rmt project memorandum re: results of hydraulic ... · matrix is so low. based on measured...
TRANSCRIPT
PPA Reaion 5 Records Ctr.
iiiiiiii^01496
Project Memorandum
Date: 27 October 2004
To: LSRG Technical CommitteeDoug Clark - Foley & Lardner
From: Pete Chase; Galen Kenoyer; Eric Gredell
Re: Lemberger Transport & Recycling Site (LTR)Results of Hydraulic Conductivity Tests of Monitoring WellsRMT Project No. 3453.42
The purpose of this memo is to present the data, results, and conclusions from hydraulic tests
performed by RMT in August 2004 at seven groundwater monitoring wells located around the
perimeter of the LTR site. The primary purpose of the tests was to determine the hydraulic
conductivity of the fractured bedrock aquifer at several locations adjacent to the LTR. This
information was developed to assist in evaluating whether installation of additional
groundwater extraction wells in the bedrock near the LTR to attempt to provide complete
interception of the volatile organic compound (VOC) plume emanating from beneath the LTR
would be feasible or practical. The additional hydraulic conductivity information was also
obtained to help assess the overall effectiveness of the pump-and-treat remedy for
groundwater at the site; to help interpret the cause of previous increases in VOC
concentrations observed in the deepest monitoring well near the LTR (RM-7XD); and to
provide data for comparison with the hydraulic conductivity values for the bedrock as
determined from the calibrated groundwater flow model.
Fieldwork Performed
On 16/17 August 2004, a hydrogeologist from RMT's Madison office and the RMT site operator
performed "bail-down" tests at the following seven monitoring wells near the LTR: RM-7D;
I. UVPMSV\P/Ti{)(Mi3453 \-UU1W01-l5JJMXI4 DOC 12:16I2IH>4
7XD; 209D; -303D; -304D; -305D; and -306D. Locations of the wells are shown on Figure 1. The
bail-down tests were conducted by withdrawing between '/2 and 2 gallons of water from each
well, and measuring the rate of water level recovery using an automatic data logger/pressure
transducer or manually recorded data. The data were analyzed using AQTESOLV® software
and the Bouwer and Rice analytical method. The test results are summarized in Table 1.
Hydraulic conductivity (K) values ranged from 8.2 x 10-3 cm/s to 2.2 x 10-5 cm/s. The
geometric mean value was 2.3 x 10-4 cm/s or 0.66 ft/day. The following information is attached
for each of the seven wells tested: computer-generated data analysis; field-recorded data (data
logger or manual notes); soil boring log from construction of the monitoring well (where
available); and monitoring well construction diagram.
Interpretation of Test Results
The geometric mean value of the seven hydraulic conductivity tests (2.3 x 104 cm/s) is
approximately two orders of magnitude lower than the hydraulic conductivity value used in
the calibrated ground water flow model for the site. This finding is not unexpected. Hydraulic
conductivity values determined at individual monitoring wells are representative of the
bedrock flow properties at distinct points in the aquifer. The values at these separate points are
typically not representative of the bulk hydraulic conductivity of the aquifer at a regional scale.
On the mesoscopic scale, a test on an individual monitoring well is influenced by the aquifer
properties within only a few feet of the well screen. If the screened zone of a well does not
substantially intersect the fracture network in the rock, the measured apparent hydraulic
conductivity value will be low. At a larger, regional scale, the groundwater flow is strongly
influenced by the interconnected fracture network in the bedrock. At the scale of the
groundwater model, where a single model "cell" can be 20 to 100 feet across, there is a strong
likelihood that there will be several significant fractures that intersect, and interconnect, each
model cell. Because the groundwater flow through the fracture voids is much higher than the
flow through the bulk rock matrix, the properties of the fracture network control the
groundwater flow, and the apparent hydraulic conductivity at the macro scale is much higher
than at the scale of individual monitoring wells. Thus, it is not surprising that the hydraulic
conductivity values resulting from the bail-down tests are lower (geometric mean of 0.66
ft/day) than the values of 22 to 45 ft/day in the vicinity of the LTR, as obtained with the
calibrated flow model.
In addition to the results from the bail-down tests, other direct evidence of the difficulty in
intersecting a significant portion of the interconnected fracture network at a single boring or
well location near the LTR is provided by the very low flowrates produced by the three
extraction wells installed along the northern side of the LTR in December 2001. Despite having
screen lengths of 30 feet in the bedrock, each of these wells produces a continuous flowrate of
only approximately 0.2 gallons/minute.
The hydraulic conductivity values from the bail-down tests are also consistent with the
conceptual model of the site presented in RMT's June 2004 report (Assessment of Remedial
Action Effectiveness), where the bulk of the remaining VOC source is present as diffused and
residual mass in the bedrock matrix beneath the LTR. The rate at which the VOC plume is
continually generated beneath the LTR is controlled by the slow rate of back-diffusion of VOC
source mass from the bedrock matrix into the groundwater that flows through the source
zones. The effects of this rate-limiting process may have been observed in the trend of
increasing VOC concentrations at the deepest monitoring well near the LTR, RM-7XD, from
2001 to 2003. (VOC concentrations in groundwater samples collected from RM-7XD since
summer 2003 have been very consistent, indicating that the trend of increasing concentrations
observed from 2001 to 2003 has ceased.)
It is likely that the increasing VOC concentrations at RM-7XD from 2001 to 2003 occurred
primarily because of the time required for the VOC source mass to back-diffuse from the low-
permeability bedrock at the source zones beneath the landfi l l into the flowing groundwater,
and the time required for the groundwater to travel from the source zones to the screened
depth interval at the RM-7XD location. Although the VOC concentrations at RM-7XD are
currently roughly double the concentrations prior to 2001, they do not represent a substantial
IJ.Ujj'. J-1 MIXKWS.i-IMKW POC
increase in VOC mass flux, since the groundwater velocity through the low-permeability
matrix is so low. Based on measured hydraulic gradients and the K values determined from
the August 2004 bail-down tests, the groundwater velocity would be approximately 0.004
ft/day through the bedrock matrix. However, at a larger (macroscopic) scale, with the same
hydraulic gradients and a K value of 22 to 45 ft/day as determined with the groundwater flow
model, the groundwater velocity of the fractured bedrock would be 33 to 66 times higher. The
increasing concentrations at the location of RM-7XD simply reflect the slow migration of
dissolved VOCs through the bedrock matrix from the source zones to the monitoring well
location. The relatively low VOC concentrations observed at RM-7XD are a result of the
proportional difference between the volume of groundwater passing through the source zones
and the flux of dissolved VOC source mass entering the flow, as well as dispersion of the
plume as it moves farther away from the source zones.
Conclusions
The hydraulic conductivity values determined from bail-down tests performed in August 2004
at seven bedrock groundwater monitoring wells located around the perimeter of the LTR
support the previous site data and drilling/operating experience indicating that installation of
additional extraction wells near the LTR would not be capable of effectively intercepting the
entire VOC plume emanating from beneath the LTR. The hydraulic conductivity data indicate
that the fractures are widely spaced in the source zones, and immediately adjacent to the LTR,
and not easily intercepted. The density (number) of new extraction wells that would be
required to approach achieving effective interception of the plume would be technically and
physically, as well as economically, impractical.
Table 1
Summary of Hydraulic Conductivity Test Results for Wells Screened in Bedrock
Lemberger Transport & Recycling SiteWhitelaw, Wisconsin
Monitoring
Well
RM-7D
RM-7XD
RM-209D
RM-303D
RM-304D
RM-305D
RM-306D
Approximate Screened
Interval (ft.)
35-45
93-108
41-5145-55
25-3552-62
45-55
Hydraulic Conductivity (K)
(cm/s)
8.2E-03
1 .7E-04
1 .4E-04
1 .7E-04
2.9E-04
2.2E-05(Note1)
1.8E-04
Range of Values:
Geometric Mean:
High 8.2E-3; Low 2.2E-52.3E-04
Prepared by: PMC 9/16/04
Checked by: THC 9/16/04
Note 1: Evaluation of earlier portion of the recovery graph yields a K value of2.2E-04 cm/s.
