Skip to main content
U.S. flag

An official website of the United States government

All Multimedia

Access all multimedia to include images, video, audio, webcams, before-after imagery, and more. Filter and explore with filtering options to refine search. 

Filter Total Items: 24939
Two workers guide a pipe Two workers guide a pipe
Escanaba Trough Expedition: Gravity Coring (AD)
Escanaba Trough Expedition: Gravity Coring (AD)

Seafloor features such as sulfide mounds and chimneys are prominent evidence of hydrothermal activity. These features, whether active or dormant, are just the tip of the iceberg, so to speak; much of the “plumbing” of hydrothermal systems exists beneath the seafloor surface.

Seafloor features such as sulfide mounds and chimneys are prominent evidence of hydrothermal activity. These features, whether active or dormant, are just the tip of the iceberg, so to speak; much of the “plumbing” of hydrothermal systems exists beneath the seafloor surface.

Color thumbnail image for USGS EROS video "Catfish Ponds in Missississippi" Color thumbnail image for USGS EROS video "Catfish Ponds in Missississippi"
Image of the Week - Catfish Ponds in Mississippi
Image of the Week - Catfish Ponds in Mississippi

Mississippi leads the U.S. in catfish production. The blue tinted shapes in these Landsat images mark ponds where catfish are raised.

Re-greening a dryland watershed photo Re-greening a dryland watershed photo
Re-greening a Dryland Watershed
Re-greening a Dryland Watershed

The installation of thousands of rock detention structures in the Turkey Pen Watershed, of the Chiricahua Mountains in SE Arizona, provided a 30-year case study to consider low-tech and low-cost Natural Infrastructure in dryland watersheds.

The installation of thousands of rock detention structures in the Turkey Pen Watershed, of the Chiricahua Mountains in SE Arizona, provided a 30-year case study to consider low-tech and low-cost Natural Infrastructure in dryland watersheds.

Instruments Instruments
Escanaba Trough Expedition: Part 2
Escanaba Trough Expedition: Part 2

Critical to scientific operations aboard the Escanaba Trough expedition is the submersible robots Sentry and Jason. Owned and operated by the Woods Hole Oceanographic Institute (WHOI), these robots allow researchers to observe seafloor features and collect data from depths seldom visited by humans.

Critical to scientific operations aboard the Escanaba Trough expedition is the submersible robots Sentry and Jason. Owned and operated by the Woods Hole Oceanographic Institute (WHOI), these robots allow researchers to observe seafloor features and collect data from depths seldom visited by humans.

Instruments Instruments
Escanaba Trough Expedition: Part 2 (AD)
Escanaba Trough Expedition: Part 2 (AD)

Critical to scientific operations aboard the Escanaba Trough expedition are the submersible robots Sentry and Jason. Owned and operated by the Woods Hole Oceanographic Institute (WHOI), these robots allow researchers to observe seafloor features and collect data from depths seldom visited by humans.

Critical to scientific operations aboard the Escanaba Trough expedition are the submersible robots Sentry and Jason. Owned and operated by the Woods Hole Oceanographic Institute (WHOI), these robots allow researchers to observe seafloor features and collect data from depths seldom visited by humans.

Woman holding jug of water Woman holding jug of water
Escanaba Trough Expedition: Part 3
Escanaba Trough Expedition: Part 3

For scientists aboard the Escanaba Trough expedition, obtaining sediment cores or deep-sea biological and geological samples after a Jason dive is only the beginning.

For scientists aboard the Escanaba Trough expedition, obtaining sediment cores or deep-sea biological and geological samples after a Jason dive is only the beginning.

Woman holding jug of water Woman holding jug of water
Escanaba Trough Expedition: Part 3 (AD)
Escanaba Trough Expedition: Part 3 (AD)

For scientists aboard the Escanaba Trough expedition, obtaining sediment cores or deep-sea biological and geological samples after a Jason dive is only the beginning.

For scientists aboard the Escanaba Trough expedition, obtaining sediment cores or deep-sea biological and geological samples after a Jason dive is only the beginning.

Color image of Anna Boser and Andy MacDonald with the graphic for the USGS podcast Eyes on Earth
EoE - ECOSTRESS and Disease Risk thumbnail
EoE - ECOSTRESS and Disease Risk thumbnail
Eyes on Earth Episode 76 – ECOSTRESS and Disease Risk
Eyes on Earth Episode 76 – ECOSTRESS and Disease Risk
Color image of Anna Boser and Andy MacDonald with the graphic for the USGS podcast Eyes on Earth
EoE - ECOSTRESS and Disease Risk thumbnail
EoE - ECOSTRESS and Disease Risk thumbnail
Eyes on Earth Episode 76 – ECOSTRESS and Disease Risk

Spaceborne sensors orbit hundreds of miles over our heads. Even the most advanced among them struggle to capture high-resolution imagery of individual human beings. Mosquitos, of course, are far smaller than we are. Clearly, sensors on a satellite or space station can’t see them.

Spaceborne sensors orbit hundreds of miles over our heads. Even the most advanced among them struggle to capture high-resolution imagery of individual human beings. Mosquitos, of course, are far smaller than we are. Clearly, sensors on a satellite or space station can’t see them.

