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Explore water-related photography, imagery, and illustrations.

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Image: Fiber Optic Temperature Sensing in Hydrology
Fiber Optic Temperature Sensing in Hydrology
Fiber Optic Temperature Sensing in Hydrology
Fiber Optic Temperature Sensing in Hydrology

USGS hydrologists deploy fiber-optic distributed temperature sensing equipment in Ashumet Pond, Mashpee, Massachusetts. Fiber-optic distributed temperature sensing is an emerging technology that has promise for characterizing estuary-aquifer interaction. The technology evaluation was conducted by the USGS Office of Groundwater Branch of Geophysics in 2007.

USGS hydrologists deploy fiber-optic distributed temperature sensing equipment in Ashumet Pond, Mashpee, Massachusetts. Fiber-optic distributed temperature sensing is an emerging technology that has promise for characterizing estuary-aquifer interaction. The technology evaluation was conducted by the USGS Office of Groundwater Branch of Geophysics in 2007.

Image: Elk River Development
Elk River Development
Elk River Development
Elk River Development

Development along the mouth of the Elk River, a tributory of the Chesapeake Bay.

Development along the mouth of the Elk River, a tributory of the Chesapeake Bay.

Image: Evaluating Geophysical Equipment & Methods
Evaluating Geophysical Equipment & Methods
Evaluating Geophysical Equipment & Methods
Evaluating Geophysical Equipment & Methods

USGS hydrologists monitor data collection during a geophysical survey using the horizontal-to-vertical ambient-noise seismic method. This method can be used to estimate unconsolidated sediment thickness and map the bedrock surface as part of groundwater investigations.

USGS hydrologists monitor data collection during a geophysical survey using the horizontal-to-vertical ambient-noise seismic method. This method can be used to estimate unconsolidated sediment thickness and map the bedrock surface as part of groundwater investigations.

Image: Public Wells
Public Wells
Public Wells
Public Wells

Example of a pump and plumbing configuration used by public water systems. About 105 million people—or more than one-third of the Nation's population—receive their drinking water from one of the 140,000 public water systems across the United States that rely on groundwater pumped from public wells.

Example of a pump and plumbing configuration used by public water systems. About 105 million people—or more than one-third of the Nation's population—receive their drinking water from one of the 140,000 public water systems across the United States that rely on groundwater pumped from public wells.

Image: Near-Surface Seismic Survey in the Bronx
Near-Surface Seismic Survey in the Bronx
Near-Surface Seismic Survey in the Bronx
Near-Surface Seismic Survey in the Bronx

USGS hydrologists prepare equipment for multi-channel analysis of surface waves (MASW) land seismic imaging survey. The geophones (in the yellow "land streamer") are pulled behind a vehicle. This relatively new system allows for inexpensive and rapid data acquisition.

USGS hydrologists prepare equipment for multi-channel analysis of surface waves (MASW) land seismic imaging survey. The geophones (in the yellow "land streamer") are pulled behind a vehicle. This relatively new system allows for inexpensive and rapid data acquisition.

Image: Near-Surface Seismic Survey in the Bronx
Near-Surface Seismic Survey in the Bronx
Near-Surface Seismic Survey in the Bronx
Near-Surface Seismic Survey in the Bronx

USGS hydrologists conduct a multi-channel analysis of surface waves (MASW) land seismic imaging survey. The yellow land streamer contains the geophones and is towed behind a vehicle. This relatively new system allows for inexpensive and rapid data acquisition.

USGS hydrologists conduct a multi-channel analysis of surface waves (MASW) land seismic imaging survey. The yellow land streamer contains the geophones and is towed behind a vehicle. This relatively new system allows for inexpensive and rapid data acquisition.

Image: Near-Surface Seismic Survey in the Bronx
Near-Surface Seismic Survey in the Bronx
Near-Surface Seismic Survey in the Bronx
Near-Surface Seismic Survey in the Bronx

USGS hydrologists prepare equipment for a multi-channel analysis of surface waves (MASW) land seismic imaging survey. In this picture, the accelerated weight-drop energy source (blue box) is attached to the back of a vehicle. This relatively new system allows for inexpensive and rapid data acquisition.

USGS hydrologists prepare equipment for a multi-channel analysis of surface waves (MASW) land seismic imaging survey. In this picture, the accelerated weight-drop energy source (blue box) is attached to the back of a vehicle. This relatively new system allows for inexpensive and rapid data acquisition.

