-
Coordinated Ionospheric Reconstruction Cubesat Experiment (CIRCE), Dr Gemma Attrill
Dr Gemma Attrill, Lead Scientist and Chief Space Weather, Space Systems Programme, Defence Science and Technology Laboratory (Dstl)
The first in-person Appleton Space Conference in two years took place on Thursday 1 December 2022 and celebrated the latest advancements in space science, Earth observation and technology development.
Find out more:
- 18th Appleton Space Conference: https://www.ralspace.stfc.ac.uk/Pages/18th-Appleton-Space-Conference.aspx
Follow us on:
Twitter: @RAL_Space_STFC
Facebook: @RAL.Space
Instagram: @ral.space
LinkedIn: RAL Space
published: 22 Dec 2022
-
Building CubeSats to test electrodynamic tethering in space with MiTEE
Electrodynamic tethering could enable coordinated fleets of tens to hundreds of miniature satellites, transforming the way we monitor natural disasters, space weather and the broader space environment by eliminating the need for propellant to maintain a proper orbit and formation: http://clasp-research.engin.umich.edu/groups/s3fl/mitee/about/
Mi-TEE (Miniature Tether Electrodynamics Experiment) is a University of Engineering project that aims to test the tethering technology in space. The project was selected by NASA in 2015 as part of its CubeSat Launch Initiative. The experiment is currently expected to launch in 2020.
The project is currently organized through U-M’s Multidisciplinary Design Program, and is advised by Brian Gilchrist, professor of electrical engineering and computer sc...
published: 13 Feb 2020
-
Cubesat to study Space Weather
NASA Selects 4 CubeSats to study Space Weather Tech Development CubIXSS, SunCET, DYNAGLO, and WindCube satellites will be the first-generation testbed for space weather innovation through small satellites.
Did you know that there are storms always occurring in space? Not rain or snow, but winds and magnetic waves that move through space! This is known as space weather.
Space weather can be radio blackouts, solar radiation storms, geomagnetic storms, or some other disturbances from the Sun.
Strong solar storms can cause fluctuations of electrical currents in Earth's varying magnetic field. These disturbances can cause problems with radio communications, Global Positioning Systems (GPS), power grids, and satellites. What if all our satellites are damaged? Cell phones, TV, navigation, credi...
published: 17 Jan 2022
-
Cubesats | Mini cube satellites
Tiny cube satellites revolutionise our access to space
Space has always been the playground of very big players with very deep pockets – but not anymore. It’s now being invaded by a new breed of cheap, innovative satellites, smaller than a loaf of bread. Cube Satellites, or CubeSats as they’re known, are revolutionising our access to space and the way we use it – for both science and business. Leading Australian space experts believe it’s a golden opportunity to develop a homegrown space industry that can launch Australia back into orbit. Australian made CubeSats will be deployed from the International Space Station to investigate the thermosphere - a layer of Earth’s atmosphere that we know very little about, but one that is vital to the GPS and other satellites our modern technology ...
published: 26 Oct 2016
-
ElaNa CubeSat Media Briefing
NASA news briefing from Vandenberg Air Force Base in California on Wednesday, Oct. 26, to discuss the launch of NASA's Educational Launch of Nanosatellite (ELaNa) mission on Oct. 28 aboard NPP's Delta II rocket.
published: 27 Oct 2011
-
Space weather and auroral monitoring with cubesats
Space weather and auroral monitoring with cubesats
Prof. Mathieu Barthélémy
(Universite Grenoble Alpes, France)
published: 25 May 2021
-
Integration of Geophysical Parameters for Electrodynamic Tether Propulsion Modeling Environment
College of Engineering Honors Capstone Project
published: 14 May 2021
-
USU Space Dynamics Lab wins major NASA mission
USU Space Dynamics Lab wins major NASA mission
published: 11 Jan 2021
-
Observatory for Heteroscale Magnetosphere-Ionosphere Coupling (OHMIC) (Jim Burch)
James L. Burch is vice president of the Space Science and Engineering Division at Southwest Research Institute.
