인스타그램 스토리 저장
무료 인스타그램 스토리, 릴스, 사진, 비디오, 하이라이트, IGTV 온라인 저장
explorespace_ml
Space Exploration Initiative
50+ scientists, engineers, artists, and designers building our space future, led by Ariel Ekblaw @mitmedialab. Bringing 'Starfleet Academy' to life!
Every morning, the SEI team packed up their research equipment and cold weather gear before hiking out to their field site carrying spare parts and tools, extra batteries, cameras, a drone, rover, and generator.
Plans constantly evolved as high winds, rain, sinking mud, cold temperatures, snow cover, dwindling light, and the possibility of a polar bear encounter, all created extra challenges for the team and their robots.
Maggie Coblentz (@maggiecoblentz) and Sean Auffinger (@seanauffinger) were in charge of logistics to support the team’s safety and research, along with their Polar Bear Guard, Trond Storm Johansen, who’s lived on Svalbard for fifty years. He accompanied the team to each site to keep watch for bears so the researcher’s could focus on their work.
Learn more: http://media.mit.edu/posts/svalbard-2022
Images:
1. Jess Todd (@jess_thexplorer) and Cody Paige (@codyalison) fly and spot a drone.
2. A drone gathers data to identify different terrain and habitat types.
3. Images captured by the drone.
4. Trond Storm Johansen scans the area for polar bears.
5. Car stuck in the mud near a field site.
6. Sean Auffinger (@seanauffinger) wades through rivers in DIY waterproof pants.
7. Sinking mud in Adventdalen valley in Svalbard.
Images: Maggie Coblentz (@maggiecoblentz)
Reposted from @mitmedialab
Every morning, the SEI team packed up their research equipment and cold weather gear before hiking out to their field site carrying spare parts and tools, extra batteries, cameras, a drone, rover, and generator.
Plans constantly evolved as high winds, rain, sinking mud, cold temperatures, snow cover, dwindling light, and the possibility of a polar bear encounter, all created extra challenges for the team and their robots.
Maggie Coblentz (@maggiecoblentz) and Sean Auffinger (@seanauffinger) were in charge of logistics to support the team’s safety and research, along with their Polar Bear Guard, Trond Storm Johansen, who’s lived on Svalbard for fifty years. He accompanied the team to each site to keep watch for bears so the researcher’s could focus on their work.
Learn more: http://media.mit.edu/posts/svalbard-2022
Images:
1. Jess Todd (@jess_thexplorer) and Cody Paige (@codyalison) fly and spot a drone.
2. A drone gathers data to identify different terrain and habitat types.
3. Images captured by the drone.
4. Trond Storm Johansen scans the area for polar bears.
5. Car stuck in the mud near a field site.
6. Sean Auffinger (@seanauffinger) wades through rivers in DIY waterproof pants.
7. Sinking mud in Adventdalen valley in Svalbard.
Images: Maggie Coblentz (@maggiecoblentz)
Reposted from @mitmedialab
Every morning, the SEI team packed up their research equipment and cold weather gear before hiking out to their field site carrying spare parts and tools, extra batteries, cameras, a drone, rover, and generator.
Plans constantly evolved as high winds, rain, sinking mud, cold temperatures, snow cover, dwindling light, and the possibility of a polar bear encounter, all created extra challenges for the team and their robots.
Maggie Coblentz (@maggiecoblentz) and Sean Auffinger (@seanauffinger) were in charge of logistics to support the team’s safety and research, along with their Polar Bear Guard, Trond Storm Johansen, who’s lived on Svalbard for fifty years. He accompanied the team to each site to keep watch for bears so the researcher’s could focus on their work.
Learn more: http://media.mit.edu/posts/svalbard-2022
Images:
1. Jess Todd (@jess_thexplorer) and Cody Paige (@codyalison) fly and spot a drone.
2. A drone gathers data to identify different terrain and habitat types.
3. Images captured by the drone.
4. Trond Storm Johansen scans the area for polar bears.
5. Car stuck in the mud near a field site.
6. Sean Auffinger (@seanauffinger) wades through rivers in DIY waterproof pants.
7. Sinking mud in Adventdalen valley in Svalbard.
Images: Maggie Coblentz (@maggiecoblentz)
Reposted from @mitmedialab
Every morning, the SEI team packed up their research equipment and cold weather gear before hiking out to their field site carrying spare parts and tools, extra batteries, cameras, a drone, rover, and generator.