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, WELL TESTED AUGUST 2004
'(TOTAL OF 7 WELLS)
1000'
®GR-27GR SCALE: 1"=500'
RM-10UD
LEMBERQER TRANSPORT &RECYCLING SITE (LTR)
MONITORING WELLS TESTED FORHYDRAULIC CONDUCTIVITY AUGUST 2004
JRAWN BY: RETZEKO
APPROVED BY:
PROJECT NO. 03453.42
FUE NO. 34S94201JWB
DATE: OCTOBER 2OO4
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AQTESOLV for Windows
Data Set: P:\3453\42\Hydraulic Conductivity Tests\RM7D.aqtDate: 09/02/04Time: 16:25:43
PROJECT INFORMATION
Company: RMT, Inc.Client: LTRProject: 3453.42Location: Whitelaw WlTest Date: 8/17/04Test Well: RM 7D
AQUIFER DATA
Saturated Thickness: 9.9 ftAnisotropy Ratio (Kz/Kr): 0.1
SLUG TEST WELL DATA
Initial Displacement: 7.33 ftCasing Radius: 0.087 ftWellbore Radius: 0.164ftScreen Length: 9.9 ftGravel Pack Porosity: 0.25Static Water Column Height: 9.9 ft
No. of observations: 75
Observation DataTime (min) Displacement (ft) Time (min) Displacement (ft) Time (min) Displacement (ft)
0.0.01120.02240.03350.04470.05590.0670.07870.09120.10440.11840.13320.14890.16550.18320.20190.22170.24270.26490.28840.3132
7.3343.0092.6162.3192.0291.7661.5611.3471.1740.9940.8480.72
0.6010.5130.4390.3780.3240.2810.2450.2140.191
0.46170.49690.53420.57370.61550.65990.70690.75670.80940.86520.92440.9871.0531.1241.1981.2771.3611.4491.5431.6431.748
0.1390.1390.1390.1370.1350.1350.1330.1330.130.13
0.1260.1260.1240.1240.1240.1240.1210.1210.1210.1190.119
2.3762.5252.6822.8493.0153.1823.3493.5153.6823.8494.0154.1824.3494.5154.6824.8495.0155.1825.3495.5155.682
0.1190.1170.1190.1170.1170.1170.1170.1190.1190.1190.1170.1170.1190.1170.1190.1190.1190.1190.1150.1170.119
09/02/04 1 16:25:4
AQTESOLV for Windows
Time (min) Displacement (ft) Time (min) Displacement (ft) Time (min) Displacement (ft)0.33950.36750.39720.4285
0.1820.1710.1480.144
1.8591.9782.1032.235
0.1190.1190.1210.119
5.8496.0156.1826.349
0.1170.1170.1170.117
SOLUTION
Aquifer Model: UnconfinedSolution Method: Bouwer-Rice
VISUAL ESTIMATION RESULTS
Estimated Parameters
Parameter EstimateK 0.00818 cm/sec
yO 1.956 ft
09/02/04 2 16:25:43£i- **
ANALYSIS - BOUWER AND RICE SINGLE-WELL RESPONSE TESTPROJECT: LTR PROJECT*: 3453.42PREP'D BY: Peter TagliaFIELD TEST PERFORMED BY:
CHECKED BY:Pete Chase FIELD TEST DATE: 8/18/04
Data From:
WELL NUMBER:
| X | Data Logger/Transd. | |
| | Slug Test | [
RM-7D
GROUND SURFACE
Water level indicator/Stopwatch
Baildown
Top of PVC
GEOL.DEPTH INFO.
INITIAL DRAWDOWN s (figure is not to scale)(S)= | 7.33 [feet
SATURATED AQUIFER THICKNESS 48.4 - 38.5(D)*= | 9.90 ^feet
EFFECTIVE SCREEN.LENGTH
(L)= | 990ENXLEN^feet
feet or | 1.97 [fnches
40 -1.5 '| 38.50 1(ft bgs)
V INITIAL DRAWDOWN LEVEL=
| 45.83 tfft bgs) 38.5 + 7.33
if K, < 1 x 10"2cm/s and recovery occurs in the
sand pack, use r'c correction.
D = H = L is default for analysis of aquitards.
Other comments and/or assumptions:
(in ft bgs)
48.4
rw
1.5 | feet above gs
COMMENTS
Silty clay, sandand gravelly sand
31
Fractured dolomite
Assumes that the aquifer extends at least 2 feet below the end of boring:QOther depth based on additional data
1G:\DATA\SILVERMT\genericslug.XLS
BLACK i V E A T C HE N G I N E E R S - A R C H I T E C T S
LOG OF B O R I N G BORING NO. RM-7DSHEET . 1 OF 2
( C L I E N T P R O J E C T P R O J E C T N O .
>T.S. EPA - Reqion V Lemberger Sites 70170/7018P R O J E C T L O C A T I O N C
MM t-f>]aw. Wi e;rnne;inO O R D I N A T E S E L E V A T I O N D A T U M ) T O T A L D E P T H D A T E START
w-i :>q .367_ l f i ? F-2.564.C77.89 8 A 2 . 7 9 MSL 48 .4 ' 8/1/89S U R F A C E C O N D I T I O N S I I N S P E C T O R D A T E F I N I S H
5 feet South of RM-7XD 1 M. MacLeod 8/3/89S A M P L I N G
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C L A S S I F I C A T I O N O F M A T E R I A L
Undifferentiated Overburden(See boring log for RM-7XD)
R E M A R K S
Boring advancedto 127 w/ 8"O.D., 4-1/4"I.D. hollowstem flightaugers
6" tetnporarysteel casingset to 14'Advanced borincfrom 12' to 36'w/ 5-7/8"tricone rollerbit usingbentonite mudas drillingfluid y
11'7
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B L A C K 4 V E A T C H , n n n r n n n m oENG N E E R S - A R C H I T E C T S L u u u r o u K mu BORING NO.
P R O J E C T
EPA - Region V Lemberger SitesP R O J E C T L O C A T I O N C O O R D I N A T E S E L E V A T I O N D A T U M ] T O T A L D E P T H
WhifBlaw. Wisconsin N-129.367.16 : E-2.564 ,S77 .89 842.79 MSL 48.4 'S U R F A C E C O N D I T I O N S I N S P E C T O R
5 feet South of RM-7XD M. MacLeod
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C L A S S I F I C A T I O N O F M A T E R I A L
i Undifferentiated Overburden(See boring log for RM-7XD)
Dolomitic LIMESTONE;qravish-white; massive and thinbedaed; finely crystalline; vugs(10-201) pinpoint to 1";moderately weathered andfractured; brown silt and clay infractures and vugs.
RK-7D2 OF 2
P R O J E C T N O . |
70170/7018C,D A T E S T A R T8/1/89
D A T E F I N I S H
8/3/89
R E M A R K S
4" tsteesetBelcboriw/ 3HQ wdoubcorediamusindril
Beloboriw/ 3triebitas dflui
emporary1 casing§ 35'w 36',ng advanced-15/16"Irelinele tubebarrel w/
ond bitq water asling fluid
w 46',ng advancec-7/8"one rollerusing wateirilling
Bottom ofboring @ 48.4'
Static waterlevel @ 37.2'
Monitoring wel]installed8/3/89
10
B L A C K & V E A T C H P I E Z O M E T E R I N S T A L L A T I O N L O GCONSULTING E N G I N E E R S P I E Z O M E T E R NO. KM-700>)
CL i ENT
U . S . EPA - Region V
P R O J E C T
Lemberger Sites
P R O J E C T NO 1
70170/70180-P R O J E C T L O C A T I O N
Whitelaw, WisconsinC O O R D I N A T E S N-129,371.50;
E-2. 564. 976.14
GROUND E L E V A T I O N843.12 MSL
D A T E
7/31/89S T R A T U M M O H I T O R E D
Dolomitic LimestoneI N S P E C T O R
M.D. MacLeodC H E C K E D BY
M. Ma cL eo dA P P R O V E D BY
E. Mever
GROUND S U R F A C E
TYPE OF S E A L
O.D. & TYPE OFR I S E R P I P E
T Y P E O F S E A L
Cement-iientonite Grout
2" Type 304Stainless Steel
T Y P E A N D S I Z E O FS C R E E N O R O P E N I N G S
T Y P E OF F I L T E R
B en to nite Slurry
2" Wire Wrapped Stain-less Steel screen w/0.01" slots
Washed No. 20Silica Sand
T Y P E O F S E A L
D I A M E T E R OF B O R E H O L E
NA
8"5-7/8"?-?«;/] 6"
O'-IA1
U'-35'35'-1 in1
M E T M O O O F I N S T A L L A T I O N :Drilled boring to completion; set riser pipe and screen; placed filter
and seal; grouted to 2' below ground surtacej. concrete apron placed to A" above groundface; six inch diameter protective steel surface casing with padlock installed; all
sur-
temporary casing removed during well installation.
R E M A R K S . Well developed by pumping. Purged 5 well volumes of water. Discharge vas clear,
1.33' of riser pipe below screen (sediment trap),
II
B L A C K a V E A T C H P I E Z O M E T E R I N S T A L L A T I O N L O GC O N S U L T I N G E N G I N E E R S P I E Z O M E T E R N O . RM-7(D)
C L I E N T
U . S . EPA - Region V
P R O J E C T
Lemberger Sites
P R O J E C T N O .
