Space Exploration Technologies Corp. (NASDAQ: SPCX) has reshuffled its data-center leadership following engineering concerns and reliability problems at facilities in Tennessee and Mississippi, The Information reported Tuesday.

The leadership changes come as Elon Musk races to expand SpaceX’s AI infrastructure business ahead of a Sep. 30 capacity deadline tied to Google’s $920 million-a-month compute deal.

Leadership Changes and Operational Risks

Jake Palmer, who led physical infrastructure for SpaceXAI, left in late July alongside several other data-center executives. SpaceX veterans from its rocket and Starlink businesses have since taken larger roles in the operation.

Some facilities operated for months without backup cooling and power systems. The Macrohard facility relied on more than 100 mobile chillers and recorded uptime well below an internal target of 99.9%. Temporary power and cooling systems contributed to outages that interrupted AI model training.

Execution pressure has also surfaced elsewhere. Mississippi regulators allowed temporary gas turbines to operate longer than planned after supply-chain problems delayed 41 permanent units.

Regulatory Disclosures and Capacity

Weeks before the latest shake-up, SpaceX added a specific AI infrastructure risk factor to its Aug. 4 quarterly filing. The company said its cloud business depends on reliable data center operations and timely development, identifying construction delays, workforce turnover, power constraints and equipment shortages as risks that could delay capacity or disrupt service.

SpaceX had 1.4 gigawatts of compute capacity at the end of June, up from 0.4 GW a year earlier. The company spent about $15.8 billion on AI infrastructure during the second quarter.

Major Commercial Deals

This strategy has translated into significant revenue contracts for SpaceXAI:

Alphabet Inc.’s Google agreed to pay SpaceX $920 million per month at full capacity for access to roughly 110,000 Nvidia Corp. GPUs. SpaceX must deliver the committed GPUs by Sep. 30. After a one-month grace period, Google can terminate the agreement or accept fewer GPUs and reduce payments proportionately if SpaceX falls short.

SpaceX is also developing a 1.2-gigawatt permanent power plant near its Greater Memphis supercomputer sites. The company plans to retire temporary mobile turbines as this permanent capacity comes online, though Musk noted temporary turbines will remain until 2027.

What the Numbers Show

The disclosed deal values highlight a shift from pure hardware sales to high-value service contracts. The combined monthly commitments from Google ($920 million) and Anthropic ($1.25 billion) total $2.17 billion per month. This recurring revenue model underscores the financial scale of SpaceX’s entry into the AI infrastructure market, driven directly by the scarcity of reliable power for competitors.

However, the operational challenges present a divergence between rapid capital expenditure and service reliability. With $15.8 billion spent in Q2 alone to grow capacity from 0.4 GW to 1.4 GW, the company is leveraging massive investment to meet tight contractual deadlines. The reliance on temporary mobile chillers and turbines suggests that while capacity is scaling quickly, the stability required for high-uptime AI training remains a work in progress.

Broader Industry Context

The electricity crunch extends beyond SpaceX’s operations. Lawrence Berkeley National Laboratory estimates that U.S. data centers could consume 11.8% of national electricity by 2030, with scenarios ranging from 9.5% to 15.3%.

Musk also criticized European Union technology rules during his address, stating that the regulatory approach "inhibits progress" in the sector.

Anthropic has overtaken SpaceX as prediction market traders’ favorite to have the largest IPO of 2026. Traders now put Anthropic at 59% versus SpaceX at 40%, with about $5.8 million traded.

Space Exploration Technologies Corp. (NASDAQ: SPCX) is targeting September 15 for Starship Flight 14, a mission that marks the rocket’s first attempt at an orbital trajectory and the start of sustained Starlink V3 deployments.

A Federal Communications Commission filing lists September 15 as the requested start date for communications related to Flight 14. The document specifies that the mission includes an "orbital second stage," distinguishing it from previous suborbital test flights. SpaceX has not formally announced the launch date, so the target remains subject to change.

From Suborbital Tests to Orbital Operations

Flight 14 represents a significant evolution from Starship’s 13th test flight in July. That earlier mission deployed 20 functional Starlink V3 satellites but remained on a suborbital trajectory before the ship completed its reentry and splashed down intact in the Indian Ocean. CEO Elon Musk described that test as "successful."

The upcoming mission aims to transition Starship from a test vehicle to an orbital launcher. This shift is critical for accelerating SpaceX’s Starlink expansion strategy.

Each Starlink V3 satellite is designed for one terabit per second of downlink capacity. A single Starship could eventually carry up to 60 such satellites. SpaceX estimates that one Starship V3 launch could add approximately 20 times the network capacity of a Falcon 9 mission carrying current V2 satellites.

This capacity advantage supports SpaceX’s decision to end planned Falcon 9 Starlink missions from Florida. The company stated that future Florida Starlink flights will use Starship instead.

Reusability Milestones

Flight 14 also occurs as SpaceX advances toward full rocket reusability. In August, Reuters reported that SpaceX considered attempting the first tower catch of Starship’s upper stage on this mission. However, Elon Musk later indicated that the catch would likely happen "in a few months," suggesting the milestone has been pushed beyond Flight 14.

The launch tower has already successfully caught the Super Heavy booster multiple times, demonstrating progress in booster recovery. The upper stage catch remains a key objective for future missions.

What the Numbers Show

The data highlights a massive efficiency gain in satellite deployment. By comparing the payload capacity of up to 60 satellites per Starship launch against the 20 times greater network capacity relative to Falcon 9, the operational leverage of Starship becomes evident. This suggests that once orbital operations stabilize, SpaceX can deploy network infrastructure at a significantly accelerated rate compared to its current Falcon 9-based model.