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Orbital Secures $5M Seed to Pioneer Space‑Based AI Compute Orbital, a startup spun out of a16z's Speedrun accelerator in May, announced a $5 million seed round led by a roster of venture firms including Basis Set, Human Element, Wayfinder, Antler, and others. Founder and CEO Euwyn Poon, who previously built and sold e‑scooter company Spin to Ford, will use the capital to develop a prototype satellite that runs AI inference workloads in space. Lead investors: Basis Set, Human Element, Wayfinder, Antler, Anti Fund, Ascent, Rubik, Zero Knowledge Ventures, LYVC, Feld Ventures, New Legacy, FNDR, UpHonest, Asterisk. Team size: ~12 engineers in Los Angeles with backgrounds at Amazon LEO, SpaceX, Northrop Grumman. Immediate milestone: Demo flight of an Nvidia Blackwell chip on a partner satellite to validate radiation shielding and thermal management. Funding Breakdown and Projected Capital Needs The seed round provides the runway for hardware development, satellite integration, and a 2028 demonstration launch. While the $5 million covers early‑stage R&D;, Poon and investors acknowledge that scaling to a full constellation could require $5 billion over the next decade, a timeline that venture capitalists are increasingly comfortable with. Implications for AI Compute Landscape and Space Launch Economics Orbital’s strategy hinges on the economics of SpaceX’s upcoming Starship. Current launch costs with the Falcon 9 make space‑based data centers “not economically feasible,” but a fully reusable Starship could lower per‑kilogram costs enough to justify a distributed gigawatt of compute power. The company aims for 10,000 satellites, each delivering 100 kW of power, comparable to Elon Musk’s target of 150 kW per AI satellite and rival Starcloud’s planned 200 kW units. Roadmap to 2028 Demo Flight and Long‑Term Constellation Goals Key upcoming milestones: 2026‑2027: Complete radiation‑shielding and thermal‑management prototypes; secure a launch slot on a partner satellite. 2028: Conduct the first flight carrying an Nvidia Blackwell chip, demonstrating in‑orbit inference capability. Post‑2028: Incrementally launch satellites to generate revenue per unit, mirroring Starcloud’s “piece‑wise inference” model, while awaiting Starship’s commercial availability for full‑scale deployment. Even if Starship’s timeline slips, competitors like Cowboy Space Company and Blue Origin are exploring alternative launch solutions, underscoring a broader industry push toward space‑based AI infrastructure. Long‑Term Outlook: A Decade‑Scale Bet on Space‑AI Fusion Analysts see Orbital’s ambition as a “10‑year, $5 billion” play that aligns with the growing demand for AI compute and the desire to bypass terrestrial constraints such as cooling and regulatory reviews. If successful, the venture could reshape the AI hardware supply chain, create a new market for satellite‑hosted GPUs, and validate the economic case for large‑scale, space‑borne data centers.

The Historic Artemis II SplashdownThe Artemis II mission concluded with a spectacular splashdown in the Pacific Ocean, marking a pivotal moment in humanity's return to crewed lunar exploration. NASA's Orion spacecraft, carrying a crew of four astronauts, successfully completed its journey around the Moon and returned to Earth, demonstrating the capabilities of the agency's deep space exploration systems.Technical Breakthroughs in the MissionThe Artemis II mission showcased several technological advancements that will be crucial for future lunar and deep space missions. The Orion spacecraft's heat shield withstood re-entry temperatures of up to 5,000 degrees Fahrenheit, protecting the crew during their descent. The mission also tested new navigation systems and communication protocols that will enable future missions to operate farther from Earth than ever before.Mission Statistics and AchievementsTotal mission duration: 10 daysDistance traveled: approximately 1.4 million milesOrbital altitude around Moon: 80 milesFirst crewed mission to orbit the Moon since Apollo 17 in 1972First woman and first person of color to travel to lunar orbitImpact on Global Space ExplorationThe success of Artemis II represents a significant shift in international space cooperation and competition. While NASA leads the mission, contributions from international partners including ESA, JAXA, and CSA highlight the collaborative nature of modern space exploration. This mission sets the stage for Artemis III, which will land the first woman and next man on the lunar surface, potentially establishing a sustainable human presence on the Moon.Future of Lunar ExplorationFollowing the success of Artemis II, NASA is accelerating its timeline for Artemis III, which aims to land humans on the Moon by 2028. The agency is also developing plans for Artemis Base Camp, a sustainable lunar habitat that will serve as a foundation for future Mars missions. The long-term vision includes establishing a lunar economy through mining operations, tourism, and scientific research, with the Moon serving as a stepping stone for deeper space exploration.

