Through Earth MRI, the USGS Mineral Resources Program is leading the Nation in the search for critical minerals. Earth MRI collects the data needed to update the Nation’s maps of geology and mineral resources, as well as to evaluate energy and groundwater resources and natural hazards.
Jamey Jones
Jamey is the USGS Earth MRI Coordinator.
His research is focused on the bedrock geology, tectonic evolution, and mineral resources of Alaska and western North America. He specializes in field geology, structural geology, metamorphic petrology, and U-Pb geochronology. USGS areas of focus include the Mineral Resources Program and the National Cooperative Mapping Program. Past and ongoing projects are also focused on the Precambrian tectonic evolution of the southwestern United States.
Professional Experience
2024 - Present USGS Earth MRI Coordinator
2022 - 2024 Associate Center Director for Geology, USGS Alaska Science Center
2011 - 2022 Research Geologist, USGS Alaska Science Center
2005 - 2011 Professor, University of Minnesota Morris and University of Arkansas at Little Rock
Education and Certifications
Ph.D. 2005 University of Texas at Austin Geology
M.S. 1999 University of Wyoming Geology
B.S. 1997 University of the South Geology
Science and Products
Alaska Earth Mapping Resources Initiative (Earth MRI)
Earth Mapping Resources Initiative (Earth MRI)
Tectonic and Metallogenic Evolution of the Yukon-Tanana Upland, Alaska
Metallogeny and Tectonics of the Lake Clark and Neacola Mountains Region, South-central Alaska
U-Pb Isotopic Data and Dates of Zircon from the Western Upper Peninsula of Michigan and Northern Wisconsin, United States U-Pb Isotopic Data and Dates of Zircon from the Western Upper Peninsula of Michigan and Northern Wisconsin, United States
Fission Track Data and Ages of Apatite and U-Pb Isotopic Data and Ages of Igneous and Detrital Zircon from Selected Rocks from the Lake Clark and Lake Iliamna Region of South-Central Alaska Fission Track Data and Ages of Apatite and U-Pb Isotopic Data and Ages of Igneous and Detrital Zircon from Selected Rocks from the Lake Clark and Lake Iliamna Region of South-Central Alaska
U-Pb Ages, Hafnium Isotope Ratios, and Trace Element Concentrations by Laser-ablation Split Stream (LASS) Analysis of Igneous and Metamorphic Zircons from the Yukon-Tanana Upland, Eastern Alaska U-Pb Ages, Hafnium Isotope Ratios, and Trace Element Concentrations by Laser-ablation Split Stream (LASS) Analysis of Igneous and Metamorphic Zircons from the Yukon-Tanana Upland, Eastern Alaska
U-Pb Isotopic Data and Ages of Detrital Zircon from Selected Rocks from Southwestern Alaska and the Yukon-Tanana Upland and Environs of Eastern Interior Alaska and Eastern Yukon, Canada U-Pb Isotopic Data and Ages of Detrital Zircon from Selected Rocks from Southwestern Alaska and the Yukon-Tanana Upland and Environs of Eastern Interior Alaska and Eastern Yukon, Canada
U-Pb Isotopic Data and Ages of Detrital Zircon from Selected Rocks from northern Yukon, Canada U-Pb Isotopic Data and Ages of Detrital Zircon from Selected Rocks from northern Yukon, Canada
Whole Rock Major and Trace Element Chemistry for Igneous and Metamorphic Rocks from the Yukon-Tanana Upland, Alaska Whole Rock Major and Trace Element Chemistry for Igneous and Metamorphic Rocks from the Yukon-Tanana Upland, Alaska
Whole Rock Major and Trace Element Chemistry for Igneous Rocks from Tyonek, Lime Hills, Talkeetna, McGrath, and Lake Clark Quadrangles, Western Alaska Range, Alaska Whole Rock Major and Trace Element Chemistry for Igneous Rocks from Tyonek, Lime Hills, Talkeetna, McGrath, and Lake Clark Quadrangles, Western Alaska Range, Alaska
Whole Rock Major and Trace Element Chemistry for Igneous and Sedimentary Rocks from the Western Alaska Range, Alaska Whole Rock Major and Trace Element Chemistry for Igneous and Sedimentary Rocks from the Western Alaska Range, Alaska
U-Pb and 40Ar/39Ar Geochronologic Data for Selected Rocks from the Western Alaska Range, Alaska U-Pb and 40Ar/39Ar Geochronologic Data for Selected Rocks from the Western Alaska Range, Alaska
U-Pb Isotopic Data and Ages of Zircon from the Manzano Mountains, New Mexico U-Pb Isotopic Data and Ages of Zircon from the Manzano Mountains, New Mexico
40Ar/39Ar Isotopic Data and Ages for Rocks from the Yukon-Tanana Upland of Eastern Alaska and the Northern Aleutian Range of South-Central Alaska 40Ar/39Ar Isotopic Data and Ages for Rocks from the Yukon-Tanana Upland of Eastern Alaska and the Northern Aleutian Range of South-Central Alaska
U-Pb Isotopic Data and Ages of Zircon and Titanite from Rocks from the Yukon-Tanana Upland, Alaska U-Pb Isotopic Data and Ages of Zircon and Titanite from Rocks from the Yukon-Tanana Upland, Alaska
Through Earth MRI, the USGS Mineral Resources Program is leading the Nation in the search for critical minerals. Earth MRI collects the data needed to update the Nation’s maps of geology and mineral resources, as well as to evaluate energy and groundwater resources and natural hazards.