Plans constantly evolved as high winds, rain, sinking mud, cold temperatures, snow cover, dwindling light, and the possibility of a polar bear encounter, all created extra challenges for the team and their robots.
Maggie Coblentz (@maggiecoblentz) and Sean Auffinger (@seanauffinger) were in charge of logistics to support the team’s safety and research, along with their Polar Bear Guard, Trond Storm Johansen, who’s lived on Svalbard for fifty years. He accompanied the team to each site to keep watch for bears so the researcher’s could focus on their work.
Learn more: http://media.mit.edu/posts/svalbard-2022
Images:
1. Jess Todd (@jess_thexplorer) and Cody Paige (@codyalison) fly and spot a drone.
2. A drone gathers data to identify different terrain and habitat types.
3. Images captured by the drone.
4. Trond Storm Johansen scans the area for polar bears.
5. Car stuck in the mud near a field site.
6. Sean Auffinger (@seanauffinger) wades through rivers in DIY waterproof pants.
7. Sinking mud in Adventdalen valley in Svalbard.
Images: Maggie Coblentz (@maggiecoblentz)
Reposted from @mitmedialab
Every morning, the SEI team packed up their research equipment and cold weather gear before hiking out to their field site carrying spare parts and tools, extra batteries, cameras, a drone, rover, and generator.
Plans constantly evolved as high winds, rain, sinking mud, cold temperatures, snow cover, dwindling light, and the possibility of a polar bear encounter, all created extra challenges for the team and their robots.
Maggie Coblentz (@maggiecoblentz) and Sean Auffinger (@seanauffinger) were in charge of logistics to support the team’s safety and research, along with their Polar Bear Guard, Trond Storm Johansen, who’s lived on Svalbard for fifty years. He accompanied the team to each site to keep watch for bears so the researcher’s could focus on their work.
Learn more: http://media.mit.edu/posts/svalbard-2022
Images:
1. Jess Todd (@jess_thexplorer) and Cody Paige (@codyalison) fly and spot a drone.
2. A drone gathers data to identify different terrain and habitat types.
3. Images captured by the drone.
4. Trond Storm Johansen scans the area for polar bears.
5. Car stuck in the mud near a field site.
6. Sean Auffinger (@seanauffinger) wades through rivers in DIY waterproof pants.
7. Sinking mud in Adventdalen valley in Svalbard.
Images: Maggie Coblentz (@maggiecoblentz)
Reposted from @mitmedialab
Every morning, the SEI team packed up their research equipment and cold weather gear before hiking out to their field site carrying spare parts and tools, extra batteries, cameras, a drone, rover, and generator.
Plans constantly evolved as high winds, rain, sinking mud, cold temperatures, snow cover, dwindling light, and the possibility of a polar bear encounter, all created extra challenges for the team and their robots.
Maggie Coblentz (@maggiecoblentz) and Sean Auffinger (@seanauffinger) were in charge of logistics to support the team’s safety and research, along with their Polar Bear Guard, Trond Storm Johansen, who’s lived on Svalbard for fifty years. He accompanied the team to each site to keep watch for bears so the researcher’s could focus on their work.
Learn more: http://media.mit.edu/posts/svalbard-2022
Images:
1. Jess Todd (@jess_thexplorer) and Cody Paige (@codyalison) fly and spot a drone.
2. A drone gathers data to identify different terrain and habitat types.
3. Images captured by the drone.
4. Trond Storm Johansen scans the area for polar bears.
5. Car stuck in the mud near a field site.
6. Sean Auffinger (@seanauffinger) wades through rivers in DIY waterproof pants.
7. Sinking mud in Adventdalen valley in Svalbard.
Images: Maggie Coblentz (@maggiecoblentz)
Reposted from @mitmedialab
Every morning, the SEI team packed up their research equipment and cold weather gear before hiking out to their field site carrying spare parts and tools, extra batteries, cameras, a drone, rover, and generator.
Plans constantly evolved as high winds, rain, sinking mud, cold temperatures, snow cover, dwindling light, and the possibility of a polar bear encounter, all created extra challenges for the team and their robots.
Maggie Coblentz (@maggiecoblentz) and Sean Auffinger (@seanauffinger) were in charge of logistics to support the team’s safety and research, along with their Polar Bear Guard, Trond Storm Johansen, who’s lived on Svalbard for fifty years. He accompanied the team to each site to keep watch for bears so the researcher’s could focus on their work.