70170/7018C( P R O J E C T L O C A T I O N
Whitelaw. WisconsinC O O R D I N A T E S N- 129 , 36 7. 16 f
E-2, 564, 977.89GROUND E L E V A T I O N
842.79 MSL 8/3/89S T R A T U M M O N I T O R E D
Dolomitic LimestoneI N S P E C T O R
M. D. MacLeodC H E C K E D B Y
M. MacLeodA P P R O V E D B Y
E. Mever
G R O U N D S U R F A C E
TYPE OF SEAL
O.D. & TYPE OFR I S E R P I PE
TYPE OF SEAL
Cement-Bentonite Grout
2" Type 304Stainless Steel
Bentonite Pellets
2" Wire WrappedStainless Steel screenw/ 0.01" slots
T Y P E A N D S I Z E O FS C R E E N O R O P E N I N G S
T Y P E O F F I L T E R
Washed No. 20Silica Sand
T Y P E O F S E A L
D I A M E T E R O F B O R E H O L E
NA
8" 0'-12'5-7/8" 12'-36'3-15/16" 36'-46'
3-7/8" 46 ' -48 .4 '
M E T H O D OF I N S T A L L A T I O N : Boring drilled to completion; set riser pipe and screen; placed filter
ana se.a.±; grouted to witnin / 01 ground suriace; concrete apron placed to 4 aoove groundsurface; six inch diameter protective steel surface casing with padlock installed; all
temporary casing removed during well installation.
E M A R K S . we]_]_ developed by pumping. Purged 5 well volumes of water. Discharge was clear.
1.33' riser pipe below screen (sediment trap).
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AQTESOLV for Windows
Data Set: P:\3453\42\Hydraulic Conductivity Tests\RM7XD.aqtDate: 09/02/04Time: 16:26:35
PROJECT INFORMATION
Company: RMT, Inc.Client: LTRProject: 3453.42Location: WhitelawWITest Date: 8/17/04Test Well: RM 7XD
AQUIFER DATA
Saturated Thickness: 21.3 ftAnisotropy Ratio (Kz/Kr): 0.1
SLUG TEST WELL DATA
Initial Displacement: 2.73 ftCasing Radius: 0.087 ftWellbore Radius: 0.164ftScreen Length: 21.3ftGravel Pack Porosity: 0.Static Water Column Height: 21.3 ft
No. of observations: 97
Observation DataTime (min) Displacement (ft) Time (min) Displacement (ft) Time (min) Displacement (ft)
0.0.01120.02240.03350.04470.05590.067
0.07820.08940.10050.11220.12470.13790.15190.16670.18240.1990.21670.23540.25520.2762
2.7210.9672.2772.2122.1852.1552.1442.1282.0952.0792.0832.0382.022.
1.9821.9621.9431.9231.9031.88
1.858
0.69340.74040.79020.84290.89870.95791.0211.0871.1571.2321.3111.3941.4831.5771.6761.7811.8932.0112.1362.2692.409
1.451.4161.3781.3421.3011.26
1.2181.1791.1361.0941.0491.0060.9630.9160.870.8230.78
0.7350.690.6470.604
4.5494.7154.8825.0495.2155.3825.5495.7155.8826.0496.2156.3826.5496.7156.8827.0497.2157.3827.5497.7157.882
0.210.1920.1780.1620.1530.14
0.1290.1170.1080.1010.0920.0880.0770.0720.0650.0630.0610.0540.050.0470.043
09/02/04 1 16:26:35
AQTESOLV for Windows
Time (min) Displacement (ft) Time (min) Displacement (ft) Time (min) Displacement (ft)0.29840.32190.34670.3730.401
0.43070.462
0.49520.53040.56770.60720.649
SOLUTION
Aquifer Model:
1.8311.8081.7861.7771.7051.6841.6481.6211.5851.5511.5221.484
Unconfined
2.5582.7162.8823.0493.2163.3823.5493.7163.8824.0494.2154.382
0.5590.5160.4760.4370.4010.37
0.3410.3130.2890.2660.2460.226
8.0498.2168.3828.5498.7168.8829.0499.2169.3829.549
0.0430.0380.0590.0590.0540.0520.05
0.0470.020.02
Solution Method: Bouwer-Rice
VISUAL ESTIMATION RESULTS
Estimated Parameters
ParameterK
yO
Estimate0.0001675 cm/sec
1 .997 ft
09/02/04 2 16:26:3511
••
"tarData From:
WELL NUMBER:
ANALYSIS - BOUWER AND RICE SINGLE-WELL RESPONSE TESTPROJECT: LTR PROJECT #: 3453.42PREP'DBY: Peter Taglia CHECKED BY:FIELD TEST PERFORMED BY: Pete Chase FIELD TEST DATE: 8/18/04
Data Logger/Transd. | |
Slug Test | |
Water level indicator/Stopwatch
Baildown
RM - 7XD
GROUND SURFACEINITIAL DRAWDOWN(S)= | 272 |feef
SATURATED AQUIFER THICKNESS(D)*= | 21.30 [feet 110 - 88.7 '
EFFECTIVE SCREEN LENGTH(L)= | 21.30 [feet '
STATIC HEIGHT OF WATER(H)= | 21.30 [feet /
RADIUS OF WELL CASING /
(figure is not to scale)
f_
3.
rc= 0.087 [feet or | 1.04 [inches
RADIUS OF BOREHOLE (WELL)0.164 [feet or | 1.97 [inches
(in bedrock)EFFECTIVE POROSITYn= | 0.25 | "
CORRECTED RADIUS
r> [ r c2+n(rw
2 - rc2)]*
r'c= | • 0*11; :|feet
T STATIC WAT&R LEVEL=
40.40
TEfl
J(«
42' -1.6' stickupbgs)
V INITIAL DRAWDOWN LEVEL= 40.4 + 2.72 'I 43.12 | (ft bgs)
if K, < 1 x 10'2cm/s and recovery occurs in the
sand pack, use r'c correction.D = H = L is default for analysis of aquitards.
Other comments and/or assumptions:
Top of PVC 1.6 feet above gs
GEOL.
TW
| DEPTH
(in ft bgs)
"
I 88.7 X
I
_89.7J
_ 108.17
110 X
INFO.
- - -
COMMENTS
Silty clay, sandand gravelly sand
31
Fractured dolomite
Assumes that the aquifer extends at least 2 feet below the end of boring:[Bother depth based on additional data
G:\DATA\SILVERMT\genericslug.XLS
BLACK & VEATCH
E N G I N E E R S - A R C H I T E C T SLOG OF B O R I N G BORING NO. RM-7XD
SHEET 1 OF 4
| C L I E N T
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P R O J E C T
Lemberaer Sites
4 Q"E L E V A T I O N
fi 1 j! 843
DATUM 1
.12 MSLT O T A L D E P T H
110'I N S P E C T O R
M. M?jrT.porf
P R O J E C T N O .
70170/7018D A T E START
7/7.fi/ft<9D A T E F I N I S H
7/30/89A P P R O V E D B Y
E. Meyer
C L A S S I F I C A T I O N O F M A T E R I A L
Silty SAND; brown; loose; poorlygraded; fine to medium grained;dry; w/ trace roots interbeddedw/ silty clay; black firm; moist;w/ trace roots (topsoil)
Topsoil grades out @ 2';Trace gravel @ 1.8' and belowsilty SAND; brown; mediumdense; poorly graded; fineto medium grained; w/ tracegravelSand grading wet below 5'
Silty CLAY; brown; very stiff;low plasticity; moist; w/tracegravel
yw •!•• • _ — . • _— ••- •f SAND; grayish-brown
& white; dense; well graded
.•B ••
•rfine to coarse grained; sub-rounded to subangular: moistw/ some silt; trace clay;some gravel (Till)
.
Gravelly SAND; grayish-brown &white: very dense; well graded;fine to coarse grained;subrounded to subangular; moist;w/ some silt (Till)
R E M A R K S
Boring advancedw/8" O.D.,4-1/4" I.D.hollow stemflight auger
Waterencounteredduring drillinc<§ 5'
11'. pp -2.75 tifInstalled 6"tejmporary stee]casing to 14'
Below 14',Boring advancecw/5-778n
tricone rollerbit usinqbentonite mudas drillingfluid
)
7J
BLACK 4 V E A T C HE N G I N E E R S - A R C H I T E C T S
L O G n n D i M rIU W I \ 111 Vj BORING NO. RM-7XD
SHEET 2 OF 4
CLI ENT
U.S. EPA - Region V
P R O J E C T
Lemberqer SitesP R O J E C T NO.
