How Does Starlink Use Satellite Laser Communications?

Key Takeaways

• Starlink laser links route traffic between satellites before it reaches ground gateways.
• SpaceX is turning laser terminals into a commercial product for other spacecraft.
• Future filings connect laser mesh networking to orbital data centers and third-party satellites.

SpaceX Satellite Laser Communications Inside Starlink’s Network

Each Starlink V2 Mini satellite carries three optical inter-satellite links, also described by Starlink as space lasers, that can operate at up to 200 Gbps per link through the company’s Starlink Technology page. SpaceX satellite laser communications sit inside the network rather than at the customer terminal. A household, business, aircraft, ship, or mobile user connects to a nearby satellite by radio. That satellite can then pass the traffic through laser links to other satellites before the data reaches a ground gateway or another authorized point of presence.

The basic design gives Starlink two networks at once. The radio network connects users, gateways, and satellites. The optical network connects satellites to one another in space. That second layer matters because low Earth orbit satellites move quickly relative to Earth. A user terminal may see one satellite for a short period before the connection hands off to another satellite. Laser crosslinks allow the constellation to route traffic through space rather than force every connection to drop immediately to the nearest gateway.

SpaceX did not begin Starlink with a fully developed laser mesh on every spacecraft. Early operational satellites relied more heavily on ground gateways. The shift toward optical inter-satellite links became more visible as SpaceX launched polar and higher-latitude satellites, where gateway coverage is harder to arrange across oceans, ice, remote regions, and politically restricted territory. The company then expanded laser links into the main Starlink architecture, making them part of the system’s capacity, latency, coverage, and resilience plan.

A laser link works differently from a radio-frequency link. Radio beams spread out more broadly, use regulated spectrum, and can face interference constraints. Optical links use narrow beams of light between satellites. They can carry high data rates, but they require precise pointing, stable terminals, accurate tracking, and careful routing software. For Starlink, the engineering challenge is multiplied by scale. Thousands of moving satellites must establish, break, replace, and route through laser paths without creating visible interruptions for users on the ground.

The numbers illustrate why SpaceX treats optical links as network infrastructure. Starlink’s 2025 Progress Report describes a global petabit-class laser mesh with more than 13,000 bidirectional laser links in the constellation. That means the company has moved far beyond a demonstration of space laser communication. It has made laser networking part of a commercial broadband system serving residential, business, maritime, aviation, mobility, government, and emergency-response customers.

The following table summarizes the main difference between the radio and optical layers in Starlink.

Why Starlink Uses Lasers Between Satellites

Starlink’s laser links solve a geographic problem first. A satellite passing over the central Pacific, the polar regions, remote ocean lanes, or sparsely connected land cannot always reach a nearby Starlink gateway. A laser link lets that satellite send traffic sideways across the constellation until the network finds a satellite with a better path to an authorized ground station. That architecture supports service in places where terrestrial backhaul is limited, expensive, politically complex, or unavailable.

Latency is the second driver. Fiber-optic cables on Earth carry light through glass, and the path often bends through cable routes, landing stations, metro networks, and data centers. A low Earth orbit laser path can sometimes shorten the route between distant points by moving traffic through space. The advantage depends on geometry, weather, gateway placement, routing policy, and network load. SpaceX cannot make every path faster than fiber, but laser crosslinks give the network more choices than a system that must return every packet to the first available gateway.

Capacity is the third driver. Starlink serves users through spot beams and gateway links, then shifts traffic through a moving constellation. More satellites create more access points, but each access point needs backhaul. Space lasers provide extra backhaul paths inside the constellation. They do not replace gateways, fiber, spectrum rights, user terminals, or ground operations. They reduce dependence on any single ground path and allow the network to balance traffic across a larger set of possible routes.

Resilience is the fourth driver. A storm, fiber cut, gateway outage, local disaster, or regional blockage can reduce the value of a satellite system that depends too heavily on nearby ground infrastructure. Laser routing gives SpaceX more freedom to move traffic away from a local disruption. Starlink’s 2025 progress materials describe laser links rerouting traffic through other ground stations after affected-area connectivity problems, showing the operational value of in-space path diversity.

Security and interference management add another reason. Optical beams are narrow and hard to intercept from the ground compared with broad radio beams. That does not make them immune to cyber risk, spoofing risk, terminal compromise, routing failure, or supply-chain risk. It does make them attractive for high-capacity satellite backhaul, government communications, and space-to-space connectivity where spectrum congestion and ground visibility matter.

