-
WATER-QUALITY DATA FOR THE POTOMAC-RARITAN-MAGOTHY
AQUIFER SYSTEM IN SOUTHWESTERN NEW JERSEY, 1923-83
By Thomas V. Fusillo, Joseph J. Hochreiter , Jr., and Deborah
Grant Lord
U.S. GEOLOGICAL SURVEY
Open-File Report 84-737
Prepared in cooperation with
NEW JERSEY DEPARTMENT OF ENVIRONMENTAL PROTECTION,
DIVISION OF WATER RESOURCES
Trenton, New Jersey
November 1984
-
UNITED STATES DEPARTMENT OF THE INTERIOR
WILLIAM P. CLARK, Secretary
GEOLOGICAL SURVEY
Dallas L. Peck, Director
For additional write to:
information
District Chief U.S. Geological Survey Room 418, Federal Building
402 East State Street Trenton, New Jersey 08608
Copies of this report can be purchased from:
Open-File Service Section Western Distribution Branch Box 25425,
Federal Center Denver, Colorado 80225 (Telephone: (303)
236-7476)
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CONTENTS
Page
Abstract...................................................
1Introduction ............................................... 1
Purpose and scope ....................................
2Well-numbering system................................
4Acknowledgments...................................... 4
Geohydrology...............................................
4Sample collection and preservation methods .................
6Laboratory analytical methods ..............................
8Quality assurance of data ..................................
9Water-quality data .........................................
9Summary of data ............................................
12Selected references ........................................
1U
PLATE
Plate 1. Map showing location of wells with water-qualitydata
......................................back pocket
ILLUSTRATIONS
Figure 1. Location of the study area ...................... 32.
Hydrogeologic section through study area........ 5
TABLES
Table 1. Records of selected wells....................... 172.
Minimum, median, and maximum values of physical 11
characteristics and chemical constituents.....3. Results of
analyses of well water samples for
common constituents and physical
characteristics............................... 26
4. Results of analyses of ground-water samples fordissolved
trace metals ........................ 71
5. Results of analyses of ground-water samples fordissolved
nutrients ........................... 85
6. Results of analyses of ground-water samples forvolatile
organic compounds .................... 99
7. Results of analyses of ground-water samples fordissolved
chloride and specific conductance... 111
111
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GLOSSARY
Aquifer. A geologic formation, group of formations, or part of a
formation that contains sufficient saturated permeable material to
yield significant quantities of water to wells and springs.
Micrograms per liter (UG/L, ug/L) . A unit expressing the
concent- ration of chemical constituents in solution as weight
(micro- grams[1 microgram = 10~ 6 grams]) of solute per unit volume
(liter) of water. One thousand micrograms per liter is equivalent
to one milligram per liter.
Milligrams per liter (mg/L). A unit for expressing the
concentra- tion of chemical constituents in solution as the weight
(milligrams [1 milligram = 10~ 3 grams]) of solute per unit volume
(liter) of water. One mg/L is approximately equal to 1 part per
million (PPM) in aqueous solutions of low dissolved-solids
concentration.
Minimum detection limit. For a given type of sample and analyti-
cal procedure, it is that concentration value below which the
presence of the constituent being analyzed cannot be verified or
denied. Minimum detection limits can be identified in the tables of
this report by a less than symbol «) preceding a numerical value.
This numerical value is generally constant for the analysis of a
given constituent by a constant method. The minimum detection limit
may vary greatly, however, with different laboratory analytical
methods.
National Geodetic Vertical Datum of 1929 (NGVD of 1929). A geo-
detic datum derived from a general adjustment of the first- order
level nets of both the United States and Canda, formerly called
"Mean Sea Level". NGVD of 1929 is referred to as sea level in this
report.
Outcrop area. Area where strata are exposed at land surface or
occur just below the surface soil.
Specific conductance. A measure of the ability of a water to
con- duct an electrical current expressed in micromhos per centi-
meter at 25°C. Because the specific conductance is related to the
number and specific chemical types of ions in solution, it may be
used for approximating the dissolved solids contents of the water.
Commonly, the amount of dissolved solids (in milli- grams per
liter) is about 55 to 75 percent of the specific conductance (in
micromhos per centimeter at 25°C) (Hem, 1970). This relation is not
constant from well to well, and it may even vary in the same source
with changes in the composition of the water.
IV
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WATER-QUALITY DATA FOR THE POTOMAC-RARITAN-MAGOTHY
AQUIFER SYSTEM IN SOUTHWESTERN NEW JERSEY, 1923-83
By Thomas V. Fusillo, Joseph J. Hochreiter, Jr., andDeborah
Grant Lord
ABSTRACT
Water-quality data for wells in and near the outcrop area of the
Potomac-Raritan-Magothy aquifer system in Mercer, Burlington,
Camden, Gloucester, and Salem Counties, New Jersey, have been
compiled for the period 1923-1983. The data were collected during
various U.S. Geological Survey projects, including county-wide
ground-water studies, the New Jersey saltwater intrusion monitoring
network, and regional ground-water assessments.
Data have been collected from many types of wells, includ- ing
public-supply, domestic-supply, industrial, commercial, irri-
gation, observation, and test wells. A table of well-construction
data for all sampled wells is presented. Samples were analyzed for
many inorganic and organic constituents, including common ions,
dissolved trace metals, volatile organic compounds, and physical
characeristics. Analytical procedures for most constituents have
been periodically revised. A literature review of the sampling,
preservation, and laboratory-analytical methods employed through-
out the period is included. Quality assurance checks were per-
formed on the data prior to publication. These included checks of
the major ion balances, comparisons of field-determined and
laboratory-determined constituents, comparisons of dissolved and
total constituent concentrations, and ratios of various consti-
tuent concentrations to specific conductance.
Concentration of most constituents differed widely. For example,
chloride concentrations ranged from 0.6 to 1,900 mg/L, with a
median value of 20 mg/L; dissolved organic carbon ranged from 0 to
108 mg/L, with a median of 1.7 mg/L; dissolved iron ranged from 0
to 460 mg/L, with a median value of 1 mg/L.
INTRODUCTION
The Potomac-Raritan-Magothy aquifer system contains some of the
most productive aquifers in the Atlantic Coastal Plain. The entire
aquifer system accounts for more than 60 percent of the total
pumpage from the Coastal Plain (Vowinkel and Foster, 1981).
Increased withdrawal of water from the aquifer system resulting
from industrial and residential growth has affected patterns of
ground-water flow and aquifer recharge. In some areas, partic-
1
-
ularly the outcrop area along the Delaware River, the quality of
water in the aquifer system has been degraded by a variety of
inorganic and organic substances, affecting the potential uses of
the water in some areas. Because of the importance of the aquifer
system for potable and industrial water supply, it has been
monitored for various forms of contamination for more than 60 years
.
The U.S. Geological Survey, in cooperation with the New Jersey
Department of Environmental Protection, Division of Water
Resources, is studying the water quality of the Potomac-Raritan-
Magothy aquifer system in the vicinity of its outcrop area adjacent
to the Delaware River. The objective of the study is to investigate
the areal and vertical distribution and movement of chemical
constituents, particularly inorganic and organic contaminants,
within the aquifer system.
Purpose and Scope
The purpose of this report is to compile into one publica- tion
all the pertinent and valid water-quality data for the aqui- fer
system in parts of five counties in southwestern New Jersey,
including Burlington, Camden , Gloucester, Mercer and Salem
Counties (shown in figure 1). The study area extends from the
outcrop of the aquifer system to approximately 15 miles southeast
of the outcrop. The data include samples collected from public-
supply, domestic, industrial commercial, irrigation, observation
and test wells. These data have been collected for various
projects, including county ground-water resource studies, the New
Jersey saltwater instrusion monitoring network, and other water-
resources investigations.
This report contains data on water samples collected and
analyzed by the U.S. Geological Survey from 1923 to 1983- Prior to
the establishment of regional water quality laboratories, water
samples were analyzed by several local Survey laboratories, using
methodologies that were standard at the time of analysis. Begin-
ning about 1950, most analyses were performed at regional water
quality laboratories in Albany, New York, Harrisburg and Phila-
delphia, Pennsylvania, and Denver, Colorado. However, many chloride
analyses for the New Jersey saltwater intrusion network from the
early 1960's through 1976 were performed at the New Jersey district
laboratory in Trenton. Since November, 1976, most analyses have
been performed by the National Water-Quality Labora- tory in
Doraville, Georgia.
Some of these data have been published in previous reports,
including Fusillo and Voronin (1981), Farlekas and others (1976),
Langmuir (1969), Hardt and Hilton (1969), Rosenau and others
(1969), Rush (1968), Donsky (1963), Seaber (1963), Rush (1962),
Vecchioli and Palmer (1962), and Thompson (1932).
-
SUSSEX /
PASSAIC
HUNTERDON
Area covered by this study
Area delineated on plate 1
10 20 Miles _
0 20 30 Kilometers
39°r-
Figure 1. Location of the study area.
3
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Well-Numbering System
The well-numbering system used in this report are based on the
system used by the U.S. Geological Survey in New Jersey. The well
number consists of the county designation and a sequence number of
the well within each county. New Jersey county codes are numerical
two-digit codes. New Jersey county codes used in this report are
Burlington (05), Camden (07), Gloucester (15), Mercer (21), and
Salem (33). A representative well number is 15-137 for the 137th
well indexed in Gloucester County.
Acknowledgments
The authors gratefully acknowledge the assistance of public
officials, industry representatives, and individuals who permitted
access to their wells for the collection of water samples and
provided information on their wells.
GEOHYDROLOGY
The New Jersey Coastal Plain consists of a wedge of unconso
1idated sediments which thickens and dips toward the Atlantic
Ocean. The oldest of these sediments are the Potomac Group and
Raritan and Magothy Formations of Cretaceous age, which overlie
crystalline bedrock.
The Potomac-Raritan-Magothy aquifer system consists of aquifers
composed of sand and gravel and confining units of silt and clay.
The aquifer system crops out in a narrow 3-to-5 mile- wide band
adjacent to the Delaware River in southwestern New Jersey. Three
major aquifers have been defined within the aquifer system in most
of the study area. A typical hydrogeologic section through the
study area is illustrated in figure 2 (written communication, Otto
S. Zapecza, U.S. Geological Survey, 1983).
The aquifer system is confined from below by crystalline bedrock
and from above by the thick clay of Merchantville-Woodbury
confining unit. The Merchantville-Woodbury confining unit is one of
the least permeable confining units in the New Jersey Coastal Plain
and limits vertical leakage into the aquifer system from overlying
sediments southeast of the outcrop area.
The Potomac-Raritan-Magothy aquifer system is artesian, except
in parts of the outcrop area, where the upper and middle aquifers
are water-table aquifers. In New Jersey, the lower aquifer is
thought to be confined but, in Pennsylvania, may be a water-table
aquifer. The lower aquifer may also receive recharge vertically
through the leaky confining unit between the middle and lower
aquifer. Potentiometric heads in the middle and lower aqui- fers
are similar in much of the Coastal Plain and are generally lower
than potentiometric heads in the upper aquifer (Walker, 1983)
-
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Figure 2. Hydrogeologic section through study ar
ea.
Line of
section shown
on Plate
1.
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The geohydrology is more complex within the outcrop area than
downdip of the outcrop. In the outcrop area, the confining units
are thinner, so that hydraulic connection between aquifers is more
likely. There are also numerous lenses of sand and clay which occur
locally. In much of its outcrop area, the Cretaceous aquifer system
is overlain by post-Cretaceous deposits, most of which are
hydraulically connected to the underlying aquifer system.
Evaluation of aquifer tests of wells screened in the
Potomac-Raritan-Magothy aquifer system in Camden County indicates
that the transmissivity of the aquifer ranges from 2,300 to 6,700
ftVday (17,000 to 50,000 gal/d/ft). Storage coefficients range from
1x10~"* to 3.5x10~ 3 . In Camden County the average yield of 106
large diameter wells (12 inches or larger) is 1,085 gal/min and the
specific capacity ranges from 6.1 to 80 gal/min/ft of drawdown.
(Farlekas and others, 1976, p. 38).
SAMPLE COLLECTION AND PRESERVATION METHODS
The methods used to collect and preserve the ground-water
samples included in this report have changed significantly for most
chemical constituents from 1923 to 1983. This section of the report
will review the chronology of sample collection and preser- vation
methods used during this period.
The methods used for collection and preservation of ground-
water samples prior to 1950 are not well documented. Leighton
(1905) described the instruments and reagents used for early field
determinations of turbidity, color, hardness, alkalinity, car-
bonate, bicarbonate, calcium, iron, sulfate, and chloride. Samples
collected at this time were filtered in the field through porous
stone to remove suspended material.
Collins (1928), the major reference on sample collection methods
used prior to 1950, stated that water samples were col- lected in
bottles of "resistant glass" , and a gallon of sample was usually
collected. He 'stated that samples should be analyzed within a
month of collection. Water that contained hydrogen sulfide was
treated with solid cadmium chloride in order to obtain a reliable
sulfate measurement; however, no additional sample preservation
methods were discussed.
Rainwater and Thatcher (1960) described methods commonly used
from 1950 to 1969. They recommended that sample containers be made
of hard rubber, polyethylene, other types of plastics, or certain
types of borosilicate glass. Sample containers were cleaned and
soaked in water for several days before use. A sample of four
ounces to one gallon in size was collected. Closures were made of
glass, rubber, tin-wrapped cork, or inert plastic.