Through Earth MRI, the USGS Mineral Resources Program is leading the Nation in the search for critical minerals. Earth MRI collects the data needed to update the Nation’s maps of geology and mineral resources, as well as to evaluate energy and groundwater resources and natural hazards.
Through Earth MRI, the USGS Mineral Resources Program is leading the Nation in the search for critical minerals. Earth MRI collects the data needed to update the Nation’s maps of geology and mineral resources, as well as to evaluate energy and groundwater resources and natural hazards.
A USGS scientist is recording structural measurements collected from an outcrop of deformed and metamorphosed bedrock in the Yukon-Tanana upland of eastern interior Alaska. A team of two geologists were deployed by helicopter to conduct a geologic mapping and sampling traverse covering approximately 5 miles along the top of this ridge.
A USGS scientist is recording structural measurements collected from an outcrop of deformed and metamorphosed bedrock in the Yukon-Tanana upland of eastern interior Alaska. A team of two geologists were deployed by helicopter to conduct a geologic mapping and sampling traverse covering approximately 5 miles along the top of this ridge.
Helicopter landing to pick up field personnel in Alaska
Helicopter landing to pick up field personnel in AlaskaHelicopter landing to pick up field personnel after a day of geologic mapping and sampling in the Fortymile region north of Tok, Alaska.
Helicopter landing to pick up field personnel in Alaska
Helicopter landing to pick up field personnel in AlaskaHelicopter landing to pick up field personnel after a day of geologic mapping and sampling in the Fortymile region north of Tok, Alaska.
Scientist examining strongly deformed and metamorphosed rock outcrops
Scientist examining strongly deformed and metamorphosed rock outcropsUSGS scientist examining outcrops of strongly deformed and metamorphosed rock along Divide Mountain in the Yukon-Tanana upland of eastern Alaska
Scientist examining strongly deformed and metamorphosed rock outcrops
Scientist examining strongly deformed and metamorphosed rock outcropsUSGS scientist examining outcrops of strongly deformed and metamorphosed rock along Divide Mountain in the Yukon-Tanana upland of eastern Alaska
Quartz veins across outcrops of granitic gneiss on Divide Mt., Alaska
Quartz veins across outcrops of granitic gneiss on Divide Mt., AlaskaHalf-meter-thick quartz veins cut across outcrops of granitic gneiss on Divide Mountain along the Alaska-Yukon border, August 2015
Quartz veins across outcrops of granitic gneiss on Divide Mt., Alaska
Quartz veins across outcrops of granitic gneiss on Divide Mt., AlaskaHalf-meter-thick quartz veins cut across outcrops of granitic gneiss on Divide Mountain along the Alaska-Yukon border, August 2015
Electromagnetic measurements of the Earth’s crust in Alaska
Electromagnetic measurements of the Earth’s crust in AlaskaA scientist and the helicopter pilot work together to install geophysical instrumentation in a remote region west of the Neacola Mountains, south-central Alaska. An array of cables were buried in shallow trenches for up to 48 hours to measure the electrical conductivity of the bedrock at that location.