He received his BS in physics in 1964 from St. Mary's University of Texas and his PhD in space science from Rice University in 1968. He was principal investigator for the Dynamics Explorer 1 high-altitude plasma instrument, the ATLAS-1 Space Experiments with Particle Accelerators, and the Imager for Magnetopause-to-Aurora Global Exploration mission. Currently, he is principal investigator for the ion and electron sensor for the European Space Agency Rosetta comet orbiter and for the instrument suite science team for the Magnetospheric Multiscale mission to be launched in 2014. Dr. Burch was elected fellow of the AGU in 1995; was the American Geophysical Union (AGU) Van Allen Lect...
published: 09 Dec 2011
-
Lecture#18 Introduction to CubeSat Payload Systems (KiboCUBE Academy)
KiboCUBE is the long-standing cooperation between the United Nations Office for Outer Space Affairs (UNOOSA) and @JAXA-HQ that offers developing countries the opportunity to deploy a Cube Satellite (CubeSat) from the International Space Station Japanese Experiment Module “Kibo”. The selected teams are required to develop, operate and utilize their CubeSats.
KiboCUBE Academy, provided by UNOOSA and JAXA along with the support of the University Space Engineering Consortium (UNISEC), is an educational activity for future KiboCUBE applicants to be able to gain technical knowledge on how to design, develop and test their CubeSat, how to operate it once it is in space, and how to utilize the data that they acquire from their CubeSats to develop useful applications on Earth. It also supports bu...
published: 06 Aug 2022
18:46
Coordinated Ionospheric Reconstruction Cubesat Experiment (CIRCE), Dr Gemma Attrill
Dr Gemma Attrill, Lead Scientist and Chief Space Weather, Space Systems Programme, Defence Science and Technology Laboratory (Dstl)
The first in-person Appleto...
Dr Gemma Attrill, Lead Scientist and Chief Space Weather, Space Systems Programme, Defence Science and Technology Laboratory (Dstl)
The first in-person Appleton Space Conference in two years took place on Thursday 1 December 2022 and celebrated the latest advancements in space science, Earth observation and technology development.
Find out more:
- 18th Appleton Space Conference: https://www.ralspace.stfc.ac.uk/Pages/18th-Appleton-Space-Conference.aspx
Follow us on:
Twitter: @RAL_Space_STFC
Facebook: @RAL.Space
Instagram: @ral.space
LinkedIn: RAL Space
https://wn.com/Coordinated_Ionospheric_Reconstruction_Cubesat_Experiment_(Circe),_Dr_Gemma_Attrill
Dr Gemma Attrill, Lead Scientist and Chief Space Weather, Space Systems Programme, Defence Science and Technology Laboratory (Dstl)
The first in-person Appleton Space Conference in two years took place on Thursday 1 December 2022 and celebrated the latest advancements in space science, Earth observation and technology development.
Find out more:
- 18th Appleton Space Conference: https://www.ralspace.stfc.ac.uk/Pages/18th-Appleton-Space-Conference.aspx
Follow us on:
Twitter: @RAL_Space_STFC
Facebook: @RAL.Space
Instagram: @ral.space
LinkedIn: RAL Space
- published: 22 Dec 2022
- views: 137
1:34
Building CubeSats to test electrodynamic tethering in space with MiTEE
Electrodynamic tethering could enable coordinated fleets of tens to hundreds of miniature satellites, transforming the way we monitor natural disasters, space w...
Electrodynamic tethering could enable coordinated fleets of tens to hundreds of miniature satellites, transforming the way we monitor natural disasters, space weather and the broader space environment by eliminating the need for propellant to maintain a proper orbit and formation: http://clasp-research.engin.umich.edu/groups/s3fl/mitee/about/
Mi-TEE (Miniature Tether Electrodynamics Experiment) is a University of Engineering project that aims to test the tethering technology in space. The project was selected by NASA in 2015 as part of its CubeSat Launch Initiative. The experiment is currently expected to launch in 2020.
The project is currently organized through U-M’s Multidisciplinary Design Program, and is advised by Brian Gilchrist, professor of electrical engineering and computer science and director of U-M’s Space Physics Research Laboratory (SPRL).
http://www.sprl.umich.edu/
------
Watch more videos from Michigan Engineering and subscribe: https://www.youtube.com/michiganengineering
The University of Michigan College of Engineering is one of the world’s top engineering schools. Michigan Engineering is home to 12 highly-ranked departments, and its research budget is among the largest of any public university.
http://engin.umich.edu
Follow Michigan Engineering:
Twitter: https://twitter.com/umengineering
Facebook: https://facebook.com/michigan.engineering
Instagram: https://instagram.com/michiganengineering
Contact Michigan Engineering:
https://engin.umich.edu/about/contact/
https://wn.com/Building_Cubesats_To_Test_Electrodynamic_Tethering_In_Space_With_Mitee
Electrodynamic tethering could enable coordinated fleets of tens to hundreds of miniature satellites, transforming the way we monitor natural disasters, space weather and the broader space environment by eliminating the need for propellant to maintain a proper orbit and formation: http://clasp-research.engin.umich.edu/groups/s3fl/mitee/about/
Mi-TEE (Miniature Tether Electrodynamics Experiment) is a University of Engineering project that aims to test the tethering technology in space. The project was selected by NASA in 2015 as part of its CubeSat Launch Initiative. The experiment is currently expected to launch in 2020.
