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SpaceX was awarded an eight-launch, $733 million contract by the U.S. Space Force on Friday, as part of an ongoing program intended to foster competition among launch providers.

The award includes seven launches for the Space Development Agency and one for the National Reconnaissance Office, all anticipated to use Falcon 9s and occur no earlier than 2026.

The massive new contract is part of a U.S. Space Force Space Systems Command (SSC) program with the catchy name of “National Security Space Launch Phase 3 Lane 1.” This third round of contracts was split into two lanes last year: Lane 1, for lower-risk missions and near-Earth orbits; and Lane 2, for heavy-lift missions and the more demanding orbits.

In the future, there could be a spacecraft capable of maneuvering with unprecedented speed and agility, without the constraints of limited fuel.

The U.S. Space Force has provided funding of $35 million to create a new spacecraft that can “maneuver without regret.”

The University of Michigan is leading a team of researchers and institutions to develop this advanced spacecraft.

Earth’s magnetic field dramatically flipped a little more than 40,000 years ago. We can now experience this upheaval as an unnerving clatter interpreted from information collected by the European Space Agency’s Swarm satellite mission.

Combining the satellite data with evidence of magnetic field line movements on Earth, European geoscientists mapped the so-called Laschamps event and represented it using natural noises like the creaking of wood and the crashing of colliding rocks.

The resulting compilation from the Technical University of Denmark and the German Research Center for Geosciences is unlike anything you’ve ever heard.

The system that produced this outburst is referred to as CXOU J005245.0–722844. It was recently identified by members of the Einstein Probe team and confirmed by the Swift team as the seventh-known example of a Be/White Dwarf X-ray binary. Be/White Dwarf binaries are binary systems in which a white dwarf star orbits a hot young star surrounded by a disk of stellar material. Astronomers expect these binaries to be commonly observed, Gaudin said, and the lack of known examples is a mystery.

“Novae are explosions that happen when material from a nearby star is deposited onto the surface of a white dwarf,” Gaudin said. “After enough material has been built up, the surface undergoes rapid thermonuclear fusion which creates the outburst. Most are events that reach moderate luminosities and decay over the course of several weeks. This nova is strange not just in its extremely luminous behavior but also in its short duration.”

The thermonuclear reaction during the nova is similar to a massive hydrogen bomb exploding—the explosion produces that can be seen by telescopes on Earth and in orbit around Earth. According to the researchers, the nova was visible at optical wavelengths, or , for just under a week and in X-rays for just under two weeks.

“One option could be to have astronauts use this simulation to prepare for upcoming lunar exploration missions,” said Joe Louca.


How will future missions to the Moon help extract valuable resources that can be used for scientific research or lunar settlement infrastructure? This is what a recent study being presented this week at the IROS 2024 (IEEE/RSJ International Conference on Intelligent Robots and Systems) hopes to address as a team of researchers from the University of Bristol investigated how a combination of virtual simulations and robotic commands could help enhance teleoperated robotic exploration on the lunar surface on future missions.

For the study, the researchers used a method called model-mediated teleoperation (MMT) to create simulated regolith and send commands to a robot that carried out the task. In the end, the researchers found effectiveness and trustworthiness of the simulated regolith to the robot conducting the tasks was 100 percent and 92.5 percent, respectively. The reason teleoperated robots are essential is due to the time lag between the Earth and the Moon and extracting resources from the lunar surface, known as in-situ resource utilization (ISRU), is also being deemed an essential task at developing lunar infrastructure for future astronauts.

Ready to set another industry record!


New multi-launch agreement between Firefly Aerospace and True Anomaly includes three Alpha missions to provide rapid launch capabilities for Tactically Responsive Space mission sets

Cedar Park, Texas, October 17, 2024Firefly Aerospace, Inc., an end-to-end space transportation company, and space defense technology company True Anomaly, Inc., today announced a multi-launch agreement for three responsive launch missions aboard Firefly’s Alpha rocket. The first mission will deploy the True Anomaly Jackal Autonomous Orbital Vehicle (AOV) for the U.S. Space Force Space Systems Command’s VICTUS HAZE Tactically Responsive Space (TacRS) mission targeted for 2025. The two additional missions are available for execution between 2025 and 2027.

“VICTUS HAZE is an exemplar for how strong partnerships between the U.S. government and an exceptional industry team can create asymmetric capabilities at record speeds,” said Even Rogers, CEO of True Anomaly. “Firefly Aerospace has consistently demonstrated innovation and agility in the rapidly evolving landscape of responsive space launch logistics and space vehicle deployment. We are confident that they will build on their track record from VICTUS NOX, enabling True Anomaly to deploy the Jackal Autonomous Orbital Vehicle for VITCUS HAZE. The procurement of additional rapid, responsive launch capacity from Firefly beyond VICTUS HAZE, paired with True Anomaly’s rapid manufacturing capability will enable standing capacity for the U.S. National Security Space enterprise to rapidly respond to mission requirements in Low Earth Orbit and Medium Earth Orbit.”

The Haven-1 project has an ambitious schedule, as its development and preparation for launch are planned to be completed in the second half of 2025. The Vast team includes experienced professionals, particularly former NASA astronaut Andrew Feistel, who provides advice on optimizing the module’s design.

“After three missions to space, we will use our experience to create a comfortable environment on the station. It is important to consider all aspects, from communications and private space to support crew work and scientific progress,” said Andrew Feistel.

Haven-1 is characterized by its minimalist design. Most of the equipment is hidden behind panels, and interior details such as fireproof elements made of maple veneer add coziness to an environment that is normally sterile.