MIDLAND, Texas — Direct-to-device satellite operator AST SpaceMobile announced on Friday, Nov. 6, 2026, that it will develop and build its own reusable heavy-lift orbital rocket, named Blacklift, through a $1.3 billion propulsion and licensing agreement with Firefly Aerospace.

The strategic initiative establishes an in-house launch architecture engineered to deploy the company’s next-generation BlueBird cellular broadband satellites directly into low Earth orbit (LEO).

In-House Launch Rationale and Constellation Delivery Control

The decision to develop an internal launch capability addresses persistent capacity shortages across commercial heavy-lift vehicles. AST SpaceMobile has navigated launch bottlenecks across multiple commercial providers, including pivoting to SpaceX for BlueBird launches to maintain deployment momentum following orbital delays.

With Firefly Aerospace leadership highlighting systemic launch vehicle shortages across the aerospace sector, the Blacklift program provides AST SpaceMobile with dedicated launch manifest priority to orbit its massive direct-to-device spacecraft without competing for third-party commercial rocket slots.

Blacklift Vehicle Specifications and Firefly Propulsion Integration

Sized to transport up to 20 metric tons to LEO, Blacklift is dimensioned to loft five full-scale BlueBird satellites per mission:

• First-Stage Propulsion: The reusable booster stage is powered by Firefly’s Miranda engines, which were initially developed and hot-fire tested for medium-to-heavy launch configurations.
• Upper-Stage Propulsion: The second stage incorporates Firefly’s vacuum-optimized Vira engines for orbital insertion.

Under the $1.3 billion deal, Firefly will manufacture and deliver complete shipsets of Miranda and Vira engines for the first three Blacklift orbital flights. Firefly will also provide dedicated engineering support while granting AST SpaceMobile an intellectual property license to manufacture the rocket engines independently for subsequent operational vehicles.

Testing Schedule and Initial Flight Window

AST SpaceMobile targets the maiden orbital test flight of Blacklift as soon as late 2028. The company has not yet selected a primary orbital launch site for the vehicle, with spaceport selection and propulsion manufacturing facility buildouts expected to proceed alongside engine testing over the next two years.

AUSTIN, Texas — On Thursday, Nov. 5, 2026, Phased-array communications developer CesiumAstro has secured $730 million in a Series D funding round at a valuation exceeding $4.5 billion to transition into a commercial constellation operator, reported.

The capital round includes $630 million in equity led by Janus Henderson alongside $100 million in debt financing provided by J.P. Morgan and the Export-Import Bank of the United States (EXIM).

Transition to Constellation Operator and Capital Precedents

The Series D financing supports CesiumAstro’s strategic pivot from supplying communications payloads to developing and operating its own orbital network. The investment builds upon an earlier $470 million funding milestone backed by EXIM’s “Make More in America” initiative to establish a dedicated phased-array manufacturing complex in Texas. Proceeds will fund the physical buildout and mass production lines needed to support end-to-end flight vehicle integration.

Synchronicity Constellation Architecture and Orbital AI Specs

Capital from the round directly funds Synchronicity, a planned 737-satellite constellation engineered to deliver flexible communications services to commercial, sovereign, and defense users:

• Multi-Band Frequency Coverage: Operates across Ku-band, Ka-band, and V-band spectrum to support high-throughput terrestrial and inter-satellite links.
• Autonomous Resource Allocation: Integrates onboard artificial intelligence (AI) to route beams dynamically and allocate bandwidth in real time based on active network demand.

The architecture expands upon the company’s Element satellite platform. The initial Element-1 precursor satellite launched in October to validate the core radio frequency payload and processing architecture in orbit.

Deployment Schedule and Operational Scaling

With the closing of the Series D round, CesiumAstro will accelerate payload manufacturing, regulatory filings, and constellation assembly at its Austin production complex. Flight hardware deliveries and orbital launches for the Synchronicity network are

WASHINGTON — The Pentagon’s Office of Strategic Capital (OSC) has issued a conditional loan commitment of $150 million to commercial space tracking provider LeoLabs to finance the expansion of its global radar network, as reported on Wednesday, Nov. 4, 2026.