SpaceX also gains a manufacturing advantage. Building thousands of satellites gives the company repeated opportunities to refine the same optical terminal family. Starlink turns a laser terminal from a small-batch spacecraft component into a mass-produced networking device. That shift is central to the company’s next move, because SpaceX is no longer treating the laser hardware solely as an internal Starlink subsystem.

How the Laser Mesh Reduces Dependence on Ground Gateways

A satellite broadband network still needs ground infrastructure. Gateways connect the constellation to terrestrial internet exchange points, cloud networks, telecom backbones, and customer networks. Starlink’s laser mesh does not remove that need. It changes where the gateway must sit relative to the user. Without satellite-to-satellite links, each satellite serving a user needs a practical path down to an authorized gateway. With laser links, a satellite can forward traffic to another satellite that has a better gateway path.

This is especially important for maritime and aviation markets. Ships and aircraft move through regions where ground infrastructure is absent or distant. A cruise ship in the ocean, an aircraft on a polar route, or a vessel operating far from coastal networks can connect to a satellite overhead. The optical mesh can then carry traffic through space until a ground connection becomes practical. That supports continuity for mobility customers, though service quality still depends on terminal installation, satellite density, weather near ground gateways, network capacity, and regulatory permission.

Gateway reduction also affects deployment speed. A new country or region may still require local authorization for Starlink service, lawful intercept compliance, licensing, consumer rules, and spectrum coordination. Yet fewer required gateways can make network architecture less dependent on local facility buildout. SpaceX can support some remote regions through gateways placed elsewhere, subject to national rules and routing limits. That does not remove sovereignty issues. It gives the operator a more flexible engineering base before legal and commercial choices are made.

Laser routing also helps SpaceX manage temporary demand spikes. A disaster zone, conflict-affected area, large event, maritime corridor, or aviation region can create traffic demand that does not match gateway placement. If the nearest ground path is overloaded, a mesh network can shift some traffic through other satellites. This is closer to cloud networking than older bent-pipe satellite design, where a satellite mainly reflected traffic between a user and a gateway inside a fixed footprint.

Older geostationary satellite networks and many early low Earth orbit systems used simpler relay patterns. Starlink’s laser mesh supports dynamic routing, handover management, and multi-hop space paths. The network still faces limits from queueing, congestion, satellite power, thermal control, routing software, and terminal performance. The difference is that SpaceX can design the constellation as a moving packet network rather than a set of isolated radio relay nodes.

The commercial result is straightforward. Starlink can serve more locations with fewer purely local ground dependencies. That supports consumer broadband, mobile connectivity, enterprise backup, government services, and future third-party spacecraft links. Ground networks remain central, but the in-space mesh has become a second transport layer.

Commercial Sales Move the Technology Beyond Starlink

SpaceX’s next use of satellite laser communications is external sale. In March 2024, Reuters reported that Gwynne Shotwell said SpaceX had started selling satellite laser links to other satellite firms through a product described as Plug and Plaser. That marked a change in how SpaceX presented its hardware. The company built Starlink mainly as a vertically integrated system, but optical terminals created a component that other operators might want without buying a full Starlink satellite.

The commercial logic is strong. Many Earth observation, weather, defense and security, communications, and research satellites collect more data than they can return quickly through traditional ground station passes. A satellite may wait until it flies over a compatible ground antenna before it can downlink large files. That delay can be acceptable for archival science or routine mapping. It is less attractive for wildfire detection, maritime monitoring, disaster response, tactical sensing, or time-sensitive infrastructure observation.

SpaceX’s mini laser product points toward a different model. A third-party spacecraft could carry a compatible optical terminal and connect into Starlink’s in-space relay system. Instead of waiting for a ground station pass, the satellite could send data through Starlink satellites to terrestrial points of presence. The spacecraft operator would gain access to a much larger relay network without building a full ground station chain or launching its own relay constellation.

Muon Space announced on October 21, 2025, that it would integrate Starlink mini lasers into its Halo satellite platform. Muon described 25 Gbps optical links at distances up to 4,000 km, with the first Starlink-enabled Halo satellite planned for Q1 2027. The same announcement connected the technology to FireSat, a wildfire-focused constellation associated with Earth Fire Alliance, where lower data latency could help deliver fire alerts faster.