Learn more: http://media.mit.edu/posts/svalbard-2022
Images:
1. Jess Todd (@jess_thexplorer) and Cody Paige (@codyalison) fly and spot a drone.
2. A drone gathers data to identify different terrain and habitat types.
3. Images captured by the drone.
4. Trond Storm Johansen scans the area for polar bears.
5. Car stuck in the mud near a field site.
6. Sean Auffinger (@seanauffinger) wades through rivers in DIY waterproof pants.
7. Sinking mud in Adventdalen valley in Svalbard.
Images: Maggie Coblentz (@maggiecoblentz)
Reposted from @mitmedialab
High in the Arctic, a team of space engineers, a geologist, architect, and designer went on a field expedition in Svalbard with the MIT Space Exploration Initiative.
Exploring Svalbard by boat and by foot, the team visited sites that will continue to inspire further science questions, and consider space technology development that could benefit both Earth and space contexts.
Svalbard is a Norwegian archipelago in the Arctic Ocean, midway between mainland Norway and the North Pole.
Images: Maggie Coblentz (@maggiecoblentz)
High in the Arctic, a team of space engineers, a geologist, architect, and designer went on a field expedition in Svalbard with the MIT Space Exploration Initiative.
Exploring Svalbard by boat and by foot, the team visited sites that will continue to inspire further science questions, and consider space technology development that could benefit both Earth and space contexts.
Svalbard is a Norwegian archipelago in the Arctic Ocean, midway between mainland Norway and the North Pole.
Images: Maggie Coblentz (@maggiecoblentz)
High in the Arctic, a team of space engineers, a geologist, architect, and designer went on a field expedition in Svalbard with the MIT Space Exploration Initiative.
Exploring Svalbard by boat and by foot, the team visited sites that will continue to inspire further science questions, and consider space technology development that could benefit both Earth and space contexts.
Svalbard is a Norwegian archipelago in the Arctic Ocean, midway between mainland Norway and the North Pole.
Images: Maggie Coblentz (@maggiecoblentz)
High in the Arctic, a team of space engineers, a geologist, architect, and designer went on a field expedition in Svalbard with the MIT Space Exploration Initiative.
Exploring Svalbard by boat and by foot, the team visited sites that will continue to inspire further science questions, and consider space technology development that could benefit both Earth and space contexts.
Svalbard is a Norwegian archipelago in the Arctic Ocean, midway between mainland Norway and the North Pole.
Images: Maggie Coblentz (@maggiecoblentz)
High in the Arctic, a team of space engineers, a geologist, architect, and designer went on a field expedition in Svalbard with the MIT Space Exploration Initiative.
Exploring Svalbard by boat and by foot, the team visited sites that will continue to inspire further science questions, and consider space technology development that could benefit both Earth and space contexts.
Svalbard is a Norwegian archipelago in the Arctic Ocean, midway between mainland Norway and the North Pole.
Images: Maggie Coblentz (@maggiecoblentz)
“Locally grown food will be a big part of making future space missions possible, and could also benefit places on Earth where resources are limited.” Somayajulu Dhulipala (@somayajulu.dhulipala), is a PhD graduate student in MIT MechE (@mitmeche) on the @explorespace_ml Svalbard Expedition.
The AgriThrive plant habitat is an emergency preparedness system for plants in space, as well as polar regions and deserts on Earth. A miniaturized prototype is being tested in Svalbard under varying light conditions and cold temperatures.
Learn more: http://media.mit/projects/AgriThrive
Images:
1. AgriThrive plant system in Svalbard.
2. @somayajulu.dhulipala installs the AgriThrive experiment.
3. Inside of the plant habitat is a multilayered structure with air gaps and water to help control the insulation and radiation shielding of the system.
Images: Maggie Coblentz (@maggiecoblentz)
Reposted from @mitmedialab
“Locally grown food will be a big part of making future space missions possible, and could also benefit places on Earth where resources are limited.” Somayajulu Dhulipala (@somayajulu.dhulipala), is a PhD graduate student in MIT MechE (@mitmeche) on the @explorespace_ml Svalbard Expedition.
The AgriThrive plant habitat is an emergency preparedness system for plants in space, as well as polar regions and deserts on Earth. A miniaturized prototype is being tested in Svalbard under varying light conditions and cold temperatures.
