Space & Satellites
USSF and SpaceX Confirm 480-Satellite MILNET Military Network
USSF and SpaceX announced MILNET, a 480-satellite constellation with military encryption and laser links, launching mid-2026 for tactical communication.

USSF and SpaceX Confirm 480-Satellite ‘MILNET’ Constellation
On December 27, 2025, the United States Space Force (USSF) officially confirmed the development of “MILNET,” a dedicated military satellite internet architecture. Developed in partnership with SpaceX, this new constellation represents a significant strategic shift for the Department of Defense (DoD) as it seeks to establish a resilient, high-bandwidth network in Low Earth Orbit (LEO).
According to reporting by SatNews, the program will consist of 480 satellites designed to provide a “hybrid mesh network.” This initiative, managed in coordination with the National Reconnaissance Office (NRO), leverages SpaceX’s Starshield technology to secure tactical data links for global military operations. The confirmation validates rumors that have circulated throughout 2025 regarding the Pentagon’s pivot toward commercially derived architectures.
Technical Specifications and Strategic Context
The MILNET constellation is distinct from the consumer-grade Starlink service, featuring military-grade hardening and specialized capabilities designed for contested environments. Data provided regarding the program indicates that the system will utilize Optical Inter-Satellite Links (OISL), allowing satellites to transmit data directly between one another in space via laser, thereby reducing reliance on vulnerable ground stations.
Key technical features include:
- Encryption: The satellites are equipped with NSA Type-1 encryption (or equivalent) to secure classified communications.
- Ground Integration: The architecture is designed for full compatibility with existing Starshield ground terminals.
- Operational Focus: Unlike general broadband, MILNET is optimized for “kill chain” integration, connecting sensors and shooters, such as aircraft and ships, with low-latency data.
Budget and Timeline
The program is financially linked to a broader $1.8 billion contract between SpaceX and the NRO established in 2024. The Fiscal Year 2026 budget request specifically allocated $277 million for MILNET. According to the announced timeline, the first launch is scheduled for mid-2026, with Initial Operating Capability (IOC) expected by late 2027.
The Pivot from SDA to Commercial Hybrid Networks
The establishment of MILNET marks a departure from previous strategies that relied heavily on the Space Development Agency’s (SDA) “Transport Layer,” which utilized a multi-vendor competitive model. Throughout 2025, the Space Force paused funding for the SDA’s “Tranche 3” satellites to evaluate MILNET as a potentially more efficient alternative.
The primary drivers for this shift appear to be speed and scale. By utilizing SpaceX’s active production lines, the USSF aims to achieve high orbital density faster than traditional procurement methods allow. A distributed network of 480 satellites offers greater resilience against adversarial attacks compared to fewer, high-value targets in geostationary orbit.
Legislative Pushback and Controversy
The decision to rely heavily on a single commercial partner has generated significant debate in Washington. Critics have expressed concern that MILNET undermines the “open architecture” model previously cultivated by the DoD.
During mid-2025 hearings, Senator Chris Coons (D-Del.) voiced strong objections to the strategy. In a statement regarding the program’s structure, Coons warned:
“No competition, no open architecture, no leveraging a dynamic space ecosystem.”
, Senator Chris Coons (D-Del.)
In response to these concerns, Congress intervened via the FY2026 National Defense Authorization Act (NDAA), restoring approximately $500 million in funding for the SDA’s Tranche 3. This move ensures the industrial base remains diversified even as the MILNET program proceeds.
AirPro News Analysis
The confirmation of MILNET signals that the Pentagon is currently prioritizing immediate speed and capability over the long-term benefits of a diversified industrial base. While the “single point of failure” risk cited by defense analysts is real, the operational reality of 2025 demands connectivity that is available now. SpaceX’s ability to launch at a cadence unmatched by competitors makes it the only viable partner for a rapid deployment of this magnitude. However, the Congressional restoration of SDA funding suggests that while SpaceX has won the sprint, the marathon for future military space contracts remains a contested race.
Frequently Asked Questions
What is the difference between MILNET and Starlink?
While MILNET utilizes similar underlying technology to Starlink (specifically the Starshield bus), it features military-grade encryption, optical inter-satellite links for secure data transport, and is integrated directly into DoD command and control systems.
When will MILNET be operational?
The first launches are scheduled for mid-2026, with Initial Operating Capability (IOC) targeted for late 2027.
Who is managing the contract?
The program is a partnership between the U.S. Space Force (USSF) and SpaceX, with contract management and oversight provided by the National Reconnaissance Office (NRO).