This creates a new market for Starlink beyond broadband subscribers. SpaceX can sell access to an orbital relay service, sell or lease terminals, certify third-party spacecraft, and charge for high-speed backhaul. That would place Starlink closer to a space data network provider. The customer might be a satellite operator, a space station developer, an Earth observation company, a hosted payload provider, or a government agency.

Commercial expansion also creates lock-in questions. A spacecraft fitted with a Starlink-compatible terminal may gain speed and coverage, but it may depend on SpaceX for network access, pricing, service-level commitments, cybersecurity rules, export controls, and future terminal compatibility. Competing optical communications systems may offer open standards, sovereign control, or specialized mission assurance. SpaceX’s advantage is scale; its constraint is trust from customers who may also compete with SpaceX in launch, communications, sensing, or data services.

Regulatory Filings Point to Larger SpaceX Laser Mesh Uses

SpaceX has applied its laser communications architecture to larger planned systems through U.S. regulatory filings. The Federal Communications Commission’s January 9, 2026, Gen2 Upgrade Authorization partially granted SpaceX authority to deploy a second tranche of 7,500 second-generation Starlink satellites, bringing the authorized Gen2 constellation to 15,000 satellites. That order addressed frequency use, orbital parameters, additional spectrum, and expanded second-generation Starlink operations. It did not treat lasers as a side feature; it treated Gen2 as a larger communications system with more capacity and more complex operations.

The more striking future-facing filing came through the FCC Space Bureau’s February 4, 2026, public notice accepting for filing SpaceX’s Orbital Data Center application. The notice described a proposed new non-geostationary orbit system of up to one million satellites operating as the SpaceX Orbital Data Center system. It said the proposed satellites would use high-bandwidth optical inter-satellite links, and that the system would primarily rely on optical inter-satellite links that may connect with satellites in the proposed system and with SpaceX’s first- and second-generation Starlink systems.

That filing matters because it extends laser links from communications backhaul into compute infrastructure. In ordinary Starlink service, the laser mesh routes user traffic. In an orbital data center concept, optical links would need to route data among compute satellites, Starlink satellites, gateways, and terrestrial data centers. The network would become part of the compute architecture itself, not simply a transport layer for broadband customers.

SpaceX’s orbital data center proposal remained an application accepted for filing, not an approved operating system, as of May 21, 2026. The scale, economics, debris risk, power architecture, thermal management, spectrum coordination, launch cadence, optical routing, and governance questions are much larger than those of a normal broadband constellation. A filing does not prove feasibility. It does show how SpaceX views the future use of its laser communications base: as shared infrastructure for data movement among Starlink, third-party spacecraft, and possible orbital computing nodes.

The following table separates completed operations from planned or proposed uses.

Starshield and Government Missions Add a Security Layer

SpaceX’s Starshield program adds a government-focused branch to the same technical family. Starshield presents SpaceX-built satellite buses, hosted payload options, secure communications, and services for national security customers. Public details remain limited, as expected for a government and defense-focused product line. The public information is enough to show that laser networking can support government spacecraft that need more secure, high-capacity, and resilient connections than ordinary downlink schedules provide.

Government customers care about control, assurance, encryption, and mission continuity. Optical inter-satellite links can help by reducing dependence on a small number of exposed ground stations and by making traffic paths harder to observe from Earth. A narrow laser beam between satellites is not the same as a broad broadcast path. That feature can support secure routing, but it does not replace cybersecurity, key management, ground-segment security, anti-jam radio links, and operational discipline.

Starshield also matters because SpaceX’s commercial and government networks are not fully separate in physical heritage. Starshield can draw from Starlink manufacturing, launch cadence, satellite bus experience, ground infrastructure, and optical networking. At the same time, government use may require mission-specific payloads, secure processing, restricted access, or customer control that differs from consumer Starlink service. That split allows SpaceX to offer a familiar architecture in a more controlled form.

Defense and security demand can push laser communications into higher-performance configurations. Earth observation satellites, missile warning sensors, space domain awareness payloads, and communications relays can all produce or move large data volumes. Laser links can help return data faster, connect satellites across orbital planes, or pass information to a node with a better downlink path. The article does not need operational military detail to state the market implication: government demand can support investment in terminals, routing software, encryption, and mission assurance.