Learn more: http://media.mit/projects/AgriThrive
Images:
1. AgriThrive plant system in Svalbard.
2. @somayajulu.dhulipala installs the AgriThrive experiment.
3. Inside of the plant habitat is a multilayered structure with air gaps and water to help control the insulation and radiation shielding of the system.
Images: Maggie Coblentz (@maggiecoblentz)
Reposted from @mitmedialab
“Locally grown food will be a big part of making future space missions possible, and could also benefit places on Earth where resources are limited.” Somayajulu Dhulipala (@somayajulu.dhulipala), is a PhD graduate student in MIT MechE (@mitmeche) on the @explorespace_ml Svalbard Expedition.
The AgriThrive plant habitat is an emergency preparedness system for plants in space, as well as polar regions and deserts on Earth. A miniaturized prototype is being tested in Svalbard under varying light conditions and cold temperatures.
Learn more: http://media.mit/projects/AgriThrive
Images:
1. AgriThrive plant system in Svalbard.
2. @somayajulu.dhulipala installs the AgriThrive experiment.
3. Inside of the plant habitat is a multilayered structure with air gaps and water to help control the insulation and radiation shielding of the system.
Images: Maggie Coblentz (@maggiecoblentz)
Reposted from @mitmedialab
Based out of the Czech Arctic Research Station, a team from SEI was in Svalbard in the high Arctic to test projects ranging from remote sensing, to dynamic architecture, to plant habitats, to user research in the field. Meet the SEI Svalbard Expedition 2022 team!
Images:
1. Sana Sharma (@sanamakesthings), Project | Analog Environments Study
2. Jess Todd (@jess_thexplorer), Project | Sea2Space
3. Joe Kennedy, Project | Micro Mobile
4. Cody Paige (@codyalison), Project | Capturing the Moon: Assessing Virtual Reality for Remote Lunar Geological Fieldwork
5. Somayajulu Dhulipala (@somayajulu.dhulipala), Project | AgriThrive: Emergency Preparedness for Plant Growth in Martian/Lunar Environments
6. Sean Auffinger (@seanauffinger), Mission Integrator
7. Trond Storm Johansen, Expedition Polar Bear Guard
8. Maggie Coblentz (@maggiecoblentz), Expedition Leader
Learn more: http://media.mit.edu/posts/Svalbard-2022
Images: Maggie Coblentz (@maggiecoblentz)
Reposted from @mitmedialab
Based out of the Czech Arctic Research Station, a team from SEI was in Svalbard in the high Arctic to test projects ranging from remote sensing, to dynamic architecture, to plant habitats, to user research in the field. Meet the SEI Svalbard Expedition 2022 team!
Images:
1. Sana Sharma (@sanamakesthings), Project | Analog Environments Study
2. Jess Todd (@jess_thexplorer), Project | Sea2Space
3. Joe Kennedy, Project | Micro Mobile
4. Cody Paige (@codyalison), Project | Capturing the Moon: Assessing Virtual Reality for Remote Lunar Geological Fieldwork
5. Somayajulu Dhulipala (@somayajulu.dhulipala), Project | AgriThrive: Emergency Preparedness for Plant Growth in Martian/Lunar Environments
6. Sean Auffinger (@seanauffinger), Mission Integrator
7. Trond Storm Johansen, Expedition Polar Bear Guard
8. Maggie Coblentz (@maggiecoblentz), Expedition Leader
Learn more: http://media.mit.edu/posts/Svalbard-2022
Images: Maggie Coblentz (@maggiecoblentz)
Reposted from @mitmedialab
Based out of the Czech Arctic Research Station, a team from SEI was in Svalbard in the high Arctic to test projects ranging from remote sensing, to dynamic architecture, to plant habitats, to user research in the field. Meet the SEI Svalbard Expedition 2022 team!
Images:
1. Sana Sharma (@sanamakesthings), Project | Analog Environments Study
2. Jess Todd (@jess_thexplorer), Project | Sea2Space
3. Joe Kennedy, Project | Micro Mobile
4. Cody Paige (@codyalison), Project | Capturing the Moon: Assessing Virtual Reality for Remote Lunar Geological Fieldwork
5. Somayajulu Dhulipala (@somayajulu.dhulipala), Project | AgriThrive: Emergency Preparedness for Plant Growth in Martian/Lunar Environments
6. Sean Auffinger (@seanauffinger), Mission Integrator
7. Trond Storm Johansen, Expedition Polar Bear Guard
8. Maggie Coblentz (@maggiecoblentz), Expedition Leader
Learn more: http://media.mit.edu/posts/Svalbard-2022
Images: Maggie Coblentz (@maggiecoblentz)
Reposted from @mitmedialab
Based out of the Czech Arctic Research Station, a team from SEI was in Svalbard in the high Arctic to test projects ranging from remote sensing, to dynamic architecture, to plant habitats, to user research in the field. Meet the SEI Svalbard Expedition 2022 team!