70170/70UPROJECT LOCATION
Mhi<"p1aw. Wi g
COORDIKATES
. 50.-E-2. 564.
ELEVATION IDATUH)
6.14 343.12 MSLTOTAL DEPTH
110'
DATE START7/26/89
SURFACE C O N D I T I O N S
20 feet South : Sunnv slope RoadI N S P E C T O R
M. MacLeodD A T E F I N i S H7/30/89
SAMPL I N Guj o:_J UJO_ CD
UJ
£ °
CO EC
CHECKED BY
M. MacLeod
CO R I H G
a: r>jO —U CO
O OOt-1 II
A P P R O V E D BY
E. Meyer
C L A S S I F I C A T I O N O F M A T E R I A L REMARKS
SPT
CA
3"
3"
3"
3"
16
17
16
50
100
/O
35 r±7.8 6. 4.8 86 72
40—
42 .8'
2.: 1.0
45
0.4 45 40
10 1C 4.6 100 46
50—
10 10 8.C IOC 8C
60-
Dolomitic LIMESTONE:gravish-vdiite; massive and thinBedaed: finely crystalline; vugs(10-201): pinjpoint to 1";moderately weathered andfractured; calcite crystals andbrown silty staining in vugs andfractures; purplish-blue bandsalong bedding planes; tracefossils
1" calcite filled fracture @39.4' vertical fracture from39.8' to 40.8'0.2' bedding planes filledw/calcite crystals and fossils @41'
highly fractured @ 41.8'-42.5'
vertical fracture from 48.8' -50.5'
grades less fractured
Lpst allcirculation ofmud and water30'Installed 4"temporary steelcasing to 35'Boring advancedto 357 w/3-7/8" triconeroller bitusing water asdrilling fluidBelow 35',boring advancedw/ 3-15/16"double tubecore barrel w/diamond bitusing water asdrilling fluid
Pressure(Packer) testconductedbetween 41.5'and 51.5'Calculatedpermeability
= 1 x 10~3cm/sec
Pressure(Packer) testconductedbetween 50.5'and 60.5'"Calculatedpermeability
- 1 x 10~3
cm/sec
22-
oI
^E N G I N E E R S - A R C H I T E C T S LOG °F B O R I N G BORING NO. RM-7XD
SHEET 3 OF 4
( C L I E N T P R O J E C T P R O J E C T N O .
iU.S. EPA - Reqion V Lemberqer Sites 70170/7018P R O J E C T L O C A T I O N C O O R D I N A T E S E L E V A T I O N ( D A T U H ) TOTAL D E P T H D A T E S T A R T
Whit-Plaw Wi srnn^in _N-129 371 50 -E-2.564 .9" 6 . 14 343.12 MSL 110' 7/26/89S U R F A C E C O N D I T I O N SDepression 20 feet South o
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C H E C K E D B Y A P P R O V E D B Y
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Large calcite crystals (1/2") @89.3' 6" deep void encountered @89.3'
R E M A R K S
Pressure(Packer) testconductedbetween 59.5'and 69. 5r
Calculatedpermeability =7 x 10~5
otL/sec
Pressure(Packer) testconductedbetween 68.5'and 78.5'Calculatedpermeability -4 x 10~4
cm/sec
Pressure(Packer) testconductedbetween 77.5'and 87.5'Calculatedpermeability «1 x 10~4
cm/sec
Rods dropped 6'@ 89.3'
BiACK & VEATCHENG NEERS-ARCHITECTS L u b
nru h
pnn ik i rbuk mu BORING NO. RM-7XD
SHEET. 4 OF 4
oI
C L I E N T P R O J E C T
U.S. EPA - Reaion V Lemberqer SitesP R O J E C T L O C A T I O N C
WVr!t"plawr Wi rnn^inS U R F A C E C O N D I T I O N S
Decression 20 feet South o
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N-1 ?Q ^71 SD:E-? . 564 .9" fi- 14 R i ^ . 1 ? M5T. 110'I N S P E C T O R
f Sunny Slope Road M. MacLeodC H E C K E D B Y A P P R O V E D B Y
M. MacLeod E. MeyerUJUJ
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C L A S S I F I C A T I O N O F M A T E R I A L
70° fracture from 95.3'to 96.2'60° fracture from96.6' to 96.9'
3"nvug filled w/calcite @ 10270° fracture @ 102.2' C
P R O J E C T N O . ]
70170/7016D A T E S T A R T7/26/89
D A T E F I N I S H
7/30/89
R E M A R K S
Pressure(Packer) testconductedbetween 86.5'to 96.5'Calculatedpermeability =
7 x 10~5
cm/sec
Pressure(Packer) testconductedbetween 95.5'and 105.5'.
al ciliatedpermeability =
2 x 10~3
cnv/sec
Bottom ofboring @ 110'Static waterlevel @ 37.7'Monitoring wellinstalled on7/31/89
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AQTESOLV for Windows
Data Set: P:\3453\42\Hydraulic Conductivity Tests\RM209D.aqtDate: 09/02/04Time: 16:30:19
PROJECT INFORMATION
Company: RMT, Inc.Client: LTRProject: 3453.42Location: Whitelaw WlTest Date: 8/17/04Test Well: RM 209D
AQUIFER DATA
Saturated Thickness: 6.17 ftAnisotropy Ratio (Kz/Kr): 0.1
SLUG TEST WELL DATA
Initial Displacement: 3.13ftCasing Radius: 0.087 ftWellbore Radius: 0.25ftScreen Length: 6.17ftGravel Pack Porosity: 0.25Static Water Column Height: 6.17 ft
No. of observations: 32
Observation DataTime (min) Displacement (ft) Time (min) Displacement (ft) Time (min) Displacement (ft)
0.81.531.712.22.432.662.93.233.433.914.18
3.122.572.372.071.921.821.721.621.571.471.42
4.876.487.
7.588.218.839.5
10.2711.0511.9212.75
1.321.271.221.171.121.071.020.970.920.870.82
13.6815.6822.0223.7825.8728.5831.6234.7840.250.
0.770.670.420.370.320.270.220.170.120.06
SOLUTION
Aquifer Model: UnconfinedSolution Method: Bouwer-Rice
VISUAL ESTIMATION RESULTS
Estimated Parameters
09/02/04 1 16:30:19
AQTESOLV for Windows
Parameter EstimateK 0.0001438 cm/sec
yO 1.945 ft
09/02/04 2 16:30:19^
23
ANALYSIS - BOUWER AND RICE SINGLE-WELL RESPONSE TESTPROJECT: LTR PROJECT*: 3453.42PREP'D BY: Peter Taglia CHECKED BY:FIELD TEST PERFORMED BY: Pete Chase FIELD TEST DATE: 8/17/04
Data From:
WELL NUMBER:
| | Data Logger/Transd. | | Water level indicator/Stopwatch
[ | Slug Test fx~| Baildown
RM 209 D
GROUND SURFACEINITIAL DRAWDOWN ,(S)= | 3.12 ^eet
SATURATED AQUIFER THICKNESS(D)*= | 6.17 ^ffeet 51.5' - 45.33'
EFFECTIVE SCREEN LENGTH
(figure is not to scale)
(L)= 6.17
STATIC HEIGHT OF WATER(H)= | 6.17 -|feet
RADIUS OF WELL CASING0.087 [feet or | 1.04 [Inches
RADIUS OF BOREHOLE (WELL)
0.250 |feet or | 3 [inches
(in bedrock)EFFECTIVE POROSITYn= I 0.25 \
CORRECTED RADIUSr> [ r c
2 +n ( r w2 - rc
2)f
r '= : 0 . ^ :V.
47.33' - 2' stickupT STATIC WATER LEVEL=I 45.33 | (ffbgs)
V INITIAL DRAWDOWN LEVEL=I 48.45 |(ft bgs) 45.33 + 3.12
if K, < 1 x 10"2cm/s and recovery occurs in the
sand pack, use r"c correction.
D = H = L is default for analysis of aquitards.
Other comments and/or assumptions:
Top of PVC 2 feet above gs
GEOL.| DEPTH
(in ft bgs)
I 39
_41
_51
51.5
INFO.
SP
_ _ _CL
COMMENTS
8
18
Weathered dolomite
Fractured dolomite
Assumes that the aquifer extends at least 2 feet below the end of boring:[Bother depth based on additional data
G:\DATA\SILVERMT\genericslug,
Page I of I
FIELD HYDRAULIC CONDUCTIVITY TEST
PROJECT NAME: L. T K DATE: c
PROJECT NUMBER:
WELL NUMBER:
DTW:
SAMPLER(S): P.