-
Rainwater and Thatcher (1960) recommended that very little time
should lapse between the collection and analysis of samples. For
analyses of metals, however, they acknowledged that this was often
a problem because of the distance separating sampling locations and
water-quality laboratories. They recommended that a separate sample
be collected for metals, which should be free of sediment and
acidified with glacial acetic acid to pH 3.5 upon collection. They
described preservation techniques for the following constituents:
Ammonia-, nitrate-, and nitrite-nitrogen, organic nitrogen,
orthophosphate, chlorine residual, dissolved oxygen, sulfide, and
selenium.
Brown and others (1970) summarized information on methods for
collection of water samples for dissolved minerals and gases. They
recommended the use of polyethylene, teflon, or other plastic type
containers. They stated that separate samples should be collected
for individual ions or ion groups so that the analysis would more
closely represent the water quality of the sample at the time of
collection. A thorough treatment of sample prepara- tion and
preservation guidelines for common inorganic constituents was also
included.
Barnett and Mallory (1971) describe sampling methods for
analysis of minor elements (trace metals). They recommended that
samples be collected in clean polyethlylene bottles, filtered
through a 0.45 micrometer membrane filter using a plastic
pressure-filter, and acidified to a pH of 3.0 or less with 1:1
double-distilled acid (nitric or hydrochloric acid, depending on
the method of analysis). A two-liter sample was to be collected for
water with dissolved solids greater than 100, and proportion- ately
more sample was collected for water with dissolved solids less than
100 mg/L.
Goerlitz and Brown (1972) described collection methods for the
analysis of select organic substances (organic carbon and organic
nitrogen) . Water should be sampled using inert plastic materials,
and samples should be collected in glass bottles. They state that
water may be sampled from pumps, provided that they are free of
oils. In such instances, samples should be collected directly into
the sample bottles. Samples for organic carbon analysis are
preserved by refrigeration at 4°C. Samples for nitrogen analysis
should be treated with 40 mg of mercuric chloride per liter of
sample and refrigerated at 4°C.
Wood (1976) described guidelines for collection of ground- water
samples for analysis of selected unstable constituents and
characteristics, including temperature, pH, Eh, specific conduc-
tance, carbonate, bicarbonate, and dissolved oxygen. Procedures are
outlined for the proper collection of samples from observation
wells that would yield representative ground-water samples.
Claassen (1982) described guidelines for collecting water
samples that are representative of the chemistry of an aquifer. He
describes the effects of well construction and completion
-
techniques on the sample chemistry. He also reviews the types of
pumps and their effects on sample chemistry.
The sample collection and preservation methods outlined by Brown
and others (1970), Goerlitz and Brown (1972) and Wood (1976) with
subsequent refinements are the basis for current Survey policy for
their respective analytical groups. U.S. Geological Survey sample
collection and preservation procedures are continually reviewed,
and updates are distributed as technical memoranda.
LABORATORY ANALYTICAL METHODS
The laboratory analytical methods used to obtain the data
included in this report have undergone even more significant
changes from 1923 to 1983 than have sample collection and
preservation methods. This section will briefly review the
chronology of references on laboratory analysis methods used during
this period.
Durum (1978) presented a profile of water-quality labora- tories
in the U.S. Geological Survey from 1879 to 1973. Following is an
account of the major references documenting methods for laboratory
analysis of water samples between the years 1918 and 1950 (Durum,
1978).
Collins and Foster (1923) described methods used during the
first half of the twentieth century to analyze for alkalinity,
hardness, calcium, chloride, sulfate, and nitrate in water. Collins
(1928) later described methodology for analyzing water samples for
some inorganic constituents and characteristics, including
turbidity, color, total dissolved solids, silica, calcium,
magnesium, sodium, potassium, iron, aluminum, manganese, and
sulfate.
In 1950, an unpublished text titled "Methods of water analysis"
was compiled in an effort to standardize U.S. Geological Survey
laboratory methods. A revised edition, by Rainwater and Thatcher
was published in 1960. These two publications were referenced
extensively between 1950 and 1969 for the analysis of inorganic
constituents.
Haffty (1960) described methods for analyzing common trace
elements, and Barnett and Mallory (1971) documented the determina-
tion of minor elements by emission spectroscopy. Procedures
outlined in these two sources were used primarily from 1956 to
1973.
Brown and others (1970) compiled methods for analysis of
dissolved minerals and gases. Fishman and Brown (1976) described
selected methods for the analysis of waste waters. Skougstad and
others (1979) listed methods which supercede both of these
8
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publications. Since 1979, some inorganic constituents (calcium,
magnesium, sodium, silica and 13 trace metals) have been analyzed
by induction-coupled plasma atomic-emission spectrometry (Garbarino
and Taylor, 1979).
Methods for analyzing organic substances such as organic carbon
and organic nitrogen, phenols, pesticides and herbicides in water
samples are described by Goerlitz and Brown (1972) and Van* Hall
and others (1963). These methods have been updated and superseded
by Wershaw and others (1983), who also include analytical methods
for purgeable and extractable organic compounds .
QUALITY ASSURANCE OF DATA
All water-quality data included in this report were ana- lyzed
in U.S. Geological Survey laboratories and were subject to the
standard laboratory quality assurance procedures in effect at the
time of analysis. As a check that the data were properly reported
and stored in the computerized WATSTORE data base, several quality
assurance checks were performed. As described by Friedman and
Erdmann (1982) and Hem (1970), the checks for each analysis
included the following:
1. The ion balance between major cations and anions.
2. The ratio of dissolved solids to specific conductance.
3. Field-determined vs. lab-determined constituents and
characteristics.
4. The ratios of total cations and total anions to specific
conductance.
5. Dissolved vs. total constituent concentrations.
6. Measured dissolved solids vs. calculated sum of constituents
.
An additional requirement was the existence of a verifiable
base- line of information, which included location and construction
specifications, for each well from which sample data were obtained.
Updates and deletions of data were made based on an evaluation of
these factors.
WATER-QUALITY DATA
This report contains water-quality data representing sam- ples
from 519 wells located in five New Jersey counties. The loca- tions
of wells are shown on plate 1. Selected well-construction
-
data are listed in table 1. To simplify locating the wells on
plate 1, an index key has been included in table 1 which relates
the location of each well to the index grid shown around the border
of plate 1.
The data in this report have been grouped by constituent type,
so that constituents which are commonly analyzed together are found
in the same table. Table 2 is a statistical summary of these data,
and includes the minimum, median and maximum values and the number
of analyses for each constituent. Summaries of all the
water-quality constituents and characteristics included in this
report are in table 2, with the exception of the volatile organic
compounds.
10
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Table 2. Minimum, median, and maximum values of physical
characteristics andchemical constituents.
[Concentrations in milligrams per liter of dissolved
constituentexcept as noted.]
Parameter
Temperature (°C)Specific Conductance, field (ymhos)Specific
Conductance, lab (vtnhos)pH, field (units)pH, lab
(units)Alkalinity, field (as CaC0 3 )Alkalinity, lab (as CaC0 3
)Dissolved oxygenHardness (as CaC0 3 )Hardness, noncarbonate (as
CaC0 3
)SodiumPotassiumCalciumMagnesiumSulfateChlorideFluorideSilicaNitrate
nitrogen (as N)Nitrate nitrogen (as N0 3 )Ammonia nitrogen (as
N)Ammonia nitrogen (as NHi»)Ammonia and organic nitrogen (as
N)Nitrate and nitrite nitrogen (as N)Orthophosphate phosphorus (as
P)Iron, total (yg/L)Iron, dissolved (yl/L)Manganese, total
(yg/L)Manganese, dissolved (yg/L)Aluminum (yg/L)Arsenic
(yg/L)Barium (yg/L)Beryllium (yg/L)Cadmium (yg/L)Cobalt
(yg/L)Copper (yg/L)Chromium (yg/L)Chromium, hexavalent (yg/L)Lead
(yg/L)Lithium (yg/L)Molybdenum (yg/L)Strontium (yg/L)Vanadium
(yg/L)Zinc (yg/L)Dissolved organic carbonDissolved solids (residue
onevaporation at 180°C)
Dissolved solids (sum ofconstituents)
Numberof
samples
860668
1,600452744421382137
1,004990951940971967
1,0342,359
685965365575147146147394516523479482477193160260259276275278171148263270257270257282409
973945
Minimum
8.939323.92.8000001.4.1.1.1
0.6
0000
-
Table 3 contains data on common inorganic ions and
physicalcharacteristics, including:
temperature sodium sulfatespecific conductance potassium
fluoridepH calcium ironalkalinity magnesium manganesedissolved
oxygen silica dissolved organic carbonhardness chloride dissolved
solids
Table 4 contains data on dissolved trace metals, including:
aluminiumarsenicbariumberylliumcadmium
chromiumhexavalent chromiumcobaltcopperlead
lithiummolybdenumstrontiumvanadiumzinc
Table 5 contains data on dissolved nutrients, including:
nitrate nitrogennitrate and nitrite nitrogenammonia and organic
nitrogen
ammonia nitrogen orthophosphate
Table 6 contains data on volatile organic
compounds,including:
benzene1, 1-dichloroethane1,2-dichloroethane1,
1-dichloroethylene1,2-trans-dichloroethylenechlorobenzeneethylbenzenecarbon
tetrachloride
methylene chloride
tetrachloroethylene1.1.1-trichloroethane1.1.2-trichloroethanetrichloroethylenetoluenevinyl
chloride1,2-dichloropropane
Table 7 contains data on specific conductance and dissolved
chloride for selected wells which have been sampled as part of the
saltwater intrusion monitoring network or have been sampled for
analysis of chloride only.
SUMMARY OF DATA
All the chemical constituents and measured in water samples from
wells Magothy aquifer system exhibited a Dissolved chloride, the
most constitient with 2,359 analyses, with a median of 20 mg/L.
physical characteristics in the Potomac-Raritan-
great deal of variability, frequently analyzed chemical ranged
from 0.6 to 1,900 mg/L Laboratory-measured specific
conductance, with 1,600 measurements, ranged from 32 to 6,000
ymhos, with a median of 307 ymhos. Dissolved sulfate, with
1,034
12
-
analyses, ranged from 0 to 1,700 mg/L, with a median of 17 mg/L.
Dissolved iron ranged from 0 to 460,000 ug/L, with a median of
1,000 yg/L. Dissolved organic carbon ranged from 0 to 108 mg/L,
with a median of 1.4 mg/L. Dissolved nitrate nitrogen ranged from 0
to 18 mg/L, with a median of 0.18 mg/L.
13
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SELECTED REFERENCES
Barnett, P. R., and Mallory, E. C., Jr., 1971, Determination of
minor elements in water by emission spectroscopy: U.S. Geological
Survey Techniques of Water-Resources Investigations, bk. 5, chap.
A2, 31 p.
Brown, E. , Skougstad , M. W. , Fishman, M. J. , 1970, Methods
for collection and analysis of water samples for dissolved minerals
and gases: U.S. Geological Survey Techniques of Water-Resources
Investigations, bk. 5, chap. A1, 160 p.
Claassen, H. C., 1982, Guidelines and techniques for obtaining
water samples that accurately represent the water chemistry of an
aquifer: U.S. Geological Survey Open-File Report 82-1024, 49 p.
Collins, W. D., 1928, Notes on practical water analysis: U.S.
Geological Survey Water Supply Paper 596-H, p. 235-262.
Collins, W. D. , and Foster, M. D., 1923, Preliminary
examination of water samples: Ind. and Eng. Chemistry, v. 15, 1,078
p.
Dole, R. B. , 1909, The quality of surface waters in the United
States, Part 1.--Analyses of waters east of the one hundreth
meridian: U.S. Geological Survey Water-Supply Paper 236, p.
1-23.
Donsky, Ellis, 1963, Records of wells and ground-water quality
in Camden County, New Jersey: New Jersey Department of Conser-
vation and Economic Development, Division of Water Policy and
Supply Water Resources Circular 10, 70 p.
Durum, W. H., 1978, Historical profile of quality of water
laboratories and activities, 1879-1973, Part 1, Historical profile
of water quality laboratories: U.S. Geological Survey Open-File
Report 78-432, p. 1-42.
Farlekas, G. M., Nemickas, Bronius, and Gill, H. E., 1976,
Geology and ground-water resources of Camden County, New Jersey:
U.S. Geological Survey Water-Resources Investigations 76-76, 146
p.
Fishman, M. J. and Brown, E., 1976, Selected methods of the
United States Geological Survey for the analysis of wastewaters:
U.S. Geological Survey Open-File Report 76-177-
Friedman, L. C., and Erdmann, D. E., 1982, Quality assurance
practices for the chemical and biological analysis of water and
fluvial sediments: U.S. Geological Survey Techniques of Water-
Resources Investigations, bk. 5, chap. A6, 181 p.
14
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SELECTED REFERENCES Continued
Fusillo, T. V., and Voronin, L. M., 1981, Water-quality data for
the Potomac-Raritan-Magothy aquifer system, Trenton to Pennsville,
New Jersey, 1980: U.S. Geological Survey Open-File Report 81-814,
38 p., 2 pis.
