AWAY. .
LARGEST MAXIMUM-EARTHQUAKE SITE ACCELERAT ION: 0.9192 g
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