0 WELL DIAMETER: 2"
Water Volume Removed:
. T/PVC DTB: . T/PVC
Depth to Bottom:
Type of Test:(slug/baildown)
Initial Time: 15* End Time:
•• (>x •- \Drawdown ,
0/0/0 (Initial) 1,/T-
Iw 56,
t/<?,1Q 2,-rJo
Lito.gv X
X/
Itt
25.72,7.35 Mff
It -50 1,1+ 40For water table wells, remove at least one well (borehole volume).
one well/borehole volume (gallons) - 71 hwltor [rwz + n^ (rb
2 - r,,2)] x 7.48 gal/ft3
nlp = porosity of sand pack = 0.25, w = well, b = borehole
For piezometers, remove sufficient water to produce at least 1 foot of drawdown, butno not lower water level into the sandpack.
Date^
F-18952.
S t a t e o f WisconsinDepartment of Natural Resources
Route To:D Solid Waste0 Emergency Response0 Wastewater0 Superfund
0 Haz.D Underground Tanks0 Hater Resource!0 Other:
SOIL BORING LOG INFORMATIONForm 4400-122 5-s;
Illty/Protect NameaOerger Land/iff
Boring Drlled By (Firm name and name of crewEnvironmental Drilling Services, Inc.Brian Repinski
ONR Facity Mel No. MI Unique Mel No.IH39S
chief)
Common Mel NameRH-209D
Boring LocationState Plane N. £
NE 1/4 of N£ 1/4 of Section 34. T 20 N. R 22 £
CountyManitouoc
Sample
uOJ >..Ot-III/SS
S
3/SS
R!
R2
I Le
ngth
AIL
GR
ecov
ered
(in)
20
14
7
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i3/r
17/6"
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~ 3
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D
0
5
D
Page I or :
UcenM/Permll/MonltorlnQ Number
Date DrOang Started02/06/96
Final Static Mater LeFeet HSL
Lat 'Long '
DNR County Code36
Soil/Rock DescriptionAnd Geologic Origin For
Each Major Unit
Brownish yellow (10YR 6/6) sand - traceof clay and fine gravel - moist - mediumdense - upper granular unit
Yellowish brown (tOYR 5/4) sllty clay -trace of fine gravel - moist - stiff -cohesive unit
Gray I10YR 6/1) to white (10YR 8/1)weathered dolomite - highly weathered toan extremely dense gravel (GH) from 18.0to 22.0 feet - possible lower granular unitdeposits at Interface with cohesive unit -common vugs and coral fossils - Ironstaining on fracture surfaces - rock unit'
Run No. t Recovery • 13X, FractureFrequency • N/R*. ROD - 0.0
Run No. 2: Recovery • 56X, FractureFrequency - N/Rn, ROD - 0.07
(Continued)' hereby certify that the information on this form
""-7^0 A \J ^^ 'J i d^ --"5*Is true and correct to
~) F
SS
SP
CL
Boring NumberRH-209Q
Date DrDlng Completed02/08/96
vei Surface Elevation550.5 Feet HSL
DrUng MethodHS/HR/AR
Borehote Diameter8/6 inches
Local Grid Location Of apoteaWe)9973.47 Feet N 9052.30 Feet E
CM! Town/Qty/ or WageTown of Franklin
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the best of my knowledge."frm
Environmental Drilling Services, Inc., De Pere, WI
This form Is authorized by Chapters 144.147 and 162. Mis. Statj. Completion of this report Is mandatory. Penalties: Forfeit not lessthan $10 nor more than $5.000 for each violation. Fined not less than $10 or more than $100 or Imprisoned not less than 30 days,or both for each violation. Each day of continued violation 1* a separate offense, pursuant to ss 144.90 and 162.06, Mis. Stats.
Page 2 ci
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Soil/flock DescriptionAnd Geologic Origin For
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(Continued)
Run No. 3: Recovery • 74X. FractureFrequency • 6.8/foot. ROD • 0.07
nFracture frequency too great toaccurately note* primarily gravel size rockfragments.Lost return due to large fractures.
End of Boring
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AQTESOLV for Windows
Data Set: P:\3453\42\Hydraulic Conductivity Tests\RM303D.aqtDate: 09/02/04Time: 16:31:18
PROJECT INFORMATION
Company: RMT, Inc.Client: LTRProject: 3453.42Location: Whitelaw WlTest Date: 8/17/04Test Well: RM 303D
AQUIFER DATA
Saturated Thickness: 8.52 ftAnisotropy Ratio (Kz/Kr): 0.1
SLUG TEST WELL DATA
Initial Displacement: 2.63 ftCasing Radius: 0.087 ftWellbore Radius: 0.25 ftScreen Length: 8.52 ftGravel Pack Porosity: 0.25Static Water Column Height: 8.52 ft
No. of observations: 18
Observation DataTime (min) Displacement (ft) Time (min) Displacement (ft) Time (min) Displacement (ft)
1. 2.62 3.27 1.87 19.52 1.271.67 2.42 3.72 1.77 25.33 1.222.02 2.27 4.42 1.67 51.57 1.072.27 2.17 5.68 1.57 90. 0.932.57 2.07 7.87 1.47 115. 0.872.9 1.97 11.87 1.37 192. 0.72
SOLUTION
Aquifer Model: UnconfinedSolution Method: Bouwer-Rice
VISUAL ESTIMATION RESULTS
Estimated Parameters
Parameter EstimateK 0.0001709 cm/secyO 2.624 ft
09/02/04 1 16:31:18
ANALYSIS - BOUWER AND RICE SINGLE-WELL RESPONSE TESTPROJECT: LTR PROJECT*: 3453.42PREP'D BY: Peter TagliaFIELD TEST PERFORMED BY:
CHECKED BY:Pete Chase FIELD TEST DATE: 8/17/04
Data From:
WELL NUMBER:
| | Data Logger/Transd. | |
|~~| Slug Test [X~|
Water level indicator/Stopwatch
Baildown
RM 303 D
GROUND SURFACEINITIAL DRAWDOWN(S)= | 2.62 [feet '
SATURATED AQUIFER THICKNESS
(D)*= | 8.52 [feet 63.5-54.98 /
EFFECTIVE SCREEN LENGTH(L)= | 8.52 [feet '
(figure is not to scale)
STATIC HEIGHT OF WATER
RADIUS OF WELL CASING
RADIUS OF BOREHOLE (WELL)
inches
56.98' - 2' StickupT STATIC WATER LEVEL=| 54.98 f(ft bgs)
V INITIAL DRAWDOWN LEVEL=| 57.60 |(ft bgs) 54.98' + 2.62'
if K, < 1 x 10"2cm/s and recovery occurs in the
sand pack, use r'c correction.D = H = L is default for analysis of aquitards.
Other comments and/or assumptions:
Top of PVC feet above gs
GEOL.| DEPTH
(in ft bgs)
I 43
_45
_63
63.5
INFO.
CL
COMMENTS
14
Weathered dolomite
Fractured dolomite
Assumes that the aquifer extends at least 2 feet below the end of boring:[]]]YES [^Other depth based on additional data
G:\DATA\SILVERMT\genericslug.XL
warPROJECT NAME:
Page J_ofJ_
FIELD HYDRAULIC CONDUCTIVITY TEST
DATE: ?/7-/
PROJECT NUMBER:
WELL NUMBER:
DTW:
SAMPLER(S): 7?
3o$ P
o. QO
Water Volume Removed:
T/PVC
Type of Test: _(slug/baildown)
5» •» • 1
WELL DIAMETER:
DTB: 45.Z3
Depth to Bottom:
Initial Time: / j ^"g End Time:
T/PVC
0/0/0
Water Level
(Initial)
./1 v/
/ ,
fflroe >! Water Levef
For water table wells, remove at least one well (borehole volume):
one well/borehole volume (gallons) - n h,.,,,, [rwz + n.p (rb
2 - r,,2)] x 7.48 gal/ft3
n,p = porosity of sand pack = 0.25, w = well, b = borehole
Signed
REV 01/05/94
For piezometers, remove sufficient water to produce at least 1 foot of drawdown, butno not lower water level into the sandpack.