Electromagnetic measurements of the Earth’s crust in Alaska
Electromagnetic measurements of the Earth’s crust in AlaskaA scientist and the helicopter pilot work together to install geophysical instrumentation in a remote region west of the Neacola Mountains, south-central Alaska. An array of cables were buried in shallow trenches for up to 48 hours to measure the electrical conductivity of the bedrock at that location.
Installing geophysical equipment northwest of Lake Clark Natl Park
Installing geophysical equipment northwest of Lake Clark Natl ParkUSGS scientist Beth Burton and helicopter pilot Drew Rose install geophysical equipment northwest of Lake Clark National Park, Alaska
Installing geophysical equipment northwest of Lake Clark Natl Park
Installing geophysical equipment northwest of Lake Clark Natl ParkUSGS scientist Beth Burton and helicopter pilot Drew Rose install geophysical equipment northwest of Lake Clark National Park, Alaska
Geologist checks a granitic rock before geochemistry and geochronology
Geologist checks a granitic rock before geochemistry and geochronologyUSGS geologist Erin Todd examines granitic rocks in outcrop before collecting samples for geochemistry and geochronology in Lake Clark National Park, Alaska.
Geologist checks a granitic rock before geochemistry and geochronology
Geologist checks a granitic rock before geochemistry and geochronologyUSGS geologist Erin Todd examines granitic rocks in outcrop before collecting samples for geochemistry and geochronology in Lake Clark National Park, Alaska.
Panoramic view of Chakachamma Lake near Lake Clark, Alaska
Panoramic view of Chakachamma Lake near Lake Clark, AlaskaPanoramic view of entrance to Chakachamma Lake (near Lake Clark, Alaska).
Panoramic view of Chakachamma Lake near Lake Clark, Alaska
Panoramic view of Chakachamma Lake near Lake Clark, AlaskaPanoramic view of entrance to Chakachamma Lake (near Lake Clark, Alaska).
USGS geologist Richard Lease collects samples of granitic bedrock high above Blockade glacier, Neacola Mountains, Alaska.
USGS geologist Richard Lease collects samples of granitic bedrock high above Blockade glacier, Neacola Mountains, Alaska.
Scientists wait for a helicopter pickup in the Neacola Mountains
Scientists wait for a helicopter pickup in the Neacola MountainsUSGS scientists Erin Todd and Jonathan Caine wait for a helicopter pickup at a geologic mapping and sampling station high in the Neacola Mountains, Alaska.
Scientists wait for a helicopter pickup in the Neacola Mountains
Scientists wait for a helicopter pickup in the Neacola MountainsUSGS scientists Erin Todd and Jonathan Caine wait for a helicopter pickup at a geologic mapping and sampling station high in the Neacola Mountains, Alaska.
Helicopter arriving to move geologists from Redoubt Volcano, Alaska
Helicopter arriving to move geologists from Redoubt Volcano, AlaskaHelicopter arriving to pick up geologists after retrieving geophysical equipment from the flanks of Redoubt Volcano, Alaska, July 2015
Helicopter arriving to move geologists from Redoubt Volcano, Alaska
Helicopter arriving to move geologists from Redoubt Volcano, AlaskaHelicopter arriving to pick up geologists after retrieving geophysical equipment from the flanks of Redoubt Volcano, Alaska, July 2015
A helicopter waiting to pick up geologic mappers and move them to a new location in the western Alaska Range in south-central Alaska. Helicopters are an essential part of geologic fieldwork in the many remote, rugged regions of Alaska.
A helicopter waiting to pick up geologic mappers and move them to a new location in the western Alaska Range in south-central Alaska. Helicopters are an essential part of geologic fieldwork in the many remote, rugged regions of Alaska.