Images:
1. Sana Sharma (@sanamakesthings), Project | Analog Environments Study
2. Jess Todd (@jess_thexplorer), Project | Sea2Space
3. Joe Kennedy, Project | Micro Mobile
4. Cody Paige (@codyalison), Project | Capturing the Moon: Assessing Virtual Reality for Remote Lunar Geological Fieldwork
5. Somayajulu Dhulipala (@somayajulu.dhulipala), Project | AgriThrive: Emergency Preparedness for Plant Growth in Martian/Lunar Environments
6. Sean Auffinger (@seanauffinger), Mission Integrator
7. Trond Storm Johansen, Expedition Polar Bear Guard
8. Maggie Coblentz (@maggiecoblentz), Expedition Leader
Learn more: http://media.mit.edu/posts/Svalbard-2022
Images: Maggie Coblentz (@maggiecoblentz)
Reposted from @mitmedialab
Based out of the Czech Arctic Research Station, a team from SEI was in Svalbard in the high Arctic to test projects ranging from remote sensing, to dynamic architecture, to plant habitats, to user research in the field. Meet the SEI Svalbard Expedition 2022 team!
Images:
1. Sana Sharma (@sanamakesthings), Project | Analog Environments Study
2. Jess Todd (@jess_thexplorer), Project | Sea2Space
3. Joe Kennedy, Project | Micro Mobile
4. Cody Paige (@codyalison), Project | Capturing the Moon: Assessing Virtual Reality for Remote Lunar Geological Fieldwork
5. Somayajulu Dhulipala (@somayajulu.dhulipala), Project | AgriThrive: Emergency Preparedness for Plant Growth in Martian/Lunar Environments
6. Sean Auffinger (@seanauffinger), Mission Integrator
7. Trond Storm Johansen, Expedition Polar Bear Guard
8. Maggie Coblentz (@maggiecoblentz), Expedition Leader
Learn more: http://media.mit.edu/posts/Svalbard-2022
Images: Maggie Coblentz (@maggiecoblentz)
Reposted from @mitmedialab
Based out of the Czech Arctic Research Station, a team from SEI was in Svalbard in the high Arctic to test projects ranging from remote sensing, to dynamic architecture, to plant habitats, to user research in the field. Meet the SEI Svalbard Expedition 2022 team!
Images:
1. Sana Sharma (@sanamakesthings), Project | Analog Environments Study
2. Jess Todd (@jess_thexplorer), Project | Sea2Space
3. Joe Kennedy, Project | Micro Mobile
4. Cody Paige (@codyalison), Project | Capturing the Moon: Assessing Virtual Reality for Remote Lunar Geological Fieldwork
5. Somayajulu Dhulipala (@somayajulu.dhulipala), Project | AgriThrive: Emergency Preparedness for Plant Growth in Martian/Lunar Environments
6. Sean Auffinger (@seanauffinger), Mission Integrator
7. Trond Storm Johansen, Expedition Polar Bear Guard
8. Maggie Coblentz (@maggiecoblentz), Expedition Leader
Learn more: http://media.mit.edu/posts/Svalbard-2022
Images: Maggie Coblentz (@maggiecoblentz)
Reposted from @mitmedialab
Based out of the Czech Arctic Research Station, a team from SEI was in Svalbard in the high Arctic to test projects ranging from remote sensing, to dynamic architecture, to plant habitats, to user research in the field. Meet the SEI Svalbard Expedition 2022 team!
