- SpaceX fires off two Falcon 9 rockets in one day, lofting 56 Starlink internet satellites and notching its 130th launch of 2025 [1] [2] – a blistering pace that highlights the intensifying satellite megaconstellation race.
- Blue Origin rockets 6 more passengers to space on Oct. 8, its New Shepard’s 15th crewed flight [3], as the company preps a Mars mission launch on its new heavy rocket later this fall [4] [5].
- China plots new orbital launches and debris cleanup tech: a Long March 8A launch set for Oct. 10 [6] and a top official confirming research into removing space junk – a capability with big safety benefits and military implications [7] [8].
- Mars orbiter snaps a rare interstellar comet: European spacecraft around Mars caught sight of Comet 3I/ATLAS as it whizzed by – a faint speck 30 million km away that pushed the limits of their cameras [9] [10].
- NASA and India’s new radar satellite beams back first maps of Earth, wowing scientists with ultra-detailed views and heralding a successful U.S.-India partnership in space tech [11] [12].
- Rocket Lab inks a multi-launch deal with a Japanese startup after launching four of its satellites this year, underscoring booming demand for small rocket services [13] [14].
- U.S. experts rally against proposed NASA budget cuts, calling them an “extinction-level event” for space science that could surrender leadership to China [15] – even as global partners reaffirm peaceful Moon exploration plans.
Rapid Launch Cadence and New Missions
SpaceX’s one-day, two-coast launch blitz. SpaceX demonstrated its unprecedented launch tempo by carrying out two Falcon 9 launches on Tuesday, Oct. 7 – one from Florida before dawn and another from California that night. The first mission at 2:46 a.m. EDT from Cape Canaveral lofted 28 Starlink V2 Mini satellites into low Earth orbit, then successfully landed its booster on an Atlantic droneship [16] [17]. That flight marked SpaceX’s 126th Falcon 9 mission of the year and 130th overall launch of 2025 (counting Starship test flights) [18] – a record-smashing cadence averaging a launch every few days. Hours later, a second Falcon 9 roared off Vandenberg Space Force Base at 8:54 p.m. Pacific, delivering another 28 Starlink broadband satellites into orbit and nailing a booster landing in the Pacific [19]. Impressively, that California booster was flying for the 29th time [20], underscoring SpaceX’s aggressive reuse of rockets. Each Starlink launch expands SpaceX’s internet constellation, which now exceeds 5,000 satellites, and highlights the frenetic competition in orbiting “megaconstellations.”
Amazon’s Kuiper satellites on deck. The rapid-fire Starlink deployments come as Amazon prepares to loft its Project Kuiper satellites – a rival internet constellation. In fact, SpaceX’s next Falcon 9 launch (scheduled Oct. 9) is set to carry 24 Amazon Kuiper satellites on the program’s third mission [21]. Amazon has already placed 129 Kuiper satellites in orbit via other rockets, with thousands more planned [22]. The back-to-back launches underscore how multiple players are racing to build swarms of broadband satellites, which could transform global internet access but also crowd Earth orbit. SpaceX’s record pace – over 125 Falcon 9 flights in 2025 so far – reflects this new era of commercial space activity [23] [24]. Analysts note that such breakneck launch rates, once unheard of, may become the norm as companies vie to stake out orbital real estate for communications and imaging networks.
Blue Origin’s suborbital tourism soars. Not to be outdone, Jeff Bezos’ Blue Origin achieved a milestone crew launch on Oct. 8. The company’s New Shepard rocket (mission NS-36) carried six passengers to the edge of space from West Texas, a 10-minute suborbital hop that reached over 100 km altitude [25]. This flight – New Shepard’s 15th crewed mission and eighth just this year – reflects Blue Origin’s post-2024 rebound in space tourism flights [26]. The reusable rocket and capsule safely returned the crew (a mix of private customers and invitees) back to Earth, giving them a few minutes of weightlessness. Blue Origin has now doubled its flight rate compared to last year [27], signaling growing demand for “astronaut-for-a-day” experiences. The company also looked ahead to more ambitious endeavors: NASA announced that Blue Origin’s upcoming New Glenn rocket – a heavy-lift orbital launcher – will loft the agency’s twin ESCAPADE Mars probes later this fall [28] [29]. Media accreditation for that launch was reopened this week, as New Glenn’s second-ever flight (NG-2) is now targeted for late 2025 [30] [31]. This marks Blue Origin’s entry into interplanetary missions and highlights its rivalry with SpaceX for high-profile NASA contracts.