Date QC'd By
F-189
Sla te of WisconsinDepartment of Natural Resource]
Route To:0 Solid Haste0 Emergency Response0 Hastewater0 Superfund
0 Haz. Haste0 Underground Tanks0 Mater ResourcesD Other:
SOIL BORING LOG INFORMATICForm 4400-122 5-;
Page 1 of•ty/Prolect N«merger Landfill
Ucerua/PerBlt/Monitortng Number BortngNuaberRH-303D
,r>g Orltod By (Firm name and name of crew chief)Environmental Drilling Services, Inc.Brian Replrakl
Data DrBng Started02/08/96
Date DrDng Completed02/10/96
OrBnfl MethodHS/Hft/AR
DNH Faclty Mel No. MI Unique Mel No.IK392
Canon MiRH-3030
Final Static Mater LevelFeet HSL
Surface Elevation853.8 Feet HSL
Borehole Dtaawter8/6 inches
Boring LocationState Plane N, ENE 1/4 of HE 1/4 of Section 34, T 20 N. K 22 E
Lat •Long
Local Grid Location Of appteabto)9968.20 Feet N 930163 Feet £
CountyHanitowoc
DNR County Code36
OvB ToMi/aty/ or Vllage7"own of Franklin
Sample
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Sod/Rock DescriptionAnd Geologic Origin For
Each Major Unitenuto Q
:0 I E
Soil Properties
o —UC/1
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I/SS 22 i3/r
-i Dark reddish brown (SYR 3/2} sUty land - r\ little fine gravel - i»olst - top»o« (
Reddish brown (SYR 4/4) sllty sandy day- a Bttte fine gravel - stiff to very stiff -nolst - cohesive unit
SH
tg ia/r• 10
3/SS 10 100/3-• 15
4/SS 100/4"
White (SY 8/1) to yellowish brown (IOYR5/4) weathered taestone - weathered toan extremely dense sandy gravel (GM)from 14.0 to 22.0 feet - lew vugs withcalclte crystals and few coral fossils
-20
R1—25
-30
-35
Run No. 1: Recovery • 82X. FractureFrequency • 8.4/foot, ROD • 0.17
R2
Run No. 2: Recovery • 77X. FractureFrequency • 2.3/foot, ROD • 0.53
(Continued)
.' • •» • •• ' • •> '. -.• ' ••» '. .• ' • •
-reby certify that the Information on this form Is true and correct to the best of ny knowledge.Mure Fin
Environmental Drilling Services, Inc., De Pere, WI
This form Is authorized by Chapters 144.147 and W2. Mis. Slats. Completion of this report Is mandatory. Penalties: Forfeit not lessthan $10 nor more than $5.000 for each violation. Fined not less than $10 or more than $100 or Imprisoned not less than 30 days.or both for each violation. Each day of continued violation Is a separate offense, pursuant to ss 14-4.89 and 162.00. Mis. Stats.
Page 2 ot
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Soil/Rock DescriptionAnd Geologic Origin For
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(Continued)
Lost return due to large fractures.
End of Boring
=>a ot
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AQTESOLV for Windows
Data Set: P:\3453\42\Hydraulic Conductivity Tests\RM304D.aqtDate: 09/02/04Time: 16:32:18
PROJECT INFORMATION
Company: RMT, Inc.Client: LTRProject: 3453.42Location: Whitelaw WlTest Date: 8/16/04Test Well: RM 304D
AQUIFER DATA
Saturated Thickness: 8.72 ftAnisotropy Ratio (Kz/Kr): 0.1
SLUG TEST WELL DATA
Initial Displacement: 3.28 ftCasing Radius: 0.087 ftWellbore Radius: 0.25 ftScreen Length: 8.72 ftGravel Pack Porosity: 0.25Static Water Column Height: 8.72 ft
No. of observations: 26
Observation DataTime (min) Displacement (ft) Time (min) Displacement (ft) Time (min) Displacement (ft)
0.50.75
1.1.251.52.2.53.3.5
3.273.122.982.872.752.532.332.121.93
4.5.6.7.8.9.11.13.15.
1.761.411.211.010.910.840.860.790.71
17.20.25.30.48.95.185.252.
0.680.630.550.480.280.210.160.13
SOLUTION
Aquifer Model: UnconfinedSolution Method: Bouwer-Rice
VISUAL ESTIMATION RESULTS
Estimated Parameters
Parameter EstimateK 0.000293 cm/sec
09/02/04 1 16:32:18
AQTESOLV for Windows
yO 3.338 ft
09/02/04 2 16:32:18
if]
CHECKED BY:
Data From:
WELL NUMBER:
ANALYSIS - BOUWER AND RICE SINGLE-WELL RESPONSE TESTPROJECT: LTR PROJECT*: 3453.42PREP'D BY: Peter TagliaFIELD TEST PERFORMED BY:
Data Logger/Transd. |
Slug Test [X~
Pete Chase FIELD TEST DATE: 8/16/04
|~~|
Water level indicator/Stopwatch
Baildown
RM 304 D
GROUND SURFACEINITIAL DRAWDOWN
(S)= | 3.27 [feat
SATURATED AQUIFER THICKNESS
(D)*= | 8.72 [feet 35'-26.28'
EFFECTIVE SCREEN LENGTH
(figure is not to scale)
(L)= | 8.72 [feet
STATIC HEIGHT OF WATER
(H)= | 8.72 [feet
RADIUS OF WELL CASING
RADIUS OF BOREHOLE (WELL)
0.250 [feet or | 3 |friches
EFFECTIVE POROSITY
.04 [inches
CORRECTED RADIUS
r'c= [ r c2 + n ( r w
2 - rc2)f
r '= 0.15- 'i;|feet
f STATIC WATER LEVEL= 28.28' - 2' stick upI 26.28 -I(ft bgs)
V INITIAL DRAWDOWN LEVEL=
I 29.55 y|(ft bgs) 26.28 + 3.27
• if K, < 1 x 10"2cm/s and recovery occurs in the
sand pack, use r'c correction.1 D = H = L is default for analysis of aquitards.
Other comments and/or assumptions:
Top of PVC
GEOL.DEPTH INFO.
(in ft bgs)
rw
2 | feet above gs
COMMENTS
SP
CL
Weathered Dolomite
Assumes that the aquifer extends at least 2 feet below the end of boring:Other depth based on additional data
G:\DATA\SILVERMT\genericslug.XLS
naffPROJECT NAME:
Page / of
FIELD HYDRAULIC CONDUCTIVITY TEST
DATE: 8 ///L
PROJECT NUMBER:
WELL NUMBER: fVl
DTW: 7fl/2.f
Water Volume Removed:
> * > . 4"L SAMPLER(S):
WELL DIAMETER: 1''
Type of Test:(slug/baildown)
T/PVC,? DTB: 3&.3Z- + Q.
Depth to Bottom: _
T/PVC
1>t -
Initial Time: 1Z.: ?° End Time:
\ <o'
%"Xs> ' ^^ •f' >- * WaJer Levet; Drawdown'
0/0/0 (Initial) If^7,0
'52.
/M >/. i to. 7-5
Z- 7t
4
. C,
8 11. o.V
For water table wells, remove at least one well (borehole volume):
one well/borehole volume (gallons) - it ri ,., [rw2 + nip (rb
2 - r,,2)] x 7.48 gal/ft3
n.p = porosity of sand pack = 0.25, w = well, b = borehole
Signed f
REV 01/05/94
For piezometers, remove sufficient water to produce at least 1 foot of drawdown, butno not lower water level into the sandpack.
Date QC'd By Date
F-189
Slate of WisconsinDepartment of Natural Resources
Rouie To:0 Solid wasteD Emergency ResponseD HastewaterD Suoerfund
0 Haz. Haste0 Underground Tanks0 Hater ResourcesD Other:
SOIL BORING LOG INFORMATIONForm 4400-122 5-3."
Page 1 of
:llty /Project Namemoerger Landfill
Ucen»e/Per«lt/Monltorlng Nuaber Boring NuaberRH-304D
a or Ing Drlled By (Firm name and name of crew chief)Environmental Drilling Services. Inc.Aaron Brunette
Date Drang Started07/26/95
Date Drilling Coapleted07/23/95
DrBSng MethodHS/AR
DNR FKfflty Mel No. NI Unique Nel No.IH3BI
CoaaonMelRH-304D
Final Static Water LevelFeet MSL
Surface Bevatlon37L5 feet HSL
Borehole Dtaaeter8/6 inches
Boring LocationState Plane N. £
HE 1/4 of NE 1/4 of Section 34. T 20 N, R 22 E
Lat •Long
Local Grid Location (If apo'cable)9436.22 Feet H 9723.30 Feet £
CountyHanitonoc
DNR County Code36
Civil Town/City/ or VillageTo*n of Franklin
Sample
01w Q.u >>
Soil/Rock DescriptionAnd Geologic Origin For
Each Major Unit
Soil Properties
.o —OC/)
IIr 'co o 11
J=! »
II§ O E
O Oeu
I/SS 28/r
Brown (7.5YR 5/4) medium to coarse sand- t/ace to a little fine gravel - dry -medium dense - upper granular unit
Reddish Drown (SYR 4/3) sandy clay -trace of fine gravel - dry - very stiff -cohesive unit
14 eo/r-10
Rl F-15
F-20
White (ICYS 8/1) to pale brown (IOYR 6/3)weathered dolomite - highly weathereddense to extremely dense sandy gravel(GP) consistency from 8.0 to 12.5 feet -
few to common vugs with a calclte crystals- Iron staining - rock unit
Run No. t: Recovery • B4S, FractureFrequency • 4.3/foot. ROD • 0.18
Run No. 2: Recovery - 100X. FractureFrequency • 4.0/fooL ROD • 0.20
R2
Run No. 3: Recovery • ftBX. FractureFrequency - 4.5/foot. ROD • 0.11
R3
R4 (Continued)I hereby^certlfy that the Jn^rmatipn on this form It true and correct to the beat of my knowledge.
iatur FirmEnvironmental Drilling Services. Inc., De Pere, HI
This form Is authorized by Chapters 144.147 and 182. Mis. Stats. Completion of this report is mandatory. Penalties: Forfeit not lessthan $10 nor more than $5,000 for each violation. Fined not less than $10 or more than $100 or Imprisoned not less than 30 days,or both for each notation. Each day of continued violation Is a separate offense, pursuant to ss 144.89 and 162.08, Mis. Stats.