Images:
1. Sana Sharma (@sanamakesthings), Project | Analog Environments Study
2. Jess Todd (@jess_thexplorer), Project | Sea2Space
3. Joe Kennedy, Project | Micro Mobile
4. Cody Paige (@codyalison), Project | Capturing the Moon: Assessing Virtual Reality for Remote Lunar Geological Fieldwork
5. Somayajulu Dhulipala (@somayajulu.dhulipala), Project | AgriThrive: Emergency Preparedness for Plant Growth in Martian/Lunar Environments
6. Sean Auffinger (@seanauffinger), Mission Integrator
7. Trond Storm Johansen, Expedition Polar Bear Guard
8. Maggie Coblentz (@maggiecoblentz), Expedition Leader
Learn more: http://media.mit.edu/posts/Svalbard-2022
Images: Maggie Coblentz (@maggiecoblentz)
Reposted from @mitmedialab
Based out of the Czech Arctic Research Station, a team from SEI was in Svalbard in the high Arctic to test projects ranging from remote sensing, to dynamic architecture, to plant habitats, to user research in the field. Meet the SEI Svalbard Expedition 2022 team!
Images:
1. Sana Sharma (@sanamakesthings), Project | Analog Environments Study
2. Jess Todd (@jess_thexplorer), Project | Sea2Space
3. Joe Kennedy, Project | Micro Mobile
4. Cody Paige (@codyalison), Project | Capturing the Moon: Assessing Virtual Reality for Remote Lunar Geological Fieldwork
5. Somayajulu Dhulipala (@somayajulu.dhulipala), Project | AgriThrive: Emergency Preparedness for Plant Growth in Martian/Lunar Environments
6. Sean Auffinger (@seanauffinger), Mission Integrator
7. Trond Storm Johansen, Expedition Polar Bear Guard
8. Maggie Coblentz (@maggiecoblentz), Expedition Leader
Learn more: http://media.mit.edu/posts/Svalbard-2022
Images: Maggie Coblentz (@maggiecoblentz)
Reposted from @mitmedialab
While on the field in Svalbard, the @explorespace_ML team tested a rover from the MIT Resource Exploration and Science of our Cosmic Environment (RESOURCE) project. Equipped with a custom camera tower made by Ferrous Ward (@ferrou5), and camera operations programmed by Don Derek Haddad (@9d3_live), the rover gathered additional data for Cody Paige (@codyalison) to recreate the geological environment in 3D.
Images:
1. Rover deployed in Bolterdalen, Svalbard.
2. Jess Todd (@jess_thexplorer)
2. Jess Todd, Sean Auffinger (@seanauffinger), and Cody Paige (@codyalison)
Images: Maggie Coblentz (@maggiecoblentz)
Reposted from @mitmedialab
While on the field in Svalbard, the @explorespace_ML team tested a rover from the MIT Resource Exploration and Science of our Cosmic Environment (RESOURCE) project. Equipped with a custom camera tower made by Ferrous Ward (@ferrou5), and camera operations programmed by Don Derek Haddad (@9d3_live), the rover gathered additional data for Cody Paige (@codyalison) to recreate the geological environment in 3D.
Images:
1. Rover deployed in Bolterdalen, Svalbard.
2. Jess Todd (@jess_thexplorer)
2. Jess Todd, Sean Auffinger (@seanauffinger), and Cody Paige (@codyalison)
Images: Maggie Coblentz (@maggiecoblentz)
Reposted from @mitmedialab
While on the field in Svalbard, the @explorespace_ML team tested a rover from the MIT Resource Exploration and Science of our Cosmic Environment (RESOURCE) project. Equipped with a custom camera tower made by Ferrous Ward (@ferrou5), and camera operations programmed by Don Derek Haddad (@9d3_live), the rover gathered additional data for Cody Paige (@codyalison) to recreate the geological environment in 3D.
Images:
1. Rover deployed in Bolterdalen, Svalbard.
2. Jess Todd (@jess_thexplorer)
2. Jess Todd, Sean Auffinger (@seanauffinger), and Cody Paige (@codyalison)
Images: Maggie Coblentz (@maggiecoblentz)
Reposted from @mitmedialab
“In addition to the science, we’re learning important operations on the field that could be applied to space exploration. Conducting fieldwork in remote locations means you need to problem solve and fix things with the limited resources you have with you.” Cody Paige (@codyalison), a PhD graduate student in MIT AeroAstro (@mitaeroastro), took part of the Svalbard expedition with the SEI team.
In Svalbard, Cody applied her background in geology and aerospace engineering to test the technological and scientific use of a virtual reality platform for remote geological exploration. This is part of MIT’s Resource Exploration and Science of our Cosmic Environment (RESOURCE) project. Throughout the expedition, Cody visited three distinct sites in Svalbard to collect visual and environmental data that will be used in their VR platform for scientists to later test and compare to traditional geological field methods.