Rocket Lab expands its launch manifest. Smaller launch providers are also riding the space boom. U.S.–New Zealand company Rocket Lab announced on Oct. 7 a new contract to deploy three more microsatellites for Japanese firm iQPS [32] [33]. The deal will make Rocket Lab the primary launch provider for iQPS’s commercial radar satellite constellation. Four iQPS satellites have already flown on Rocket Lab’s Electron rockets in 2025, and the next dedicated mission is scheduled for November [34] [35]. “This agreement marks an important step toward the realization of our QPS-SAR constellation,” said iQPS CEO Dr. Shunsuke Onishi, after praising Electron’s reliability across the successful launches [36]. Rocket Lab’s founder Peter Beck noted that by using the company’s rockets and separation systems, iQPS benefits from a “highly-integrated launch service” that streamlines getting their satellites in orbit [37]. The multi-launch deal (for 2026 missions) brings iQPS’s total booked launches to seven with Rocket Lab [38]. More broadly, Rocket Lab has ramped up production to meet “20+ launches in 2025” as demand soars [39]. The announcement illustrates the red-hot market for small satellite launches, where firms like Rocket Lab, Virgin Orbit, and others are securing repeat customers looking for dedicated, flexible launch options.
Global launch activities – China and Russia. In Asia, China is gearing up for another orbital mission this week. State contractor CASC plans to launch a Long March 8A rocket on Oct. 10 from Wenchang spaceport, after a typhoon delayed the mission from earlier in the month [40]. Details of the payload remain under wraps – a common practice for some Chinese launches – but it will mark the fifth Long March 8A flight of 2025 and the 8th overall launch of this newer rocket family since its 2020 debut [41] [42]. China’s launch rate has been second only to SpaceX’s; by mid-year, China had conducted dozens of launches ranging from military satellites to lunar probes. (Notably, crewed missions to China’s Tiangong space station occur roughly every six months – Shenzhou-20 carried up a new astronaut trio back in April, and Shenzhou-21 is expected later this month to rotate the crew.) Meanwhile in Russia, the national space program is striving to regain momentum. Roscosmos Chief Dmitry Bakanov said in a recent briefing that 12 launches had been carried out by September and the agency aimed for “over 20 launches in 2025” [43] – an increase after several slow years. One priority is supporting the International Space Station: on Sept. 11, a Soyuz-2 rocket launched the Progress MS-32 cargo ship from Baikonur, delivering 2.5 tons of food, fuel, water, and even a new Orlan spacesuit for spacewalks [44]. This steady drumbeat of launches by multiple nations underscores how space activity worldwide is accelerating, from commercial mega-fleets to national projects. The crowded manifest also raises the importance of international coordination – and concern about orbital congestion, which world experts are urgently debating.
Scientific Missions and Cosmic Discoveries
Mars orbiters catch an interstellar comet. A remarkable cosmic cameo took place in early October: an interstellar comet from beyond our solar system zoomed past Mars, and Europe’s spacecraft were ready. Between Oct. 1 and 7, as Comet 3I/ATLAS swept within 30 million km of the Red Planet, ESA’s ExoMars Trace Gas Orbiter and Mars Express turned their cameras to track it [45]. Mission scientists weren’t sure their instruments – designed to photograph Mars’s surface a few hundred km below – could even detect this faint visitor. The comet’s core was “10,000 to 100,000 times fainter than our usual target,” explained Nick Thomas, principal investigator for the ExoMars orbiter’s camera [46]. Incredibly, ExoMars managed to capture a speck of the comet moving against the stars [47] [48]. The resulting time-lapse shows a tiny fuzzy dot – the comet’s coma (gas and dust halo) – creeping across the frame. Mars Express took shorter-exposure images that are still being analyzed for any sign of the dim interloper. Even without a clear photo from every angle, the effort is a scientific win. It’s the closest any interstellar comet has been observed by spacecraft: at closest approach on Oct. 3, 3I/ATLAS was inside Mars’s orbit, giving these probes a unique view [49]. The data will help researchers gauge the comet’s activity and composition as it nears the Sun. More observations are planned soon – Europe’s Jupiter-bound JUICE probe will even pause to observe 3I/ATLAS in November (after it slingshots past Earth), though from a much farther distance [50]. Interstellar comets like this one – only the third ever detected – are cosmic wildcards carrying clues from other star systems. Their flybys are rare opportunities: scientists compare it to briefly catching a piece of an alien world speeding through our solar system. ESA is already planning a dedicated mission (Comet Interceptor, launching 2029) to wait in space for the next visitor [51]. For now, the Mars orbiter images of 3I/ATLAS, however faint, are a proof of concept that nimble spacecraft can do extraordinary science on the fly. “It’s always extra exciting to see them responding to unexpected situations like this one,” said Colin Wilson, ESA’s project scientist for Mars Express and ExoMars, adding that the teams look forward to what the data will reveal about this intriguing interstellar wanderer [52].