Image: Near-Surface Gravity Survey
Near-Surface Gravity Survey
Near-Surface Gravity Survey
Near-Surface Gravity Survey

A USGS hydrologist prepares equipment to conduct a gravity survey to evaluate small variations in the earth's gravity field. The USGS Office of Groundwater Branch of Geophysics develops and tests new tools and field methods to support USGS analysis of groundwater flow systems.

A USGS hydrologist prepares equipment to conduct a gravity survey to evaluate small variations in the earth's gravity field. The USGS Office of Groundwater Branch of Geophysics develops and tests new tools and field methods to support USGS analysis of groundwater flow systems.

Image: Using GPS in the Field
Using GPS in the Field
Using GPS in the Field
Using GPS in the Field

USGS hydrologist collects location data using GPS during a near-surface geophysics survey. The survey was conducted as part of an applied research effort by the USGS Office of Groundwater Branch of Geophysics in 2007.

USGS hydrologist collects location data using GPS during a near-surface geophysics survey. The survey was conducted as part of an applied research effort by the USGS Office of Groundwater Branch of Geophysics in 2007.

Great Salt Lake and Wasatch Range, Davis Co, UT
Great Salt Lake and Wasatch Range from Antelope Island, Davis County, UT
Great Salt Lake and Wasatch Range from Antelope Island, Davis County, UT
Great Salt Lake and Wasatch Range from Antelope Island, Davis County, UT

Great Salt Lake and the Wasatch Range from Antelope Island, Davis County, UT. Photograph taken April 26, 2007 by Alan M. Cressler.

Image: Sunrise on the North Platte River 2
Sunrise on the North Platte River 2
Sunrise on the North Platte River 2
Sunrise on the North Platte River 2

Sunrise on the North Platte River at Broadwater, Nebraska. Looking upstream from Hwy 92 bridge.

Image: Continous Seismic Profiling
Continous Seismic Profiling
Continous Seismic Profiling
Continous Seismic Profiling

The USGS collaborated with cooperator U.S. Fish & Wildlife Service to conduct continuous seismic-reflection profiling in the Havasu National Wildlife Refuge. The survey was conducted as part of an applied research and technology transfer effort by the USGS Office of Groundwater Branch of Geophysics in 2007.

The USGS collaborated with cooperator U.S. Fish & Wildlife Service to conduct continuous seismic-reflection profiling in the Havasu National Wildlife Refuge. The survey was conducted as part of an applied research and technology transfer effort by the USGS Office of Groundwater Branch of Geophysics in 2007.

Photo of SBCC wells looking east
San Bernardino, Cone Camp Multiple-depth Monitoring Well Sites
San Bernardino, Cone Camp Multiple-depth Monitoring Well Sites
San Bernardino, Cone Camp Multiple-depth Monitoring Well Sites

Looking east towards USGS Site ID: 340541117074401-6, Site Name: 001S002W07Q001S-6S, Local name: SBCC 1-6 in San Bernardino County, California.

Photo of Steve Peterson making a stream discharge measurement.
Steve Peterson making a stream discharge measurement.
Steve Peterson making a stream discharge measurement.
Steve Peterson making a stream discharge measurement.

USGS Nebraska Water Science Center Elkhorn-Loup Model project chief, Steve Peterson, making a stream discharge measurement. The project collected hundreds of discharge measurements in 2006 to determine base flow in the study area.

USGS Nebraska Water Science Center Elkhorn-Loup Model project chief, Steve Peterson, making a stream discharge measurement. The project collected hundreds of discharge measurements in 2006 to determine base flow in the study area.

USGS station 08026000 Sabine River near Burkeville, Texas, upstream from bridge on State Highway 63.
Station 08026000 Sabine River near Burkeville, Tex.
Station 08026000 Sabine River near Burkeville, Tex.
Station 08026000 Sabine River near Burkeville, Tex.

U.S. Geological Survey streamflow-gaging station 08026000 Sabine River near Burkeville, Texas, photograph looking upstream from bridge on State Highway 63, November 9, 2006.

SIR 2009–5174

U.S. Geological Survey streamflow-gaging station 08026000 Sabine River near Burkeville, Texas, photograph looking upstream from bridge on State Highway 63, November 9, 2006.

SIR 2009–5174

Crooked River at Smith Rocks
Crooked River at Smith Rocks
Crooked River at Smith Rocks
Crooked River at Smith Rocks

Crooked River of the Deschutes River Basin, Oregon, flows through Smith Rocks 

Crooked River of the Deschutes River Basin, Oregon, flows through Smith Rocks 

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