The project is currently organized through U-M’s Multidisciplinary Design Program, and is advised by Brian Gilchrist, professor of electrical engineering and computer science and director of U-M’s Space Physics Research Laboratory (SPRL).
http://www.sprl.umich.edu/
------
Watch more videos from Michigan Engineering and subscribe: https://www.youtube.com/michiganengineering
The University of Michigan College of Engineering is one of the world’s top engineering schools. Michigan Engineering is home to 12 highly-ranked departments, and its research budget is among the largest of any public university.
http://engin.umich.edu
Follow Michigan Engineering:
Twitter: https://twitter.com/umengineering
Facebook: https://facebook.com/michigan.engineering
Instagram: https://instagram.com/michiganengineering
Contact Michigan Engineering:
https://engin.umich.edu/about/contact/
- published: 13 Feb 2020
- views: 5004
3:47
Cubesat to study Space Weather
NASA Selects 4 CubeSats to study Space Weather Tech Development CubIXSS, SunCET, DYNAGLO, and WindCube satellites will be the first-generation testbed for space...
NASA Selects 4 CubeSats to study Space Weather Tech Development CubIXSS, SunCET, DYNAGLO, and WindCube satellites will be the first-generation testbed for space weather innovation through small satellites.
Did you know that there are storms always occurring in space? Not rain or snow, but winds and magnetic waves that move through space! This is known as space weather.
Space weather can be radio blackouts, solar radiation storms, geomagnetic storms, or some other disturbances from the Sun.
Strong solar storms can cause fluctuations of electrical currents in Earth's varying magnetic field. These disturbances can cause problems with radio communications, Global Positioning Systems (GPS), power grids, and satellites. What if all our satellites are damaged? Cell phones, TV, navigation, credit card and ATM transactions, and more would instantly come to a screeching halt. As we become more dependent on technology, the need for space weather monitoring and forecasting becomes more important
CubeSats are small, cube-shaped satellites built to standardized dimensions that offer many advantages over traditional large space missions. In simpler terms, it's the Mobile phone [mini-computer] of the satellite world.
Bigger doesn't always mean better. When we talk about businesses in space. The advantages of CubeSats over conventional satellites can be considerable depending on the type of project. CubeSats are relatively inexpensive compared to larger satellite missions, and they're small, they can be built and deployed much more quickly.
CubeSats usually operate in constellations, If a small satellite becomes unusable, the project does not fail, but the other CubeSats can fill that gap. This is not the case with large satellites, as the consequences of a serious breakdown can be catastrophic for the mission.
A recent NASA-commissioned report identified key observing gaps that must be filled to enable more reliable space weather forecasts. The CubeSat Imaging X-Ray Solar Spectrometer (CubIXSS) mission will study the origins of hot plasma in solar flares and active regions. CubIXSS will perform soft X-ray spectroscopy of coronal emissions using a new approach that provides unprecedented spectral coverage.
The Sun Coronal Ejection Tracker (SunCET) mission will examine the dominant physical mechanisms that accelerate coronal mass ejections. These physical mechanisms operate largely in the Sun's middle corona, a region that has historically been under-observed. SunCET will have a novel simultaneous, high-dynamic-range detector that can resolve the low and middle corona from the surface of the Sun. This is critical for tracking the emergence of CMEs, which are a key driver of severe space weather.
The DYNamics Atmosphere GLObal-Connection (DYNAGLO) CubeSat mission fills a crucial observation gap in the ionosphere-thermosphere region. DYNAGLO will be the first of its kind, providing global thermosphere gravity wave measurements. This mission will help us understand how atmospheric gravity waves, contribute to the energy and momentum balance in the thermosphere. This will allow us to study in unprecedented detail how terrestrial weather shapes space weather from below.
