Bear Lake, Colorado is a high alpine lake near tree line that is affected by regional to local fires and vegetation changes.
Images
Bear Lake, Colorado is a high alpine lake near tree line that is affected by regional to local fires and vegetation changes.
3D model view of the Anadarko sedimentary basin from above
3D model view of the Anadarko sedimentary basin from aboveView of the Anadarko sedimentary basin from above, looking to the northeast. Colored surfaces represent the top of specific geologic units as mapped in the subsurface.
3D model view of the Anadarko sedimentary basin from above
3D model view of the Anadarko sedimentary basin from aboveView of the Anadarko sedimentary basin from above, looking to the northeast. Colored surfaces represent the top of specific geologic units as mapped in the subsurface.
Flying a UAS mounted with a hyperspectral sensor at the USGS EESC-LRL
Flying a UAS mounted with a hyperspectral sensor at the USGS EESC-LRLUSGS remote pilots Joe Adams and Matt Burgess each flying a UAS mounted with a hyperspectral sensor over ponds at the USGS Eastern Ecological Science Center - Leetown Research Laboratory (EESC-LRL)
Flying a UAS mounted with a hyperspectral sensor at the USGS EESC-LRL
Flying a UAS mounted with a hyperspectral sensor at the USGS EESC-LRLUSGS remote pilots Joe Adams and Matt Burgess each flying a UAS mounted with a hyperspectral sensor over ponds at the USGS Eastern Ecological Science Center - Leetown Research Laboratory (EESC-LRL)
Perspective view of the Colorado Plateau looking from above to the northwest. Image shows a part J.C.
Perspective view of the Colorado Plateau looking from above to the northwest. Image shows a part J.C.
Perspective view of the Continental U.S. showing an elevation surface of the top of crystalline Precambrian “basement” rocks
Perspective view of the Continental U.S. showing an elevation surface of the top of crystalline Precambrian “basement” rocksPerspective view of the Continental U.S. showing an elevation surface of the top of crystalline Precambrian “basement” rocks. Brown and orange colors depict the highest elevations; greens show the lowest elevations. Surface is incomplete in the western U.S. where there are no published “basement” maps or where crystalline Precambrian rocks are not present.
Perspective view of the Continental U.S. showing an elevation surface of the top of crystalline Precambrian “basement” rocks
Perspective view of the Continental U.S. showing an elevation surface of the top of crystalline Precambrian “basement” rocksPerspective view of the Continental U.S. showing an elevation surface of the top of crystalline Precambrian “basement” rocks. Brown and orange colors depict the highest elevations; greens show the lowest elevations. Surface is incomplete in the western U.S. where there are no published “basement” maps or where crystalline Precambrian rocks are not present.
Blanca Peak, Colorado. Alluvial fan and glacial moraine sourced from an alpine catchment
Blanca Peak, Colorado. Alluvial fan and glacial moraine sourced from an alpine catchmentPhotograph of Blanca Peak (Colorado) looking up at an alluvial fan and glacial moraine sourced from an alpine catchment. Deposits like these are often important records of past changes in erosion, sedimentation, and tectonic activity.
Blanca Peak, Colorado. Alluvial fan and glacial moraine sourced from an alpine catchment
Blanca Peak, Colorado. Alluvial fan and glacial moraine sourced from an alpine catchmentPhotograph of Blanca Peak (Colorado) looking up at an alluvial fan and glacial moraine sourced from an alpine catchment. Deposits like these are often important records of past changes in erosion, sedimentation, and tectonic activity.
This image depicts a Quaternary fault scarp running vertically across the center of the image, separating active sedimentation on the left from eroding mountain catchments on the right.
This image depicts a Quaternary fault scarp running vertically across the center of the image, separating active sedimentation on the left from eroding mountain catchments on the right.
View east across Dixie Valley from the crest of the Stillwater Range, western Nevada
View east across Dixie Valley from the crest of the Stillwater Range, western NevadaView east across Dixie Valley from the crest of the Stillwater Range, western Nevada. In the foreground are igneous rocks of an Oligocene caldera complex; bedrock in the Desatoya Mountains on the horizon is a slightly younger caldera complex. A major challenge for bedrock mapping is inferring what is in the subsurface between exposures like these.
View east across Dixie Valley from the crest of the Stillwater Range, western Nevada
View east across Dixie Valley from the crest of the Stillwater Range, western NevadaView east across Dixie Valley from the crest of the Stillwater Range, western Nevada. In the foreground are igneous rocks of an Oligocene caldera complex; bedrock in the Desatoya Mountains on the horizon is a slightly younger caldera complex. A major challenge for bedrock mapping is inferring what is in the subsurface between exposures like these.
Tree rings can provide sub-seasonal records of hydroclimate and fire over centennial time scales
Tree rings can provide sub-seasonal records of hydroclimate and fire over centennial time scalesUSGS Geologist Natalie Kehrwald takes a tree ring sample. Tree rings can provide sub-seasonal records of hydroclimate and fire over centennial time scales.
Tree rings can provide sub-seasonal records of hydroclimate and fire over centennial time scales
Tree rings can provide sub-seasonal records of hydroclimate and fire over centennial time scalesUSGS Geologist Natalie Kehrwald takes a tree ring sample. Tree rings can provide sub-seasonal records of hydroclimate and fire over centennial time scales.