Google’s $920 Million‑Per‑Month Compute Agreement with SpaceXIn a regulatory filing dated June 5, 2026, SpaceX disclosed a new partnership with Google that will see the search‑engine giant paying $920 million per month for AI‑compute capacity starting October 2026 and running through June 2029. The arrangement adds a second marquee customer to SpaceX’s emerging data‑center business just days before the company’s historic IPO.Deal Structure: Timeline, Hardware, and Financial TermsStart date: October 2026End date: June 2029 (36 months)Hardware: Approximately 110,000 NVIDIA GPUs, CPUs, memory, and ancillary componentsMonthly fee: $920 millionCancellation clause: Either party may terminate with 90‑day notice after December 31, 2026The filing does not specify which SpaceX data centre will host Google’s workload, though industry observers note the company’s “Colossus 2” facility is earmarked for its own xAI initiatives.Financial Scale: $920 Million Monthly vs. Anthropic’s $1.25 BillionGoogle’s commitment is roughly half the monthly spend Anthropic agreed to in its own SpaceX contract ($1.25 billion per month). Both deals lock in access to the same pool of compute at SpaceX’s Memphis‑area data centre, but Google’s agreement reflects a more modest share of the total capacity.Total spend for Google: $33.12 billion over the contract termTotal spend for Anthropic (projected): $45 billion over a similar horizonStrategic Implications for AI Infrastructure and Market CompetitionThe partnership underscores Google’s need for “bridge capacity” to satisfy surging demand for its newly launched Gemini Enterprise agent platform. By tapping SpaceX’s high‑density GPU farms, Google can augment its own cloud offering without waiting for internal hardware roll‑outs.For SpaceX, the deal diversifies revenue streams ahead of the IPO, positioning the company as a credible AI‑compute provider alongside traditional hyperscalers. It also deepens the financial ties between SpaceX and Alphabet, whose stake in the rocket firm is projected to exceed $100 billion post‑IPO.What the Deal Signals for Future Cloud‑Compute PartnershipsAnalysts view the agreement as a bellwether for a broader trend: tech giants increasingly leasing external, high‑performance compute rather than building it in‑house. The 90‑day termination window after 2026 gives both parties flexibility, suggesting the contract is a short‑term stopgap while Google scales its own hardware pipeline.Looking ahead, the collaboration could pave the way for more ambitious projects, such as the rumored “orbital data centres” that would combine SpaceX’s launch capability with Google’s cloud services, potentially reshaping the geography of AI compute.

The Lead: Emergency Protocol Activated on Space StationThe United States space agency, NASA, has ordered astronauts on board the International Space Station (ISS) to prepare for possible evacuation as a Russian crew attempts to repair worsening air leaks. This precautionary measure highlights the ongoing challenges of maintaining a decades-old orbital facility and the delicate balance of international cooperation in space exploration.The Technical Challenge: Persistent Leaks in Zvezda ModuleThe air leak originates in the Zvezda service module tunnel, part of the Russian section of the space station. According to NASA spokesperson Bethany Stevens, this area has "suffered from cracks and leaks for some time." Despite previous mitigation efforts by Roscosmos, the Russian space agency, the situation has deteriorated, prompting a more extensive repair operation scheduled for Friday, June 5, 2026.Crew Response: Preparing for ContingencyAs a safety precaution, NASA has directed all four of the agency's SpaceX Crew-12 members and NASA astronaut Chris Williams to assume an elevated safety posture in the Dragon spacecraft while the repair is underway. The Crew-12 consists of two U.S. astronauts, one French astronaut, and one Russian astronaut. This evacuation preparation ensures that the crew can quickly depart the station if the leak worsens during the repair process.International Implications: ISS Operations Under ScrutinyThe ISS, launched in 1998 and operated by five international space agencies (NASA, Roscosmos, Europe, Japan, and Canada), relies on seamless cooperation between these entities. The current situation places additional strain on the already complex relationship between NASA and Roscosmos, particularly as both nations navigate geopolitical tensions on Earth. The successful resolution of this technical challenge will be crucial for maintaining trust in the joint operations of the space station.Future Outlook: Aging Infrastructure and Long-Term ViabilityWith the ISS now approaching three decades of continuous human presence in orbit, incidents like this highlight the challenges of maintaining aging infrastructure in the harsh environment of space. As NASA and its international partners plan for the future of human spaceflight, this incident may accelerate discussions about extending the ISS operational timeline or transitioning to next-generation space stations. The successful management of this crisis will provide valuable insights for future long-duration space missions, including those planned for lunar and Martian exploration.