Evidence for offset of Cretaceous plutons by the Tintina fault in eastern Alaska: Implications for regional metallogeny Evidence for offset of Cretaceous plutons by the Tintina fault in eastern Alaska: Implications for regional metallogeny
USGS critical minerals review USGS critical minerals review
Annual review 2023: Critical minerals Annual review 2023: Critical minerals
Rapid active thrust faulting at the northern Alaska Range front Rapid active thrust faulting at the northern Alaska Range front
Yukon River incision drove organic carbon burial in the Bering Sea during global climate changes at 2.6 and 1 Ma Yukon River incision drove organic carbon burial in the Bering Sea during global climate changes at 2.6 and 1 Ma
Alaska focus area definition for data acquisition for potential domestic sources of critical minerals in Alaska for antimony, barite, beryllium, chromium, fluorspar, hafnium, magnesium, manganese, uranium, vanadium, and zirconium Alaska focus area definition for data acquisition for potential domestic sources of critical minerals in Alaska for antimony, barite, beryllium, chromium, fluorspar, hafnium, magnesium, manganese, uranium, vanadium, and zirconium
Late Paleoproterozoic to early Mesoproterozoic deposition of quartz arenites across southern Laurentia Late Paleoproterozoic to early Mesoproterozoic deposition of quartz arenites across southern Laurentia
Laurentia in transition during the Mesoproterozoic: Observations and speculation on the ca. 1500–1340 Ma tectonic evolution of the southern Laurentian margin Laurentia in transition during the Mesoproterozoic: Observations and speculation on the ca. 1500–1340 Ma tectonic evolution of the southern Laurentian margin
Circa 1.50–1.45 Ga metasedimentary rocks in southwestern Laurentia provide distinctive records of Mesoproterozoic regional orogenesis and craton interactions Circa 1.50–1.45 Ga metasedimentary rocks in southwestern Laurentia provide distinctive records of Mesoproterozoic regional orogenesis and craton interactions
Tectonic and magmatic controls on the metallogenesis of porphyry deposits in Alaska Tectonic and magmatic controls on the metallogenesis of porphyry deposits in Alaska
Cretaceous to Oligocene magmatic and tectonic evolution of the western Alaska Range: Insights from U-Pb and 40Ar/39Ar geochronology Cretaceous to Oligocene magmatic and tectonic evolution of the western Alaska Range: Insights from U-Pb and 40Ar/39Ar geochronology
Imaging the tectonic grain of the Northern Cordillera orogen using Transportable Array receiver functions Imaging the tectonic grain of the Northern Cordillera orogen using Transportable Array receiver functions
Science and Products
Alaska Earth Mapping Resources Initiative (Earth MRI)
Earth Mapping Resources Initiative (Earth MRI)
Tectonic and Metallogenic Evolution of the Yukon-Tanana Upland, Alaska
Metallogeny and Tectonics of the Lake Clark and Neacola Mountains Region, South-central Alaska
U-Pb Isotopic Data and Dates of Zircon from the Western Upper Peninsula of Michigan and Northern Wisconsin, United States U-Pb Isotopic Data and Dates of Zircon from the Western Upper Peninsula of Michigan and Northern Wisconsin, United States
Fission Track Data and Ages of Apatite and U-Pb Isotopic Data and Ages of Igneous and Detrital Zircon from Selected Rocks from the Lake Clark and Lake Iliamna Region of South-Central Alaska Fission Track Data and Ages of Apatite and U-Pb Isotopic Data and Ages of Igneous and Detrital Zircon from Selected Rocks from the Lake Clark and Lake Iliamna Region of South-Central Alaska
U-Pb Ages, Hafnium Isotope Ratios, and Trace Element Concentrations by Laser-ablation Split Stream (LASS) Analysis of Igneous and Metamorphic Zircons from the Yukon-Tanana Upland, Eastern Alaska U-Pb Ages, Hafnium Isotope Ratios, and Trace Element Concentrations by Laser-ablation Split Stream (LASS) Analysis of Igneous and Metamorphic Zircons from the Yukon-Tanana Upland, Eastern Alaska
U-Pb Isotopic Data and Ages of Detrital Zircon from Selected Rocks from Southwestern Alaska and the Yukon-Tanana Upland and Environs of Eastern Interior Alaska and Eastern Yukon, Canada U-Pb Isotopic Data and Ages of Detrital Zircon from Selected Rocks from Southwestern Alaska and the Yukon-Tanana Upland and Environs of Eastern Interior Alaska and Eastern Yukon, Canada
U-Pb Isotopic Data and Ages of Detrital Zircon from Selected Rocks from northern Yukon, Canada U-Pb Isotopic Data and Ages of Detrital Zircon from Selected Rocks from northern Yukon, Canada
Whole Rock Major and Trace Element Chemistry for Igneous and Metamorphic Rocks from the Yukon-Tanana Upland, Alaska Whole Rock Major and Trace Element Chemistry for Igneous and Metamorphic Rocks from the Yukon-Tanana Upland, Alaska
Whole Rock Major and Trace Element Chemistry for Igneous Rocks from Tyonek, Lime Hills, Talkeetna, McGrath, and Lake Clark Quadrangles, Western Alaska Range, Alaska Whole Rock Major and Trace Element Chemistry for Igneous Rocks from Tyonek, Lime Hills, Talkeetna, McGrath, and Lake Clark Quadrangles, Western Alaska Range, Alaska
