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Space & Satellites

Google and SpaceX Plan AI Data Centers in Earth Orbit by 2027

Google and SpaceX are developing orbital AI data centers to overcome terrestrial energy limits, with prototype satellites launching in early 2027.

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This article summarizes reporting by The Wall Street Journal and Reuters. The original report is paywalled; this article summarizes publicly available elements and public remarks.

Alphabet’s Google is reportedly negotiating a rocket launch agreement with SpaceX to place artificial intelligence data centers into Earth’s orbit. According to reporting by The Wall Street Journal on May 12, 2026, the tech giant is looking to space to solve the massive energy and infrastructure bottlenecks currently plaguing terrestrial AI development.

The explosive growth of artificial intelligence has triggered an unprecedented demand for electricity, land, and cooling water. By moving compute infrastructure into orbit, companies hope to harness uninterrupted solar energy and the natural cooling properties of space to sustain the next generation of AI models.

This potential partnership builds on an existing financial relationship between the two companies. According to the reported details, Google acquired a 6.1 percent stake in SpaceX in 2015, and Google executive Don Harrison currently serves on the aerospace company’s board of directors.

The AI Energy Crisis and the Orbital Solution

Terrestrial Constraints

The primary catalyst for this ambitious concept is the staggering energy consumption of modern artificial intelligence. Industry estimates cited in the reporting indicate that global data centers consumed approximately 415 terawatt-hours (TWh) of electricity in 2024, representing roughly 1.5 percent of worldwide usage.

With AI-focused servers growing at an annual rate of 30 percent, projections suggest data center consumption could exceed 1,000 TWh by 2026, an amount equivalent to the entire national electricity usage of Japan. On Earth, this translates to grid overloads, rising energy costs, and significant pushback from local communities over land and water use.

The Space Advantage

In contrast, the orbital environment offers distinct advantages. Satellites can capture constant solar energy without the interruptions of weather or day-night cycles. SpaceX CEO Elon Musk has previously noted that space-based solar panels can generate roughly five times more power than their terrestrial counterparts. Additionally, the near-absolute zero temperatures of space could theoretically assist with thermal management, though dissipating heat in a vacuum remains a complex engineering hurdle.

Google’s Project Suncatcher and SpaceX’s Ambitions

Google’s Hardware in Orbit

Google has been quietly advancing its space-based computing strategy under an internal program dubbed “Project Suncatcher,” which was officially unveiled in November 2025. The initiative aims to deploy an interconnected network of solar-powered satellites equipped with Google’s proprietary Tensor Processing Unit (TPU) chips.

To test this technology, Google has partnered with satellite manufacturer Planet Labs. The companies plan to launch two prototype satellites by early 2027 to evaluate thermal management and system reliability, with an ultimate goal of scaling to an 81-satellite cluster.

“We’ll send tiny racks of machines and have them in satellites… and then start scaling from there.”

Google CEO Sundar Pichai, speaking in a November 2025 interview regarding the company’s orbital computing plans.

SpaceX’s Infrastructure Play

SpaceX is aggressively positioning itself as the foundational provider for this new orbital economy. In February 2026, the company filed for regulatory permission with the FCC to launch up to one million satellites dedicated to orbital data centers, operating at altitudes between 500 and 2,000 kilometers. SpaceX projects this massive constellation could eventually support 100 gigawatts of AI compute capacity.

The aerospace firm is also expanding its terrestrial AI ties. Recently, SpaceX signed an agreement to supply computing power to AI startup Anthropic using 220,000 Nvidia GPUs at its Memphis facility, with Anthropic expressing interest in utilizing future orbital data centers.

Market Competition and Technical Hurdles

Emerging Competitors

Google and SpaceX are not alone in their pursuit of space-based computing. The sector is attracting significant venture capital. Cowboy Space Corporation, led by Robinhood co-founder Baiju Bhatt, recently raised $275 million to construct orbital data centers and plans to build its own launch vehicles to avoid reliance on third-party rockets.

Similarly, startup Star Catcher secured $65 million in funding to develop a space-based power grid designed specifically to support these orbital computing facilities.