Garbarino, J. R., and Taylor, H. E. , 1979, An inductive-coupled
plasma atomic emission spectrometric method of routine water
quality testing: Applied Spectroscopy, v. 33, no. 3, p.
220-226.
Goerlitz, D. F., and Brown, Eugene, 1972, Methods for analysis
of organic substances in water: U.S. Geological Survey Techniques
of Water-Resources Investigations, Book 5, Chapter A3, 40 p.
Haffty, Joseph, 1960, Residue method for common minor elements:
U.S. Geological Survey Water Supply Paper 1540-A, 9 p.
Hardt, W. F., and Hilton, G. S., 1969, Water resources and
geology of Gloucester County, New Jersey: New Jersey Department of
Conservation and Economic Development Special Report 30, 130 p.
Hem, J. D. , 1970, Study and interpretation of the chemical
characteristics of natural water, 2d ed. : U.S. Geological Survey
Water-Supply Paper 1473, 363 p.
Langmuir, Donald, 1969, Iron in ground waters of the Magothy and
Raritan Formations in Camden and Burlington Counties, New Jersey:
New Jersey Department of Conservation and Economic Development,
Division of Water Policy and Supply Water Resources Circular 19, 49
p.
Leighton, M. 0., 1905, The field assay of water: U.S. Geological
Survey Water-Supply and Irrigation Paper 151, p. 1-29, 74-76.
Rainwater, F. H., and Thatcher , L. L., 1960, Methods for
collection and analysis of water samples: U.S. Geological Survey
Water-Supply Paper 1454, 301 p.
Rosenau, J. C., Lang, S. M., Hilton, G. S., and Rooney, J. G. ,
1969, Geology and ground-water resources of Salem County, New
Jersey: New Jersey Department of Conservation and Economic
Development Special Report 33, 142 p.
Rush, F. E., 1962, Records of wells and ground-water quality in
Burlington County, New Jersey: New Jersey Department of
Conservation and Economic Development Water Resources Circular 7,
104 p.
__________, 1968, Geology and ground-water resources of Burling-
ton County, New Jersey: New Jersey Department of Conservation and
Economic Development, Division of Water Policy and Supply Special
Report 26, 65 p.
15
-
SELECTED REFERENCES--Continued
Seaber, P. R., 1963, Chloride concentrations of water from wells
in the Atlantic Coastal Plain of New Jersey, 1923-61: New Jersey
Department of Conservation and Economic Development, Division of
Water Policy and Supply Special Report 22, 250 p.
Skougstad, N. W., Fishman, M. J., Friedman, L. C., Erdmann, D.
E., and Duncan, S. S., 1979, Methods for determination of inorganic
substances in water and fluvial sediments: U.S. Geological Survey
Techniques of Water-Resources Investigations, Book 5, Chapter A1,
626 p.
Thompson, D. G., 1932, Ground-water supplies of the Camden area,
New Jersey: New Jersey Department of Conservation and Economic
Development Bulletin 39, 80 p.
U.S. Environmental Protection Agency, 1979, EPA Method 624-
Purgeables: Federal Register,. v. MM no. 233, P- 69532-69539-
Van Hall, C. E. , Safranko, J. and Stenger, V. A., 1963, Rapid
combustion method for the determination of organic substances in
aqueous solutions: Anal. Chem., v. 3M5, p. 315-319.
Vecchioli, John, and .Palmer, M. M., 1962, Ground-water
resources of Mercer County, New Jersey: New Jersey Department of
Conservation and Economic Development Special Report 19, 71 p.
Vowinkel, E. F., and Foster, W. K., 1981, Hydrogeologic
conditions in the Coastal Plain of New Jersey: U.S. Geological
Survey Open-File Report 81-405, 39 p.
Walker, R. L., 1983, Evaluation of water levels in major
aquifers of the New Jersey Coastal Plain: U.S. Geological Survey
Water- Resources Investigations Report 82-M077, 56 p.
Wershaw, R. L., Fishman, M. J., Grabbe, R. R., and Lowe, L. E.,
editors, 1983, Methods for the determination of organic substances
in water and fluvial sediments: U.S. Geological Survey Techniques
of Water-Resources Investigations, Book 5, Chapter A3, Open-File
Report 82-100M, 173 p.
Wood, Warren, 1976, Guidelines for collection and field analysis
of ground-water samples for selected unstable constituents:
Techniques of Water-Resources of the U.S. Geological Survey, book
1, chapter D2, 24 p.
16
-
TABLE 1.--RECORDS OF SELECTED WELLS.
Well Number
5- 395- HO5- 415- 435- 45
5- 485- 515- 555- 635- 67
5- 765- 775- 865- 875- 89
5- 915- 925- 945- 975- 100
5- 1025- 1055- 1175- 1185- 121
5- 1235- 1265- 1275- 1305- 137
5- 1395- 1405- 1435- 1445- 162
5- 1675- 1705- 1715- 1805- 184
5- 1855- 1895- 1905- 1925- 201
5- 2085- 2095- 2125- 2145- 217
5- 2285- 2295- 2315- 2325- 233
5- 2515- 2525- 2585- 2615- 262
5- 2655- 2685- 2735- 2745- 277
Local Well Identifier
NJ WC-DEL VALLEY WC 15NJ WC-DEL VALLEY WC 16NJ WC-DEL VALLEY WC
2OCEAN SPRAY 1SANDMAN MOTEL 1
NJ DEPT DEF-NAT GUARD 1BURLINGTON CITY WD 3BURLINGTON CITY WD
6WILLINGBORO MUA 1-OBSDEACON, RUSSELL 1
HEAL, CHARLESBURLINGTON TWP WD 1-1973TENNECO CHEM 5TENNECO CHEM
5-OBSTENNECO CHEM 7
TENNECO CHEM 4TENNECO CHEM 1TENNECO CHEM 3HERCLUES POWDER
1HERCULES POWDER 2
COLUMBUS METAL 1HOOKER CHEM CO-PROD 1GRAY, FRANCIS 1LIPTAK.E A
1NJ STATE REFORMATORY 4
NJ WC-DEL VALLEY WC 28NJ WC-DEL VALLEY WC 12NJ WC-DEL VALLEY WC
14NJ WC-DEL VALLEY WC 13TAYLOR 2 OBS
HOLIDAY LAKE WORTHINGTONCHANT, HARRYNJ WC-DEL VALLEY WC 23NJ
WC-DEL VALLEY WC 2UDAYMENN CONVERTING
EVESHAM MUA 5EVESHAM MUA 1EVESHAM MUA 2WORKMAN, JAMES 1HUNT BROS
CIRCUS
SHERWATT EQUIPMENT 1FLORENCE TWP WD 2FLORENCE TWP WD 1FRED WORTH
AND SONS 1ACACIA LUMBERTON MANOR
COLUMBUS WC 2COLUMBUS WC-TEST 1969N BURL CO HIGH SCHOOL 1WALDER,
THOMASTRNPKE JCT IND PARK 1
MAPLE SHADE WD10MAPLE SHADE WD 9MAPLE SHADE WD 5MAPLE SHADE WD
8MAPLE SHADE WD 4
MEDFORD WC 4MEDFORD WC 3USGS-MEDFORD 1 OBSUSGS-MEDFORD 5
OBSUSGS-MEDFORD 4 OBS
MOORESTOWN TWP WD 6PRICE BLDRS-LAYNE NY 1MOORESTOWN FIELD CLUB
1CAMPBELL SOUP 1 OBSCAMPBELL SOUP 3
Municipality
BEVERLY CITYBEVERLY CITYBEVERLY CITYBORDENTOWN CITYBORDENTOWN
TWP
BORDENTOWN TWPBURLINGTON CITYBURLINGTON CITYBURLINGTON
TWPBURLINGTON TWP
BURLINGTON TWPBURLINGTON TWPBURLINGTON TWPBURLINGTON
TWPBURLINGTON TWP
BURLINGTON TWPBURLINGTON TWPBURLINGTON TWPBURLINGTON
TWPBURLINGTON TWP
BURLINGTON TWPBURLINGTON TWPCHESTERFIELD TWPCHESTERFIELD
TWPCHESTERFIELD TWP
CINNAMINSON TWPCINNAMINSON TWPCINNAMINSON TWPCINNAMINSON
TWPCINNAMINSON TWP
DELANCO TWPDELANCO TWPDELRAN TWPDELRAN TWPEDGEWATER PK TWP
EVESHAM TWPEVESHAM TWPEVESHAM TWPFLORENCE TWPFLORENCE TWP
FLORENCE TWPFLORENCE TWPFLORENCE TWPHAINESPORT TWPLUMBERTON
TWP
MANSFIELD TWPMANSFIELD TWPMANSFIELD TWPMANSFIELD TWPMANSFIELD
TWP
MAPLE SHADE TWPMAPLE SHADE TWPMAPLE SHADE TWPMAPLE SHADE
TWPMAPLE SHADE TWP
MEDFORD TWPMEDFORD TWPMEDFORD TWPMEDFORD TWPMEDFORD TWP
MOORESTOWN TWPMOORESTOWN TWPMOORESTOWN TWPMOORESTOWN
TWPMOORESTOWN TWP
Index for
Plate1
B-13B-13B-13C-16C-15
C-15B-13B-14C-13C-13
C-13C-13B->I3B-13B-13
B-13B-13B-13B-14B-14
C-14B-1KD-16C-16C-16
B-11B-11B-12B-11B-12
B-12B-12B-12B-12B-13
E-11D-1 1D-11C-14C-14
C-15B-14B-14D-12D-1 3
D-15D-1 5D-15C-15C-15
C-11C-11C-11C-11C-11
E-12E-12D-12D-12D-12
C-11C-11C-12C-11C-11
Altitude of Land Surface 1
(ft)
1918155185
839
2315.562
5080181410
14107
2222
HO3392
11497
3073356514
2522363038
5089
1004142
1530303035
7373836060
HO40202010
194870.872.672.3
4270704040
Screen Screen Setting 2 Diameter (ft) (in)
47-39-
247-170-
64-33-
279-203-
59-123-102-50-
100-
82-87-97-
105-105-
140-172-319-208-357-
226-157-179-167-20-
188-140-118-105-41-
458-369-405-170-
111-105-99-
277-
240-259-290-
293-
440-160-414-210-211-
506-506-400-740-
575160»»
267
230»»8549
294208
8016513260
130
112117122135135
145192325214387
261196»22919825
198155168135
61
548389435194190»»
121120*119317401**
260274310319**315*
500200494270272
536536410750
1125-1145
248-
274-241-339-
288288**302262369
1212
610
61617
63
81212
612
1212121010
46648
12101212
6
86
121216
1288
104
61818
88
810
6
10
1212
81212
128666
12
61010
Year Drilled
1951191019101964
19521949196719651958
19551973196419611971
19641962196219461946
19701966196019571951
19691961196419631963
19581965196419661955
1973195619631951
19571931193119491973
194319691959
1958
19751975196119721955
19681957196319671967
19631960196419581971
Aquifer Unit 3
MRPA-MMRPA-MHPPMMRPA-MMRPA-U
MRPA-MMRPA-MMRPA-MMRPA-MMRPA-U
MRPA-UMRPA-UMRPA-MMRPA-MMRPA-M
MRPA-MMRPA-MMRPA-MMRPA-MMRPA-M
MRPA-MMRPA-MMRPA-UMRPA-UMRPA-M
MRPA-LMRPA-MMRPA-MMRPA-MMRPA
MRPA-MMRPA-MMRPA-MMRPA-MMRPA-M
MRPA-UMRPA-UMRPA-UMRPA-MMRPA-M
MRPA-MMRPA-MMRPA-MMRPA-UMRPA-U
MRPA-UMRPA-UMRPA-UMRPA-MMRPA-M
MRPA-LMRPA-UMRPA-LMRPA-MMRPA-M
MRPA-UMRPA-UMRPA-UMRPA-MMRPA-L
MRPA-MMRPA-MMRPA-MMRPA-MMRPA-L
Use of
Site 4
WWzWW
WWW0zWWW0W
WWWWW
WWWWW
WuWW0
WWWWW
WWWWW
WWWzW
WWWWW
WWWWW
WW000
WWW0W
Use of
Water 5
PPUNH
HPPUU
IP
ûN
NNNNN
INHHT
PUPPU
HIPPN
PPPIC
NPPUF
PPTIN
PPPPP
PPUUU
PNIUA
17
-
TABLE 1. RECORDS OF SELECTED WELLS.--Continued.