Whole Rock Major and Trace Element Chemistry for Igneous and Sedimentary Rocks from the Western Alaska Range, Alaska Whole Rock Major and Trace Element Chemistry for Igneous and Sedimentary Rocks from the Western Alaska Range, Alaska
U-Pb and 40Ar/39Ar Geochronologic Data for Selected Rocks from the Western Alaska Range, Alaska U-Pb and 40Ar/39Ar Geochronologic Data for Selected Rocks from the Western Alaska Range, Alaska
U-Pb Isotopic Data and Ages of Zircon from the Manzano Mountains, New Mexico U-Pb Isotopic Data and Ages of Zircon from the Manzano Mountains, New Mexico
40Ar/39Ar Isotopic Data and Ages for Rocks from the Yukon-Tanana Upland of Eastern Alaska and the Northern Aleutian Range of South-Central Alaska 40Ar/39Ar Isotopic Data and Ages for Rocks from the Yukon-Tanana Upland of Eastern Alaska and the Northern Aleutian Range of South-Central Alaska
U-Pb Isotopic Data and Ages of Zircon and Titanite from Rocks from the Yukon-Tanana Upland, Alaska U-Pb Isotopic Data and Ages of Zircon and Titanite from Rocks from the Yukon-Tanana Upland, Alaska
Through Earth MRI, the USGS Mineral Resources Program is leading the Nation in the search for critical minerals. Earth MRI collects the data needed to update the Nation’s maps of geology and mineral resources, as well as to evaluate energy and groundwater resources and natural hazards.
Through Earth MRI, the USGS Mineral Resources Program is leading the Nation in the search for critical minerals. Earth MRI collects the data needed to update the Nation’s maps of geology and mineral resources, as well as to evaluate energy and groundwater resources and natural hazards.
Through Earth MRI, the USGS Mineral Resources Program is leading the Nation in the search for critical minerals. Earth MRI collects the data needed to update the Nation’s maps of geology and mineral resources, as well as to evaluate energy and groundwater resources and natural hazards.
Through Earth MRI, the USGS Mineral Resources Program is leading the Nation in the search for critical minerals. Earth MRI collects the data needed to update the Nation’s maps of geology and mineral resources, as well as to evaluate energy and groundwater resources and natural hazards.
A USGS scientist is recording structural measurements collected from an outcrop of deformed and metamorphosed bedrock in the Yukon-Tanana upland of eastern interior Alaska. A team of two geologists were deployed by helicopter to conduct a geologic mapping and sampling traverse covering approximately 5 miles along the top of this ridge.
A USGS scientist is recording structural measurements collected from an outcrop of deformed and metamorphosed bedrock in the Yukon-Tanana upland of eastern interior Alaska. A team of two geologists were deployed by helicopter to conduct a geologic mapping and sampling traverse covering approximately 5 miles along the top of this ridge.
Helicopter landing to pick up field personnel in Alaska
Helicopter landing to pick up field personnel in AlaskaHelicopter landing to pick up field personnel after a day of geologic mapping and sampling in the Fortymile region north of Tok, Alaska.
Helicopter landing to pick up field personnel in Alaska
Helicopter landing to pick up field personnel in AlaskaHelicopter landing to pick up field personnel after a day of geologic mapping and sampling in the Fortymile region north of Tok, Alaska.
Scientist examining strongly deformed and metamorphosed rock outcrops
Scientist examining strongly deformed and metamorphosed rock outcropsUSGS scientist examining outcrops of strongly deformed and metamorphosed rock along Divide Mountain in the Yukon-Tanana upland of eastern Alaska
Scientist examining strongly deformed and metamorphosed rock outcrops
Scientist examining strongly deformed and metamorphosed rock outcropsUSGS scientist examining outcrops of strongly deformed and metamorphosed rock along Divide Mountain in the Yukon-Tanana upland of eastern Alaska
Quartz veins across outcrops of granitic gneiss on Divide Mt., Alaska
Quartz veins across outcrops of granitic gneiss on Divide Mt., AlaskaHalf-meter-thick quartz veins cut across outcrops of granitic gneiss on Divide Mountain along the Alaska-Yukon border, August 2015
Quartz veins across outcrops of granitic gneiss on Divide Mt., Alaska
Quartz veins across outcrops of granitic gneiss on Divide Mt., AlaskaHalf-meter-thick quartz veins cut across outcrops of granitic gneiss on Divide Mountain along the Alaska-Yukon border, August 2015
Electromagnetic measurements of the Earth’s crust in Alaska
Electromagnetic measurements of the Earth’s crust in AlaskaA scientist and the helicopter pilot work together to install geophysical instrumentation in a remote region west of the Neacola Mountains, south-central Alaska. An array of cables were buried in shallow trenches for up to 48 hours to measure the electrical conductivity of the bedrock at that location.
