Connect with us

Published

on

A cargo-return technology developed by Germany-based Atmos Space Cargo is set to undergo its first in-space test with an upcoming SpaceX mission. The company’s Phoenix capsule will be launched aboard the Bandwagon 3 rideshare mission, scheduled for no earlier than April. The capsule has been designed to facilitate the safe return of high-value materials from orbit, particularly benefiting the biomedical sector. The test mission aims to gather crucial data on the capsule’s subsystems, onboard payloads, and reentry performance.

Mission Objectives and Scientific Payloads

According to reports, the Phoenix capsule will carry four payloads, including a radiation detector from the German Aerospace Center (DLR) and a bioreactor from UK-based Frontier Space. The mission’s primary goals include testing Phoenix’s performance in orbit, evaluating data from customer experiments, and deploying its proprietary inflatable atmospheric decelerator (IAD) for reentry stabilisation. This technology, acting as both a heat shield and parachute, is intended to enable a controlled descent back to Earth.

Challenges in Returning Space Cargo

Industry experts highlight that while the cost and complexity of launching experiments into space have been reduced, bringing them back to Earth remains a challenge due to high costs, long turnaround times, and technical difficulties. Atmos Space Cargo has positioned Phoenix as a cost-effective and reliable solution for returning biomedical samples, microgravity-manufactured materials, and other sensitive payloads.

Future Prospects and Industry Impact

Despite expectations that Phoenix will not survive its debut mission, the collected data will contribute to future improvements. Larger iterations of the capsule are planned to carry heavier payloads, including potential returns of rocket stages. Advisory board member and former NASA Deputy Administrator Lori Garver has stated that advancements in reusable and affordable cargo return technology are critical for the future of orbital space operations. The initiative aligns with broader efforts to enhance accessibility to in-space manufacturing and research.

Continue Reading

Science

Rocket Lab’s Neutron Rocket to Land at Sea, First Launch Set for 2025

Published

on

By

Rocket Lab’s Neutron Rocket to Land at Sea, First Launch Set for 2025

Rocket Lab has confirmed that its reusable Neutron rocket is set for its first launch in the latter half of 2025. The announcement was made during the company’s earnings call on 26 February, where Peter Beck, Founder and CEO, outlined plans to address increasing demand for medium-lift launch services. He stated that rapid development efforts are underway to bring the rocket online as quickly as possible. The Neutron rocket has been designed to serve defence, security, and scientific missions, filling a gap in the market where launch options remain limited. A new offshore barge, named “Return on Investment,” is set to be used for rocket recovery, expanding mission possibilities.

Sea-Based Landing Platform Revealed

According to Rocket Lab, a modified offshore barge will be utilised as a landing platform for the Neutron rocket’s recovery. Peter Beck highlighted that this addition will enhance operational flexibility by allowing for greater mission efficiency. The company aims to improve accessibility to space while ensuring the maximum performance of Neutron’s capabilities.

Flatellite: Rocket Lab’s New Satellite Platform

Rocket Lab has also introduced “Flatellite,” a flat satellite system engineered for large-scale deployment. Sources have reported that these satellites will be manufactured in high volumes to support large constellations. The design enables efficient stacking, allowing for multiple satellites to be launched together, optimising payload capacity. Peter Beck stated that this initiative aligns with Rocket Lab’s vision of establishing an end-to-end space service, extending its role beyond launch services to satellite operations.

Electron Launches Continue

Rocket Lab’s Electron rocket remains active, with an upcoming launch scheduled for this month. Reports indicate that an agreement has been signed with the Japanese company Institute for Q-shu Pioneers of Space (iQPS) for multiple missions over the next two years. According to Shunsuke Onishi, CEO of iQPS, the reliability and frequency of Electron missions align with their objectives for building a satellite constellation.

Continue Reading

Science

Boeing Starliner Astronauts Set To Return on March 16 After 10-Month ISS Stay

Published

on

By

Boeing Starliner Astronauts Set To Return on March 16 After 10-Month ISS Stay

A mission initially planned for ten days has stretched into nearly ten months, with two NASA astronauts finally set to return to Earth. Astronauts Barry Wilmore and Sunita Williams, who launched aboard Boeing’s Starliner on June 5, 2024, were meant to conduct a short-duration test flight to the International Space Station (ISS). However, issues with the spacecraft resulted in their prolonged stay. Their return is now scheduled for March 16, 2025, following the arrival of their relief crew.

Details of The Return

According to NASA’s flight schedule, Starliner was originally expected to bring the astronauts back, but after assessing its performance, the decision was made to return it uncrewed in September 2024. As reported, NASA instead adjusted its crew rotation plan, allocating seats for Wilmore and Williams on the SpaceX Crew Dragon, which launched as part of Crew-9. The return mission was initially scheduled for February but was delayed further due to operational constraints. The ISS program has now confirmed that their journey back will take place this month.

Crew-10 Mission Prepares for Launch

Four astronauts are set to launch aboard SpaceX’s Crew-10 mission on March 12, 2025, from Kennedy Space Center in Florida. The mission, commanded by NASA astronaut Anne McClain, includes pilot Nichole Ayers, Japan Aerospace Exploration Agency (JAXA) astronaut Takuya Onishi, and Roscosmos cosmonaut Kirill Peskov. Their arrival at the ISS will facilitate the Crew-9 team’s return, including Wilmore and Williams.

Adjustments in Spacecraft Selection

NASA officials have confirmed that Crew-10 will travel aboard the previously flown Dragon capsule, Endurance. The switch from a newly manufactured spacecraft was prompted by battery-related delays, leading to the decision to use a flight-proven alternative. Steve Stich, NASA’s Commercial Crew Program manager, stated during a briefing that changes in vehicle assignments are a routine part of mission planning.

Continue Reading

Science

ISS Captures Rare Gigantic Jet, a Massive Upward Lightning Over New Orleans

Published

on

By

ISS Captures Rare Gigantic Jet, a Massive Upward Lightning Over New Orleans

A rare “gigantic jet” of lightning was captured in a newly released image taken from the International Space Station (ISS). The photograph, dated November 19, 2024, shows a powerful discharge of blue light extending from a thunderstorm, likely reaching around 50 miles (80 kilometers) above Earth’s surface. The image, originally not publicised by NASA or any other space agency, surfaced after photographer Frankie Lucena identified it on the Gateway to Astronaut Photography of Earth website. The striking phenomenon was later shared by Spaceweather.com on February 26, bringing renewed attention to these elusive atmospheric events.

Gigantic Jet Confirmed by Analysis

According to reports, the ISS had captured four photographs of lightning around the time of the event, with only one displaying a clear upward-shooting jet. The exact location of the phenomenon remains uncertain due to cloud cover, but ISS tracking data suggests it likely occurred just off the coast of New Orleans. Gigantic jets are rarely observed, with only a limited number of documented cases since their discovery in 2001.

How Gigantic Jets Form

These towering lightning bolts occur when electrical charge distributions within a thunderstorm are disrupted, causing energy to be released upwards rather than toward the ground. The distinctive blue hue results from interactions with nitrogen in the upper atmosphere. Most gigantic jets extend into the ionosphere, the electrically charged layer of Earth’s atmosphere starting around 50 miles above the surface.

Energetic Nature of Upward Lightning

Previous studies have shown that gigantic jets can carry significantly more energy than standard lightning bolts. A record-breaking event over Oklahoma in May 2018 was found to have 60 times the energy of an average strike. In addition to the main jet, faint branching red discharges, similar to sprites, can be seen in the recent ISS image, highlighting the complexity of these high-altitude electrical events.

Continue Reading

Trending