Engineering Challenges

Despite the influx of capital, formidable technical and economic barriers remain. Hardware must be heavily radiation-hardened to survive in orbit, which complicates the use of standard, off-the-shelf AI chips. Furthermore, transmitting massive datasets between Earth and orbit necessitates ultra-high-speed, laser-based communication networks.

Launch economics also pose a significant challenge. While SpaceX has drastically reduced the cost of reaching orbit, launching heavy data center racks remains substantially more expensive than constructing facilities on the ground. Additionally, deploying thousands of massive satellites will exacerbate existing concerns regarding space traffic management and orbital debris.

AirPro News analysis

If successful, the deployment of orbital data centers would represent a fundamental paradigm shift in global digital infrastructure. It frames low Earth orbit not merely as a domain for telecommunications or scientific exploration, but as the future backbone of the AI economy.

For the financial sector, the timing of these leaks is particularly notable. SpaceX is reportedly preparing for a highly anticipated Initial Public Offering (IPO) as soon as the summer of 2026, targeting a valuation of approximately $1.75 trillion following its recent merger with xAI (which valued the combined entity at $1.25 trillion). Highlighting its capacity to serve as the primary infrastructure provider for the AI boom effectively positions SpaceX as a critical AI investment, rather than strictly an aerospace company. Furthermore, a finalized deal between Google and SpaceX would mark a fascinating dynamic, given Elon Musk’s historical rivalries with Google’s leadership over AI development.

Frequently Asked Questions

What is Project Suncatcher?

Project Suncatcher is Google’s internal initiative to create an interconnected network of solar-powered satellites equipped with AI chips, effectively forming an orbital data center cloud.

Why put data centers in space?

Space offers uninterrupted solar energy and natural cooling properties, which could help alleviate the massive electricity, land, and water demands currently straining terrestrial AI data centers.

When will the first orbital data centers launch?

According to current timelines, Google and Planet Labs plan to launch two prototype satellites by early 2027 to test thermal management and reliability in orbit.


Sources: The Wall Street Journal / Reuters / GV Wire

Photo Credit: Grok Ai

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Space & Satellites

NASA and Relativity Space Partner for 2028 Mars Mission

NASA and Relativity Space sign a Space Act Agreement to send the Aeolus atmospheric payload to Mars in 2028.

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The National Aeronautics and Space Administration (Space-Agencies) and commercial launch provider Relativity Space have formed a public-private partnership to send the Aeolus atmospheric-science payload to Mars in 2028. The agreement, announced on June 17, 2026, signals an ongoing shift toward utilizing commercial delivery services for deep space planetary science missions.

Under the six-year Space Act Agreement, NASA will provide the instruments, while Relativity Space will supply the spacecraft, cruise operations, and the launch vehicle. The mission is designed to capture the first integrated, daily, global view of Martian winds, temperatures, dust, and clouds. This data is required to refine atmospheric models and reduce risks for future crewed and uncrewed landings.

Payload development and mission architecture

The Aeolus suite consists of four complementary instruments. The payload will be designed, built, and integrated at NASA’s Ames Research Center in Silicon Valley, California. Once in orbit, the Doppler Wind and Temperature Sounder will measure wind and temperature profiles up to an altitude of 37 miles (60 kilometers). NASA has committed to supporting science instrument operations for a minimum of one Martian year.

In a press release issued on June 17, 2026, NASA Administrator Jared Isaacman highlighted the strategic value of the arrangement.

“Public-private partnerships like this are a force multiplier for science. By pairing NASA’s world-class instruments with commercial innovation and investment, we can deliver more science, more often, and reduce the time it takes to get essential data into the hands of researchers preparing for future human missions to Mars,” Isaacman stated.

Dr. Eugene Tu, Center Director at NASA Ames, noted that the collaboration accelerates science and strengthens the foundation for eventual human exploration of the planet.

Relativity Space expands interplanetary capabilities

The Aeolus mission is the inaugural flight under Relativity Space’s Interplanetary Sciences Program. The initiative is spearheaded by Chief Executive Officer Eric Schmidt, who assumed leadership of the company in 2025.