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AQTESOLV for Windows
Data Set: P:\3453\42\Hydraulic Conductivity Tests\RM305D.aqtDate: 09/02/04Time: 16:32:51
PROJECT INFORMATION
Company: RMT, Inc.Client: LTRProject: 3453.42Location: Whitelaw WlTest Date: 8/17/04Test Well: RM 305D
AQUIFER DATA
Saturated Thickness: 9.1ftAnisotropy Ratio (Kz/Kr): 0.1
SLUG TEST WELL DATA
Initial Displacement: 3.41 ftCasing Radius: 0.087 ftWellbore Radius: 0.25 ftScreen Length: 9.1 ftGravel Pack Porosity: 0.25Static Water Column Height: 9.1ft
No. of observations: 23
Observation DataTime (min) Displacement (ft) Time (min) Displacement (ft) Time (min) Displacement (ft)
0.5 3.4 5. 2. 25. 1.351. 3.27 6. 1.91 30. 1.3
1.5 2.96 7. 1.8 37. 1.2. 2.76 8. 1.75 120. 0.872.5 2.58 10. 1.66 180. 0.663. 2.37 12. 1.6 389. 0.453.5 2.25 15. 1.53 459. 0.354. 2.14 20. 1.45
SOLUTION
Aquifer Model: UnconfinedSolution Method: Bouwer-Rice
VISUAL ESTIMATION RESULTS
Estimated Parameters
Parameter EstimateK 2.246E-05 cm/sec
yO 1.917 ft
09/02/04 1 16:32-51
ANALYSIS - BOUWER AND RICE SINGLE-WELL RESPONSE TESTPROJECT: LTR PROJECT #: 3453.42PREP'D BY: Peter Taglia CHECKED BY:FIELD TEST PERFORMED BY: Pete Chase FIELD TEST DATE: 8/17/04
Data From:
WELL NUMBER:
| | Data Logger/Transd. | |
[ | Slug Test [x~|
Water level indicator/Stopwatch
Baildown
RM 305 D
INITIAL DRAWDOWN >(S)= | 3.40 |feet
GROUND SURFACE(figure is not to scale)
SATURATED AQUIFER THICKNESS(D)*= | 9.10 [feet 62-52.9
EFFECTIVE SCREEN LENGTH(L)= [ 9.10 |feet
STATIC HEIGHT OF WATER(H)= | 9.10 ]feet
feet or | 1.04 | inchesRADIUS OF WELL CASING
RADIUS OF BOREHOLE (WELL
CORRECTED RADIUSr'c= [ r c
2+n(rw2 - rc
2)
r'c= | Q.I5, : />|i
T STATIC WATER LEVEL=I 52.90 |(ft bgs)
V INITIAL DRAWDOWN LEVEL=
54.90' - 2' Stickup
| 56.30 | (ft bgs) 52.9 + 3.4
if K| < 1 x 1 0"2cm/s and recovery occurs in the
sand pack, use r'c correction.
D = H = L is default for analysis of aquitards.
Other comments and/or assumptions:
Top of PVC
| DEPTH(in ft bgs)
GEOLINFO.SM
feet above gs
COMMENTS
Weathered dolomite
Fractured dolomite
Assumes that the aquifer extends at least 2 feet below the end of boring:[ Other depth based on additional data
G:\DATA\SILVERMT\genericslug.XLS
JBKT Page of
FIELD HYDRAULIC CONDUCTIVITY TEST
PROJECT NAME: L-TU^ DATE:
PROJECT NUMBER:
WELL NUMBER:
DTW:
SAMPLER(S):
WELL DIAMETER:
Water Volume Removed:
Type of Test:(slug/baildown)
T/PVC
/M.
+ Q.Z.C T/PVC
Depth to Bottom: bLj-B*—* G& ^S
Initial Time: End Time:
0/0/0
T«
370
4-
*JZ
(Initial)
2. 5S
7.
zo25
/ 10
55.2*
For water table wells, remove at least one well (borehole volume):
one well/borehole volume (gallons) - ?c h ,,., [rwz + nv (rb
2 - r,,2)] x 7.48 gal/ft3
n.p = porosity of sand pack = 0.25, w = well, b = borehole
For piezometers, remove sufficient water to produce at least 1 foot of drawdown, butno not lower water leveLintg the sandpack.
Signed
REV 01/05/94 F-189
S t a t e of WisconsinDepartment of Natural Resources
Route To;0 Solid Haste0 Emergency Response0 Hastewater0 Superfund
0 Hai. Was te0 Undergrouna TanksD Water Resources0 Other:
SOIL BORING LOG 1NFORMATICForm 4400-122 5-;
Page 1 o;icIty/Project Nameemberger L ana fill
LIcense/PeralL/Monltorlng Number Boring NumberRM-305D
Boring Drlled By (Firm name and name of crew chief)Environmental Drilling Services. Inc.Brian Repinskl
Date Drang Started07/2B/95
Date Drlffing Completed07/31/95
DrOUng MethodHS/AR
ONR FacHty Mel No. NI Unique Hal No.IH4I2
CoMonMiRM-305D
Final Static Mater LevelFeet NSL
Surface Elevationfeet MSL
Borehole Dlaoeter6/6 inches
Boring LocationState Plane N. £HE 1/4 of NE 1/4 of Section 34. T 20 N, R 22 E
Lat •Long
Local Grid Location Of applicable)feet S Feet M
CountyHanitowoc
ONR County Code36
Dvll Town/aty/ or VllageTown of FrankKn
Sample
_ CLti >•
Soil/Rock DescriptionAnd Geologic Origin For
Each Major Unit
Soil Properties
Ifo —uw
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I/SS M u/r Brown (IOYR 6/3) sllty sand - commonroots - dry - medium dense - uppergranular unit
SM
2/SS 100/2"
1DO/-
Rl
R2
R3
R4
R5
-15
-20
-25
-30
-35
White (IOrR 8/1) to grayish brown (10YR6/3) weathered dolomite - fractured andweathered to an extremely dense sou IGM)consistency from 2.5 to U.O feet - few tocommon vugs with calclte crystals - Ironstaining on fracture surfaces - few tocommon coral and styotlte fossils
Run No. fc Recovery • BOX. FractureFrequency - 3.0/foot. ROD - 0
Run No. 2: Recovery • 88X, FractureFrequency • 3.0/foot. ROD » 0.28
Run No. 3: Recovery • 78X, FractureFrequency • L5/foot. ROD " 0.60
Run No. •<: Recovery - 78X. FractureFrequency - 18/foot, ROD • 0.62
Run No. S: Recovery • B4X, FractureFrequency - H/foot. ROD • 0.64
Run No. 6: Recovery • 44X. FractureFrequency • 6.3/foot, ROD • 0
(Continued)T hereby certify that thejnforma^ion on this fora is true and correct to the best of my knowledge.
natur FirmEnvironmental Drilling Services, Inc., De Pere, WI
This form Is authorized by Chapters 144.147 and 162. His. Stats. Completion of this report Is mandatory. Penalties: Forfeit not lessthan $10 nor more than $5,000 for each violation. Fined not less than $10 or more than $100 or Imprisoned not leas than 30 days,or both for each violation. Each day of continued violation Is a separate offense, pursuant to ss 144.00 and 102.06. His. Stats.