Under the financing arrangement, the federal loan commitment is structured to be matched by private co-investment, unlocking up to $300 million in total capital for the space domain awareness company upon formal transaction closing.

Defense Debt Financing Strategy and Capital Precedents

The debt commitment underscores an expanding push by national security officials to utilize federal credit programs rather than traditional procurement contracts to scale critical aerospace industrial capacity. Established to crowd in commercial debt and equity financing for strategic defense supply chains, the OSC agreement marks the Pentagon’s second major space industrial loan within a two-week span. The financing follows the office’s recent $150 million loan commitment to Stoke Space to construct a second dedicated launch pad at Cape Canaveral Space Force Station.

Phased-Array Architecture and Scout-S Mobility Specifications

The $300 million combined capital infusion will directly finance the serial manufacturing, production scaling, and global deployment of LeoLabs’ multi-mission phased-array radar systems:

• Scout Modular Systems: Funds the fabrication and field rollout of containerized Scout radars, expanding on a $20.7 million U.S. Space Force contract to deploy transportable S-band radar units for tactical space domain awareness.
• Persistent Orbital Coverage: Expands the company’s fixed planetary sensor network tracking active spacecraft, collision threats, and uncooperative space debris across low Earth orbit (LEO) and very low Earth orbit (VLEO) down to centimeter scale.

Due Diligence Timeline and Global Network Scaling

The transaction remains subject to final financial and regulatory due diligence before funds are disbursed. Once formalized, the private-public capital deployment will accelerate site installations across allied territories through 2027 and 2028, establishing continuous orbital radar tracking to protect commercial constellations and military assets from emerging orbital threats.

CLEVELAND — NASA has awarded contracts totaling up to $1.07 billion to Viasat, SES, and Astranis Space Technologies to develop commercial Ka-band space relay capability concepts, as reported on Wednesday, Nov. 4, 2026.

Administered under the Space Communications and Navigation (SCaN) program’s Communications Services Project (CSP), the firm-fixed-price awards expand the space agency’s operational path to transition low Earth orbit (LEO) mission communications from the aging government-owned Tracking and Data Relay Satellite (TDRS) fleet to private multi-orbit networks.

Transition Away from Legacy TDRS Infrastructure

The procurement represents a critical phase in NASA’s multi-year effort to retire its government-operated constellation, an operational pivot detailed in earlier assessments of how NASA seeks commercial relays to replace aging TDRSS infrastructure. With legacy TDRS spacecraft approaching end-of-life, the agency is procuring commercial relay capacity to support science satellites, orbital observatories, and human spaceflight missions without requiring major redesigns of existing flight transceivers.

The initiative builds on foundational demonstrations funded under CSP, including SES Government Solutions’ initial CSP demonstration award and a recent milestone in which Viasat launched the Maxwell satellite to validate high-capacity space-to-space links.

Contract Ceilings and Orbital Architecture Diversity

Awarded under NextSTEP-3 Broad Agency Announcement Appendix E, the contracts span three distinct orbital regimes:

• Viasat Inc. ($460.9 Million): Captures the largest individual allocation, designing high-capacity geostationary Earth orbit (GEO) relay architecture leveraging its high-throughput satellite fleet.
• Global Enterprise Solutions Inc. / SES Space & Defense ($340.4 Million): Establishes medium Earth orbit (MEO) relay capability concepts utilizing its software-defined O3b mPOWER constellation.
• Astranis Space Technologies Corp. ($264.3 Million): Introduces its proprietary dedicated MicroGEO satellite architecture to provide targeted, low-cost geostationary relay services.

Concept Maturation and Flight Demonstration Schedule

Under the contract structure, all three contractors begin an initial six-month concept maturation phase extending from Nov. 4, 2026, through May 3, 2027. NASA holds priced options that can fund subsequent hardware fabrication and on-orbit flight demonstrations through 2029, establishing validated commercial space relays ahead of formal TDRS fleet retirement.

SAN DIEGO — SpaceX has selected Qualcomm Technologies to provide terrestrial base stations for its planned nationwide Starlink Mobile network, Via Satellite reported on Wednesday, Nov. 4, 2026.