Learn more: http://media.mit.edu/projects/capturing-the-moon/overview
Images:
1. Images are collected using an RGB + LiDAR camera to recreate the environment in 3D.
2. Cody measures the height of a pingo (a permafrost feature) to first gather data using traditional geological field methods.
3. A LiDAR camera is setup to collect depth data.
4. An environmental sensor is left overnight to capture 24hrs of continuous local data such as temperature, humidity, and light.
Images: Maggie Coblentz (@maggiecoblentz)
Reposted from @mitmedialab
“In addition to the science, we’re learning important operations on the field that could be applied to space exploration. Conducting fieldwork in remote locations means you need to problem solve and fix things with the limited resources you have with you.” Cody Paige (@codyalison), a PhD graduate student in MIT AeroAstro (@mitaeroastro), took part of the Svalbard expedition with the SEI team.
In Svalbard, Cody applied her background in geology and aerospace engineering to test the technological and scientific use of a virtual reality platform for remote geological exploration. This is part of MIT’s Resource Exploration and Science of our Cosmic Environment (RESOURCE) project. Throughout the expedition, Cody visited three distinct sites in Svalbard to collect visual and environmental data that will be used in their VR platform for scientists to later test and compare to traditional geological field methods.
Learn more: http://media.mit.edu/projects/capturing-the-moon/overview
Images:
1. Images are collected using an RGB + LiDAR camera to recreate the environment in 3D.
2. Cody measures the height of a pingo (a permafrost feature) to first gather data using traditional geological field methods.
3. A LiDAR camera is setup to collect depth data.
4. An environmental sensor is left overnight to capture 24hrs of continuous local data such as temperature, humidity, and light.
Images: Maggie Coblentz (@maggiecoblentz)
Reposted from @mitmedialab
“In addition to the science, we’re learning important operations on the field that could be applied to space exploration. Conducting fieldwork in remote locations means you need to problem solve and fix things with the limited resources you have with you.” Cody Paige (@codyalison), a PhD graduate student in MIT AeroAstro (@mitaeroastro), took part of the Svalbard expedition with the SEI team.
In Svalbard, Cody applied her background in geology and aerospace engineering to test the technological and scientific use of a virtual reality platform for remote geological exploration. This is part of MIT’s Resource Exploration and Science of our Cosmic Environment (RESOURCE) project. Throughout the expedition, Cody visited three distinct sites in Svalbard to collect visual and environmental data that will be used in their VR platform for scientists to later test and compare to traditional geological field methods.
Learn more: http://media.mit.edu/projects/capturing-the-moon/overview
Images:
1. Images are collected using an RGB + LiDAR camera to recreate the environment in 3D.
2. Cody measures the height of a pingo (a permafrost feature) to first gather data using traditional geological field methods.
3. A LiDAR camera is setup to collect depth data.
4. An environmental sensor is left overnight to capture 24hrs of continuous local data such as temperature, humidity, and light.
Images: Maggie Coblentz (@maggiecoblentz)
Reposted from @mitmedialab
“In addition to the science, we’re learning important operations on the field that could be applied to space exploration. Conducting fieldwork in remote locations means you need to problem solve and fix things with the limited resources you have with you.” Cody Paige (@codyalison), a PhD graduate student in MIT AeroAstro (@mitaeroastro), took part of the Svalbard expedition with the SEI team.
In Svalbard, Cody applied her background in geology and aerospace engineering to test the technological and scientific use of a virtual reality platform for remote geological exploration. This is part of MIT’s Resource Exploration and Science of our Cosmic Environment (RESOURCE) project. Throughout the expedition, Cody visited three distinct sites in Svalbard to collect visual and environmental data that will be used in their VR platform for scientists to later test and compare to traditional geological field methods.
Learn more: http://media.mit.edu/projects/capturing-the-moon/overview
Images:
1. Images are collected using an RGB + LiDAR camera to recreate the environment in 3D.
2. Cody measures the height of a pingo (a permafrost feature) to first gather data using traditional geological field methods.
3. A LiDAR camera is setup to collect depth data.
4. An environmental sensor is left overnight to capture 24hrs of continuous local data such as temperature, humidity, and light.
Images: Maggie Coblentz (@maggiecoblentz)
Reposted from @mitmedialab
Exploring sites in Svalbard where the SEI team conducted field tests on technology for planetary science environments, from remote regions on Earth, to the Moon and Mars.
