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Publications

The list below includes official USGS publications and journal articles authored by New England Water Science Center scientists. The USGS Pubs Warehouse link provides access to all USSG publications.

Filter Total Items: 1078

Availability of ground water in the branch river basin, Providence County, Rhode Island

Stratified glacial drift consisting largely of sand and gravel constitutes the only aquifer capable of supporting continuous yields of 100 gpm (6.3 1/s) or more to individual wells. The aquifer covers about a third of the 79 mi 2 (205 km2 ) study area, occurring mainly in stream valleys that are less than a mile wide. Its saturated thickness is commonly 40 to 60ft (12 to 18 m); its transmissivity
Authors
H.E. Johnston, D.C. Dickerman

Water resources inventory of Connecticut Part 5: lower Housatonic River basin

The 557 square miles of the lower Housatonic River basin in western Connecticut include the basins of two major tributaries, the Pomperaug and Naugatuck Rivers. Nearly all water is derived from precipitation, which averaged 47 inches per year during 1931-60, In this period an additional 570 billion gallons of water per year entered the basin in the main stem of the Housatonic River at Lake Lillino
Authors
William E. Wilson, Edward L. Burke, Chester E. Thomas

Availability of ground water in the Branch River basin; Providence County, Rhode Island

Stratified glacial drift consisting largely of sand and gravel constitutes the only aquifer capable of supporting continuous yields of 100 gpm (6.3 1/s) or more to individual wells. The aquifer covers about a third of the 79 mi 2 (205 km2) study area, occurring mainly in stream valleys that are less than a mi le wide. Its saturated thickness is commonly 40 to 60ft (12 to 18 m); its transmissivity
Authors
H.E. Johnston, D.C. Dickerman

Availability of ground water in the lower Pawcatuck River basin, Rhode Island

The lower Pawcatuck River basin in southwestern Rhode Island is an area of about 169 square miles underlain by crystalline bedrock over which lies a relatively thin mantle of glacial till and stratified drift. Stratified drift, consisting dominantly of sand and gravel, occurs in irregularly shaped linear deposits that are generally less than a mile wide and less than 125 feet thick; these deposits
Authors
Joseph B. Gonthier, Herbert E. Johnston, Glenn T. Malmberg

Availability of ground water in the Blackstone River area Rhode Island and Massachusetts

The Blackstone River study area covers 83 square miles of northern Rhode Island and 5 square miles of adjacent Massachusetts (fig. 1). It includes parts of the Blackstone, Moshassuck, and Tenmile River basins, and a coastal area that drains to the brackish Seekonk and Providence Rivers. In Rhode Island, all or parts of the suburban towns of Cumberland, Lincoln, North Smithfield, and Smithfield and
Authors
Herbert E. Johnston, David C. Dickerman

Effect of septic-tank wastes on quality of water, Ipswich and Shawsheen River basins, Massachusetts

Many housing projects in the metropolitan area of Boston are beyond the reach of municipal sewer systems. Waste water disposed of through septic-tank or cesspool systems percolates to ground-water reservoirs and eventually reaches the streams. The dissolved-solids load in the streams receiving septic-tank effluent is increased by an amount that can be predicted from the housing density. In the stu
Authors
L.G. Toler, George B. Morrill

Availability of ground water in the northern part, Tenmile and Taunton River basins, southeastern Massachusetts

The northern part of the Tenmile and Taunton River basins occupies an area of about 195 square miles. It includes some of the rapidly growing suburbs of Boston, Attleboro, and Brockton and lies along major highways connecting Boston with Fall River and Providence, Rhode Island. (See location map.) The purpose of this report is to delineate the extent of and to estimate the annual sustained yield a
Authors
John R. Williams

Water resources inventory of Connecticut Part 3: lower Thames and southeastern coastal river basins

The lower Thames and southeastern coastal river basins have a relatively abundant supply of water of generally good quality which is derived from streams entering the area and precipitation that has fallen on the area. Annual precipitation has ranged from about 32 inches to 65 inches and has averaged about 48 inches over a 30-year period. Approximately 22 inches of water are returned to the atmosp
Authors
Chester E. Thomas, Michael A. Cervione, I.G. Grossman

Availability of ground water upper Pawcatuck River basin Rhode Island

The upper Pawcatuck River basin is a 70-square-mile area in southcentral Rhode Island consisting of broad, rolling hills and narrow valleys in the north and fiat-floored plains in the south. It is drained by the Pawcatuck River and its two major tributaries, the Usquepaug-Queen River and the Chipuxet River. Analysis of the water budget for the basin shows that approximately 94 mgd (million gal
Authors
William Burrows Allen, Glenn Walter Hahn, Richard A. Brackley

Water resources of the Ipswich River basin, Massachusetts

Water resources of the Ipswich River basin are at resent {1960) used principally for municipal supply to about 379,000 person's in 16 towns and cities in or near the river basin. By the year 2000 municipal use of water in this region will probably be more than twice the current use, and subsidiary uses of water, especially for recreation, also will have increased greatly. To meet the projected ne
Authors
Edward A. Sammel, John Augustus Baker, Richard A. Brackley

Water resources inventory of Connecticut Part 1: Quinebaug River basin

The Quinebaug River basin is blessed with a relatively abundant supply of water of generally good quality which is derived from precipitation that has fallen on the basin. Annual precipitation has ranged from about 30 to 67 inches and has averaged about 45 inches over a 44-year period. Approximately 21 inches of water are returned to the atmosphere each year by evaporation and transpiration; the r
Authors
Allan D. Randall, Mendall P. Thomas, Chester E. Thomas, John A. Baker