The multi-year infrastructure agreement establishes a primary hardware vendor for the terrestrial ground segment of SpaceX’s hybrid satellite-cellular network, which aims to combine low Earth orbit (LEO) direct-to-cell connectivity with high-density ground coverage.

Terrestrial Footprint and EchoStar Spectrum Convergence

The ground equipment deal solidifies the terrestrial layer of SpaceX’s mobile carrier roadmap following a succession of strategic spectrum and infrastructure moves. The agreement follows SpaceX’s landmark acquisition of AWS-4 and H-block spectrum from EchoStar and preliminary discussions regarding an acquisition of EchoStar’s Boost Mobile subsidiary.

While direct-to-cell satellites provide coverage across rural and unserved areas, terrestrial small cells and macro base stations are essential to deliver high-capacity throughput in densely populated urban and suburban zones where orbital beams face capacity saturation.

Dragonwing Cellular Architecture and Massive MIMO Specifications

Under the supply agreement, Starlink Mobile’s terrestrial cell sites will deploy Qualcomm’s Dragonwing Cellular Infrastructure platforms:

• Radio Units: Utilizes the Dragonwing QRU100 platform featuring Massive Multiple-Input Multiple-Output (Massive MIMO) in a 64T64R configuration with 64 transmit and 64 receive paths, optimized for transmission in the 2 GHz frequency band.
• Baseband Processing: Deploys the Dragonwing QDU100 platform to process latency-sensitive physical layer baseband signals.

The integrated chipsets improve performance-per-watt metrics across high-traffic towers, supporting 5G operations while creating an architectural foundation for artificial intelligence-native (AI-native) 6G protocols.

Deployment Timeline and Commercial Roadmap

Plans call for terrestrial network rollouts to commence in 2027, with tens of thousands of base stations slated for installation across the United States over a multi-year deployment cycle. Speaking during Qualcomm’s quarterly earnings call, Chief Executive Officer Cristiano Amon noted that revenue recognition from the project is scheduled to begin late in fiscal 2027, with significant financial contribution projected for fiscal 2028 as physical tower sites become active.

DUBLIN — Space technology developer Ubotica Technologies demonstrated autonomous onboard observation scheduling aboard an operational satellite in low Earth orbit, the company announced on Wednesday, Nov. 4, 2026.

Using onboard artificial intelligence (AI), the satellite detected a maritime vessel in the Pacific Ocean and independently scheduled and executed a follow-up observation without receiving tasking commands from terrestrial ground stations.

Maritime Surveillance and Latency Mitigation

Conventional Earth observation architectures require satellites to downlink raw imagery to ground stations for processing, human analysis, and subsequent uplink tasking—a sequence that introduces latency delays ranging from 30 minutes to an entire day. By removing ground station intervention, autonomous orbital tasking accelerates maritime intelligence gathering for regional defense agencies confronting illicit shadow fleets, unflagged vessels, and security risks near subsea communication cables and offshore energy infrastructure.

The demonstration advances Ubotica’s Live Maritime Intelligence (LMI) platform, which received backing from an $11 million financing round in June to automate dynamic maritime risk monitoring.

CogniSAT-6 Architecture and On-Orbit AI Execution

The trial was conducted in early October using CogniSAT-6, an operational 6U CubeSat designed, built, and operated by Open Cosmos. Launched in March 2024 aboard SpaceX’s Transporter-10 rideshare mission, the satellite operates within the shared OpenConstellation mutual infrastructure and carries Ubotica’s CogniSAT-XE2 edge processing platform, building on earlier onboard AI validation flights.

During the orbital test, onboard computer vision algorithms scanned an initial image of the Pacific Ocean and identified a cruise ship. The flight computer independently calculated the spacecraft’s next orbital revisit opportunity over the target coordinates to verify if the vessel remained stationary. Two days later, CogniSAT-6 automatically imaged the same geographic location without ground command interaction, verifying that the vessel had departed.

Autonomous Constellation Coordination

“Autonomous Scheduling is about giving satellites the ability to interpret what they see and decide what to do next,” said David Rijlaarsdam, Director of Space System Engineering at Ubotica. “What we’ve demonstrated with one satellite becomes significant when scaled to a constellation. One satellite detecting something of interest at sea can alert another to independently determine when to capture a follow-up image, executing tip-and-cue without a ground station or human in the loop.”