Well Number
5-5-5-5-5-
5-5-5-5-5-
5-5-5-5-5-
5-5-5-5-5-
5-5-5-5-5-
5-5-5-5-5-
5-5-5-5-5-
5-5-5-5-5-
5-5-5-5-5-
5-5-5-5-5-
5-5-5-5-5-
5-5-5-7-7-
7-7-7-7-7-
283281289290292
301303301310313
317322321325330
331332333331335
336337310311351
383381388392110
111115116118631
637617651653658
661667668707719
729731715716751
761768777778779
780781788
812
1318192530
Local Well Identifier
MOORESTOWN TWP WD 8MOORESTOWN TWP WD 1MT HOLLY WC 3MT HOLLY WC
6MT HOLLY WC 7
FELLOWSHIP MOTOR LODGEMT LAUREL MUA 1MT LAUREL MUA 2NJ TURNPIKE
AUTH-MAINT 2HAINES.WILLIAM JR-FARM 2
NJ TURNPIKE AUTH 1N-1RANCOCAS WOODS WC 1MT LAUREL MUA 3MT LAUREL
MUA 1US ARMY-FT DIX 1
US ARMY-FT DIX 1US ARMY-FT DIX 5US ARMY-FT DIX 2US ARMY-FT DIX
3US AIR FORCE-MCGUIRE D
US AIR FORCE-MCGUIRE CUS AIR FORCE-MCGUIRE AUS AIR FORCE-MCGUIRE
BHOFFMAN-LA ROCHE CO 1971NJ WC-DEL VALLEY WC 1
PERMUTIT CORP IONAC 2PERMUTIT CORP IONAC 3US ARMY-FT DIX
6RIVERSIDE PUB SCHOOL 1RHODIA CORP. 1 OBS
HELIS STOCK FARM 3TALLMAN, I W 1INTSTATE STOR+PIPELN CONJ
DOT-RT295 REST AREA 1MT HOLLY WC 5
HANOVER TRLS COMMISSARYRANCOCAS COUNTRY CLUB 1WILLINGBORO MUA
3WILLINGBORO MUA HWILLINGBORO MUA 7
WILLINGBORO MUA 1WILLINGBORO MUA 5WILLINGBORO MUA DCB-28EVESHAM
MUA 7PEP BOYS 1
MAPLE SHADE WD 2INTERSTATE WASTE-MON 8BURLINGTON COUNTY CLUB
1MAPLE SHADE WD 11RAMBLEWOOD CC-2 TEE
TENNECO CHEM 9LISEHORA.M-GARAGE WELLHOLIDAY LK ICE CREAM STDBEST
WESTERN MOTEL «2PYROPTICS 1
WASTE RESOURCE OBS 6WASTE RESOURCE OBS 5C R ENGLAND COBELLMAWR
BORO WD 1BELLMAWR BORO WD 3
BELLMAWR BORO WD 1BERLIN BORO WD 9BERLIN BORO WD 10BROOKLAWN
BORO WD 3-12SJ PORT COMM NY SHIP 5A
Municipality
MOORESTOWN TWPMOORESTOWN TWPMOUNT HOLLY TWPMOUNT HOLLY TWPMOUNT
HOLLY TWP
MOUNT LAUREL TWPMOUNT LAUREL TWPMOUNT LAUREL TWPMOUNT LAUREL
TWPMOUNT LAUREL TWP
MOUNT LAUREL TWPMOUNT LAUREL TWPMOUNT LAUREL TWPMOUNT LAUREL
TWPNEW HANOVER TWP
NEW HANOVER TWPNEW HANOVER TWPNEW HANOVER TWPNEW HANOVER TWPNEW
HANOVER TWP
NEW HANOVER TWPNEW HANOVER TWPNORTH HANOVER TWPNORTH HANOVER
TWPPALMYRA BORO
PEMBERTON TWPPEMBERTON TWPPEMBERTON TWPRIVERSIDE TWPSPRINGFIELD
TWP
SPRINGFIELD TWPSPRINGFIELD TWPSPRINGFIELD TWPSPRINGFIELD
TWPWESTAMPTON TWP
WESTAMPTON TWPWILLINGBORO TWPWILLINGBORO TWPWILLINGBORO
TWPWILLINGBORO TWP
WILLINGBORO TWPWILLINGBORO TWPWILLINGBORO TWPEVESHAM
TWPEDGEWATER PK TWP
MAPLE SHADE TWPBURLINGTON TWPWESTAMPTONMAPLE SHADE TWPMOUNT
LAUREL TWP
BURLINGTON TWPMANSFIELD TWPEDGEWATER PK TWPBURLINGTON
TWPFLORENCE TWP
CINNAMINSON TWPCINNAMINSON TWPBURLINGTON TWPBELLMAWR
BOROBELLMAWR BORO
BELLMAWR BOROBERLIN BOROBERLIN BOROBROOKLAWN BOROCAMDEN CITY
Index for
Plate 1
C-12C-12D-13D-13D-13
C-11C-11C-11C-12C-12
C-12C-12D-11D-11E-15
E-15E-15E-15E-15E-15
E-15E-15E-16E-16B-11
E-11E-11E-15B-12D-11
D-15D-15C-11C-11D-13
C-13C-12C-13C-12C-13
C-13C-13B-13D-11B-13
C-11C-15C-13C-11D-11
B-13C-11B-12C-13C-11
B-12B-12C-1HC-9C-9
C-9E-10E-10C-9B-9
Altitude of Land Surface' 1
(ft)
6559191560
7120201025
15501035
110
138150131165112
102128126136
10
3030
1602071.7
7080751055
5021282819
1039139010
3090.5
1022020
18100
107511
1037-1157535
31115115
1311.1
Screen Screen Setting 2 Diameter (ft) (in)
282- 332298- 338316- 316530- 600»113- 521»
235- 255558- 589362- 399"120- 160203- 238
192- 222237- 218592- 612590- 610
1056-1086
916- 9601061-1 1011030-1051819- 869
1012-1075
1036-1089992-1055780- 835"783- 811»
26"
190- 521718- 823
1090-111090- 100
603- 613
360- 372117
220- 215200- 220126- 516»
316- 336190- 238»203- 301»177- 280179- 255»
117- 199230- 256222- 212105- 11151- 61
91- 121118- 128260- 290389- 150
325"
70- 105182- 19110- 50
180- 19515- 50
30- 5030- 5015- 53
380- 557"331- 359
111- 160650- 713615- 713120- 16082- 100
1212101010
88838
86
121210
101010
810
1010
88
156
88
1066
6
886
610121212
16126
183
1018
12
186111
118
128
1288
128
Year Drilled
19691959195319731976
19621961196519521967
19511951197319731913
19111969191119151953
19531953196019711888
19601961197019651961
1962
196019721965
19661965195919581958
19551958195519791961
1919197819711978
19801950197819781972
19781978197219661956
19121955196719121910
Aquifer Unit 8
MRPA-MMRPA-MMRPA-UMRPA-MMRPA-M
MRPA-UMRPA-LMRPA-MMRPA-UMRPA-U
MRPA-UMRPA-UMRPA-LMRPA-LMRPA-L
MRPA-MMRPA-LMRPA-LMRPA-MMRPA-L
MRPA-LMRPA-LMRPA-MMRPA-MHPPM
MRPA-UMRPA-MMRPA-LMRPA-MMRPA-M
MRPA-UMRPA-UMRPA-UMRPA-MMRPA-M
MRPA-MMRPA-MMRPAMRPAMRPA-M
MRPA-MMRPA-MMRPA-MMRPA-UMRPA-U
MRPA-UMRPA-UMRPA-UMRPA-LMRPA-M
MRPA-MMRPA-UMRPAMRPA-UMRPA-U
MRPAMRPAMRPAMRPAMRPA-L
MRPA-UMRPA-UMRPA-UMRPA-UMRPA-U
Use Use of of
Site 4 Water 8
WWWWW
WWWWW
WZWWW
WTWUW
WWWWZ
WZTW0
WWWWW
WWWWW
WW0WW
W0WWW
WWWWW
00WWW
WWWW0
pppppIppCI
CUppT
TUTUT
TPTNP
NUUIU
sINPP
IIPPP
PPUpH
PUIPI
PHCCP
UUPPP
PPPPU
18
-
TABLE 1.--RECORDS OF SELECTED WELLS.--Continued.
Well Number
7- 387- 397- 407- 417- 46
7- 487- 497- 577- 587- 61
7- 627- 637- 647- 657- 66
7- 687- 707- 717- 727- 76
7- 777- 787- 797- 837- 84
7- 877- 907- 917- 937- 94
7- 957- 987- 1027- 1077- 108
7- 1107- 1207- 1227- 1247- 133
7- 1347- 1427- 1437- 1477- 148
7- 1497- 1577- 1607- 1717- 175
7- 1767- 1787- 1887- 1897- 193
7- 1947- 1957- 1977- 2077- 210
7- 21 17- 2137- 2157- 2207- 221
Local Well Identifier
SJ PORT COMM NY SHIP 7CAMDEN CITY WD-CITY 7NCAMDEN CITY WD-CITY
7CAMDEN CITY WD-CITY 7-28CAMDEN CITY WD-CITY 11
CAMDEN CITY WD-CITY 6NCAMDEN CITY WD-CITY 6-28OUR LADY LORDS
HOSP-STBYWEST JERSEY HOSPITAL 1CAMDEN CITY WD-CITY 4
CAMDEN CITY WD-CITY 4-35CAMDEN CITY WD-CITY 4-22CAMDEN CITY
WD-CITY 17CAMDEN CITY WD-CITY 2BCAMDEN CITY WD-CITY 2A
CAMDEN CITY WD-CITY 13CAMDEN CITY WD-CITY 3ACAMDEN CITY WD-CITY
3-34CAMDEN CITY WD-CITY 3-22CAMDEN CITY WD-CITY 5-28
CAMDEN CITY WD-CITY 5-37CAMDEN CITY WD-CITY 5NCAMDEN CITY
WD-CITY 12CAMDEN CITY WD-CITY 1ACAMDEN CITY WD-CITY 1-22
CAMDEN CITY WD-CITY 1-40CAMDEN CITY WD-CITY 10CAMDEN CITY
WD-CITY 9CAMDEN CITY WD-CITY 9-24CAMDEN CITY WD-CITY 16
CAMDEN CITY WD-CITY 14NEW JERSEY WC-CAMDEN 52CAMDEN CITY WD-CITY
15NEW JERSEY WC-CAMDEN 51NEW JERSEY WC-CAM 10 DBS
NEW JERSEY WC-CAMDEN 49HUSSMAN REFRIDG CONEW JERSEY WC-BROWN
44NEW JERSEY WC-BROWNG 45NEW JERSEY WC-OLD ORCH36
NEW JERSEY WC-OLD ORCH37NEW JERSEY WC-ELLISBG 23NEW JERSEY
WC-ELLISBG 16NEW JERSEY WC-KINGSTN 25NEW JERSEY WC-KINGSTN 28
NJ DEFT DEF-NAT GUARD 1NEW JERSEY WC-COLMBIA 31RCA-CHERRY HILL
1COLLINGSWOOD BORO WD 7COLLINGSWOOD BORO WD 1R
COLLINGSWOOD BORO WD 2COLLINGSWOOD BORO WD 3NEW JERSEY
WC-GIBBSBO 42NEW JERSEY WC-GIBBSBO 41CRESCENT TRAILER PK 1
NJ ZINC CO 4-DEEPNJ ZINC CO 5-DEEPNJ ZINC CO 3-DEEPHINDE AND
DAUCH-JERSEY 1GLOUCESTER CITY WD 42
GLOUCESTER CITY WD 2GLOUCESTER CITY WD 38GLOUCESTER CITY WD
37GLOUCESTER CITY WD 40USGS-GLOUC CTY CG BASE 1
Municipality
CAMDEN CITYCAMDEN CITYCAMDEN CITYCAMDEN CITYCAMDEN CITY
CAMDEN CITYCAMDEN CITYCAMDEN CITYCAMDEN CITYCAMDEN CITY
CAMDEN CITYCAMDEN CITYCAMDEN CITYCAMDEN CITYCAMDEN CITY
CAMDEN CITYCAMDEN CITYCAMDEN CITYCAMDEN CITYCAMDEN CITY
CAMDEN CITYCAMDEN CITYCAMDEN CITYCAMDEN CITYCAMDEN CITY
CAMDEN CITYCAMDEN CITYCAMDEN CITYCAMDEN CITYCAMDEN CITY
CAMDEN CITYCAMDEN CITYCAMDEN CITYCAMDEN CITYCAMDEN CITY
CAMDEN CITYCHERRY HILL TOPCHERRY HILL TWPCHERRY HILL TWPCHERRY
HILL TWP
CHERRY HILL TOPCHERRY HILL TWPCHERRY HILL TOPCHERRY HILL
TOPCHERRY HILL TOP
CHERRY HILL TWPCHERRY HILL TOPCHERRY HILL TWPCOLLINGSWOOD
BOROCOLLINGSWOOD BORO
COLLINGSWOOD BOROCOLLINGSWOOD BOROGIBBSBORO BOROGIBBSBORO
BOROGLOUCESTER CITY
GLOUCESTER CITYGLOUCESTER CITYGLOUCESTER CITYGLOUCESTER
CITYGLOUCESTER CITY
GLOUCESTER CITYGLOUCESTER CITYGLOUCESTER CITYGLOUCESTER
CITYGLOUCESTER CITY
Index for
Plate 1
B-9B-9B-9B-9B-9
B-9B-9B-10B-10B-10
B-10B-10B-10B-9B-9
B-10B-10B-10B-10B-10
B-10B-10B-10B-10B-10
B-10B-10BMOB-10B-10
B-10B-10B-10B-10B-10
B-10D-10D-10D-10D-11
D-11C-10C-10C-10C-10
C-10C-11C-10C-10B-10
B-10B-10D-10D-10C-9
B-9B-9B-9B-9B-9
B-9B-9B-9B-9B-9
Altitude of Land Surface 1
(ft)
1221212113
1414303041
404034
88
3015151522
22222310
5
510
99
23
818
81011
9.467807780
6832404444
1545
1281025
1215656520
5559
15
1 110
51010
Screen Screen Setting 2 Diameter (ft) (in)
188-123-124-126-124-
111-111-237-119-131-
125-
230-111-143-
185-90-91-85-
152-
142-134-136-135-146-
135-126-116-106-149-
105-147-116-141-115-
137-276-684-483-299-
454-321-187-309-175-
96-376-220-224-266-
248-257-934-
229163162164154
136136258140156
156156»*265136182
225115113110171
172169166170174
168158146146179
145198136192155
169306741»626»349
488378220367207
111427264313306
278287986
1022-109759-
249-245-223-230-
141-279-
84-221-162-
71
279275253250306»*
171300125261170
1218182616
1826
88
18
18
181826
1818182612
1818161826
1818182618
1816181626
128
121212
1212121212
612
61212
12121212
8
106
101010
1086
126
Year Drilled
19421966194519281942
19481928196319581950
19351922195419531927
19531953193419221928
19371963194519531922
19401935195719241954
19531965195419651932
19551957197419731968
19681960195719611964
19561967195519651949
19601960197219721952
19581954195819451968
19291949194719611966
Aquifer Unit 3
MRPA-LMRPA-MMRPA-MMRPA-MMRPA-M
MRPA-MMRPA-MMRPA-LMRPA-MMRPA-M
MRPA-MMRPA-MMRPA-LMRPA-LMRPA-L
MRPA-LMRPA-MMRPA-MMRPA-MMRPA-L
MRPA-LMRPA-LMRPA-LMRPA-LMRPA-L
MRPA-LMRPA-LMRPA-LMRPA-LMRPA-L
MRPA-LMRPA-LMRPA-LMRPA-LMRPA-L
MRPA-LMRPA-UMRPA-LMRPA-MMRPA-U
MRPA-MMRPA-MMRPA-UMRPA-MMRPA-U
MRPA-UMRPA-LMRPA-UMRPA-LMRPA-L
MRPA-LMRPA-LMRPA-LMRPA-LMRPA-U
MRPA-LMRPA-LMRPA-LMRPA-LMRPA-L
MRPA-UMRPA-LMRPA-UMRPA-LMRPA-L
Use Use of of
Site 4 Water 6
UWZZW
WZWWW
ZZWWZ
WWWZW
ZWWWZ
ZWWZW
WWWW0
WWWWW
WWWWW
WWWWW
WWWWW
WWWWW
UUUW0
Upppp
ppMTp
ppppU
ppppp
ppppp
ppppp
ppppU
pNppp
pppppTpNPP
PPPPP
NNNNP
UUUpU
19
-
TABLE 1.--RECORDS OF SELECTED WELLS.--Continued.