Sources: SatNews
Photo Credit: SpaceX
Space & Satellites
LandSpace Zhuque-3 Y2 Achieves China’s First Booster Recovery
LandSpace recovered the Zhuque-3 Y2 first stage on Aug 19, 2026, marking China’s first land-based vertical booster recovery.

LandSpace successfully launched and recovered the first stage of its Zhuque-3 (ZQ-3) Y2 carrier rocket on August 19, 2026, marking China’s first land-based vertical recovery of an orbital-class booster using deployable legs.
The mission lifted off from the Dongfeng Commercial Aerospace Innovation Test Area and successfully delivered the Honghu-03 satellite, developed by Hongqing Technology, to orbit. According to a press release issued by LandSpace, the successful touchdown transitions the Zhuque-3 program from recovery technology verification to engineering reuse verification, a critical step toward operational reusability.
Flight profile and technical upgrades
The Zhuque-3 Y2 launched at 07:35 Beijing Time on August 19, 2026 (23:35 UTC on August 18). Following stage separation, the first stage executed a controlled descent and landed at the Zhuque-3 recovery pad in Minqin County, Gansu Province, at 07:41 Beijing Time. The total flight time for the first stage was 137 seconds.
LandSpace implemented several engineering optimizations for the Y2 mission following the December 3, 2025, maiden flight of the Zhuque-3 Y1, which reached orbit but failed to recover its first stage. The Y2 vehicle featured a simplified landing propulsion scheme utilizing fewer landing ignition engines. The company also upgraded the autonomous safety control system to include predicted impact point functions and enhanced the vehicle’s thermal protection for reentry.
The mission also served as a testbed for payload deployment technologies. The rocket carried LandSpace’s self-developed non-pyrotechnic stacked hold-down and release mechanism. The company stated this system is designed to support future large constellation deployments and high-cadence batch launches.
“This mission is China’s first successful recovery of a carrier rocket first stage using landing legs, and also China’s first successful land recovery of an orbital-class carrier rocket first stage,” LandSpace noted in its official release.
China’s dual-track reusable rocket development
The successful recovery of the Zhuque-3 Y2 first stage establishes a second distinct reusable rocket architecture within the Chinese aerospace sector. The achievement follows a separate milestone by the state-owned China Aerospace Science and Technology Corporation (CASC).
On July 10, 2026, CASC successfully recovered the first stage of a Long March 10B rocket at sea using a net-capture system, according to reporting by Space.com. The parallel development of sea-based net capture by a state-owned entity and land-based vertical touchdown by a private company provides China with multiple operational pathways for launch vehicle reusability.
Market-Analysis
The successful landing of the Zhuque-3 Y2 first stage demonstrates rapid maturation in China’s commercial launch sector. By validating the vertical leg-landing architecture just six weeks after CASC demonstrated its sea-based net-capture system, the Chinese aerospace industry has significantly expanded its reusable launch capabilities. We view the successful flight test of LandSpace’s non-pyrotechnic release mechanism as equally consequential for the commercial market. As satellite operators shift toward megaconstellations, the ability to deploy stacked payloads reliably without pyrotechnic shock will be a critical enabler for high-cadence launch operations.
Sources: LandSpace
Photo Credit: LandSpace
Space & Satellites
SpaceX Tows Intact Starship Ship 40 to Christmas Island
SpaceX completed a 24-day tow of Starship Ship 40 to Christmas Island after the upper stage survived splashdown intact.

This is original reporting and analysis by AirPro News.
Space Exploration Technologies Corp. (SpaceX) has successfully towed the largely intact upper stage of its Starship launch vehicle to the coast of Christmas Island following a 24-day recovery operation in the Indian Ocean.
The arrival of the spacecraft, designated Ship 40, provides the manufacturer with a previously unstudied physical test article. Ship 40 splashed down on July 24, 2026, at the conclusion of the Flight 13 test mission. Rather than sinking or breaking apart upon ocean impact, the vehicle remained afloat, prompting an extended towing operation by the SpaceX Recovery team through rough seas to reach the calmer waters of the Australian territory.
Unprecedented intact recovery operation
The successful retrieval of Ship 40 marks a significant milestone for the Starship program. Prior test flights concluded with the upper stage either breaking up during reentry or sinking shortly after splashdown. The survival of Ship 40 allowed recovery crews to secure the vehicle and begin a slow transit toward land.
In a statement released on August 18, 2026, SpaceX confirmed the arrival, noting that the recovery team successfully guided the vehicle to a location just off the coast of Christmas Island after approximately 24 days at sea.