According to reporting by Aviation Week, the mission will be privately funded by an undisclosed philanthropic backer. Relativity Space will utilize its Terran R rocket, a medium-to-heavy-lift launch vehicle, to deliver the payload to Mars.

Beyond the NASA instruments, the Relativity Space orbiter will carry a proprietary Relay Data Center. The Next Web reported that this system features server-class computing and mass storage designed to run AI models in Mars orbit, transmitting large volumes of data back to Earth via optical links.

AirPro News analysis

We view the 2028 Launch target as highly ambitious given the current development status of the Terran R rocket. The launch vehicle has not yet flown, introducing significant schedule risk to the mission timeline. However, the financial structure of the agreement insulates NASA from traditional cost overruns. By relying on an undisclosed philanthropic backer to fund the launch and spacecraft operations, the agency secures a dedicated Mars mission for the cost of payload development and data analysis. If successful, this model could establish a new precedent for deep space exploration, moving beyond low Earth orbit commercialization to privately funded planetary science.

Sources: NASA

Photo Credit: NASA

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Space & Satellites

AIAA Forms Committee to Standardize Fusion Space Propulsion

AIAA launches a standards committee to evaluate fusion propulsion for deep-space missions, with applications open through July 25, 2026.

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The American Institute of Aeronautics and Astronautics (AIAA) has announced the formation of a Committee on Standards (CoS) to develop a comprehensive guide for evaluating space propulsion systems based on controlled nuclear fusion.

The initiative, announced on June 18, 2026, aims to transition fusion propulsion concepts from theoretical physics into applied aerospace engineering by providing a standardized framework for industry and government evaluators. The AIAA is currently soliciting participation from qualified scientists and engineers across the aerospace sector.

Establishing a framework for fusion propulsion

The planned guide is designed to establish a common set of criteria for the consideration of conceptual fusion propulsion designs. According to the AIAA press release, the documentation will serve senior engineers tasked with proposing or assessing new propulsion techniques for deep-space missions.

The organization noted that 75 years of terrestrial fusion energy research has yielded techniques that may now be applicable to spaceflight. Adapting these technologies for the vacuum of space introduces complex engineering hurdles that the new standards committee will need to address.

For such application, there are a large number of specialized technical challenges ranging from mission analysis to plasma physics to nuclear radiation effects on materials.

The AIAA has set a July 25, 2026, deadline for interested scientists and engineers to submit a one-page biography to apply for committee membership. The effort is being coordinated through AIAA representative Michele Dominiak.

Commercial and government nuclear propulsion landscape

Private sector milestones

The formation of the AIAA committee follows a period of rapid development among private aerospace startups focused on advanced propulsion. On March 25, 2026, United Kingdom-based Pulsar Fusion achieved “first plasma” in its Mark I Sunbird exhaust test system using krypton propellant. The company has publicly targeted an in-orbit demonstration of its core technology by 2027.

Other commercial entities have also reported recent progress. RocketStar demonstrated its FireStar fusion-enhanced pulsed plasma drive in 2024, while Helicity Space secured $5 million in late 2023 funding to support a planned 2026 demonstration of its proprietary plasma jets.

Shifting federal priorities

Government agencies have simultaneously adjusted their approaches to nuclear space propulsion. In March 2026, the National Aeronautics and Space Administration (NASA) announced the development of the Space Reactor-1 (SR1) Freedom. The nuclear-powered interplanetary spacecraft will utilize nuclear electric propulsion and is targeting a 2028 launch to Mars.

The NASA announcement followed the June 2025 cancellation of the Demonstration Rocket for Agile Cislunar Operations (DRACO) project by the Defense Advanced Research Projects Agency (DARPA). DARPA cited decreasing launch costs from commercial providers and weaker performance assumptions than initially projected as the primary reasons for terminating the nuclear thermal propulsion program.