WindCube will study the influence of thermospheric winds on Earths ionosphere using an advanced, small form factor interferometer. Thermospheric winds respond to changes in the magnetosphere and are critically important for understanding the behaviour of the ionosphere. By examining these relationships, WindCube will enable improved modelling of the ionosphere and its associated space weather impact.
Source: https://www.nasa.gov/feature/goddard/2021/nasa-selects-4-cubesats-for-space-weather-tech-development
https://www.nasa.gov/image-feature/nasa-daili-cubesat-to-study-complex-atmospheric-composition
https://www.nasa.gov/mission_pages/cubesats/overview
https://info.alen.space/advantages-of-cubesats-vs-conventional-satellites
https://www.nanosats.eu/cubesat
https://www.noaa.gov/education/resource-collections/weather-atmosphere/space-weather
Music by Yuzzy:
https://bit.ly/2nUbGqD
00:00 Intro
00:12 What is space weather?
00:34 Why monitoring space weather is important?
01:07 What is Cubesats?
01:22 Why Cubesats?
02:02 NASA's Cubesat weather mission
02:11 CubIXSS
02:35 SunCET
03:01 DYNAGLO
03:25 WindCube
#Cubesats #spaceweather #Cubixss #Suncet #DYNAGLO #Windcube
https://wn.com/Cubesat_To_Study_Space_Weather
NASA Selects 4 CubeSats to study Space Weather Tech Development CubIXSS, SunCET, DYNAGLO, and WindCube satellites will be the first-generation testbed for space weather innovation through small satellites.
Did you know that there are storms always occurring in space? Not rain or snow, but winds and magnetic waves that move through space! This is known as space weather.
Space weather can be radio blackouts, solar radiation storms, geomagnetic storms, or some other disturbances from the Sun.
Strong solar storms can cause fluctuations of electrical currents in Earth's varying magnetic field. These disturbances can cause problems with radio communications, Global Positioning Systems (GPS), power grids, and satellites. What if all our satellites are damaged? Cell phones, TV, navigation, credit card and ATM transactions, and more would instantly come to a screeching halt. As we become more dependent on technology, the need for space weather monitoring and forecasting becomes more important
CubeSats are small, cube-shaped satellites built to standardized dimensions that offer many advantages over traditional large space missions. In simpler terms, it's the Mobile phone [mini-computer] of the satellite world.
Bigger doesn't always mean better. When we talk about businesses in space. The advantages of CubeSats over conventional satellites can be considerable depending on the type of project. CubeSats are relatively inexpensive compared to larger satellite missions, and they're small, they can be built and deployed much more quickly.
CubeSats usually operate in constellations, If a small satellite becomes unusable, the project does not fail, but the other CubeSats can fill that gap. This is not the case with large satellites, as the consequences of a serious breakdown can be catastrophic for the mission.
A recent NASA-commissioned report identified key observing gaps that must be filled to enable more reliable space weather forecasts. The CubeSat Imaging X-Ray Solar Spectrometer (CubIXSS) mission will study the origins of hot plasma in solar flares and active regions. CubIXSS will perform soft X-ray spectroscopy of coronal emissions using a new approach that provides unprecedented spectral coverage.
The Sun Coronal Ejection Tracker (SunCET) mission will examine the dominant physical mechanisms that accelerate coronal mass ejections. These physical mechanisms operate largely in the Sun's middle corona, a region that has historically been under-observed. SunCET will have a novel simultaneous, high-dynamic-range detector that can resolve the low and middle corona from the surface of the Sun. This is critical for tracking the emergence of CMEs, which are a key driver of severe space weather.
The DYNamics Atmosphere GLObal-Connection (DYNAGLO) CubeSat mission fills a crucial observation gap in the ionosphere-thermosphere region. DYNAGLO will be the first of its kind, providing global thermosphere gravity wave measurements. This mission will help us understand how atmospheric gravity waves, contribute to the energy and momentum balance in the thermosphere. This will allow us to study in unprecedented detail how terrestrial weather shapes space weather from below.
WindCube will study the influence of thermospheric winds on Earths ionosphere using an advanced, small form factor interferometer. Thermospheric winds respond to changes in the magnetosphere and are critically important for understanding the behaviour of the ionosphere. By examining these relationships, WindCube will enable improved modelling of the ionosphere and its associated space weather impact.