Well Number
7- 2227- 2437- 2t97- 2527- 253
7- 2737- 2717- 2757- 2787- 279
7- 2837- 2857- 2897- 2907- 293
7- 2997- 3027- 3017- 3157- 316
7- 3207- 3227- 3237- 3267- 329
7- 3327- 3357- 3377- 3387- 339
7- 3107- 3117- 3137- 3507- 351
7- 3597- 3617- 3637- 3667- 367
7- 3687- 3697- 3707- 3727- 373
7- 3717- 3757- 3777- 3797- 380
7- 3827- 3837- 3867- 3877- 388
7- 3897- 3907- 3927- 3987- 101
7- 1077-1107- 1127- 1137- 122
Local Well Identifier
GLOUCESTER CITY WD 11CAMDEN CO INS-LAKELAND 2GARDEN ST
WC-BLACKWOOD 3GARDEN ST WC-BLACKWOOD 6GARDEN ST WC-BLACKWOOD 1
NEW JERSEY WC-OTTERBK 29NEW JERSEY WC-OTTERBK 39NEW JERSEY
WC-HADDON 20NEW JERSEY WC-HADDON 15NEW JERSEY WC-HADDON 30
NEW JERSE WC-EGBERT DBSNEW JERSEY WC-EGBERT 18HADDON TWP WD
2HADDON TWP WD 1HADDON TWP HIGH SCH 1
HADDONFLD BORO WD-LAYN 2HADDONFLD BORO WD-RULONHADDONFLD BORO
WD-LAKE STNEW JERSEY WC-MAGNOLIA16NEW JERSEY WC-MAGNOLIA33
MERCH-PENN WCOM-WDBINE 1NEW JERSEY WC-OAKLYN DBSSTEVENS AND
STEVENS 1MERCH-PENN WCOM-BROWN 1MERCH-PENN WCOM-BROWN 2A
MERCH-PENN WCOM-MARION 2MERCH-PENN WCOM-MARION 1USGS-PETTY
ISLAND 1 EASTUSGS-PETTY ISLAND 2 EASTPREDCO PREC PANELS
MERCH-PENN WCOM-DEL GN 1MERCH-PENN WCOM-DEL GN 2USGS-PETTY
ISLAND 1 WESTMERCH-PENN WCOM-PARK 2PETTY ISLAND OBS
CAMDEN CITY WD-PUCHACK 5CAMDEN CITY WD-PUCHACK 1CAMDEN CITY
WD-PUCHACK 2CAMDEN CITY WD-PUCHACK 1CAMDEN CITY WD-PUCHACK 3
CAMDEN CITY WD-DELAIR 1CAMDEN CITY WD-DELAIR 2CAMDEN CITY
WD-DELAIR 3MERCH-PENN WCOM-NAT HY 1CAMDEN CITY WD-MORRIS 6
CAMDEN CITY WD-MORRIS 9CAMDEN CITY WD-MORRIS 8CAMDEN CITY
WD-MORRIS 7CAMDEN CITY WD-MORRIS 10KINGSTON TRAP RK IND 2
CAMDEN CITY WD-MORRIS 1ACAMDEN CITY WD-MORRIS 1CAMDEN CITY
WD-MORRIS 3ACAMDEN CITY WD-MORRIS 2CAMDEN CITY WD-MORRIS 5
CAMDEN CITY WD-MORIS SNACAMDEN CITY WD-MORRIS 1PINE HILL MUA
1PINE HILL MUA 2-1972NEW JERSEY WC-RUNMEDE 19
TRAP ROCK IND-RUNMEDE 3NEW JERSEY WC-SOMRDAL 11NEW JERSEY WC-ELM
TREE 2NEW JERSEY WC-ELM TREE 3NEW JERSEY WC-ASHLAND 17
Municipality
GLOUCESTER CITYGLOUCESTER TWPGLOUCESTER TWPGLOUCESTER
TWPGLOUCESTER TWP
GLOUCESTER TWPGLOUCESTER TWPBARRINGTON BOROHADDON HGTS
BOROHADDON HGTS BORO
HADDON HGTS BOROHADDON HGTS BOROHADDON TWPHADDON TWPHADDON
TWP
HADDONFIELD BOROHADDONFIELD BOROHADDONFIELD BOROMAGNOLIA
BOROMAGNOLIA BORO
MRCHNTVILLE BOROOAKLYN BOROPENNSAUKEN TWPPENNSAUKEN
TWPPENNSAUKEN TWP
PENNSAUKEN TWPPENNSAUKEN TWPPENNSAUKEN TWPPENNSAUKEN
TWPPENNSAUKEN TWP
PENNSAUKEN TWPPENNSAUKEN TWPPENNSAUKEN TWPPENNSAUKEN
TWPPENNSAUKEN TWP
PENNSAUKEN TWPPENNSAUKEN TWPPENNSAUKEN TWPPENNSAUKEN
TWPPENNSAUKEN TWP
PENNSAUKEN TWPPENNSAUKEN TWPPENNSAUKEN TWPPENNSAUKEN
TWPPENNSAUKEN TWP
PENNSAUKEN TWPPENNSAUKEN TWPPENNSAUKEN TWPPENNSAUKEN
TWPPENNSAUKEN TWP
PENNSAUKEN TWPPENNSAUKEN TWPPENNSAUKEN TWPPENNSAUKEN
TWPPENNSAUKEN TWP
PENNSAUKEN TWPPENNSAUKEN TWPPINE HILL BOROPINE HILL
BORORUNNEMEDE BORO
RUNNEMEDE BOROSOMERDALE BOROVOORHEES TWPVOORHEES TWPVOORHEES
TWP
Index for
Plate 1
B-9D-8D-9D-9D-9
D-9D-9C-9C-9C-9
C-9C-9C-10C-10C-10
C-10C-10C-10C-9C-9
B-10C-10B-10B-10B-10
B-10B-10B-10B-10B-10
B-10B-10B-10B-11B-10
B-11B-11B-11B-11B-11
B-10B-10B-10B-11B-11
B-11B-11B-11B-11B-11
B-11B-11B-11B-11B-11
B-11B-11E-9E-9C-9
C-9C-9E-10E-10D-10
Altitude of Land Surface 1
(ft)
1025817520
6060606565
23-721605615
6525507860
6532.7182520
6061
55
32
5039
51211.6
3010111010
1058
1011
1010101635
88
1010
5
59
150200
67
1095
118.7118.7
68
Screen Screen Setting 2 Diameter (ft) (in)
226-
126-107-350-
612-269-236-152-221-
115-111-139-136-112-
206-523-307-128-271-
215-101-71-
107-110-
223-213-
11-
97-115-77-
232-
136-136-126-108-127-
103-109-89-
195-98-
89-89-85-75-
115-
95-95-73-93-80-
79-77-
627-668-297-
195-389-
266386««117177386
712319267591275
155191170168162
216572372»510318
285111
81137110
25827890»»55
108»»
123115
8125778"
181180165110175
138111129»230«133
113»121120115123
131130103123115
111107669698339
205111
1217-1227706-379-
717121
12
1212
8
101212
812
6121010
6
121112
812
1261
1212
1212
66
18121012
8
2626262626
1818181226
26182618
8
1826181826
1818
88
12
110
66
12
Year Drilled
1965
195619711918
19651968195819561965
19621958195219521966
19561956196719611967
19631961195619591965
19631957196619661962
19551951196619131919
19211921192119211921
19301930193019671932
19321953193219601966
19601960195319321932
19601961196219721958
19681956196319631957
Aquifer Unit 3
MRPA-LMRPA-UMRPA-UMRPA-UMRPA-U
MRPA-LMRPA-UMRPA-UMRPA-LMRPA-U
MRPA-LMRPA-UMRPA-LMRPA-LMRPA-U
MRPA-UMRPA-LMRPA-MMRPA-MMRPA-U
MRPA-LMRPA-UMRPA-UMRPA-LMRPA-M
MRPA-LMRPA-LMRPAMRPAMRPA-M
MRPA-MMRPA-MMRPA-LMRPA-LMRPA-L
MRPA-LMRPA-LMRPA-LMRPA-LMRPA-L
MRPA-LMRPA-LMRPA-LMRPA-LMRPA-L
MRPA-LMRPA-LMRPA-LMRPA-LMRPA-L
MRPA-LMRPA-LMRPA-LMRPA-LMRPA-L
MRPA-LMRPA-LMRPA-UMRPA-UMRPA-U
MRPA-UMRPA-UMRPA-LMRPA-MMRPA-U
Use Use of of
Site 4 Water 6
WwWwwwwwww0wwwwwwwwww0wwwwwTTwzwzw0
wwwww
wwwwwwwwwwwwwwzwwwwwww00w
pTppp
pppppupppIppppppuHppppuuN
upupuppppp
ppppp
ppppN
ppppppppppHPUup
20
-
TABLE 1.--RECORDS OF SELECTED WELLS.--Continued.