The policy side is sensitive. A commercial operator with a large laser-linked network may become part of national communications resilience, emergency response, military support, and space infrastructure. That creates questions about export control, allied access, lawful intercept, conflict-zone use, service denial, cyber protection, and international reaction to large constellations. SpaceX’s scale gives it commercial reach in these markets, but governments will likely seek contractual protections, sovereign routing options, and audit rights before relying on commercial optical networks for sensitive missions.

Business Effects for Earth Observation and On-Orbit Computing

Earth observation satellites create a natural market for Starlink laser connectivity. Optical imagers, synthetic aperture radar satellites, hyperspectral sensors, weather payloads, and radio-frequency monitoring satellites all gather data that can lose value if delivery is delayed. A wildfire image, flood map, ship detection, crop stress reading, or infrastructure alert becomes more valuable when it reaches users quickly. Traditional ground station networks can support frequent contacts, but they still depend on geography and pass timing.

Muon Space’s Starlink mini laser plan shows how this market could work. A satellite platform builder integrates the terminal into its bus. A customer flies a payload on that platform. Data moves through the Starlink mesh to terrestrial points of presence. The customer can then process data in cloud systems, combine it with other data feeds, and send tasking commands back to the spacecraft more quickly. That model reduces the gap between space sensing and software delivery.

On-orbit computing pushes the same idea further. A satellite may process data before sending it down, reducing bandwidth demand and shortening decision time. A wildfire satellite could detect thermal signatures on board, send compact alert data immediately, then downlink larger imagery later. A maritime monitoring satellite could process detections in orbit and forward results to customers with lower latency. Starlink laser connectivity becomes the transport network that lets the spacecraft operate more like a connected edge device.

The business shift affects ground station companies. Ground stations will still matter for telemetry, tracking, command, bulk downlink, sovereign data handling, and missions that avoid dependence on a single commercial relay provider. Yet a large optical relay service could compete with some ground station demand, especially for customers that prioritize low-latency data delivery over direct ownership of ground infrastructure. Some ground providers may respond by partnering with optical relay networks or by specializing in secure, sovereign, or high-volume downlink services.

Cloud providers may also have interest. If data can move from satellite to Starlink to cloud points of presence with lower delay, the boundary between satellite operations and cloud operations narrows. That could support automated tasking, near-real-time analytics, and space-based compute. SpaceX’s proposed orbital data center system takes that logic further by placing compute hardware in orbit, though economics and regulatory approval remain unresolved.

The open question is whether SpaceX becomes a neutral network provider for many spacecraft or a selective platform that favors chosen partners. An open customer base would expand revenue and strengthen Starlink as orbital infrastructure. A selective model could protect network performance, security, and strategic priorities. The answer will likely vary by customer type, mission sensitivity, regulatory jurisdiction, and terminal certification.

Technical Friction Points Still Shape Space-Based Laser Networks

Laser communications carry high data rates, but they are not effortless. Spacecraft must point the optical terminal with enough precision to maintain a narrow beam to another fast-moving satellite. The terminal must acquire the other spacecraft, track it, manage vibration, and keep the beam stable as both satellites move through their orbits. Short interruptions can be managed through routing and buffering, but customer applications differ in how much interruption they can tolerate.

Weather affects the ground end of the system. A space-to-space laser avoids atmospheric losses until traffic needs to reach Earth. Once data comes down, clouds, rain, atmospheric turbulence, and site conditions can affect optical ground links. Starlink’s system mainly uses radio-frequency gateway links for ground connection, which avoids some optical ground weather issues. Future optical-to-ground links would need site diversity, adaptive optics, scheduling, or fallback radio paths.

Interoperability is another friction point. The space industry has long sought common optical communications standards, because spacecraft from different builders need predictable interfaces. SpaceX’s Starlink laser system benefits from internal control. The company can design satellites, terminals, software, routes, and operations together. Third-party integration adds more complexity. A customer satellite must meet pointing, power, thermal, data-interface, cybersecurity, and operations requirements set by SpaceX or by any standard the company supports.

Network management becomes harder as more outside spacecraft connect. A Starlink-only mesh can prioritize its own users and its own routing rules. A mixed network must manage outside traffic, service commitments, authentication, customer isolation, and failure handling. A spacecraft operator will want assurance that its data moves reliably and securely. SpaceX will want to protect the performance of its main Starlink service and avoid a third-party spacecraft causing network problems.

Regulation adds another layer. Optical inter-satellite links do not use radio spectrum in the same way as radio-frequency communications, but the satellites still need authority for launch, operation, orbital location, radio links, telemetry, tracking, command, debris mitigation, and gateway operations. SpaceX’s FCC filings show that future systems using optical links remain tied to national licensing and international coordination. The laser mesh does not place the system outside communications law.