Source: https://www.nasa.gov/feature/goddard/2021/nasa-selects-4-cubesats-for-space-weather-tech-development
https://www.nasa.gov/image-feature/nasa-daili-cubesat-to-study-complex-atmospheric-composition
https://www.nasa.gov/mission_pages/cubesats/overview
https://info.alen.space/advantages-of-cubesats-vs-conventional-satellites
https://www.nanosats.eu/cubesat
https://www.noaa.gov/education/resource-collections/weather-atmosphere/space-weather
Music by Yuzzy:
https://bit.ly/2nUbGqD
00:00 Intro
00:12 What is space weather?
00:34 Why monitoring space weather is important?
01:07 What is Cubesats?
01:22 Why Cubesats?
02:02 NASA's Cubesat weather mission
02:11 CubIXSS
02:35 SunCET
03:01 DYNAGLO
03:25 WindCube
#Cubesats #spaceweather #Cubixss #Suncet #DYNAGLO #Windcube
- published: 17 Jan 2022
- views: 133
15:16
Cubesats | Mini cube satellites
Tiny cube satellites revolutionise our access to space
Space has always been the playground of very big players with very deep pockets – but not anymore. It’s ...
Tiny cube satellites revolutionise our access to space
Space has always been the playground of very big players with very deep pockets – but not anymore. It’s now being invaded by a new breed of cheap, innovative satellites, smaller than a loaf of bread. Cube Satellites, or CubeSats as they’re known, are revolutionising our access to space and the way we use it – for both science and business. Leading Australian space experts believe it’s a golden opportunity to develop a homegrown space industry that can launch Australia back into orbit. Australian made CubeSats will be deployed from the International Space Station to investigate the thermosphere - a layer of Earth’s atmosphere that we know very little about, but one that is vital to the GPS and other satellites our modern technology relies on. #ABCcatalyst
https://wn.com/Cubesats_|_Mini_Cube_Satellites
Tiny cube satellites revolutionise our access to space
Space has always been the playground of very big players with very deep pockets – but not anymore. It’s now being invaded by a new breed of cheap, innovative satellites, smaller than a loaf of bread. Cube Satellites, or CubeSats as they’re known, are revolutionising our access to space and the way we use it – for both science and business. Leading Australian space experts believe it’s a golden opportunity to develop a homegrown space industry that can launch Australia back into orbit. Australian made CubeSats will be deployed from the International Space Station to investigate the thermosphere - a layer of Earth’s atmosphere that we know very little about, but one that is vital to the GPS and other satellites our modern technology relies on. #ABCcatalyst
- published: 26 Oct 2016
- views: 114361
28:53
ElaNa CubeSat Media Briefing
NASA news briefing from Vandenberg Air Force Base in California on Wednesday, Oct. 26, to discuss the launch of NASA's Educational Launch of Nanosatellite (ELaN...
NASA news briefing from Vandenberg Air Force Base in California on Wednesday, Oct. 26, to discuss the launch of NASA's Educational Launch of Nanosatellite (ELaNa) mission on Oct. 28 aboard NPP's Delta II rocket.
https://wn.com/Elana_Cubesat_Media_Briefing
NASA news briefing from Vandenberg Air Force Base in California on Wednesday, Oct. 26, to discuss the launch of NASA's Educational Launch of Nanosatellite (ELaNa) mission on Oct. 28 aboard NPP's Delta II rocket.
- published: 27 Oct 2011
- views: 2231
55:41
Space weather and auroral monitoring with cubesats
Space weather and auroral monitoring with cubesats
Prof. Mathieu Barthélémy
(Universite Grenoble Alpes, France)
Space weather and auroral monitoring with cubesats
Prof. Mathieu Barthélémy
(Universite Grenoble Alpes, France)
https://wn.com/Space_Weather_And_Auroral_Monitoring_With_Cubesats
Space weather and auroral monitoring with cubesats
Prof. Mathieu Barthélémy
(Universite Grenoble Alpes, France)
- published: 25 May 2021
- views: 38
1:00
Observatory for Heteroscale Magnetosphere-Ionosphere Coupling (OHMIC) (Jim Burch)
James L. Burch is vice president of the Space Science and Engineering Division at Southwest Research Institute.
He received his BS in physics in 1964 from St. M...
James L. Burch is vice president of the Space Science and Engineering Division at Southwest Research Institute.