First radar maps from a new NASA–India satellite. Back on Earth, a groundbreaking new eye in the sky is beginning its work. NASA and ISRO’s NISAR satellite – an advanced radar observatory launched in July – delivered its first detailed images of Earth’s surface this week [53]. The mission team released initial radar snapshots that NISAR took during its check-out phase, and they hint at the powerful insights to come. One false-color radar image, for example, depicts Maine’s Mount Desert Island in striking detail: forests appear as green patches, the town of Bar Harbor shows up bright magenta (indicating lots of buildings and bare ground), and even narrow waterways around the island are visible [54] [55]. Another radar image covers a swath of North Dakota, clearly distinguishing fallow farm fields, croplands, wetlands, and river floodplain forests by their differing radar reflections [56] [57]. These rich details are possible because NISAR’s L-band synthetic aperture radar can penetrate vegetation and detect structures as small as 5 meters [58] [59]. “These initial images are just a preview of the hard-hitting science NISAR will produce,” said Dr. Nicky Fox, head of NASA’s Science Mission Directorate, noting that the data will help track Earth’s changing land and ice with unprecedented fidelity [60]. NISAR carries two radar frequencies (L-band from NASA and S-band from ISRO) – making it the first satellite to survey Earth with dual-band radar. Once fully operational by year’s end, it will scan the entire globe every 12 days, monitoring phenomena like forest biomass, glacier movements, ground deformation, and crop growth. The mission is a $1.5 billion collaboration between the U.S. and India that has been years in the making [61] [62]. Acting NASA Administrator Sean Duffy hailed NISAR’s debut as “a testament to what can be achieved when we unite around a shared vision of innovation and discovery.” These first images, he said, show how combining strengths can drive “gold-standard science” and help the U.S. maintain its leadership as we push the boundaries of exploration [63]. Indian officials likewise celebrated the milestone, seeing NISAR as advancing Earth science and cementing a growing technological partnership. With its ability to detect subtle changes (like millimeters of land shift before earthquakes or landslides), NISAR is expected to deliver practical benefits too – from improving disaster response to managing natural resources. The successful launch and early data underscore that even amid budget battles and rivalries, international cooperation can produce cutting-edge space science that benefits all.
Space Agencies, Cooperation and Policy Moves
NASA science budget under fire. In Washington, a battle over space funding made headlines as researchers and former astronauts rallied to defend NASA’s science programs. Facing a proposed 50% cut to NASA’s science budget in the White House’s fiscal 2026 plan, 20 scientific societies and lawmakers held a “Day of Action” on Capitol Hill to urge a reversal of the cuts [64]. At a press conference outside the U.S. Capitol on Oct. 6, Planetary Society CEO (and science popularizer) Bill Nye warned that the drastic budget reduction – from $7.3 billion to $3 billion – would be an “extinction-level event” for American space science [65]. “It shatters our STEM talent pipeline. It abandons our international partners. And it risks surrendering U.S. leadership in space science to China and other nations,” Nye said emphatically [66]. Standing alongside him, Rep. Glenn Ivey – whose Maryland district includes NASA’s Goddard Space Flight Center – agreed the moment is critical: “We’re falling behind with respect to China” in science and should be expanding talent, not choking it off [67]. The timing of the rally was dramatic: as of October 1, the U.S. federal government was in a partial shutdown, forcing NASA to furlough most of its workforce. (Mission control and other essential personnel continued working without pay to keep spacecraft like the ISS safe [68] [69].) With NASA’s websites and social media frozen due to the funding lapse [70] [71], scientists lamented the chilling effect on research. Even missions in development face uncertainty – until Congress passes a budget or at least a stopgap, NASA is stuck in limbo. Both the House and Senate have rejected the extreme cut in their draft appropriations (the Senate would keep science at $7.3B, the House at $6B) [72], but final budgets remain unclear. Rally organizers urged stable investment to avoid derailing projects ranging from Earth-monitoring satellites to future space telescopes. The passionate advocacy signals how high the stakes are for NASA’s science vision, not just for discoveries but for U.S. soft power. As Bill Nye put it, star missions like the James Webb Telescope inspire the world – but only if they’re funded: “No mission, however scientifically compelling, can ignore cost constraints” and still succeed [73] [74]. By week’s end, Congress was still debating budget fixes, leaving NASA – and its international collaborators – anxiously watching.