Astronomy and orbital debris concerns also stay attached to scale. Larger constellations increase the number of objects in orbit, the number of maneuvers, the number of conjunction assessments, and the number of visible satellites. Laser links may improve network routing, but they do not remove the need for responsible satellite brightness mitigation, reliable deorbiting, collision avoidance, and transparent reporting. Future orbital data center proposals would intensify those questions because of the potential satellite count.

What SpaceX Appears to Be Building Next

SpaceX appears to be turning Starlink’s laser mesh into three connected businesses. The first is the internal Starlink broadband network, where optical inter-satellite links improve coverage, routing, capacity, and resilience. The second is a commercial relay service for third-party spacecraft, supported by mini laser terminals and early integration partners such as Muon Space. The third is a proposed orbital computing and data infrastructure layer, reflected in the FCC orbital data center filing.

These businesses share hardware heritage and network logic, but they face different customer tests. Broadband users judge price, speed, availability, latency, installation, and service consistency. Satellite operators judge terminal mass, power demand, data rate, integration burden, service availability, cybersecurity, and cost per delivered bit. Cloud and compute customers would judge economics, energy supply, thermal design, latency, regulatory permission, software integration, and service-level guarantees.

SpaceX’s advantage is that it already operates the largest active low Earth orbit broadband constellation and launches satellites at a cadence few competitors can match. That means each laser terminal improvement can be tested across many spacecraft and many routes. Manufacturing scale may lower cost. Operational experience may improve routing. Starship, if it reaches the launch performance SpaceX plans, could support larger Starlink V3 satellites and future systems that need higher mass and higher power.

Competition will still exist. Government relay systems, defense communications networks, optical terminal suppliers, ground station operators, cloud providers, and satellite prime contractors all have reasons to avoid a single-provider orbital data network. Some customers will value open standards or sovereign control more than maximum scale. Others may choose SpaceX because the network is already present and expanding.

The most realistic near-term path is a layered expansion. Starlink continues to use lasers internally. Select third-party spacecraft connect through certified terminals. Government users adopt related systems under tailored contracts. Proposed orbital compute systems remain subject to regulatory review, technical demonstration, and economic proof. SpaceX satellite laser communications have already moved from experiment to operational infrastructure; the next test is whether the company can make them a trusted shared utility for other spacecraft.

Summary

SpaceX built Starlink’s optical inter-satellite links to solve practical network problems: coverage over remote areas, lower dependence on nearby gateways, flexible routing, higher backhaul capacity, and resilience during disruptions. The system uses laser terminals between satellites, not between ordinary customer terminals and satellites. That distinction matters because the customer sees a broadband service, but the hidden network layer increasingly works as a moving optical mesh in low Earth orbit.

The company’s future use of the technology now reaches beyond Starlink broadband. Commercial laser terminal sales, Muon Space’s planned integration, Starshield’s government-focused architecture, Gen2 Starlink expansion, and the proposed orbital data center system all point in the same direction. SpaceX wants laser links to become the connective tissue for satellites, data, compute, and ground networks. The plan still faces technical, regulatory, market, and governance tests, but the pattern is visible: Starlink’s space lasers are becoming a platform.

Appendix: Useful Books Available on Amazon

• Laser Satellite Communication: The Third Generation
• Optical Wireless Communications: System and Channel Modelling with MATLAB
• Optical Wireless Communications: An Emerging Technology
• Satellite Communications
• Satellite Communications Systems Engineering

Appendix: Top Questions Answered in This Article

How Is SpaceX Using Satellite Laser Communications Today?

SpaceX uses satellite laser communications inside the Starlink constellation to route traffic between satellites. These optical inter-satellite links help move data through space before it reaches an authorized ground gateway. The system supports coverage in remote areas, mobility markets, and regions where local ground infrastructure is limited.

Do Starlink Customers Communicate Directly With Space Lasers?

Ordinary Starlink customers do not point lasers at satellites. They use radio-frequency user terminals or, in direct-to-cell service, ordinary mobile devices connecting by radio. The laser links operate between satellites inside the Starlink network, where they serve as high-capacity backhaul and routing paths.

Why Are Laser Links Useful for Starlink?