RAD Webinar opening slide RAD Webinar opening slide
The RAD (Resist-Accept-Direct) Climate Adaptation Framework
The RAD (Resist-Accept-Direct) Climate Adaptation Framework

Ecosystems are transforming under climate change, with substantial shifts in ecological processes (e.g. fire, landscape connectivity) and important ecosystem services (e.g. pollination, water filtration) occurring at unprecedented rates.

Ecosystems are transforming under climate change, with substantial shifts in ecological processes (e.g. fire, landscape connectivity) and important ecosystem services (e.g. pollination, water filtration) occurring at unprecedented rates.

Woman with hard hat and life vest working on a pipe Woman with hard hat and life vest working on a pipe
Escanaba Trough Expedition: Introduction
Escanaba Trough Expedition: Introduction

Embarking on a three-week deep-sea research expedition requires a lot of preparation. For this expedition to Escanaba Trough, U.S. Geological Survey scientists and partners spend the first few days in port, building their laboratory space aboard the research vessel Thomas G. Thompson.

Embarking on a three-week deep-sea research expedition requires a lot of preparation. For this expedition to Escanaba Trough, U.S. Geological Survey scientists and partners spend the first few days in port, building their laboratory space aboard the research vessel Thomas G. Thompson.

Woman with hard hat and life vest working on a pipe Woman with hard hat and life vest working on a pipe
Escanaba Trough Expedition: Introduction (AD)
Escanaba Trough Expedition: Introduction (AD)

Embarking on a three-week deep-sea research expedition requires a lot of preparation. For this expedition to Escanaba Trough, U.S. Geological Survey scientists and partners spend the first few days in port, building their laboratory space aboard the research vessel Thomas G. Thompson.

Embarking on a three-week deep-sea research expedition requires a lot of preparation. For this expedition to Escanaba Trough, U.S. Geological Survey scientists and partners spend the first few days in port, building their laboratory space aboard the research vessel Thomas G. Thompson.

Landers rupture
Landers rupture
Landers rupture
Landers Rupture — Andy on using satellite data
Landers Rupture — Andy on using satellite data
Landers rupture
Landers rupture
Landers rupture
Landers Rupture — Andy on using satellite data

USGS seismologist Andrew Michael talks about the remote location of the 1992 Landers earthquake and how researchers were able to use satellite data to better see the quake’s impacts.

USGS seismologist Andrew Michael talks about the remote location of the 1992 Landers earthquake and how researchers were able to use satellite data to better see the quake’s impacts.

Landers rupture
Landers rupture
Landers rupture
Landers Rupture — Joan on little skull mountain
Landers Rupture — Joan on little skull mountain
Landers rupture
Landers rupture
Landers rupture
Landers Rupture — Joan on little skull mountain

USGS seismologist Joan Gomberg recalls the earthquake on Little Skull Mountain related to the 1992 Landers earthquake.

Landers rupture
Landers rupture
Landers rupture
Landers Rupture — Jonathan Fieldwork
Landers Rupture — Jonathan Fieldwork
Landers rupture
Landers rupture
Landers rupture
Landers Rupture — Jonathan Fieldwork

USGS geologist Jonathan Matti recalls fieldwork in the Mojave Desert soon after the 1992 Landers earthquake. 

USGS geologist Jonathan Matti recalls fieldwork in the Mojave Desert soon after the 1992 Landers earthquake. 

Landers rupture
Landers rupture
Landers rupture
Landers Rupture — Ruth on impact to San Andreas
Landers Rupture — Ruth on impact to San Andreas
Landers rupture
Landers rupture
Landers rupture
Landers Rupture — Ruth on impact to San Andreas

USGS seismologist Ruth Harris talks about how the 1992 Landers earthquake caused concern for the San Andreas fault.

Landers rupture
Landers rupture
Landers rupture
Landers Rupture — Scott on what it looked like
Landers Rupture — Scott on what it looked like
Landers rupture
Landers rupture
Landers rupture
Landers Rupture — Scott on what it looked like

USGS field technician Scott Lydeen recalls what the aftermath of the 1992 Landers earthquake looked like.

Landers rupture
Landers rupture
Landers rupture
Landers Rupture — Sue on how monitoring networks evolved
Landers Rupture — Sue on how monitoring networks evolved
Landers rupture
Landers rupture
Landers rupture
Landers Rupture — Sue on how monitoring networks evolved

USGS seismologist Susan Hough described the Southern California Seismic Network and how it was used for the 1992 Landers earthquake.

Landers rupture
Landers rupture
Landers rupture
Landers Rupture — Sue on what it felt like
Landers Rupture — Sue on what it felt like
Landers rupture
Landers rupture
Landers rupture
Landers Rupture — Sue on what it felt like

USGS seismologist Susan Hough recalls what the 1992 Landers earthquake felt like from Pasadena, CA. 

Landers rupture
Landers rupture
Landers rupture
Landers Rupture — Sue on what we've learned since
Landers Rupture — Sue on what we've learned since
Was this page helpful?