Ubotica plans to integrate autonomous scheduling algorithms across multi-satellite constellations to support automated tipping-and-cueing workflows for civil, naval, and environmental monitoring applications.

Sources Ubotica Technologies – https://ubotica.com

TOOWOOMBA, Australia — Researchers from the University of Southern Queensland (UniSQ) successfully captured the atmospheric breakup of returning spacecraft using a computed tomographic imaging spectrometer (CTIS) during an airborne observation mission over the Pacific Ocean, the university announced on Thursday, Nov. 5, 2026.

The flight collected real-time spectral data during the Oct. 12 re-entry of 12 experimental capsules deployed under the international Kentucky Re-entry Probe Experiment-3 (KREPE-3) campaign.

Atmospheric Re-Entry Observation Campaign

Operating from Rarotonga in the Cook Islands, the observation team flew aboard a modified business jet to track the targeted re-entry corridor. Supported by the Australian government’s iLAuNCH Trailblazer program, Dr. Byrenn Birch, senior lecturer in thermofluids engineering at UniSQ, integrated four observation payloads alongside international teams from the University of Kentucky, the University of Stuttgart, and Zafiro Systems.

The campaign monitored 11 thermal protection test capsules from the University of Kentucky—following operational testing demonstrated during earlier KREPE missions from the International Space Station—alongside one capsule provided by the University of Stuttgart to evaluate thermal shielding materials under extreme aerodynamic heating.

Tomographic Spectrometer Instrumentation and Optical Filtering

The centerpiece instrument, a custom-built CTIS developed through an Australian Research Council Discovery Early Career Researcher Award (DECRA), resolved multiple breaking fragments simultaneously. While conventional cameras record three primary color channels, the UniSQ spectrometer captures spatial and spectral signatures across more than 500 wavelength channels simultaneously in a single exposure.

The optical suite also included a tracking camera, a conventional slit imaging spectrometer, and a filtered camera calibrated to track carbon emission signatures generated as spacecraft ablative heat shields disintegrate.

Data Exploitation and Aerospace Applications

“Australian researchers are not just participating in major international aerospace missions, we’re bringing technologies to the table that offer capabilities not available elsewhere,” Birch noted. “Seeing our instrument operate alongside international research teams was an exciting demonstration of what Australian research can contribute.”

Analysis of the collected hyperspectral data will refine computational models for spacecraft aerodynamic breakup, assist in the qualification of novel thermal protection systems, and support space situational awareness for orbital debris survivability.

WASHINGTON — Satellite communications operator Globalstar has petitioned the Federal Communications Commission (FCC) to review its supplier relationship with Rocket Lab as part of the regulatory evaluation of Rocket Lab’s pending $8 billion acquisition of Iridium Communications, Via Satellite reported on Wednesday, Nov. 4, 2026.

In its regulatory filing, Globalstar urged federal regulators to examine potential conflicts of interest arising from Rocket Lab serving as its primary spacecraft bus manufacturer while concurrently owning and operating a direct commercial rival.

Consolidation Precedents and Transatlantic Regulatory Approvals

The petition follows significant consolidation across the mobile satellite services sector. Globalstar filed the request exactly one week after the FCC approved Amazon’s acquisition of Globalstar in an $11.5 billion transaction that integrates Globalstar’s licensed mobile spectrum into the Amazon Leo direct-to-device ecosystem. Concurrently, Rocket Lab has moved toward closing its purchase of Iridium following shareholder approval in late September, scaling vertical integration via an $8 billion Iridium acquisition that brings approximately 80 operational low Earth orbit (LEO) cross-linked satellites under its corporate umbrella.

Supplier Dynamics and Constellation Manufacturing Conflict

At the center of Globalstar’s filing is Rocket Lab’s dual role as an indispensable hardware supplier and a future constellation competitor. Under prime contractor MDA Space, Globalstar subcontracted Rocket Lab to manufacture 17 satellite platforms to replenish its constellation and maintain continuous mobile messaging services, including Apple’s emergency satellite features. Globalstar raised concerns that post-merger incentives could influence delivery cadences, component allocations, and intellectual property firewalls if Rocket Lab prioritizes internal Iridium fleet replenishment over third-party customer production lines.