Global unity (and rivalry) in Moon plans. Despite funding dramas at home, NASA joined international partners in a show of solidarity around lunar exploration norms. On Sept. 29 in Sydney, during the annual International Astronautical Congress, officials from dozens of countries met to reaffirm the Artemis Accords – a U.S.-led set of principles for responsible exploration of the Moon, Mars, and beyond [75] [76]. The accords, launched five years ago, now count 56 nation signatories (nearly 30% of all countries), NASA noted [77]. Acting NASA Administrator Sean Duffy highlighted the milestone and stressed the alliance’s geopolitical importance. “After five years, the coalition is stronger than ever. This is critical as we seek to beat China to the Moon – not just to leave footprints, but this time to stay,” Duffy told the gathering [78]. His candid remark underscored that even in a cooperative forum, the space race dynamic looms large. (China is not part of the Artemis Accords and is pursuing its own lunar base plans with Russia.) The Sydney meeting – co-chaired by NASA along with the Australian and UAE space agencies – discussed practical steps like avoiding harmful interference, sharing scientific data, and mitigating orbital debris [79] [80]. Australian Space Agency head Enrico Palermo said maintaining transparency and peaceful cooperation in space is “as important – if not more – as when [the accords were] first established” five years ago [81]. The United Arab Emirates, a new spacefaring nation and accords member, hosted a workshop earlier this year on space object registration beyond Earth orbit [82]. The UAE’s minister Ahmad Al Falasi told peers that their goal is to “reinforce the principles of transparency, sustainability, and innovation in space activities” and help develop a robust global framework [83]. More countries are expected to sign on in coming months [84]. The renewed commitment to the Artemis Accords during these two days highlighted a hopeful thread: even as competition intensifies – with the U.S., China, and others jockeying for the Moon – a growing community of nations is aligning on rules to keep space exploration peaceful, safe, and sustainable. This balancing act of cooperation and competition will shape humanity’s next giant leaps.
China’s space security ambitions. Another storyline making waves involved China’s efforts in orbital debris removal – and what that could mean for the balance of power in space. Speaking at the Sydney conference, CNSA Vice Administrator Bian Zhigang revealed that China is actively researching ways to “actively remove” space debris from orbit as part of a broader space sustainability push [85]. He noted China is improving its space tracking and collision warning systems, but “most importantly, we are currently researching active removal of space debris on orbit,” Bian said through an interpreter [86]. He did not elaborate on the technology or timeline, but the admission turned heads among Western analysts. Active debris removal is considered a dual-use capability: the same tech that can de-orbit a defunct satellite or spent rocket stage for cleanup could also potentially be used to grapple or disable an adversary’s satellite. No surprise, Bian’s remarks were “widely welcomed” as a contribution to orbital sustainability, and they “sparked some concerns” about military motives [87]. Just a few months ago, in June, two mysterious Chinese satellites performed a series of maneuvers in geostationary orbit that illustrate this dual potential. China’s Shijian-21 and Shijian-25 satellites rendezvoused and docked 36,000 km above Earth, apparently even conducting a fuel transfer in space – a first in GEO [88]. Notably, Shijian-21 had previously raised eyebrows for tugging a derelict satellite out of GEO in 2022, demonstrating debris-clearing skill. China provided no images or detailed updates on these latest operations [89], which took place quietly. U.S. officials have long worried that such “space tug” technology could be repurposed to kidnap or interfere with critical satellites. Chinese officials insist their goal is to reduce orbital junk and develop on-orbit servicing know-how. Indeed, China has launched experimental spacecraft tasked with techniques for refueling, inspecting, or de-orbiting satellites – part of a growing global effort (the U.S., Europe and Japan have similar projects). But military planners note that any nation capable of grabbing debris could do the same to an opponent’s satellite in wartime. It’s a classic case of ambiguous intent in space. The news from Sydney that China is formalizing a “top-level plan” for debris mitigation and removal [90] shows Beijing wants to be seen as a responsible space power addressing a common challenge. Yet it also highlights the game of shadow chess in orbit: technologies that might safeguard satellites can also threaten them. As space becomes more militarized – with the U.S. and China each testing inspection satellites and jamming capabilities – transparency will be key. Western experts say if China shares info or collaborates on debris removal, it could build trust. If not, skepticism will grow. Either way, the race for new space capabilities is clearly on. Active debris removal, once mostly sci-fi, is now an emerging reality – and the world is watching to see how China and others use it in the coming years.