The Record‑Breaking IPO PlanSpaceX filed paperwork on 4 June 2026 to launch an initial public offering that could value the company at $1.78 trn, eclipsing the 2019 Saudi Aramco float. The filing outlines a primary raise of $75 bn, with an optional increase to $86 bn if underwriters exercise their share‑sale option.Financial Snapshot: Valuation vs RevenueNet loss in 2025: $4.94 bnRevenue 2025: $18.67 bn (up 33% YoY)Proposed valuation multiple: > 90× annual revenueBy contrast, Morningstar’s discounted‑cash‑flow model places the firm at roughly $780 bn, less than half of the IPO price.Market Reaction and Overvaluation WarningsMorningstar’s senior analyst Michael Hewson called the valuation “significantly overvalued,” suggesting investors may find “more attractive levels after the IPO.” The firm’s warning highlights the gap between the proposed price and traditional profit‑based multiples.“We think the company has been significantly overvalued and investors will have opportunities to buy the stock at more attractive levels after the IPO.” – MorningstarImplications for the Space Economy and InvestorsListing would give SpaceX fresh capital and provide “exit liquidity” for insiders, allowing pension funds and index trackers to acquire stakes in Musk’s broader ambitions, including orbital AI data centres and the Starlink network.Outlook: What Could Happen After the Float?Analysts warn that the lofty price could deter participation, risking an undersubscribed offering. If the IPO proceeds, the company could join the Nasdaq, further legitimising the commercial space sector, but the long‑term price trajectory will hinge on whether revenue growth can close the gap to the $1.78 trn benchmark.

Funding Surge Powers Impulse Space’s Workforce DriveImpulse Space announced a $500 million Series D financing round aimed primarily at expanding its talent pool rather than investing in AI tools. The capital will support the hiring of as many as 200 new employees across engineering, structures, and flight software.Series D Details and Investor LineupThe round was led by 137 Ventures and BANNER VC, with participation from Founders Fund, Lux Capital, and Linse Capital. The backing reflects growing investor appetite for space and defense technologies as the U.S. government ramps up spending on national security challenges.Lead investors: 137 Ventures, BANNER VCParticipating investors: Founders Fund, Lux Capital, Linse CapitalFunding round: Series D, $500 millionFinancial Scale and Hiring TargetsThe infusion brings Impulse’s total capital to a level that can sustain a rapid hiring sprint. The company plans to add up to 200 engineers and specialists, targeting locations beyond traditional aerospace hubs, including a new office in Colorado.Current workforce: ~13 employees (as of early 2026)Planned increase: +200 employeesGeographic expansion: Los Angeles, Seattle, Denver, Texas, ColoradoStrategic Implications for U.S. Space Defense MarketImpulse’s focus on in‑space mobility—through its Mira maneuverable platform and the upcoming Helios high‑orbit delivery vehicle—positions it as a key supplier for the U.S. Space Force. The funding signals confidence that private firms can meet emerging defense‑related launch and satellite‑deployment needs.Target customers: U.S. Space Force, defense contractorsKey products: Mira spacecraft, Helios orbital delivery vehicleMarket trend: Increased government spending on space‑based security assetsOutlook: Upcoming Mira Mission and Future GrowthThe next milestone is a new Mira flight slated for launch before the end of 2026, following a third‑flight test that experienced a navigation‑system propellant issue. Successful execution will validate Impulse’s engineering roadmap and help attract further contracts.Recent flight: Third Mira mission (late 2025) – navigation glitchPlanned launch: New Mira mission – Q4 2026Long‑term goal: Scale vehicle production and secure recurring defense contracts

The Lead: China's Bold Leap into Long-Duration SpaceflightChina has launched its Shenzhou-23 mission in which an astronaut will spend a full year in orbit for the first time, a crucial step in Beijing's ambition to send humans to the moon by 2030. The Long March 2-F rocket lifted off from the Jiuquan launch centre in north-western China on Sunday, carrying three astronauts to the Tiangong space station.The Mission Details: Historic Crew CompositionThe mission marks the first spaceflight ever undertaken by an astronaut from Hong Kong: Lai Ka-ying, 43, who previously worked for the territory's police. The other crew members are the space engineer Zhu Yangzhu, 39, and the former air force pilot Zhang Zhiyuan, also 39, who will be travelling into space for the first time.The Scientific Objectives: Preparing for Deep SpaceThe crew is expected to undertake numerous scientific projects in life sciences, materials science, fluid physics and medicine. A key experiment will be the full-year stay in orbit by one of the crew to study the effects of a long stay in microgravity, part of China's preparations for future lunar and possible Martian missions.Richard de Grijs, an astrophysicist and professor at Macquarie University in Australia, said the main challenges would be long-term effects on humans, including bone density loss, muscle wasting, radiation exposure, sleep disturbance and behavioural and psychological fatigue. He also underlined the importance of reliable water and air-recycling systems and the ability to manage potential medical emergencies far from Earth.The Lunar Ambitions: China's Moon RoadmapThe Shenzhou-23 mission is part of China's goal to land astronauts on the moon before 2030 in a race with Nasa's Artemis programme. Beijing is also testing the equipment required to reach its goal, with an orbital test flight of its Mengzhou spacecraft set for 2026. It will replace the ageing Shenzhou line and will carry China's astronauts to the moon.China hopes to have built the first phase of a manned scientific base, known as the International Lunar Research Station, by 2035. It also plans to welcome its first foreign astronaut, from Pakistan, to the Tiangong station by the end of this year.The Global Context: China's Space Program EvolutionBeijing has significantly expanded its space programmes over the last 30 years, injecting billions of dollars in a push to catch up with the US, Russia and Europe. It landed the Chang'e-4 probe on the far side of the moon, a world first, in 2019, and a rover on Mars in 2021.China has been formally excluded from the International Space Station since 2011, when the US banned Nasa from collaborating with Beijing, prompting it to develop its own space station project. This isolation has accelerated China's indigenous space capabilities, making the Shenzhou-23 mission a milestone in both scientific achievement and geopolitical space competition.

