Updated October 2, 2026 ADRAS-J2 Has a Launcher and a Fiscal 2027 Target Astroscale's next debris-removal test is no longer a mission with an unnamed ride. On September 1, the company selected Isar Aerospace's Spectrum rocket to launch ADRAS-J2 from Andøya Space in Norway. The target is Japan's fiscal year 2027, which runs from April 2027 through March 2028. This is a planned launch window, not a completed removal or a guaranteed launch date. The spacecraft will return to the same Japanese rocket upper stage inspected by ADRAS-J. The target measures about 11 meters long and 4 meters across and weighs roughly 3 tons. Unlike a satellite fitted with a docking plate before launch, it was never designed to cooperate with a servicing vehicle. ADRAS-J2 must combine autonomous rendezvous with a robotic arm to capture and remove it. Inspection Has Ended. Capture Is Still Ahead. Astroscale announced on March 25 that ADRAS-J had completed inspection operations and begun lowering its own orbit. The company said the spacecraft had reached an altitude allowing natural decay and reentry within five years. That disposal sequence concerns the inspector, not the rocket body: ADRAS-J did not capture or remove the debris. The inspection produced information that a launch contract cannot supply. ADRAS-J conducted fly-around observations at 50 meters and approached to 15 meters. It also imaged the upper stage's payload attach fitting, the planned capture interface, and found no significant damage. That gives the follow-on mission a known structure to target instead of relying only on drawings of hardware that has spent years in orbit. The Hardware and Business Tests Are Different In its September announcement, Astroscale said ADRAS-J2 was undergoing assembly and manufacturing. Isar plans multiple Spectrum launches before the mission. The remaining sequence includes spacecraft integration and testing, delivery to the required orbit, safe approach, robotic capture, and disposal. Passing one step does not establish that the full service works. A successful government-backed demonstration would strengthen Astroscale's case for repeat debris-removal contracts. It would not, by itself, establish the cost of a routine commercial removal service. Customers still need pricing, launch availability, liability arrangements, and a repeatable operations plan. Those are separate questions from whether a robotic arm can grip one inspected upper stage. Why Cislunar Operators Should Watch ADRAS-J2 is an Earth-orbit mission, not a lunar servicing flight. Its relevance to cislunar infrastructure is the operating discipline: navigating around an uncooperative object, identifying a safe capture point, and retaining autonomous collision avoidance during close approach. Lunar servicing would require its own navigation, communications, propulsion, and safety validation. Flight experience in low Earth orbit is useful evidence, not proof that the same system is ready at the Moon. Primary sources: Astroscale launch selection, September 1, 2026 ; ADRAS-J operations completion, March 25, 2026 . In April 2013, Mitsunobu "Nobu" Okada sat through a conference in Germany where space debris dominated the conversation. Expert after expert presented the problem. Nobody had a real plan to fix it. Ten days later, he founded Astroscale. That origin story captures the company's character: impatience with talk, appetite for action. More than a decade on, Astroscale has become the world's leading dedicated on-orbit servicing company. It has flown demonstration missions, secured over $400 million in funding, gone public on the Tokyo Stock Exchange, and achieved what no commercial company had done before: approaching an actual piece of orbital debris at close range. The debris problem it set out to solve has only grown more urgent, and Astroscale is now in a position to profit from fixing it. AI-generated image Low Earth orbit is increasingly congested with defunct satellites, rocket upper stages, and debris fragments. Credit: AI illustration The Problem: A Junkyard in the Sky Earth orbit has a garbage problem. The U.S. Space Surveillance Network currently tracks approximately 35,000 objects in orbit larger than 10 centimeters, a number that has grown as launch rates hit record highs. Estimates for fragments between 1 and 10 centimeters, too small to track but large enough to destroy a satellite, run into the hundreds of thousands. Fragments under a centimeter may number in the millions. Every piece moves at roughly 17,500 miles per hour in low Earth orbit. A marble-sized fragment carries the kinetic energy of a hand grenade. The 2009 collision between an Iridium satellite and a defunct Russian Cosmos satellite generated over 2,000 trackable fragments. The 2007 Chinese anti-satellite test created more than 3,000. Both debris clouds are still up there. Scientists call the chain-reaction scenario the Kessler Syndrome, if debris density grows unchecked, certain orbital altitudes could become unusable for generations. The Scale of the Problem • ~35,000 tracked objects larger than 10 cm in orbit today • Hundreds of thousands of fragments between 1–10 cm (untrackable, lethal) • 17,500 mph average orbital velocity in LEO • 12,000+ active satellites currently operating in orbit • ~3,000 large derelict objects identified as highest-priority removal targets The irony is that the same orbital altitudes generating the debris problem are the most commercially valuable. SpaceX's Starlink, Amazon's Kuiper, GPS, weather satellites, Earth observation, most of the infrastructure humanity depends on sits in these bands. The business case for debris removal is not just environmental; it is existential for the satellite industry. Company Overview: From Singapore Startup to Global Operator 2013 Founded $400M+ Total Funding $80M Japanese Govt Grant (2023) 2024 Tokyo IPO Okada founded Astroscale on May 4, 2013, in Singapore, with a team of software engineers who would need to learn spacecraft design as they went. Headquarters later moved to Tokyo, with subsidiary offices in the UK (Harwell), US (Denver), France, and Israel. The company went public on the Tokyo Stock Exchange's Growth Market in June 2024, one of the few space debris removal companies to achieve a public listing. Funding milestones tell the story of growing institutional confidence. An initial $7.7 million round in 2015 covered early engineering. A $35 million raise in 2016 funded dedicated spacecraft designs. By 2018, total funding exceeded $100 million. A $30 million Series D extension established the Denver office. The 2023 Japanese government commitment of $80 million through 2028 provided substantial non-dilutive capital. The UK government contributed a £4 million grant to establish the National In-orbit Servicing Control Centre at Harwell, Oxfordshire. AI-generated image Astroscale's ELSA-d mission demonstrated magnetic capture and docking technology, the foundation for commercial debris removal services. Credit: AI illustration Missions: From Demonstration to History-Making Mission Launch Objective Status ELSA-d March 2021 Demonstrate magnetic capture of simulated debris in LEO Complete ADRAS-J Feb 2024 RPO inspection of real H-IIA rocket body; approached to 15m Phase 1 Complete LEXI TBD Life extension for GEO satellites via docking and propulsion assist In Development Orpheus TBD UK Dstl mission; in-orbit intelligence and SSA support In Development ELSA-d: Proving the Concept ELSA-d launched aboard a Soyuz rocket on March 22, 2021, carrying two spacecraft: a 175-kilogram Servicer and a 17-kilogram Client fitted with a ferromagnetic docking plate. On August 25, 2021, the team completed the first successful release and re-docking test. Subsequent tests demonstrated capture against a tumbling target, mimicking real debris, which rotates unpredictably. The mission concluded in January 2023. It validated the core technology stack: proximity rendezvous guidance, magnetic