Laser links help Starlink reduce dependence on nearby gateways, improve route flexibility, and move traffic across the constellation. They are especially useful over oceans, polar regions, remote land areas, and mobility corridors. They also support network resilience because traffic can be routed through other satellites when a local gateway path is constrained.

What Is a Starlink Mini Laser?

A Starlink mini laser is a smaller optical terminal intended to connect third-party spacecraft into Starlink’s in-space network. Muon Space has announced plans to integrate these terminals into its Halo satellite platform. Public statements describe 25 Gbps links at distances up to 4,000 km, depending on mission geometry and operating conditions.

Is SpaceX Selling Satellite Laser Links to Other Companies?

SpaceX has moved toward selling satellite laser hardware and related connectivity to other satellite operators. Public reporting in 2024 described SpaceX’s plan to sell satellite lasers to outside firms. The Muon Space agreement later gave a public example of how outside spacecraft could connect into the Starlink laser mesh.

How Do Laser Links Support Earth Observation Satellites?

Earth observation satellites often need to move large data files quickly. A laser relay through Starlink can reduce delays caused by waiting for a ground station pass. That can improve delivery time for wildfire monitoring, disaster response, maritime tracking, infrastructure monitoring, and other time-sensitive data products.

What Did SpaceX Apply to Use in the Future?

SpaceX applied for FCC authority for a proposed orbital data center system that would rely heavily on high-bandwidth optical inter-satellite links. The FCC accepted the application for filing on February 4, 2026. The proposal involved up to one million satellites, but acceptance for filing was not the same as operational approval.

Could Starlink’s Laser Mesh Support Space Data Centers?

A laser mesh could support space data centers by moving data among compute satellites, Starlink satellites, gateways, and terrestrial networks. The concept still faces hard engineering and regulatory tests, including power supply, thermal control, orbital debris management, economic feasibility, and licensing. The laser network is one enabling layer, not the full solution.

Does Starshield Use the Same Laser Communications Base?

Starshield draws from SpaceX’s Starlink-related satellite, communications, and operations experience. Public descriptions indicate that government-focused systems can use secure communications and interconnection with Starlink-style infrastructure. Specific details remain limited because Starshield serves government and national security customers.

Will Laser Links Replace Ground Stations?

Laser links will not remove the need for ground stations. Satellites still need gateways, telemetry, tracking, command links, internet connections, cloud access, and authorized ground infrastructure. Laser links reduce dependence on the nearest gateway and give the network more route choices, but ground systems remain part of the architecture.

Appendix: Glossary of Key Terms

Optical Inter-Satellite Link

An optical inter-satellite link is a laser communications path between two satellites. It carries data through space without immediately routing traffic to Earth. In Starlink, these links help satellites pass traffic to other satellites before reaching a ground gateway.

Space Laser

A space laser is a laser communications terminal operating on a spacecraft. In the Starlink context, the term refers to optical links between satellites rather than customer-facing lasers. The system uses narrow beams of light to move high-capacity data between moving spacecraft.

Low Earth Orbit

Low Earth orbit is the orbital region relatively close to Earth, commonly used by broadband constellations, Earth observation satellites, crewed spacecraft, and research missions. Satellites in this region move quickly across the sky and need frequent handovers between users, gateways, and other satellites.

Ground Gateway

A ground gateway is a terrestrial station that connects a satellite network to Earth-based internet, telecom, cloud, or private networks. Starlink gateways help move traffic between the orbital constellation and terrestrial infrastructure, even when laser links carry traffic between satellites first.

Starlink Mini Laser

A Starlink mini laser is a compact optical terminal intended for integration into third-party satellites or platforms. Public descriptions connect it to 25 Gbps links in low Earth orbit and to future services where outside spacecraft route data through Starlink’s optical mesh.

Starshield

Starshield is SpaceX’s government-focused satellite service line. It draws from Starlink-related technology, launch experience, satellite buses, and secure communications concepts. Public information describes government and national security applications, with mission details often restricted by customer requirements.

Orbital Data Center

An orbital data center is a proposed space-based computing system that would process or store data in orbit. SpaceX’s 2026 FCC filing described a proposed system using high-bandwidth optical inter-satellite links to connect orbital computing satellites with Starlink systems and ground stations.

Point of Presence

A point of presence is a network access location where traffic enters or exits a provider’s network. In satellite communications, a terrestrial point of presence can connect satellite-delivered data to cloud systems, internet exchange points, telecom networks, or customer-controlled infrastructure.