On 15 May, **BioOrbit** launched its compact **Box‑E** payload aboard a **SpaceX** rocket, beginning a six‑week orbital trial to grow ultra‑pure protein crystals for self‑injectable cancer therapies. Box‑E’s Orbital Test: Microgravity Enables Ultra‑Pure Protein Crystals The microwave‑sized unit will float aboard the International Space Station, where microgravity eliminates the disruptive effects of Earth’s gravity on crystal formation. The resulting crystals are more stable, allowing drug formulations that are impossible to achieve on the ground. Mission duration: ~6 weeks in orbit Target output: thousands of litres of fluid per box per year Goal: Produce cancer‑drug crystals that can be stored in a fridge and self‑injected £9.8 Million Funding Round and UK Space Agency Contract Last month **BioOrbit** closed a **£9.8 million** Series A round led by **LocalGlobe** and **Breega**, earmarked for the orbital test and scaling of the hardware. Earlier in March the company secured a **£250,000** contract from the UK Space Agency to manufacture drugs in microgravity. Potential Disruption of Cancer Treatment Delivery Current immunotherapies such as Merck’s **Keytruda** require lengthy IV infusions in hospitals. By crystallising the active protein, **Box‑E** could enable high‑concentration, low‑viscosity formulations suitable for pen‑injectors, reducing treatment time from hours to minutes and extending shelf‑life. Roadmap to Commercialisation and Market Size **BioOrbit** projects that, if orbital tests succeed, multiple **Box‑E** units could be stacked to meet the demand of a blockbuster drug within a handful of boxes. The company estimates a market of **$22.7 trillion** for in‑space manufacturing across sectors, with pharmaceuticals a key segment. Clinical trials and regulatory approval are expected to take at least five years before the new formulations reach patients. Future Outlook for Space‑Based Pharma Beyond cancer, the crystallisation platform could be applied to the roughly 70 % of top‑selling drugs that are currently administered intravenously. Partnerships with major pharma groups are already being explored, and competitors such as **Varda Space Industries** are also pursuing in‑orbit drug processing, signaling a burgeoning industry.

Harvey’s Vision for Pym’s Classic Samantha Harvey’s adaptation of Barbara Pym’s novel arrives at the Arcola Theatre with the weight of literary prestige. Harvey, who won the Booker Prize in 2024 for Orbital, takes on the challenge of translating the book's rich interiority into a stage performance. The production focuses on four central characters—Edwin, Letty, Marcia, and Norman—who form a complex web of relationships as they approach retirement. The Cast and Directorial Choices Anthony Calf plays Edwin, a pragmatic widower finding solace in church life. Kate Duchêne portrays Letty, who fears solitude as her best friend enters a romance. Pooky Quesnel brings a neurotic intensity to Marcia, who becomes obsessed with a doctor. Paul Rider is Norman, a blunderer whose deadpan humor rivals The Office. Director Dominic Dromgoole emphasizes the characters' quirks, using Ellie Wintour’s chunky knits and oversized specs to ground the piece in the 1970s, while the set design of facing desks creates a claustrophobic yet intimate office environment. Enduring Relevance of Pym’s Themes One of the most striking aspects of this production is its uncanny ability to feel contemporary. Despite being written in the 1970s, the characters' anxieties regarding rising heating costs and the threat of computerized technology are strikingly familiar to modern audiences. The play captures the "infinite possibilities" of life after work, offering a poignant look at how we define ourselves outside of our professional identities. Outlook for Literary Adaptations The success of Quartet in Autumn suggests a growing appetite for stage adaptations that prioritize character study over spectacle. By stripping away peripheral characters to focus on the quartet's internal monologues, the production validates the idea that literary fiction can thrive on stage when given the right directorial care.