He received his BS in physics in 1964 from St. Mary's University of Texas and his PhD in space science from Rice University in 1968. He was principal investigator for the Dynamics Explorer 1 high-altitude plasma instrument, the ATLAS-1 Space Experiments with Particle Accelerators, and the Imager for Magnetopause-to-Aurora Global Exploration mission. Currently, he is principal investigator for the ion and electron sensor for the European Space Agency Rosetta comet orbiter and for the instrument suite science team for the Magnetospheric Multiscale mission to be launched in 2014. Dr. Burch was elected fellow of the AGU in 1995; was the American Geophysical Union (AGU) Van Allen Lecturer and the Rice University Marlar Lecturer, both in 2001; received the first COSPAR Jeoujang Jaw Award in 2008; and in 2010 received the AGU Fleming Medal.
To learn more, please visit:
http://appel.nasa.gov/knowledge-sharing/pi-team-masters-forums/
https://wn.com/Observatory_For_Heteroscale_Magnetosphere_Ionosphere_Coupling_(Ohmic)_(Jim_Burch)
James L. Burch is vice president of the Space Science and Engineering Division at Southwest Research Institute.
He received his BS in physics in 1964 from St. Mary's University of Texas and his PhD in space science from Rice University in 1968. He was principal investigator for the Dynamics Explorer 1 high-altitude plasma instrument, the ATLAS-1 Space Experiments with Particle Accelerators, and the Imager for Magnetopause-to-Aurora Global Exploration mission. Currently, he is principal investigator for the ion and electron sensor for the European Space Agency Rosetta comet orbiter and for the instrument suite science team for the Magnetospheric Multiscale mission to be launched in 2014. Dr. Burch was elected fellow of the AGU in 1995; was the American Geophysical Union (AGU) Van Allen Lecturer and the Rice University Marlar Lecturer, both in 2001; received the first COSPAR Jeoujang Jaw Award in 2008; and in 2010 received the AGU Fleming Medal.
To learn more, please visit:
http://appel.nasa.gov/knowledge-sharing/pi-team-masters-forums/
- published: 09 Dec 2011
- views: 294
48:26
Lecture#18 Introduction to CubeSat Payload Systems (KiboCUBE Academy)
KiboCUBE is the long-standing cooperation between the United Nations Office for Outer Space Affairs (UNOOSA) and @JAXA-HQ that offers developing countries the o...
KiboCUBE is the long-standing cooperation between the United Nations Office for Outer Space Affairs (UNOOSA) and @JAXA-HQ that offers developing countries the opportunity to deploy a Cube Satellite (CubeSat) from the International Space Station Japanese Experiment Module “Kibo”. The selected teams are required to develop, operate and utilize their CubeSats.
KiboCUBE Academy, provided by UNOOSA and JAXA along with the support of the University Space Engineering Consortium (UNISEC), is an educational activity for future KiboCUBE applicants to be able to gain technical knowledge on how to design, develop and test their CubeSat, how to operate it once it is in space, and how to utilize the data that they acquire from their CubeSats to develop useful applications on Earth. It also supports building a better plan for the project.
For more information see the links below; Access to Space for All Initiative: https://www.unoosa.org/oosa/en/ourwork/access2space4all/index.html KiboCUBE: https://www.unoosa.org/oosa/en/ourwork/access2space4all/KiboCUBE/KiboCUBE_Index.html
KiboCUBE Academy: https://www.unoosa.org/oosa/en/ourwork/access2space4all/KiboCUBE_Academy_Webinars.html
https://wn.com/Lecture_18_Introduction_To_Cubesat_Payload_Systems_(Kibocube_Academy)
KiboCUBE is the long-standing cooperation between the United Nations Office for Outer Space Affairs (UNOOSA) and @JAXA-HQ that offers developing countries the opportunity to deploy a Cube Satellite (CubeSat) from the International Space Station Japanese Experiment Module “Kibo”. The selected teams are required to develop, operate and utilize their CubeSats.
KiboCUBE Academy, provided by UNOOSA and JAXA along with the support of the University Space Engineering Consortium (UNISEC), is an educational activity for future KiboCUBE applicants to be able to gain technical knowledge on how to design, develop and test their CubeSat, how to operate it once it is in space, and how to utilize the data that they acquire from their CubeSats to develop useful applications on Earth. It also supports building a better plan for the project.
For more information see the links below; Access to Space for All Initiative: https://www.unoosa.org/oosa/en/ourwork/access2space4all/index.html KiboCUBE: https://www.unoosa.org/oosa/en/ourwork/access2space4all/KiboCUBE/KiboCUBE_Index.html
KiboCUBE Academy: https://www.unoosa.org/oosa/en/ourwork/access2space4all/KiboCUBE_Academy_Webinars.html
- published: 06 Aug 2022
- views: 1291