Images:
1. A drone flown by Jess Todd (@jess_thexplorer) collects data for intelligent scientific site selection.
2. Sean Auffinger (@seanauffinger) and Joe Kennedy assess field sites.
3. Cody Paige (@codyalison) takes field notes before testing her technology for remote VR environments for geological exploration.
Images: Maggie Coblentz (@maggiecoblentz)
Reposted from @mitmedialab
Exploring sites in Svalbard where the SEI team conducted field tests on technology for planetary science environments, from remote regions on Earth, to the Moon and Mars.
Images:
1. A drone flown by Jess Todd (@jess_thexplorer) collects data for intelligent scientific site selection.
2. Sean Auffinger (@seanauffinger) and Joe Kennedy assess field sites.
3. Cody Paige (@codyalison) takes field notes before testing her technology for remote VR environments for geological exploration.
Images: Maggie Coblentz (@maggiecoblentz)
Reposted from @mitmedialab
Exploring sites in Svalbard where the SEI team conducted field tests on technology for planetary science environments, from remote regions on Earth, to the Moon and Mars.
Images:
1. A drone flown by Jess Todd (@jess_thexplorer) collects data for intelligent scientific site selection.
2. Sean Auffinger (@seanauffinger) and Joe Kennedy assess field sites.
3. Cody Paige (@codyalison) takes field notes before testing her technology for remote VR environments for geological exploration.
Images: Maggie Coblentz (@maggiecoblentz)
Reposted from @mitmedialab
Earlier this month, Maggie Coblentz (@maggiecoblentz) from the MIT Space Exploration Initiative led a field expedition in Svalbard, a Norwegian archipelago in the Arctic Ocean. Here, SEI tested technology for space exploration and with applications for remote regions on Earth.
Learn more: http://media.mit.edu/posts/Svalbard-2022
Image: @maggiecoblentz
Reposted from @mitmedialab
Che-Wei is one of the researchers working on Zenolith. Zenolith is a zero gravity pointing device that gives astronauts a better sense of where they are in the universe. In the future, Zenolith researchers are planning to get Zenolith to the ISS for astronauts to interact with it. Zenolith flew on the SEI-chartered zero-G flight that took place last week!
#voicesinspace
#scifispacefutures
#MITSEI
Che-Wei Wang [pron. sey-wey] (@cheewee2000) is an artist, designer & architect with expertise in computational and generative design, fabrication technologies, electronics, CNC machining, and metal manufacturing. He is the winner of the 2003 SOM fellowship and the Young Alumni Achievement Award from Pratt Institute. He is an alumnus of MIT Media Lab, ITP at NYU, and Pratt Institute.
#voicesinspace
#scifispacefutures
#MITSEI
스토리 세이브 - 스토리, 릴스, 사진, 비디오, 하이라이트, IGTV를 핸드폰에 저장할 수 있는 최고의 무료 도구.
스토리-세이브.com은 사용자들이 인스타그램에서 스토리, 사진, 비디오, IGTV 등을 직접 다운로드하고 저장할 수 있게 도와주는 직관적인 온라인 도구입니다. Story-Save를 사용하면 인스타그램에서 다양한 콘텐츠를 쉽게 다운로드하고 인터넷 없이도 편리하게 볼 수 있습니다. 인스타그램에서 흥미로운 내용을 발견하고 나중에 보기 위해 저장하고 싶을 때 이 도구가 완벽합니다. Story-Save를 사용하여 인스타그램의 소중한 순간을 놓치지 마세요!
우리의 장점:
회원가입 불필요
앱 다운로드 및 가입 없이, 웹에서 스토리를 저장하세요.
독점적인 고화질
저화질 콘텐츠는 이제 그만, 고해상도 스토리만 보존하세요.
모든 장치에서 접근 가능
모든 브라우저, 아이폰, 안드로이드에서 인스타그램 스토리를 다운로드하세요.
완전 무료 사용
전혀 비용 없이 스토리를 다운로드할 수 있습니다.
자주 묻는 질문
- 1. 인스타그램 스토리 다운로드 도구에 접속하세요.
- 2. 인스타그램 프로필의 사용자명을 제공된 필드에 입력하고 다운로드 버튼을 클릭하세요.
- 3. 현재 24시간 동안 사용 가능한 모든 스토리가 표시됩니다. 원하는 스토리를 선택하고 다운로드하세요.