Outlook: a busy and contested frontier. In just 48 hours, the flurry of news – rockets launching, deals signing, probes exploring, officials posturing – paints a vivid picture of our times. Space is busier than ever: hundreds of satellites going up each month, new players scrambling for a foothold, and scientific missions reaching farther. Collaboration and competition run in parallel. A NASA mission designed with India maps our planet in exquisite detail, while U.S. scientists fret over budget cuts that could halt the next big discovery. International allies unite behind shared principles on the Moon, even as great-power rivalry simmers in the background. Commercial companies are driving innovation, from reusable rockets to space tourism, spurred by market opportunity and national pride. And as low Earth orbit fills with spacecraft, attention is turning to how we manage the orbital commons – cleaning up debris and preventing conflict in the ultimate “high ground.” The events of Oct. 7–8, 2025 show a new space age in full swing, with all its promise and perils. In the coming weeks, expect more major launches (SpaceX’s Starship is slated for another test, and China’s next crew heads to Tiangong), diplomatic wrangling over space norms, and scientific marvels (a solar eclipse is around the corner, and astronomers are itching to use JWST for more cosmic firsts). As humanity pushes upward, each day’s headlines remind us that space is no longer a distant realm for a few superpowers – it’s a dynamic arena touching daily life, global security, and our collective future beyond Earth. The sky is no longer the limit, and the world is tuning in like never before.
Sources: Spaceflight Now; Space.com; NASASpaceFlight; NASA News Releases; ESA News; SpacePolicyOnline; Fox Weather; TASS [91] [92] [93] [94] [95] [96] [97] [98] [99] [100] [101].
References
1. www.space.com, 2. www.space.com, 3. www.nasaspaceflight.com, 4. www.nasa.gov, 5. www.nasa.gov, 6. www.nasaspaceflight.com, 7. www.space.com, 8. www.space.com, 9. www.esa.int, 10. www.esa.int, 11. www.nasa.gov, 12. www.nasa.gov, 13. rocketlabcorp.com, 14. rocketlabcorp.com, 15. spacepolicyonline.com, 16. www.space.com, 17. www.nasaspaceflight.com, 18. www.space.com, 19. www.nasaspaceflight.com, 20. www.nasaspaceflight.com, 21. www.nasaspaceflight.com, 22. www.nasaspaceflight.com, 23. www.space.com, 24. www.space.com, 25. www.nasaspaceflight.com, 26. www.nasaspaceflight.com, 27. www.nasaspaceflight.com, 28. www.nasa.gov, 29. www.nasa.gov, 30. www.nasa.gov, 31. www.nasa.gov, 32. rocketlabcorp.com, 33. rocketlabcorp.com, 34. rocketlabcorp.com, 35. rocketlabcorp.com, 36. rocketlabcorp.com, 37. rocketlabcorp.com, 38. rocketlabcorp.com, 39. rocketlabcorp.com, 40. www.nasaspaceflight.com, 41. www.nasaspaceflight.com, 42. www.nasaspaceflight.com, 43. tass.com, 44. tass.com, 45. www.esa.int, 46. www.esa.int, 47. www.esa.int, 48. www.esa.int, 49. www.esa.int, 50. www.foxweather.com, 51. www.esa.int, 52. www.esa.int, 53. www.nasa.gov, 54. www.nasa.gov, 55. www.nasa.gov, 56. www.nasa.gov, 57. www.nasa.gov, 58. www.nasa.gov, 59. www.nasa.gov, 60. www.nasa.gov, 61. www.nasa.gov, 62. www.nasa.gov, 63. www.nasa.gov, 64. spacepolicyonline.com, 65. spacepolicyonline.com, 66. spacepolicyonline.com, 67. spacepolicyonline.com, 68. www.foxweather.com, 69. www.foxweather.com, 70. www.foxweather.com, 71. www.foxweather.com, 72. spacepolicyonline.com, 73. spacepolicyonline.com, 74. spacepolicyonline.com, 75. www.nasa.gov, 76. www.nasa.gov, 77. www.nasa.gov, 78. www.nasa.gov, 79. www.nasa.gov, 80. www.nasa.gov, 81. www.nasa.gov, 82. www.nasa.gov, 83. www.nasa.gov, 84. www.nasa.gov, 85. www.space.com, 86. www.space.com, 87. www.space.com, 88. www.space.com, 89. www.space.com, 90. www.space.com, 91. spaceflightnow.com, 92. www.space.com, 93. www.nasaspaceflight.com, 94. www.nasa.gov, 95. www.space.com, 96. www.esa.int, 97. www.esa.int, 98. www.nasa.gov, 99. rocketlabcorp.com, 100. spacepolicyonline.com, 101. www.nasa.gov