Landscape-scale fire and wind damage to tree stands
Landscape-scale fire and wind damage to tree standsLandscape-scale fire and wind damage to tree stands on the Trinchera Ranch, Colorado
Landscape-scale fire and wind damage to tree stands
Landscape-scale fire and wind damage to tree standsLandscape-scale fire and wind damage to tree stands on the Trinchera Ranch, Colorado
Closeup of a tree core sample showing tree rings obtained using increment borer, Dinosaur National Monument.
Closeup of a tree core sample showing tree rings obtained using increment borer, Dinosaur National Monument.
USGS researcher Matt Burgess remotely pilots a UAS collecting lidar data during the April 2022 USGS UASnow project at Berthoud Pass, Colorado.
USGS researcher Matt Burgess remotely pilots a UAS collecting lidar data during the April 2022 USGS UASnow project at Berthoud Pass, Colorado.
Map view of the Continental U.S. showing a national-scale elevation surface of the base of Cenozoic rocks
Map view of the Continental U.S. showing a national-scale elevation surface of the base of Cenozoic rocksMap view of the Continental U.S. showing a national-scale elevation surface of the base of Cenozoic rocks. Dark brown irregular polygons are outcrops of Precambrian rocks.
Map view of the Continental U.S. showing a national-scale elevation surface of the base of Cenozoic rocks
Map view of the Continental U.S. showing a national-scale elevation surface of the base of Cenozoic rocksMap view of the Continental U.S. showing a national-scale elevation surface of the base of Cenozoic rocks. Dark brown irregular polygons are outcrops of Precambrian rocks.
One productive coring trip provides >50-m of sediment for analyses and curation. The Quaternary Lab currently stores ~350-m of soft sediment cores collected between 2005 and 2025.
One productive coring trip provides >50-m of sediment for analyses and curation. The Quaternary Lab currently stores ~350-m of soft sediment cores collected between 2005 and 2025.
USGS scientist in front of a UAS ground control target at a burned site at the Lake–Napa Unit Lightning Complex fire area
USGS scientist in front of a UAS ground control target at a burned site at the Lake–Napa Unit Lightning Complex fire areaUSGS researcher Joe Adams in front of a UAS ground control target at a burned site within the Lake–Napa Unit (LNU) Lightning Complex fire area.
USGS scientist in front of a UAS ground control target at a burned site at the Lake–Napa Unit Lightning Complex fire area
USGS scientist in front of a UAS ground control target at a burned site at the Lake–Napa Unit Lightning Complex fire areaUSGS researcher Joe Adams in front of a UAS ground control target at a burned site within the Lake–Napa Unit (LNU) Lightning Complex fire area.
Manual piston coring is used for lakes <20-m water depth and can obtain up to 15-20m sediment core.
Manual piston coring is used for lakes <20-m water depth and can obtain up to 15-20m sediment core.
UAS collecting natural color video over a Winter Park study site
UAS collecting natural color video over a Winter Park study siteA UAS collecting natural color video over one of the study sites during a joint NUSO and USGS Water Resources Mission Area snow mapping project in Winter Park, Colorado.
UAS collecting natural color video over a Winter Park study site
UAS collecting natural color video over a Winter Park study siteA UAS collecting natural color video over one of the study sites during a joint NUSO and USGS Water Resources Mission Area snow mapping project in Winter Park, Colorado.
USGS researcher setting up a GPS base station during a UAS mission at Winter Park
USGS researcher setting up a GPS base station during a UAS mission at Winter ParkUSGS researcher Joe Adams (NUSO) setting up a GPS base station at one of the study sites for a snow mapping project in Winter Park, Colorado. GPS base station data is used in post-processing to improve the geospatial accuracy of UAS collected data.
USGS researcher setting up a GPS base station during a UAS mission at Winter Park
USGS researcher setting up a GPS base station during a UAS mission at Winter ParkUSGS researcher Joe Adams (NUSO) setting up a GPS base station at one of the study sites for a snow mapping project in Winter Park, Colorado. GPS base station data is used in post-processing to improve the geospatial accuracy of UAS collected data.
USGS NUSO researchers take a moment to enjoy the scenery during a UAS mission in Colorado
USGS NUSO researchers take a moment to enjoy the scenery during a UAS mission in ColoradoUSGS NUSO researchers Victoria Scholl and Mark Bauer take a moment to enjoy the scenery during a UAS data collection for the snow water equivalent (SWE) project at the Berthoud Pass Colorado study site.
USGS NUSO researchers take a moment to enjoy the scenery during a UAS mission in Colorado
USGS NUSO researchers take a moment to enjoy the scenery during a UAS mission in ColoradoUSGS NUSO researchers Victoria Scholl and Mark Bauer take a moment to enjoy the scenery during a UAS data collection for the snow water equivalent (SWE) project at the Berthoud Pass Colorado study site.
Photograph of biological soil crusts (biocrusts) taken during a UAS mission in Utah
Photograph of biological soil crusts (biocrusts) taken during a UAS mission in UtahPlease don’t walk on the biocrust!
Drone's eye view of a USGS remote pilot during a biocrust mission near Moab, UT
Drone's eye view of a USGS remote pilot during a biocrust mission near Moab, UTDrone's eye view of a USGS remote pilot during a biocrust mission near Moab, UT
NUSO UAS pilot Matt Burgess captures an image of himself while landing a UAS after a flight over a biocrust site near Moab, Utah.
Drone's eye view of a USGS remote pilot during a biocrust mission near Moab, UT
Drone's eye view of a USGS remote pilot during a biocrust mission near Moab, UTDrone's eye view of a USGS remote pilot during a biocrust mission near Moab, UT
NUSO UAS pilot Matt Burgess captures an image of himself while landing a UAS after a flight over a biocrust site near Moab, Utah.