Well Number
7- 4267- 1767- 1777- 5177- 520
7- 5277- 5287- 5357- 5417- 545
7- 5467- 5557- 5597- 5607- 562
7- 5637- 5667- 5677- 5687- 571
7- 5737- 5747- 5757- 5867- 587
15- 115- 315- 515- 615- 7
15- 815- 915- 1115- 1615- 24
15- 2815- 2915- 5915- 6015- 62
15- 6315- 6515- 6915- 7015- 72
15- 7615- 7915- 8115- 8215- 84
15- 8915- 9315- 9415- 9615- 97
15- 9815- 10115- 10215- 10315- 104
15- 10715- 10915- 11815- 12715- 129
Local Well Identifier
NEW JERSEY WC-VOORHES 21USGS-NEW BROOKLN PK 1 OBUSGS-NEW BROOKLN
PK 2 OBBROOKLAWN BORO WD 4-67BROOKLAWN BORO WD 3-61
CAMDEN CITY WD-CITY 18CAHDEN CITY WD-PUCHACK 7CAMDEN CITY WD-TW
1 1979CAMDEN CITY WD-TW 8 1979CAMDEN CITY WD-MORRIS 11
NEW JERSEY WC-LAUREL 14PENLER ANODIZING CO 1MEADOWBROOK SWIM
CLUBMERCH-PENN WCOM-WDBINE 2NJDEP-HARRISON AVE 2
NJDEP-HARRISON AVE 3NJDEP-HARRISON AVE 6NJDEP-HARRISON AVE
7PENNSAUKN LANDFILL MON 1PENNSAUKN LANDFILL MON 4
USGS-GLOUC CTY CG BASE 2USGS-GLOUC CTY CG BASE 3BELL SUPPLY CO
1CAMDEN CITY WD-MORRIS 12CAMDEN CITY WD-MORRIS 13
CLAYTON BORO WD 3CLAYTON BORO WD 4WOODBURY CTY WD-SEWEL
1WOODBURY CTY WD-SEWEL 1AWOODBURY CTY WD-SEWELL 2
WOODBURY CTY WD-SEWEL 2ADEPTFORD TOP MUA 5-1971DEPTFORD TOP MUA
2DEPTFORD TOP MUA 1DEPTFORD TOP MUA 4
E GREENWICH TOP WD 2E GREENWICH TOP WD 1OWENS ILLINOIS
1GLASSBORO BORO WD 3GLASSBORO BORO WD 2
GLASSBORO BORO WD 4GREENWICH TOP WD 2GREENWICH TOP WD 3GREENWICH
TOP WD 1El DUPONT REPAUNO 3
HERCULES CHEM 4-1970El DUPONT REPAUNO 6El DUPONT REPAUNO 5El
DUPONT REPAUNO 1 (0)HERCULES CHEM GIBBSTON 2
HERCULES CHEM GIBBSTWN 1MOBIL OIL-GREENWICH 46MOBIL
OIL-GREENWICH 44HERCULES CHEM-GIBB OBS 2HERCULES CHEM GIBB 8
OBS
MOBIL OIL-GREENWICH 45MOBIL OIL-GREENWICH 40El DUPONT REPAUNO
20El DUPONT REPAUNO HEl DUPONT REPAUNO J
El DUPONT REPAUNO CMOBIL OIL-GREENWICH HIMOBIL OIL-GREENWICH
47LEONARD, WILLIAM 5SO JERSEY WS CO 1
Municipality
VOORHEES TWPWINSLOW TWPWINSLOW TWPBROOKLAWN BOROBROOKLAWN
BORO
CAMDEN CITYPENNSAUKEN TWPPENNSAUKEN TWPCAMDEN CITYPENNSAUKEN
TWP
LAUREL SPRINGS BOROCAMDEN CITYPENNSAUKEN TWPMRCHNTVILLE
BOROCAMDEN CITY
CAMDEN CITYCAMDEN CITYCAMDEN CITYPENNSAUKEN TWPPENNSAUKEN
TWP
GLOUCESTER CITYGLOUCESTER CITYPENNSAUKEN TWPPENNSAUKEN
TWPPENNSAUKEN TWP
CLAYTON BOROCLAYTON BORODEPTFORD TWPDEPTFORD TWPDEPTFORD TWP
DEPTFORD TWPDEPTFORD TWPDEPTFORD TWPDEPTFORD TWPDEPTFORD TWP
E GREENWICH TWPE GREENWICH TWPGLASSBORO BOROGLASSBORO
BOROGLASSBORO BORO
GLASSBORO BOROGREENWICH TWPGREENWICH TWPGREENWICH TOPGREENWICH
TWP
GREENWICH TWPGREENWICH TOPGREENWICH TOPGREENWICH TWPGREENWICH
TWP
GREENWICH TOPGREENWICH TWPGREENWICH TWPGREENWICH TWPGREENWICH
TOP
GREENWICH TOPGREENWICH TOPGREENWICH TWPGREENWICH TWPGREENWICH
TWP
GREENWICH TOPGREENWICH TWPGREENWICH TWPHARRISON TWPHARRISON
TWP
Index for
Plate 1
D-10F-9F-9C-9C-9
B-10B-11B-11B-10B-11
D-9B-11B-11B-10B-10
B-10B-10B-10B-11B-11
B-9B-9B-10B-11B-11
E-7E-7D-8D-8D-8
D-8D-8C-8C-8C-9
C-7C-7E-7E-7E-7
D-7B-7B-7B-7B-7
B-7B-7B-7B-7B-7
B-7B-7B-7B-7B-7
B-7B-7B-7B-7B-7
B-7B-7B-7D-7C-6
Altitude of Land Surface 1
(ft)
129111.1111.1
1310
4020101010
8050505015
1515152621
1010151010
133140202065
2178587040
7065
144150145
1462010106
1510101012
105
20105.6
320
322
22020
14035
Screen Screen Setting* Diameter (ft) (in)
422- 4821485-1495829-288-307-
258-140-100-215-102-
75-97-
196-26-
97-20-
102-59-47-
77-
74-86-90-
746-670-263-263-267-
244-414-255-252-282-
191-169-606-562-562-
549-69-
108-76-91-
91-84-81-75-
121-
77-111-116-129-102-
95-195-73-83-74-
75-230-220-478-
839319327
288180130253*144
441««80
107226
46
11740
1226048
8834««84
1 17*130«
800»740311308317
307447281273345
216200«647612602
59998
16896
101
121«10999
105146
103136136134107
118225103103103
105260240524263**
1246
106
1818
44
16
41012
4
44444
526
12
812121216
1212121212
104
1288
815121612
1012
88
10
101216
33
1616101010
108
128
Year Drilled
19591960196119671961
19761975197919791979
19561968196319791980
19801980198019791979
19661966195419811980
19561973193419671937
19731971195819551971
19561931196119551947
19611950195919441950
19701967196519361954
19541950194719531954
19471944194019451940
19451946195319581950
Aquifer Unit*
MRPA-UMRPAMRPA-UMRPA-LMRPA-U
MRPA-LMRPA-LMRPA-LMRPA-LMRPA-L
MRPA-UMRPA-UMRPA-UMRPA-MMRPA
MRPA-LMRPAMRPA-LMRPAMRPA
MRPA-UHPPMMRPA-UMRPA-LMRPA-L
MRPA-UMRPA-UMRPA-UMRPA-UMRPA-U
MRPA-UMRPA-UMRPA-UMRPA-UMRPA-M
MRPA-UMRPA-UMRPA-UMRPA-UMRPA-U
MRPA-UMRPA-UMRPA-MMRPA-MMRPA-M
MRPA-MMRPA-MMRPA-MMRPA-MMRPA-M
MRPA-MMRPA-MMRPA-MMRPA-MMRPA-M
MRPA-MMRPA-LMRPA-MMRPA-MMRPA-M
MRPA-MMRPA-LMRPA-LMRPA-UMRPA-U
Use Use of of
Site 4 Water"
W00WW
WWTTW
WWWW0
00000
00WWW
WWWWzWWWWW
WWWWW
WzWzW
WWWWuWWW00
WWWWW
WWWWW
puuppppuuppNRpuuuuuuuuNppppppupppppppNpp
pupuN
NNNNU
NNNUU
NNNNN
NNNIP
21
-
TABLE 1.--RECORDS OF SELECTED WELLS. Continued.
Well Number
15-15-15-15-15-
15-15-15-15-15-
15-15-15-15-15-
15-15-15-15-15-
15-15-15-15-15-
15-15-15-15-15-
15-15-15-15-15-
15-15-15-15-15-
15-15-15-15-15-
15-15-15-15-15-
15-15-15-15-15-
15-15-15-15-15-
15-15-15-15-15-
130131137138139
143144146158159
161163165166167
189191192193194
206207210212213
215216218220224
225226227231236
237238240242243
248253261265267
274275276281282
283284285308312
314317318319320
321322323324326
Local Well Identifier
SO JERSEY WS CO 3CLEARVIEW HIGH SCHOOL 1PURELAND WC 2
(3-1973)MUSUMECI, FRANKPURELAND WC TW 3
PURELAND WC LANDTEC TW6CPURELAND WC 1-1973PURELAND WC LANDTECT
TW9MONSANTO CHEM WEST 2MONSANTO CHEM EAST 1
MONSANTO CHEM DBS 1MONSANTO CHEM DBS 3PENNS GROVE WC-BRIDGPT
1PENNS GROVE WC-BRIDGPT 2MONSANTO CHEM 3
MANTUA MUA 2 (SEWELL 1)MANTUA MUA 1 (SEWELL 2)MANTUA MUA 5
(EDENWD 1)MANTUA MUA 3 (MANT WC 2.)MANTUA MUA 4 (MANT WC3)
NATIONAL PARK BORO WD 1NATIONAL PARK BORO WD 2PAULSBORO WD
6-73PAULSBORO WD 4-51PAULSBORO WD 5-57
PAULSBORO BORO WD 2PAULSBORO BORO WD 3MOBIL OIL-GREENWICH
33ESSEX CHEM-OLIN 1-1954PITMAN BORO WD PG1
PITMAN BORO WD P1PITMAN BORO WD P2PITMAN BORO WD P3MARINO,
HSWEDESBORO BORO WD 3
SWEDESBORO BORO WD 1SWEDESBORO BORO WD 2DEL MONTE CORP 9DEL
MONTE CORP 6DEL MONTE CORP 4
WASHINGTON TWP MUA 5-73WASHINGTON TWP MUA 6-64WASHINGTON TWP MUA
1WASHINGTON TWP MUA 2WASHINGTON TWP MUA 3
WENONAH BORO WD 1WENONAH BORO WD 2W DEPTFORD TWP WD 4W DEPTFORD
TWP WD 3W DEPTFORD TWP WD 5
SHELL CHEM CO 3SHELL CHEM CO 4SHELL CHEM CO 1PENWALT CORP TW 8W
DEPTFORD TWP WD 6
TEXACO EAGLE PT 6-PRODTEXACO EAGLE PT 7TEXACO EAGLE PT 2TEXACO
EAGLE PT 4-PRODTEXACO EAGLE PT 1
TEXACO EAGLE PT 5TEXACO EAGLE PT 3TEXACO EAGLE PT 3-OBSTEXACO
EAGLE PT 4-OBSWESTVILLE BORO WD 5
Municipality
HARRISON TWPHARRISON TWPLOGAN TWPLOGAN TWPLOGAN TWP
LOGAN TWPLOGAN TWPLOGAN TWPLOGAN TWPLOGAN TWP
LOGAN TWPLOGAN TWPLOGAN TWPLOGAN TWPLOGAN TWP
MANTUA TWPMANTUA TWPMANTUA TWPMANTUA TWPMANTUA TWP
NATIONAL PK BORONATIONAL PK BOROPAULSBORO BOROPAULSBORO
BOROPAULSBORO BORO
PAULSBORO BOROPAULSBORO BOROPAULSBORO BOROPAULSBORO BOROPITMAN
BORO
PITMAN BOROPITMAN BOROPITMAN BOROS HARRISON TWPSWEDESBORO
BORO
SWEDESBORO BOROSWEDESBORO BOROSWEDESBORO BOROSWEDESBORO
BOROSWEDESBORO BORO
WASHINGTON TWPWASHINGTON TWPWASHINGTON TWPWASHINGTON
TWPWASHINGTON TWP
WENONAH BOROWENONAH BOROWEST DEPTFORD TWPWEST DEPTFORD TWPWEST
DEPTFORD TWP
WEST DEPTFORD TWPWEST DEPTFORD TWPWEST DEPTFORD TWPWEST DEPTFORD
TWPWEST DEPTFORD TWP
WEST DEPTFORD TWPWEST DEPTFORD TWPWEST DEPTFORD TWPWEST DEPTFORD
TWPWEST DEPTFORD TWP
WEST DEPTFORD TWPWEST DEPTFORD TWPWEST DEPTFORD TWPWEST DEPTFORD
TWPWESTVILLE BORO
Index for
Plate 1
C-6C-7B-6B-6B-6
B-5B-6B-5A-6A-6
A-6A-6B-6B-6A J6
D-8D-8C-7C-8C-7
B-8B-8B-7B-7B-7
B-7B-7B-7B-8D-7
D-7D-7D-7C-6C-6
C-6C-6C-6B-6B-6
E-8E-8E-8E-8D-8
C-8C-8C-8C-8C-8
B-7B-7B-7B-8C-8
B-8B-8B-9B-8B-9
B-9B-9B-9B-9C-9
Altitude of Land Surface 1
(ft)
35452915
8
19-47.64.8
1 11 1
5555
10
8060886510
1030151510
16162010
140
140130999075
3530302515
125152100
90150
8050606155
3030121020
1510171432
1320211012
Screen Screen Setting 2 Diameter (ft) (in)
234-
158-28-
301-
106-81-82-57-56-
70-82-30-65-64-
352-336-315-295-230-
64-241-185-192-135-
70-115-169-234-486-
468-475-447-348-241-
174-217-190-267-
559-584-581-543-575-
283-268-242-227-388-
358-127-328-231-322-
280-261-259-259-248-
237-258-255-214-243-
265445**208
34345
149136*101
8281
90118
408594
377368337317265
85282227*220175
100140236256524
514515487358312
220*240231298220**
618652612573640*
320310288243450
383157358271372
318301289289288
277288275224277
78
1246
666
1212
8686
10
101012
88
88
121212
181810
810
108
103
12
128
1010
12888
12
1212
81212
121212
812
1412161612
1212
63
12
YearDrilled
19531960197319511970
19701973197019611961
19601960193019551969
19511965195719531969
19501956197319511957
19301942192619541938
19261947196019541969
19331940196319441942
19731964195919651972
19441951196319571973
19621962196119691973
19491973194819481947
19481947194819481971
Aquifer Unit 3
MRPA-UMRPA-UMRPA-MHPPMMRPA-L
MRPA-MMRPA-MMRPA-MMRPA-MMRPA-M
MRPA-MMRPA-MMRPA-MMRPA-MMRPA-M
MRPA-UMRPA-UMRPA-UMRPA-UMRPA-U
MRPA-UMRPA-LMRPA-MMRPA-MMRPA-M
MRPA-MMRPA-MMRPA-LMRPA-LMRPA-U
MRPA-UMRPA-UMRPA-UMRPA-UMRPA-U
MRPA-UMRPA-UMRPA-UMRPA-MMRPA-U
MRPA-UMRPA-UMRPA-UMRPA-UMRPA-U
MRPA-UMRPA-UMRPA-UMRPA-UMRPA-L
MRPA-LMRPA-UMRPA-LMRPA-LMRPA-L
MRPA-LMRPA-LMRPA-LMRPA-LMRPA-L
MRPA-LMRPA-LMRPA-LMRPA-LMRPA-L
Use ' Use of of
Site 4 Water 5
WWWWT
0W0WW
00zWW
WWWWW
WWWWW
WWWWW
WWWWW
zWWWu
WWWWW
WWWWW
WWWTW
WWWWW
WW00W
pTpHu
upuNN
uuupN
PPPPP
Ppppp
ppNNP
PPPHP
UPNNU
PPPPP
PPPPP
NNNUP
NNNNN
NNUUP
22
-
TABLE 1.--RECORDS OF SELECTED WELLS.--Continued.
