SpaceX completed three static fires in three days… · SpaceX Daily 🚀
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🎧 Today's episode Episode 147 · SpaceX completed three static fires in three days while rehearsing ship catches at Starbase. 2026-10-31 ▶ Listen now |
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Community Buzz@NASASpaceflight posted video of Booster 22’s 15-second static fire on Pad 2, noting the 33-engine ignition sequence and rapid turnaround between tests. Observers highlighted the visible deluge system activation and the booster’s quick rollback to the tower. The account also showed Ship 43 undergoing catch testing on the transport stand, including alignment practice with the chopsticks and stabilizers. Elon Musk posted that “something seriously wrong with Talarico,” prompting replies speculating on the reference without further context from the account. The post received immediate engagement but offered no additional details on the statement. @SciGuySpace noted that Starship’s first commercial satellite slots would likely use the Pez-dispenser mechanism once the vehicle demonstrates reliable orbital operations. The comment tied the 2029 timeframe to both technical readiness and expected regulatory clearances for rideshare missions. The CounterpointA Mississippi resident described noise from the nearby data-center plant as “torture” and stated he will not sell his home despite buyout offers tied to lawsuit waivers. The ongoing dispute centers on whether current mitigation measures adequately address low-frequency sound reaching nearby properties. Resolution would require either court-ordered changes to operations or negotiated agreements that satisfy both sides without waiving claims. The resident’s position highlights resistance to the package that links property sales to participation waivers in the air-pollution litigation. AI & ComputeGrok Bot 1.0 is now running on Cursor’s production servers, allowing developers to invoke the model inside the IDE for code tasks. The deployment follows 77 days of beta testing and integrates directly with existing Cursor workflows without affecting other marketplace extensions or Grok-related SpaceXSI products. Musk projected that orbital compute capacity deployed per month will surpass all terrestrial compute by the end of 2028 and far exceed it throughout 2029, driven by Starship-enabled satellite constellations. The forecast positions orbital platforms as the dominant source of new compute capacity within three years. Engineering Deep DiveSpaceX is addressing the thermal rejection problem for orbital data centers by sizing each AI1 satellite with 110 square meters of deployable liquid radiators that radiate from both faces while oriented knife-edge to the Sun. This geometry keeps absorbed solar flux near zero while the ammonia-loop system, backed by redundant pumps, rejects heat at roughly 1,400 W per square meter. The design supports a sustained 120 kW compute load and 150 kW peaks without duty-cycle limits that constrained earlier small prototypes. The satellite carries the equivalent of a single Nvidia GB300 server rack containing 72 GPUs and operates at approximately 600 km altitude with a density of 70 kW per ton. The approach builds on Starlink V3 thermal architecture but scales radiator area dramatically because Starship can deliver the added mass at low marginal cost. On the ground, equivalent heat rejection would require either massive air-cooled chillers or evaporative towers whose power and water demands grow with load; in orbit the only limit is radiator surface and view factor to deep space. By treating the satellite as a self-contained rack whose waste heat is rejected at the Stefan-Boltzmann limit rather than fought with compressors, the architecture collapses the usual ground-side cooling overhead. That same mass budget also accommodates the 70-meter deployed wingspan needed for both solar arrays at 250 W per square meter and the radiator panels, keeping the entire vehicle within a single Starship payload envelope. The interchangeable chip payload allows different suppliers to provide processors while the thermal and power subsystems remain fixed. This modularity reduces redesign cycles when GPU generations advance and lets the same satellite bus support multiple compute workloads. Because Starship removes the historical mass penalty on large radiators, the design can maintain continuous operation at power levels that would force terrestrial facilities into aggressive throttling or expensive infrastructure upgrades. The net result is a compute platform whose primary constraints shift from cooling infrastructure to launch cadence and orbital slot availability. Market WatchSPCX is at $134.72, -6.4% vs the previous close. That's SpaceX Daily for October 31. |
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| Issue #147 · SpaceX Daily · Oct 31, 2026 |