Electromagnetic measurements of the Earth’s crust in Alaska
Electromagnetic measurements of the Earth’s crust in AlaskaA scientist and the helicopter pilot work together to install geophysical instrumentation in a remote region west of the Neacola Mountains, south-central Alaska. An array of cables were buried in shallow trenches for up to 48 hours to measure the electrical conductivity of the bedrock at that location.
Installing geophysical equipment northwest of Lake Clark Natl Park
Installing geophysical equipment northwest of Lake Clark Natl ParkUSGS scientist Beth Burton and helicopter pilot Drew Rose install geophysical equipment northwest of Lake Clark National Park, Alaska
Installing geophysical equipment northwest of Lake Clark Natl Park
Installing geophysical equipment northwest of Lake Clark Natl ParkUSGS scientist Beth Burton and helicopter pilot Drew Rose install geophysical equipment northwest of Lake Clark National Park, Alaska
Geologist checks a granitic rock before geochemistry and geochronology
Geologist checks a granitic rock before geochemistry and geochronologyUSGS geologist Erin Todd examines granitic rocks in outcrop before collecting samples for geochemistry and geochronology in Lake Clark National Park, Alaska.
Geologist checks a granitic rock before geochemistry and geochronology
Geologist checks a granitic rock before geochemistry and geochronologyUSGS geologist Erin Todd examines granitic rocks in outcrop before collecting samples for geochemistry and geochronology in Lake Clark National Park, Alaska.
Panoramic view of Chakachamma Lake near Lake Clark, Alaska
Panoramic view of Chakachamma Lake near Lake Clark, AlaskaPanoramic view of entrance to Chakachamma Lake (near Lake Clark, Alaska).
Panoramic view of Chakachamma Lake near Lake Clark, Alaska
Panoramic view of Chakachamma Lake near Lake Clark, AlaskaPanoramic view of entrance to Chakachamma Lake (near Lake Clark, Alaska).
USGS geologist Richard Lease collects samples of granitic bedrock high above Blockade glacier, Neacola Mountains, Alaska.
USGS geologist Richard Lease collects samples of granitic bedrock high above Blockade glacier, Neacola Mountains, Alaska.
Scientists wait for a helicopter pickup in the Neacola Mountains
Scientists wait for a helicopter pickup in the Neacola MountainsUSGS scientists Erin Todd and Jonathan Caine wait for a helicopter pickup at a geologic mapping and sampling station high in the Neacola Mountains, Alaska.
Scientists wait for a helicopter pickup in the Neacola Mountains
Scientists wait for a helicopter pickup in the Neacola MountainsUSGS scientists Erin Todd and Jonathan Caine wait for a helicopter pickup at a geologic mapping and sampling station high in the Neacola Mountains, Alaska.
Helicopter arriving to move geologists from Redoubt Volcano, Alaska
Helicopter arriving to move geologists from Redoubt Volcano, AlaskaHelicopter arriving to pick up geologists after retrieving geophysical equipment from the flanks of Redoubt Volcano, Alaska, July 2015
Helicopter arriving to move geologists from Redoubt Volcano, Alaska
Helicopter arriving to move geologists from Redoubt Volcano, AlaskaHelicopter arriving to pick up geologists after retrieving geophysical equipment from the flanks of Redoubt Volcano, Alaska, July 2015
A helicopter waiting to pick up geologic mappers and move them to a new location in the western Alaska Range in south-central Alaska. Helicopters are an essential part of geologic fieldwork in the many remote, rugged regions of Alaska.
A helicopter waiting to pick up geologic mappers and move them to a new location in the western Alaska Range in south-central Alaska. Helicopters are an essential part of geologic fieldwork in the many remote, rugged regions of Alaska.