Well Number
15- 32715- 32915- 33115- 33215- 333
15- 33115- 33715- 31015- 31115- 312
15- 31315- 31515- 31715- 31815- 319
15- 35015- 35115- 35515- 35715- 361
15- 36615- 37315- 37115- 38015- 387
15- 38815- 39015- 39215- 39515- 399
15- 10915- 11015- 11715- 12215- 123
15- 12815- 13115- 13115- 13921- 39
21- 1(121- 5121- 9221- 9321- 95
21- 11(721- 20221- 20321- 20733- 61
33- 6533- 6633- 6733- 6933- 70
33- 7133- 7533- 7633- 7733- 80
33- 8333- 8533- 8633- 10333- 105
Local Well Identifier
WESTVILLE BORO WD HWESTVILLE BORO WD 1WOODBURY WD RAILROAD
5WOODBURY WO-PARK LOT 3WOODBURY WD-TATUM H
MACCAROME, JMAUGERI, SALCATALAMO, FBUTLER, WALTERDEL MONTE CORP
10
CASELLA BROSMUSUMECI, PGREENWICH TWP WD 5GREENWICH TWP WD
6PURELAND WC LANDTECT 2
PURELAND WC LANDTECT 1ROLLINS ENVIR DP2E GREENWICH TWP WD 3El
DUPONT REPAUNO 7 DBSGLASSBORO BORO WD 5
CIANCIULLI, TIMOTHYW DEPTFORD TWP MUA 7DEPTFORD TWP MUA
6MONSANTO CHEM DBS 2ROLLINS ENVIR DP1
ROLLINS ENVIR DP3GLOUCESTER CO SEW AUTH 1NJ TPK AUTH-MAINT
S-1-61REPAUPO FIRE CO 30-1972ALLIED ENERGY 1 1977
LOGAN TWP MUA 1TEXACO EAGLE PT HAS&S AUCTION HOUSE 1
1978PITMAN BORO WD PUMOBIL OIL-GREENWICH 28
MOBIL OIL-GREENWICH 36WOODBURY CITY WD 6-81WESTVILLE BORO WD
6ESSEX CHEM-OLIN 2-1970STAUFFER CHEM CO 1
BORDENTOWN WD-WH 1GARDEN ST WC-R FROST 10CHAMPALE
INC-YARDSIDEROEBLING 4 SONSALLENTOWN WD 1
PUB SERV E-G-DUCK ISL 1HAMILTON SQUARE WC 6CHAMPALE INC-OLD
WELLHAND, WILLIAM 1-1930El DUPONT-COURSE LAND 3A
El DUPONT-COURSE LAND 3BEl DUPONT-COURSE LAND 3CEl DUPONT-COURSE
LAND P1NJ TPKE SERV AREA 1N-1NJ TPKE SERV AREA IN-2
OLDSMANS TWP WD 1BSA-AUBURN HILL CAMPDAWSON, H WPENNS GROVE
WSC-PEDTN 11AIRCO INDUSTRIAL GASES 1
BF GOODRICH CO 9BF GOODRICH CO 6BF GOODRICH CO HPENNS GROVE SEW
AUTH 1DILWORTH, J R
Municipality
WESTVILLE BOROWESTVILLE BOROWOODBURY CITYWOODBURY CITYWOODBURY
CITY
WOOLWICH TWPWOOLWICH TWPWOOLWICH TWPWOOLWICH TWPWOOLWICH TWP
WOOLWICH TWPWOOLWICH TWPGREENWICH TWPGREENWICH TWPLOGAN TWP
LOGAN TWPLOGAN TWPE GREENWICH TWPGREENWICH TWPGLASSBORO BORO
E GREENWICH TWPWEST DEPTFORD TWPDEPTFORD TWPLOGAN TWPLOGAN
TWP
LOGAN TWPWEST DEPTFORD TWPWOOLWICH TWPGREENWICH TWPLOGAN TWP
LOGAN TWPWEST DEPTFORD TWPLOGAN TWPHARRISON TWPGREENWICH TWP
PAULSBORO BOROWOODBURY CITYWESTVILLE BOROPAULSBORO BOROHAMILTON
TWP
HAMILTON TWPHAMILTON TWPTRENTON CITYTRENTON CITYWASHINGTON
TWP
TRENTON CITYHAMILTON TWPTRENTON CITYWEST WINDSOR TWPMANNINGTON
TWP
MANNINGTON TWPMANNINGTON TWPMANNINGTON TWPOLDMANS TWPOLDMANS
TWP
OLDMANS TWPOLDMANS TWPOLDMANS TWPOLDMANS TWPOLDMANS TWP
OLDMANS TWPOLDMANS TWPOLDMANS TWPPENNS GROVE BOROPENNSVILLE
TWP
Index for
Plate 1
C-9C-9C-8r fl u oC-8
C-5B-5B-5C-6C-6
B-5B-6B-7B-7A-6
B-5B-6C-7B-7E-7
C-7C-8C-8A-6B-6
B-6B-8C-6B-7B-6
B-6B-8B-6D-7B-7
B-7C-8C-9B-8C-16
B-16B-'i7B-16B-16C-17
B-16B-17B-16B-18C-il
C-HC-i(C-ilB-i(B-i(
B-5B-5B-5B-5A-5
A-5A-5A-5A-UC-2
Altitude of Land Surface 1
(ft)
1616355020
6315506060
65622020
5
20.113-3U2
Hmo
802850
55.3
22.31090
510
205
10mo
10
2530201055
2085273070
1010027
10030
3030101(01(0
8017271012
101013
210
Screen Screen Setting 2 Diameter (ft) (in)
286-69-
1(05-118-129-
21(7-128-108-222-192-
115-91-82-
105-170-
231-80-
205--
610-
209-323-130-71-80-
75-91-
21(1-93-71-
83-256-
51-198-87-
111-211-267-215-179-
101-191-70-
125-263-
13-
90-375-
501-375-1(45-313-
185-129-118-133-112-
93-109-169-50-
256-
313112157188167«
253118111228279
121100117135220
28190
21(5105"657
2193631(867690
8510625111391
103296
61568«136
138305317235199
12121(3
8011(7273
63228"
90««95
575«
512386601333330"
206131123178132
13312918960
263
108
121212
i|6i|3
12
i|H
1212
6
6i|
12i|
12
31212
6i|
i|666
10
612
118
2U
201212
88
12
101010
11
66
22
1286
66i|8
12
12668U
Year Drilled
19571930196019161953
19511955195119551967
19531951197719781970
197019761975
1973
197819801979
1976
19801971196119791977
1975197819781980
1928198019801970196i(
196i(1962196119101952
19771950195019301966
1966196619661953
1968191(1195719361963
19681967196719551950
Aquifer Unit 8
MRPA-LMRPA-UMRPA-LMRPA-UMRPA-U
MRPA-UMRPA-UMRPA-UMRPA-UMRPA-U
MRPA-UMRPA-UMRPA-MMRPA-UMRPA-L
MRPA-LMRPA-MMRPA-UMRPA-MMRPA-U
MRPA-UMRPA-LMRPA-MMRPA-MMRPA-M
MRPA-MMRPA-UMRPA-UMRPA-UMRPA-M
MRPA-MMRPA-LMRPA-UMRPA-UMRPA-M
MRPA-MMRPA-MMRPA-LMRPAMRPA-M
MRPA-MMRPA-MMRPAMRPAMRPA-U
MRPAMRPAMRPAMRPAMRPA-M
MRPA-MMRPA-MMRPA-MMRPA-MMRPA-M
MRPA-UMRPA-UMRPA-UMRPA-MMRPA-M
MRPA-MMRPA-MMRPA-LMRPA-MMRPA-U
Use Use of of
Site 4 Water 6
WWWWW
WWWWW
WWWW0
00W0W
WWW00
0WWWW
WWWWW
WWWWW
WWuWW
WWWW0
00WWW
WWWzW
WWWWu
PPPPPsIHsF
sHPPuuuPuPHPPuuuNNFF
PNNIN
NPPNN
PPUNP
NPNIU
UuINN
PTHUN
NNNZU
23
-
TABLE 1.--RECORDS OF SELECTED WELLS.--Continued.
Well Number
33- 10633- 10733- 10833- 11233- 117
33- 11833- 11933- 12133- 12233- 123
33- 12533- 12633- 12733- 12833- 135
33- 13733- 11733- 15833- 16333- 164
33- 16533- 16633- 16733- 18233- 187
33- 19433- 19833- 25133- 25333- 299
33- 30033- 30133- 30233- 30333- 304
33- 30533- 30733- 30833- 30933- 310
33- 32233- 32533- 32633- 32833- 330
33- 33333- 33133- 33533- 34233- 345
33- 34633- 3«733- 35333- 35433- 355
33- 36033- 36133- 36233- 36433- 101
33- 41933- 42033- 42133- 428
Local Well Identifier
LINSKI, ALEX 2-1962NJDEP-FT MOTT STATE PK 1US ARMY-FINNS PT
CEMPENNSVILLE TWP WD 4PENNSVILLE TWP WD 3
PENNSVILLE TWP WD 1PENNSVILLE TWP WD 2ATL CITY EL-DEEPWATER 3ATL
CITY EL-DEEPWATER 3RATL CITY EL-DEEPWATER 2
ATL CITY EL-DEEPWATER 5El DUPONT-RANNEY 7ATL CITY EL-DEEPWATER
6El DUPONT-RANNEY 6El DUPONT-RANNEY 5
El DUPONT-DRINKWATER 8SALEM CO OFFICE BLDG 1ACME MARKETS
1RICHMAN ICE CREAM 1RICHMAN ICE CREAM 2
El DUPONT-COURSE LAND 4AEl DUPONT-COURSE LAND 4BEl DUPONT-COURSE
LAND 4CDAVIS, ALLENUSGS-POINT AIRY OBS
KELLY, W FDUBOIS BROTHERS IRR 74USGS-SALEM 1 OBSUSGS-SALEM 3
OBSEl DUPONT-COURSE LAND 1A
El DUPONT-COURSE LAND 1BEl DUPONT-COURSE LAND 1CEl DUPONT-COURSE
LAND 2AEl DUPONT-COURSE LAND 2BEl DUPONT-COURSE LAND 2C
El DUPONT-COURSE LAND P3El DUPONT-RANNEY 1El DUPONT-RANNEY 2El
DUPONT-RANNEY 3El DUPONT-RANNEY 4
El DUPONT-CARNEY PT 2El DUPONT-CARNEY PT 3El DUPONT-CARNEY PT
4El DUPONT-CARNEY PT 1PENNS GROVE WC-LAYTON 11
El DUPONT-CARNEY PT 5El DUPONT-CARNEY PT 6El DUPONT-CARNEY PT
7PENNS GROVE 24 OBSPENNS GROVE WC 2B
PENNS GROVE WC-LAYNE 1PENNS GROVE WC-RANNEYWOODSTOWN BORO WD
1WOODSTOWN BORO WD 2WOODSTOWN ICE & COAL 1
PENNSVILLE T WD 5PENNS GROVE WC-LAYTN1-79WOODSTOWN BORO WD
3PSEG-SALEM NUC GEN STA 5PUBLIC SERVICE TEST 1-80
NL INDUSTRIES MON 8RNL INDUSTRIES MON 9R2SPARKS, MAYHEWPENNS
GROVE WC 2A
Municipality
PENNSVILLE TWPPENNSVILLE TWPPENNSVILLE TWPPENNSVILLE
TWPPENNSVILLE TWP
PENNSVILLE TWPPENNSVILLE TWPPENNSVILLE TWPPENNSVILLE
TWPPENNSVILLE TWP
PENNSVILLE TWPPENNSVILLE TWPPENNSVILLE TWPPENNSVILLE
TWPPENNSVILLE TWP
PENNSVILLE TWPPILESGROVE TWPPILESGROVE TWPPILESGROVE
TWPPILESGROVE TWP
PILESGROVE TWPPILESGROVE TWPPILESGROVE TWPPILESGROVE
TWPPILESGROVE TWP
PILESGROVE TWPPILESGROVE TWPSALEM CITYSALEM CITYCARNEYS PT
TWP
CARNEYS PT TWPCARNEYS PT TWPCARNEYS PT TWPCARNEYS PT TWPCARNEYS
PT TWP
CARNEYS PT TWPCARNEYS PT TWPCARNEYS PT TWPCARNEYS PT TWPCARNEYS
PT TWP
CARNEYS PT TWPCARNEYS PT TWPCARNEYS PT TWPCARNEYS PT TWPCARNEYS
PT TWP
CARNEYS PT TWPCARNEYS PT TWPCARNEYS PT TWPCARNEYS PT TWPCARNEYS
PT TWP
CARNEYS PT TWPCARNEYS PT TWPWOODSTOWN BOROWOODSTOWN
BOROWOODSTOWN BORO
PENNSVILLE TWPCARNEYS PT TWPWOODSTOWN BOROL ALLOWAYS CK TWPL
ALLOWAYS CK TWP
OLDMANS TWPOLDMANS TWPMANNINGTON TWPCARNEYS PT TWP
Index for
Plate1