Antitrust Scrutiny and Merger Review Timeline

While Globalstar stopped short of formally opposing the Rocket Lab-Iridium transaction, it echoed concerns raised by other industry operators, including SpaceX and Ligado Networks, regarding vertical integration in space hardware. Rocket Lab and Iridium have requested expedited FCC approval, maintaining that historical supplier agreements will be honored and that internal manufacturing efficiencies will expand competitive market capacity. The FCC is expected to conclude interagency review proceedings before the transaction targets financial closing in early 2027.

TUKWILA, Wash. — In-space servicing developer Starfish Space confirmed on Tuesday, Nov. 3, 2026, that its first Otter servicing spacecraft has suffered an unrecoverable on-orbit failure after ground teams permanently lost contact with the vehicle.

Launched on Oct. 1 on a commercial rideshare mission, the spacecraft was slated to execute orbital rendezvous and proximity operations under NASA’s Small Spacecraft Propulsion and Inspection Capability (SSPICY) demonstration.

NASA SSPICY Inspection Mission Objectives

Under the SSPICY mission framework, the Otter satellite was tasked with validating low-cost inspection, rendezvous, and proximity maneuvers in low Earth orbit. The flight plan called for the satellite to approach multiple resident space objects and evaluate relative navigation algorithms, with the secondary objective of potentially conducting a docking demonstration with a target object. The initiative was structured to demonstrate satellite servicing technologies that could extend the operational lifespan of civil and commercial orbital assets.

Bus Fault Protection System and Communications Anomaly

Following an internal anomaly investigation, Starfish Space determined that a failure within the spacecraft bus fault protection system caused the loss of mission. The onboard autonomous protection logic inadvertently shut down the primary radio transceiver and subsequently prevented the system from re-establishing two-way communications with ground control stations. Because the spacecraft cannot receive command uplinks or transmit telemetry, mission controllers declared the vehicle non-recoverable.

Bus Architecture Corrections and Production Roadmap

Starfish Space is collaborating with satellite bus manufacturer Astro Digital to address the software and hardware protection logic that caused the radio lockout. The engineering teams are implementing corrective modifications across several additional Otter servicing vehicles currently undergoing assembly and integration. The company plans to apply the findings to its active manufacturing pipeline to ensure subsequent flight units avoid the autonomous subsystem shutdown encountered during the initial demonstration.

MOUNTAIN VIEW, Calif. — Google’s first data center satellite came online in late October, marking an initial step toward orbital computing, but the tech giant faces significant semiconductor and engineering challenges before the network can successfully scale.

The deployment is part of Project Suncatcher, a long-term initiative to establish space-based data infrastructure and machine learning capabilities in orbit.

Hardware Limitations and Constraints

The initial orbital data center currently operates under severe physical and electrical limitations. The satellite generates only enough electricity to run one of its four onboard Tensor Processing Units (TPUs) for approximately 20 minutes at a time. Beyond basic power constraints, Google must resolve critical issues related to continuous radiation exposure and the transmission of massive amounts of data between orbiting satellites. In the harsh environment of space, standard commercial electronics are highly susceptible to radiation corruption, posing a threat to ongoing data processing.

Semiconductor Solutions for Orbital Computing

To resolve these bottlenecks, space-grade semiconductor manufacturers are advocating for specialized chip architectures to handle the unique demands of low Earth orbit. According to Tom Barber, Vice President of Data Center and Communications Infrastructure at GlobalFoundries, “Optical communications could enable satellites to exchange data at the high speeds Google requires while simultaneously keeping power consumption in check“.

GlobalFoundries, which already manufactures space-grade chips proven in Earth orbit and on missions beyond Mars and Jupiter, produces radiation-hardened components built to withstand environments that would otherwise corrupt ordinary electronics. To maximize a satellite’s limited electricity supply, the company utilizes Gallium Nitride (GaN) power chips, which reduce wasted energy. Additionally, GlobalFoundries is deploying silicon photonics chips that transmit data as light, providing high-speed transfers that remain resilient under heavy radiation exposure.