
Copernical Team
The start of the birth of planets in a binary star system observed

Sol 3411: Bonanza

Esri releases updated land-cover map with new sets of global data

Sidus Space completes LizzieSat Preliminary Design Review

Satellogic to launch five satellites on SpaceX Transporter-4 Mission

AST SpaceMobile announces launch deal with SpaceX

Slingshot Aerospace raises $25M in Series A-1 Funding Round

Exploring the Rubin Observatory's giant data acquisition system

When the Vera C. Rubin Observatory starts taking pictures of the night sky in a few years, its centerpiece 3,200 megapixel Legacy Survey of Space and Time camera will produce an enormous trove of data valuable to everyone from cosmologists to the people who track asteroids that might collide with Earth.
You may already have read about how the Rubin Observatory's Simonyi Survey Telescope will gather light from the universe and shine it on the Department of Energy's LSST Camera, how researchers will manage the data that comes from the camera, and the myriad things they'll try to learn about the universe around us.
What you probably haven't read about is how researchers will get that mountain of incredibly detailed images off the back of the world's largest digital camera, down fiber optic cables and into the computers that will send them off Cerro Pachón in Chile and out into the world.
Gregg Thayer, a scientist at the U.S. Department of Energy's SLAC National Accelerator Laboratory, is the person in charge of Rubin's data acquisition system, which handles this essential process.
What would a sustainable space environment look like?

October 4, 2022, will be an auspicious day as humanity celebrates the 65th anniversary of the beginning of the Space Age. It all began in 1957 with the launch of the Soviet satellite Sputnik-1, the first artificial satellite ever sent to orbit. Since that time, about 8,900 satellites have been launched from more than 40 countries worldwide. This has led to growing concerns about space debris and the hazard it represents to future constellations, spacecraft, and even habitats in low Earth orbit (LEO).
This has led to many proposed solutions for cleaning up "space junk," as well as satellite designs that would allow them to deorbit and burn up. Alas, there are still questions about whether a planet surrounded by mega-constellations is sustainable over the long term. A recent study by James A. Blake, a research fellow with the University of Warwick, examined the evolution of the debris environment in LEO and assessed if future space operations can be conducted sustainably.
For his Ph.D. project, Blake focused on the imaging and tracking of space debris in geosynchronous Earth orbits (GEOs) around 36,000 km (22,370 mi) above the equator.
Ukraine war: How it could play out in space, with potentially dangerous consequences

Nearly three decades of close collaboration in space between Russia and the western world seems to be coming to an end. With increasing tensions over Vladimir Putin's invasion of Ukraine, Russia has arguably threatened to crash the International Space Station and refuse to launch satellites for western countries. A few months ago, Russia blew up one of its own defunct satellites, creating space junk that threatened the safety of astronauts at the ISS.
So how is the war likely to impact on operations in space going forward, and what are the consequences?
Aggression in space could directly affect boots on the grounds. Imagery from space has become a regular feature in coverage of the invasion of Ukraine, showing long columns of armor moving inexorably towards Kyiv or Kharkiv.
While chilling in its content, it has offered a boost to the embattled Ukrainian resistance by helping it work out where the enemy is, where it is coming from and how it is configured.