C-3B-2B-2B-3B-3
B-3B-3B-3B-3B-3
B-3B-3B-3B-3B-3
B-3C-4D-4C-4C-4
C-4C-4C-4C-5C-5
C-5C-5C-2C-2 ,C-4
C-4C-4C-4C-4C-4
C-4B-4B-4B-4B-JI
B-4B-4B-JIB-JIB-4
B-JIB-4B-JIB-4B-4
B-4B-4C-5C-5D-5
B-3B-4D-5D-1D-1
A-5A-5B-JIB-4
Altitude of Land Surface 1
(ft)
587
107
87
191010
1015101516
1440572520
4717478673
9051
33
26
2526303030
1J|8
1818
8
5555
16
55
1 117.919
1917454558
1013601720
14.014.41519
Screen Screen Setting 2 Diameter (ft) (in)
359-300-290-117-87-
213-210-171-165-158-
149-52-
158-50-47-
317-361-562-455-418-
634-568-430-323-664-
500-337-699-335-604-
507-404-583-533-435-
381-
396-49-49-
169-71-71-
175-351-
51-157-260-46-45-
317-
665-670-340-
101-54-
692-765-
365320319137102
238230250235250
219*14018860
116
3JI7368575JI75446
644578440335672
5103627093406UI
51741559354J|445
45760««
4806969
219102
86195394
81181*H3K«
5158
35734««
703705360
11764
7128JIO
1115-1135
101-53-
332-
10861
34060««
484
1212
1010151215
101212
612
10448
10
22244
38662
22222
12
81212
12181612
8
121218
612
12192
888
1212101212
443
Year Drilled
19621900195119651956
19451949192919701929
19531966195819661963
19431958196019481946
19661967196619591958
19601974196519651966
19661966196619661966
1966
195519601962
19331933195519671944
19571957196719411944
19561939192719461927
19791978197519741980
1980198019671944
Aquifer Unit 3
MRPA-MMRPA-MMRPA-MMRPA-UMRPA-U
MRPA-MMRPA-MMRPA-MMRPA-MMRPA-M
MRPA-MMRPA-UMRPA-MMRPA-UMRPA-U
MRPA-LMRPA-UMRPA-MMRPA-MMRPA-M
MRPA-MMRPA-MMRPA-MMRPA-UMRPA-M
MRPA-MMRPA-MMRPA-MMRPA-UMRPA-M
MRPA-MMRPA-MMRPA-MMRPA-MMRPA-M
MRPA-MMRPA-UMRPA-LMRPA-UMRPA-U
MRPA-MMRPA-MMRPA-MMRPA-MMRPA-L
MRPA-MMRPA-MMRPA-LMRPA-UMRPA-U
MRPA-LHPPMMRPA-MMRPA-MMRPA-U
MRPA-UMRPA-UMRPA-MMRPA-MMR PA
MRPA-MMRPAMRPA-MHPPM
Use Use of of
Site 4 Water 8
WWWWW
WWZWW
WWWWW
WWWWW
000W0
WW000
00000
WZWWW
WuWWW
WWW0W
WWZWW
WWWWT
00WW
HTTpp
ppuNN
NNNNN
NTCNN
UUUHU
HIUUU
uuuuuNUNNN
NUNNP
NNNUP
PPUPN
PPPNU
UUHP
24
-
TABLE 1.--RECORDS OF SELECTED WELLS. Continued,
1 REFERENCED TO NATIONAL GEODETIC VERTICAL DATUM OF 1929- «
REFERENCED TO LAND SURFACE
» INDICATES WELL HAS MULTIPLE SCREENS. »» TOTAL WELL DEPTH,
SCREEN SETTING UNKNOWN
3 AQUIFER UNITS
MRPA POTOMAC-RARITAN-MAGOTHY AQUIFER
SYSTEM-UNDIFFERENTIATEDMRPA-U POTOMAC-RARITAN-MAGOTHY AQUIFER
SYSTEM-UPPER AQUIFER UNITMRPA-M POTOMAC-RARITAN-MAGOTHY AQUIFER
SYSTEM-MIDDLE AQUIFER UNITMRPA-L POTOMAC-RARITAN-MAGOTHY AQUIFER
SYSTEM-LOWER AQUIFER UNITHPPM
HOLOCENE-PLEISTOCENE-PLEIOCENE-MIOCENE DEPOSITS
4 USE OF SITE
0 - OBSERVATIONT - TESTU - UNUSEDW - WITHDRAWALZ - DESTROYED
6 USE OF WATER
A - AIR CONDITIONING P - PUBLIC SUPPLYC - COMMERCIAL S - STOCKF
- FIRE PROTECTION T - INSTITUTIONH - DOMESTIC U - UNUSEDI -
IRRIGATION Z - OTHERN - INDUSTRIAL
25
-
TABLE 3. RESULTS OF ANALYSES OF GROUND-WATER SAMPLES FOR COMMON
CONSTITUENTS AND PHYSICAL CHARACTERISTICS.
[Concentrations in milligrams per liter, except as noted.]
Well Number
5- 395- 395- 395- 395- 13
5- 155- 185- 185- 185- 51
5- 515- 515- 515- 555- 63
5- 675- 765- 775- 865- 87
5- 875- 875- 895- 895- 91
5- 925- 915- 975- 975-100
5-1025-1055-1055-1175-117
5-1185-1215-1235-1235-126
5-1265-1275-1275-1275-130
5-1305-1305-1375-1375-139
5-1105-1135-1115-1625-167
5-1705-1715-1805-1815-185
5-1895-1895-1905-1905-192
5-2015-2085-2085-2085-209
Local Well Identifier
NJ WC-DEL VALLEY WC 15NJ WC-DEL VALLEY WC 15NJ WC-DEL VALLEY WC
15NJ WC-DEL VALLEY WC 15OCEAN SPRAY 1
SANDMAN MOTEL 1NJ DEPT DEF-NAT GUARD 1NJ DEPT DEF-NAT GUARD 1NJ
DEPT DEF-NAT GUARD 1BURLINGTON CITY WD 3
BURLINGTON CITY WD 3BURLINGTON CITY WD 3BURLINGTON CITY WD
3BURLINGTON CITY WD 6WILLINGBORO MUA 1-OBS
DEACON, RUSSELL 1HEAL, CHARLESBURLINGTON TWP WD 1-1973TENNECO
CHEM 5TENNECO CHEM 5-OBS
TENNECO CHEM 5-OBSTENNECO CHEM 5-OBSTENNECO CHEM 7TENNECO CHEM
7TENNECO CHEM 1
TENNECO CHEM 1TENNECO CHEM 3HERCULES POWDER 1HERCULES POWDER
1HERCULES POWDER 2
COLUMBUS METAL 1HOOKER CHEM CO-PROD 1HOOKER CHEM CO-PROD 1GRAY,
FRANCIS 1GRAY, FRANCIS 1
LIPTAK.E A 1NJ STATE REFORMATORY 1NJ WC-DEL VALLEY WC 28NJ
WC-DEL VALLEY WC 28NJ WC-DEL VALLEY WC 12
NJ WC-DEL VALLEY WC 12NJ WC-DEL VALLEY WC 11NJ WC-DEL VALLEY WC
11NJ WC-DEL VALLEY WC 11NJ WC-DEL VALLEY WC 13
NJ WC-DEL VALLEY WC 13NJ WC-DEL VALLEY WC 13TAYLOR 2 OBSTAYLOR 2
OBSHOLIDAY LAKE WORTHINGTON
CHANT, HARRYNJ WC-DEL VALLEY WC 23NJ WC-DEL VALLEY WC 21DAYMENN
CONVERTINGEVESHAM MUA 5
EVESHAM MUA 1EVESHAM MUA 2WORKMAN, JAMES 1HUNT BROS
CIRCUSSHERWATT EQUIPMENT 1
FLORENCE TWP WD 2FLORENCE TWP WD 2FLORENCE TWP WD 1FLORENCE TWP
WD 1FRED WORTH AND SONS 1
ACACIA LUMBERTON MANORCOLUMBUS WC 2COLUMBUS WC 2COLUMBUS WC
2COLUMBUS WC-TEST 1969
Date of Sample
11SEP5116APR6930JUN8017DEC8205JUN80
03JUL6703JUL67040CT7105JUN8021MAY51
19MAY5216APR6112JUN8006JUL7025JUL80
03JUL6719JUN8012JUN8012AUG8227JUN75
22APR7625JUL8020JUN8012AUG8230JUL82
25JUL8020JUN8003MAY5130JUN6711 JUN80
1 1JUN8026JUN8016DEC8213JUN6103JUL67
03JUL6705JUN8006AUG8002DEC8206AUG80
17DEC8218AUG6630JUN8002DEC8218AUG66
30JUN8002DEC8227JUN7527APR7629AUG80
29AUG8002DEC8230JUN8019JUN8001SEP82
1 1AUG6611AUG6603JUL6706JUN8006JUN80
12JUN8016DEC8223SEP5230APR6109JUL70
11SEP8222MAY5116AUG67220CT80050CT71
Temper- ature (°C)
13.511.013.513.513.5
16.015.013.013-513.0
_11.011.511.011.0
11.513.511.515.013.5
13.515.013-511.011.0
15.015.013.013.520.5
13.512.512.516.516.5
15.013.511.013.511.0
13.513.013.011.513-5
13.511.013.013.015.0
13-511.013-516.517.0
__
13.013-513.5
11.013.0
-13-013.5
15.011.013-511.015.0
Specific Conductance (micromhos)Field
-207205157
_--
156-
_-
317-
211
_250208320210
_201212177315
586389
-_
201
56110128
--
_888081
119
109-
117105
-
121112250250106
72-
126250221
_--
218219
272250
---
210_-
183188
Lab
206210
-190
-
259129131
-318
313303
-182
-
188_-
328-
230--
173353
_-
19125
-
__
130128121
171--
77-
106110
_10172
_128228
--
_101
--
218
252255172
--
_3036711128
209190185
-193
pH (Units)
Field
_-5.55.56.6
_-
6.66.6-
_-
6.3-
6.7
_6.36.85.21.6
5.05-91.81.96.1
5-25.9--
6.1
6.05.25.1--
_6.35.11.75.0
1.5-
1.73-9
1.91. 15.86.05-7
6.7_
1.65.27-9
_--1.96.7
6.15.8---
7-5--
7-27-1
Lab
6.37.2-
6.0-
8.27.96.6-
7.2
6.56.6-
6.1-
7.9_-
5.2-
_-_
1.76.2
--
5.67.0-
_-
6.16.57-9
7.8--
5.8-
5.56.8-
1. 15.7
_5.2---
_1.9--
8.0
7-17.77.0--
_6.16.16.21.8
7-17.67.07.17-3
Alkalinity (As CaC03)Field
.-
1 11162
_-
5859-
_-
69-
81
_28816-
_1123
55
1115--
63
16ai_-
_31522
0-20-
20--6
25009
86
__-2
102
3530---
87
-8588
Lab
29----
98-
11-
72
7161---
_---2
1----
_-2--
_-_
19-
_--_-
_-_--
__
1716-
_----
_----
_-7
10-
_81--
80
Dissolved Oxygen
_-
5.6-
_----
_----
__---
_---
2.3
_--_-
__
6.0--
_--
9.3-
9.5--6.6-
_7-9
--
_8.3--
0.3
__---
_10.1
---
0.5_---
Hardness (As CaC03)
Total
6861616556
12057565399
99-
916986
8627858116
72585516110
130120153717
1033365153
8128192137
2732303020
3339767531
1828217687
110110596380
8069151213
8588838581
Noncarbonate
395350510
271200
27
25-
25272
601
7811
6817531352
1207313210
0293251
60
111935
275
283011
3139595925
0282167
1
251751610
153982
13
01100
26
-
TABLE 1.--RESULTS OF ANALYSES OF GROUND-WATER SAMPLES FOR COMMON
CONSTITUENTS AND PHYSICAL CHARACTERISTICS--Continued.
[Concentrations in milligrams per liter, except as noted.]
Well Number
5- 395- 395- 395- 395- 43
5- 455- 485- 485- 485- 51
5- 515- 515- 515- 555- 63
5- 675- 765- 775- 865- 87
5- 375- 875- 895- 895- 91
5- 925- 945- 975- 975-100
5-1025-1055-1055-1175-1 17
5-1185-1215-1235-1235-126
5-1265-1275-1275-1275-130
5-1305-1305-1375-1375-139
5-