AirPro News analysis

We view the AIAA’s intervention as a critical maturation point for the commercial space sector. When a major standards body begins defining evaluation criteria, it indicates that the underlying technology has moved past the purely experimental phase and requires an objective baseline for procurement, safety assessments, and mission planning. Without a standardized evaluation framework, agencies like NASA and commercial operators have no reliable method to compare the performance claims of competing fusion startups.

The contrast between DARPA’s 2025 cancellation of the DRACO nuclear thermal project and the recent proliferation of private fusion startups suggests a pivot in how advanced propulsion is funded and developed. We anticipate that future deep-space propulsion development will rely increasingly on commercial innovation and nuclear electric concepts, making the AIAA’s standardization effort a necessary precursor to integrating these systems into actual flight hardware.

Sources: American Institute of Aeronautics and Astronautics

Photo Credit: AIAA

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Space & Satellites

EQT Acquires Exolaunch in First Space Sector Investment

Swedish PE firm EQT AB agrees to acquire Berlin-based satellite deployment provider Exolaunch, closing Q4 2026.

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Swedish private equity firm EQT AB, through its EQT X fund, has entered into a definitive agreement to acquire Berlin-based satellite deployment and mission management provider Exolaunch. Announced in a press release on June 18, 2026, the transaction represents EQT’s inaugural investments in the space sector and highlights a growing trend of private equity capital absorbing established space infrastructure companies.

Financial terms of the agreement were not disclosed by either party. The deal is expected to close in the fourth quarter of 2026, subject to customary regulatory approvals. Following the close of the Exolaunch transaction, the EQT X fund is expected to be 80 to 85 percent invested.

Scaling satellite deployment operations

Exolaunch, founded by Dmitriy Sternharz, has established a significant footprint in the commercial space industry. Headquartered in Germany with additional offices in the United States, France, and Japan, the company reports having successfully deployed more than 790 satellites. These deployments span 47 completed missions for a roster of over 200 commercial and government customers.

A core component of Exolaunch’s growth has been its strategic relationship with Space Exploration Technologies Corp. (SpaceX). Since 2020, Exolaunch has participated in every Falcon 9 Transporter and Bandwagon rideshare mission.

The company is currently expanding its business model from aggregating rideshare payloads to procuring dedicated launch vehicles. Exolaunch has secured two dedicated Falcon 9 missions from SpaceX, designated Exo-1 and Exo-2, which are scheduled for launch in 2027 and 2028, respectively.

“With EQT’s backing, we’re moving from being the trusted name in deployment to building the backbone of the entire launch ecosystem,” Exolaunch Chief Executive Officer Dr. Robert Sproles stated in the release. “Expanding our technology, our services and our global reach to become the definitive partner for access to space.”

The shift from venture capital to private equity

The acquisition by EQT signals a maturation point for commercial space enterprises. Historically dominated by venture capital funding aimed at early-stage development, the sector is increasingly attracting private equity firms focused on scaling operational businesses.

According to market data from PitchBook, private equity transactions in the aerospace and defense sectors globally reached $14.7 billion in 2026 as of mid-June. This figure represents nearly 90 percent of the total deal value recorded in the entire previous year.

Nils Ketter, Partner and Head of Industrial Technology for the EQT Private Equity advisory team, noted the strategic value of the acquisition in the company’s announcement.

“Built by a visionary founder together with a world-class team, Exolaunch developed mission-critical deployment technologies and built a full end-to-end service offering around it,” Ketter said.

AirPro News analysis

We view EQT’s entry into the space sector as a strong indicator of industry stabilization. For years, the commercial space market relied heavily on venture capital to fund high-risk research and development. Exolaunch’s transition from a rideshare aggregator to a dedicated mission procurer demonstrates a proven, revenue-generating business model that aligns with traditional private equity Market-Analysis criteria. As launch cadence increases globally, companies providing the critical integration and deployment infrastructure between satellite operators and launch providers are positioned as high-value acquisition targets. We expect to see further consolidation in the mission management segment as private equity firms seek established players with recurring revenue streams and proven flight heritage.

Sources: PR Newswire

Photo Credit: Exolaunch

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