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Soil/Rock DescriptionAnd Geologic Origin For
Each Major Unit
(Continued)
Run No. 7: Recovery » 30X, FractureFrequency - 8.8/foot, ROD - 0
Run No. 8: Recovery • 30X. FractureFrequency • 8.3/foot. RQO • 0
End of Boring
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AQTESOLV for Windows
Data Set: P:\3453\42\Hydraulic Conductivity Tests\RM306D.aqtDate: 09/15/04Time: 16:33:46
PROJECT INFORMATION
Company: RMT, Inc.Client: LTRProject: 3453.42Location: Whitelaw WlTest Date: 8/17/04Test Well: RM 306D
AQUIFER DATA
Saturated Thickness: 12.83 ftAnisotropy Ratio (Kz/Kr): 0.1
SLUG TEST WELL DATA
Initial Displacement: 0.93 ftCasing Radius: 0.087 ftWellbore Radius: 0.25 ftScreen Length: 12.83ftGravel Pack Porosity: 0.Static Water Column Height: 12.83 ft
No. of observations: 16
Observation DataTime (min) Displacement (ft) Time (min) Displacement (ft) Time (min) Displacement (ft)
0.5 0.92 3.5 0.27 8. 0.131. 0.69 4. 0.25 10. 0.1
1.5 0.52 4.5 0.24 12. 0.082. 0.41 5. 0.23 15. 0.07
2.5 0.35 6. 0.183. 0.3 7. 0.16
SOLUTION
Aquifer Model: UnconfinedSolution Method: Bouwer-Rice
VISUAL ESTIMATION RESULTS
Estimated Parameters
Parameter EstimateK 0.0001756 cm/sec
yO 0.99 ft
09/15/04 1 16:33:4
mANALYSIS - BOUWER AND RICE SINGLE-WELL RESPONSE TESTPROJECT: LTR PROJECT #: 3453.42PREP'D BY: Peter Taglia CHECKED BY:FIELD TEST PERFORMED BY: Pete Chase FIELD TEST DATE: 8/17/04
Data From:
WELL NUMBER:
| | Data Logger/Transd. | j
| | Slug Test |X~|
RM 306 D
INITIAL DRAWDOWN
(S)= | 0.92
GROUND SURFACE(figure is not to scale)
Water level indicator/Stopwatch
Baildown
Top of PVC
GEOL.DEPTH INFO.
SATURATED AQUIFER THICKNESS(D)*= | 12.83 |feet 55.5-42.67
EFFECTIVE SCREEN LENGTH(L)= | 12.83 jfeet s
STATIC HEIGHT OF WATER(H)= | 12.83 |feet r
RADIUS OF WELL CASING
0.087 feet or | 1.Q4/inches
RADIUS OF BOREHOLE (WELL) j
TW= 0.250 feet or3 inches' ' * *(in bedrock)
EFFECTIVE POROSITYn= | 0.25 | <-
CORRECTED RADIUS
r> [ r c2 +n ( r w
2 - rc2)f
r'= I 0:1S; •
T STATIC WATER LEVEL= 44.67' - 2' StickupI 42.67 |(ft bgs)
V INITIAL DRAWDOWN LEVEL=| 43.59 |(ft bgs) 42.67' + .92
• if K, < 1 x 10"2cm/s and recovery occurs in the
sand pack, use r'c correction.• D = H = L is default for analysis of aquitards.
Other comments and/or assumptions:
(in ft bgs)
2 | feet above gs
COMMENTSSP-SM
CL
SM
11
15
Weathered dolomite
Fractured dolomite
Assumes that the aquifer extends at least 2 feet below the end of boring:[Bother depth based on additional data
G:\DATA\SILVERMT\genericslug.XLS
mar Page / of
FIELD HYDRAULIC CONDUCTIVITY TEST_ — /
PROJECT NAME: UWWr, - / P\ DATE: O//7/^
PROJECT NUMBER: SAMPLERS: "^ CHAT£
WELL NUMBER:
DTW: 44, C
RM ^O4D WELL DIAMETER: 2.
^ + O.C3Z)
Water Volume Removed: 1 ' H 9f^ ^
Tvoe of Test:
T/PVC DTB: ^^.3^ + O.2-6 T/PVC
Depth to Bottom: ^^ .^*
P^^l^oiM^ Initialslug/baildown)
.T |[f$&jh
0/0/0
oh*//<x>
/ i cj~) /00
ih6
3/0o
-7 b-o
/ 1 QO
J^?o^/oo
6A-JZ/«-s/*(Of'°(-U^
' Wat Levei '
(Initial)
O.fZ.17
o. fcp v
& .51-0. 1( ^
0,!>$ V
0 . 3 0 v0.2,f /
°-tS^0,2-1^0 . 2 $ ^
Q-iQ /
0.^ ^
fl./lV"Qj2^5*,<?« i/
, - Drawdown ;?/'
; ^'f<^/ </5~<3'L/H5. /r/^/ ^ j/^•-/- "^c?
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/^^. 7*/4,!<n
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Time? D " E
l0:4&-z
:"''Waler Loief ,
nd Time:
3-.f.4- - •.
For water table wells, remove at least one well (borehole volume):
one well/borehole volume (gallons) - n \\n>a, [rw2 + n^ (rb
2 - r,,2)] x 7.48 gal/ft3
n.p = porosity of sand pack = 0.25, w = well, b = borehole
For piezometers, remove sufficient water to produce at least 1 foot of drawdown, butno not lower water level into the sandpack.
Signed
REV 01/05/94
Date QC'BTy Dat
F-189
Sla te o f Wiscons inDepartment of Natural Resources
Route To:0 Solid Haste0 Emergency Response0 wastewaterD Suoerfund
0 Haz. Waste0 UnoergrounO Tanks0 Hater Resources0 Other:
SOIL BORING LOG INFORMATIONForm 4400-122 5-92
Page I of 2
aty/Project Nai.oerger LamKitt
Ucense/PerBlt/Monltorlng Number Boring NumberRH-306D
Boring Drlaed By (Firm name ana name of crew chief)Environmental Drilling Services, Inc.Brian Repinslti
Date Orlhg Started08/01/95
Date DrBBng Completed06/01/95
DrBang MethodHSA/HR
DNR Facity Mel No. MI Unique Mel No.IH4I3
COMOTI MiRH-306D
Final Static Mater LevelFeet HSL
Surface Elevation652.5 Feet HSL
Borehole Diameter8/6 inches
Boring LocationState Plane N, £HE 1/4 of HE 1/4 of Section 34. T 20 N. R 22 £
Lai 'Long
Local Grid Location Of applicable)9379.15 Feet N 8391.72 Feet E
CountyHani to woe
DNR County Code36
Civil ToMtv/aty/ or VillageTo*n ot Franklin
Sample
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Soil/Rock DescriptionAnd Geologic Origin For
Each Major Unit
Soil Properties
Q. CE J)
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1/SS 14/f Dark brown (7.5YR 3/2) lilty sand - traceof roots - moist - Median dense - uppergranular unit
2/SS 21 B/r
1
Light yeilowijh brown (10YR 8/4) fine sandgrading with depth to reddish brown (SYR4/4) and brown (7.5YR 4f4) slightly sillysand - trace of fine gravel - dry to moist- loose to medium dense - upper granularunit
SP-SC
•1020 28/r
• 15
Reddish brown (SYR S/4) sandy sNty clay- trace of fine gravel - noist - firm tovery stiff - cohesive unitPale brown (10YR 0/3) gravelly sllty sand -dry - nedhin dense - lower granular unit -possible weathered dolomite
CL
SM
4/SS 00/3"
•205/S3 00/5'
Mhite (10YR 8/1) to grayish brown (IOYR5/2) highly weathered dolomite -weathered to consistency of sandy gravel(GP) to 34.1 feet - few to common vugs
with calcite crystals - few coral fossilsand Iron stains on few joint surfaces -rock unit
•25e/ss DO/3'
•307/SS 00/3" -
— 35
fli
Run No. t Recovery • 54X. FractureFrequency • 4.4/foot, ROD - 0.08
(Continued)I hereby certify that the information on this form is true and correct to the best of my knowledge.
mature FirnEnvironmental Drilling Services. Inc., De Pere, WI
This form is authorized by Chapters 144.147 and 162. His. Stats. Completion Of this report is mandatory. Penalties: Forfeit not lessthan $10 nor more than $5.000 for each violation. Fined not less than $10 or more than $100 or Imprisoned not less than 30 days.or both for each violation. Each day of continued violation Is a separate offense, pursuant to ss 144.00 and W2.06. His. Stats.
Page 2 of :
Sample
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-80
-85
-90
-95
-IOC
Soil/Rock DescriptionAnd Geologic Origin For
Each Major Unil
(Continued)
Run No. 2: Recovery • 20X. FractureFrequency • Highly fractured. ROD • 0
End of Boring
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55
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