Wood has been a mainstay of human machines and construction for millennia. Its physical properties offer capabilities that are unmatched by almost any synthetic replacements. However, it has only very rarely been used in space. That might change based on the results of a new test run by Japan’s Space Agency (JAXA). LignoSat, one of the world’s first wooden satellites, was deployed from the ISS in December.
Continue reading “Astronauts Deploy the First Wooden Satellite into Orbit”Protecting Computers from Space Radiation
Computers are an integral part of space exploration, keeping them functioning when away from Earth. The space environment however is a far from ideal environment for them to operate in. High energy particles can even flip memory bits effecting storage and damaging the computers. NASA are now testing a Radiation Tolerant Computer (RadPC) which has been designed to handle higher levels of radiation. It’s inaugural flight is booked on a trip to the Moon as part of the Firefly Aerospace Blue Ghost 1 Lunar Lander.
Continue reading “Protecting Computers from Space Radiation”A CubeSat Mission Will Detect X-rays from GRBs and Black-Hole Mergers
The long-awaited detection of gravitational waves has opened up a whole new world of astronomy. One of the key efforts is now to tie signals across multiple domains – for example, a gravitational wave and the associated electromagnetic radiation created by that same event, such as a black hole merger or a gamma-ray burst. We’ll need new equipment to detect such “multimodal” signals, especially electromagnetic ones. One such project is the Black Hole Coded Aperture Telescope (BlackCAT), which will be launched early this year by a team led by researchers at Penn State.
Continue reading “A CubeSat Mission Will Detect X-rays from GRBs and Black-Hole Mergers”Pushing A Probe To Alpha Centauri Using A Relativistic Electron Beam
Getting a spacecraft to another star is a monumental challenge. However, that doesn’t stop people from working on it. The most visible groups currently doing so are Breakthrough Starshot and the Tau Zero Foundation, both of whom focus on a very particular type of propulsion-beamed power. A paper from the Chairman of Tau Zero’s board, Jeffrey Greason, and Gerrit Bruhaug, a physicist at Los Alamos National Laboratory who specializes in laser physics, takes a look at the physics of one such beaming technology – a relativistic electron beam – how it might be used to push a spacecraft to another star.
Continue reading “Pushing A Probe To Alpha Centauri Using A Relativistic Electron Beam”Student Team Designs 2U CubeSat with Big Ambitions
CubeSats can be used in many different scenarios, and one of their most important uses is providing an easy path to understanding how to design, plan, and launch a mission. That was the idea behind AlbaSat, a 2U CubeSat currently under development by a team at the University of Padova with an impressive four different functional sensors packed into its tiny frame.
Continue reading “Student Team Designs 2U CubeSat with Big Ambitions”A Long-Term Lunar Infrastructure Hub Named After the Object That Created the Moon
Getting back to the Moon is the primary goal of NASA’s Artemis program, but what do we do once we get there? That is the challenge tackled by a group of students at the University of Illinois Urbana-Champaign, who wrote a proposal for a lunar infrastructure module they call the Trans-lunar Hub for Exploration, ISRU, and Advancement – or THEIA, after the proposed object that crashed into the Earth that created the Moon as we know it today. Their submission was part of the NASA Revolutionary Aerospace Systems Concepts – Academic Linkage project, where teams from various academic institutions submitted papers focusing on the theme of Sustained Lunar Evolution for 2024.
Continue reading “A Long-Term Lunar Infrastructure Hub Named After the Object That Created the Moon”A New Mission Watches Meteoroids Hit the Far Side of the Moon
Sometimes, it’s hard to remember that Earth is constantly being bombarded by literally tons of space debris daily. The larger bits form what we know as shooting stars, and most burn up in the atmosphere. Still, throughout our planet’s history, giant versions have caused devastation unlike anything else seen on this planet. Tracking these types of objects is typically done from the Earth, but a new mission set out by researchers in Italy has a novel idea – why not try to learn more about potential impactors by watching them hit the far side of the Moon?
Continue reading “A New Mission Watches Meteoroids Hit the Far Side of the Moon”Covering an Asteroid With Balls Could Characterize Its Interior
Exploring asteroids and other small bodies throughout the solar system has gotten increasingly popular, as their small gravity wells make them ideal candidates for resource extraction, enabling the expansion of life into the solar system. However, the technical challenges facing a mission to explore one are fraught – since they’re so small and variable, understanding how to land on one is even more so. A team from the University of Trieste in Italy has proposed a mission idea that could help solve that problem by using an ability most humans have but never think about.
Continue reading “Covering an Asteroid With Balls Could Characterize Its Interior”Need to Accurately Measure Time in Space? Use a COMPASSO
Telling time in space is difficult, but it is absolutely critical for applications ranging from testing relativity to navigating down the road. Atomic clocks, such as those used on the Global Navigation Satellite System network, are accurate, but only up to a point. Moving to even more precise navigation tools would require even more accurate clocks. There are several solutions at various stages of technical development, and one from Germany’s DLR, COMPASSO, plans to prove quantum optical clocks in space as a potential successor.
Continue reading “Need to Accurately Measure Time in Space? Use a COMPASSO”Antimatter Propulsion Is Still Far Away, But It Could Change Everything
Getting places in space quickly has been the goal of propulsion research for a long time. Rockets, our most common means of doing so, are great for providing lots of force but extraordinarily inefficient. Other options like electric propulsion and solar sailing are efficient but offer measly amounts of force, albeit for a long time. So scientists have long dreamed of a third method of propulsion – one that could provide enough force over a long enough time to power a crewed mission to another star in a single human lifetime. And that could theoretically happen using one of the rarest substances in the universe – antimatter.
Continue reading “Antimatter Propulsion Is Still Far Away, But It Could Change Everything”