Engineering evaluation and logistical hurdles
With the vehicle now secured in calmer waters, the focus shifts to physical inspection and data gathering. SpaceX confirmed that a team of engineers is currently en route to the island to conduct additional analysis on the spacecraft.
The company stated it will evaluate the vehicle before attempting to return it to the Starbase manufacturing and launch facility in Texas. However, transporting the 52-meter-tall spacecraft presents substantial logistical challenges. The port infrastructure on Christmas Island was not designed to handle a vehicle of this size, and it remains unverified whether Ship 40 can be practically loaded onto a transport vessel intact.
AirPro News analysis
The physical recovery of a Starship upper stage offers invaluable engineering data that telemetry alone cannot provide. We expect SpaceX engineers to focus heavily on the thermal protection system, specifically the adhesion and structural integrity of the heat tiles after enduring orbital-velocity reentry temperatures. Additionally, inspecting the flap hinges and aerodynamic surfaces for stress fractures will directly inform the iterative design process. Even if logistical constraints prevent Ship 40 from returning to Texas in one piece, the on-site material analysis conducted at Christmas Island will yield critical insights for future vehicle production.
Ongoing Starship program acceleration
As recovery operations continue in the Indian Ocean, SpaceX is accelerating its manufacturing and testing cadence domestically. At the company’s facilities, preparations for subsequent flights are actively underway. Booster 22 is currently fully stacked, while components for Booster 23 are moving through the Starfactory production line.
Photo Credit: SpaceX
Space & Satellites
NASA Expands SPOC Contract With Four New Vendors
NASA adds Blue Origin, Firefly Aerospace, L3Harris, and All Points Logistics to its $100M spacecraft processing contract.

The National Aeronautics and Space Administration (NASA) has expanded its commercial payload processing infrastructure by adding All Points Logistics LLC, Blue Origin LLC, Firefly Aerospace, and L3Harris Technologies Inc. to a $100 million indefinite-delivery/indefinite-quantity contract.
Announced on August 17, 2026, the selection utilizes an on-ramp provision within the Spacecraft Processing Operations Contract (SPOC). The agency originally awarded the contract in February 2023 to Astrotech Space Operations LLC, a Lockheed Martin subsidiary, and Space Exploration Technologies Corp. (SpaceX).
Expanding commercial infrastructure for launch processing
The SPOC vehicle is managed by the NASA Launch Services Program (LSP) at Kennedy Space Center. The program coordinates launches for science payloads ranging from university small satellites to high-priority agency missions. Under the contract, vendors provide commercial facilities and services for prelaunch processing. This includes the assembly, testing, fueling, and encapsulation of spacecraft and rocket hardware before integration with the launch vehicle.
The $100 million valuation represents the aggregate ceiling price for the entire multiple-award, indefinite-delivery/indefinite-quantity (IDIQ) contract across all vendors. The newly onboarded companies do not receive guaranteed revenue. Instead, they will compete for individual task orders issued by NASA. The ordering period for the contract extends through February 1, 2033.
Facility capabilities and strategic locations
The expanded vendor pool supports missions launching from multiple primary spaceports. These include Kennedy Space Center and Cape Canaveral Space Force Station in Florida, along with Vandenberg Space Force Base in California.
Firefly Aerospace detailed its specific capabilities in a concurrent press release. The company operates an ISO 8 cleanroom Payload Processing Facility (PPF) capable of handling hypergolic spacecraft. The facility is located 0.5 miles from Space Launch Complex 2 at Vandenberg Space Force Base, positioning the company to compete for West Coast task orders.
Adam Oakes, Vice President of Launch at Firefly Aerospace, stated:
“Firefly is operating one of the few commercial payload processing facilities supporting West Coast missions, and we’re excited to offer this as a commercial service to our partners at NASA. This capability helps alleviate critical bottlenecks in the industry and accelerates the timeline between payload arrival and liftoff for government and commercial customers.”
Oakes added that reliable access to space depends heavily on the ground infrastructure required to prepare payloads for flight.
AirPro News analysis
We view the activation of the SPOC on-ramp provision as a necessary step to prevent ground infrastructure from becoming a choke point in the national launch cadence. As launch frequencies increase across both government and commercial sectors, the availability of specialized facilities capable of handling hazardous operations is critical. By diversifying the pool of approved vendors, NASA ensures greater scheduling flexibility and reduces reliance on a narrow set of legacy providers. The inclusion of companies like Firefly Aerospace and Blue Origin also reflects the growing maturity of newer commercial space entrants in providing end-to-end ground services.
Sources: NASA
Photo Credit: Firefly Aerospace
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