Star Catcher Company Profile: Space Power Infrastructure for the Next Orbital Economy

Key Takeaways

• Star Catcher is building a space-to-space power service for satellites and spacecraft.
• The company reported $88 million in capital raised after its May 2026 Series A.
• Its next test is a 2026 orbital optical power-beaming demonstration.

Star Catcher Company Profile and Market Position

Star Catcher Industries, Inc. is a Jacksonville, Florida space infrastructure company founded in 2024 to build what it describes as the first power grid in space. Its business is centered on the Star Catcher Network, a planned system of orbital Power Nodes that collect solar energy, concentrate it, refine it into wavelengths suited for spacecraft solar panels, and beam that energy to satellites or spacecraft already using standard solar arrays. As of May 12, 2026, the company remained pre-operational at commercial grid scale, but it had reported major financing, customer agreements, ground demonstrations, one on-orbit subsystem demonstration, and a planned 2026 orbital optical power-beaming demonstration through its company news releases.

The company’s distinction is that it is not mainly promoting space-based solar power for terrestrial electricity grids. Star Catcher’s first business model is space-to-space energy delivery. The customer spacecraft would remain the electricity user, and its own solar arrays would act as the receiving surface. That model gives the company a more direct early market than full-scale power beaming from orbit to Earth because it targets satellites that already buy spacecraft buses, solar arrays, batteries, propulsion systems, payloads, launch capacity, and mission services. Star Catcher is positioning power as another orbital service rather than a feature locked inside each individual spacecraft.

The company’s core claim is commercially simple: many satellites could do more work if they had more available power. Spacecraft power budgets shape payload choices, communications throughput, onboard processing, propulsion availability, duty cycles, eclipse operations, and mission duration. Star Catcher argues that operators should be able to purchase power after launch instead of sizing every spacecraft around the maximum power it might need during its lifetime. Its technology description says the Star Catcher Network is intended to deliver up to 10 times more power to compatible spacecraft without requiring a custom receiver or retrofit to the satellite’s power system.

This position places Star Catcher inside the space economy’s infrastructure segment. It is not a satellite operator selling communications, Earth observation, positioning, navigation, or timing. It is also not a conventional spacecraft manufacturer, though its network depends on satellites, optics, software, and power subsystems. The company is closer to an orbital utility model, selling power access to operators whose missions are constrained by what their spacecraft can generate and store alone.

Founding Team, Headquarters, and Organizational Development

Star Catcher’s founding team includes Andrew Rush, Michael Snyder, and Bryan Lyandvert. The company’s July 2024 seed announcement described Rush as a former chief executive of Made In Space and founding president and chief operating officer of Redwire after Redwire acquired Made In Space in 2020. The same announcement identified Snyder as a Made In Space co-founder and former Redwire chief technology officer, and described Lyandvert as a venture investor and operator with experience at MetaProp Ventures, T-Bird Capital, and Amazon.

The company’s public leadership roster also lists Nathan O’Konek as chief operating officer, Camille Bergin as chief marketing officer, and Cassie Lee as vice president of business development. Star Catcher announced Bergin’s chief marketing officer appointment on April 7, 2026, shortly before the company’s May 2026 Series A announcement. The company’s board additions announced in May 2026 included retired General John W. “Jay” Raymond, former Chief of Space Operations of the United States Space Force, along with B Capital’s Jeff Johnson and SHIELD’s David Rothzeid.

Jacksonville matters to the company’s identity because Star Catcher has framed itself as a Florida space technology company with a local demonstration history. Its March 2025 demonstration took place at EverBank Stadium, home of the Jacksonville Jaguars, where the company collected and transmitted concentrated solar energy over more than 100 meters to off-the-shelf satellite solar arrays. The test did not put the full network in orbit, but it gave Star Catcher a public ground demonstration close to its home base.

The company’s operating culture, as presented publicly, combines former space manufacturing leadership, optical power-beaming development, venture-backed financing, and national security outreach. That mix is commercially relevant because orbital power service has to satisfy engineering customers, spacecraft manufacturers, government buyers, investors, and mission operators. A company selling a new orbital utility cannot rely on a single technical breakthrough. It has to prove spacecraft compatibility, beam control, safety, mission economics, procurement fit, and enough commercial demand to justify building shared orbital infrastructure.

The Star Catcher Network Technology Model

The Star Catcher Network is described as a constellation of Power Nodes designed to collect diffuse sunlight, concentrate it using lightweight Fresnel lenses, refine the light into wavelengths more useful for spacecraft solar panels, and beam concentrated energy to customer satellites. The receiving spacecraft would use its existing solar array hardware rather than a custom power receiver. In the company’s model, this reduces the adoption barrier because a satellite operator would not need to redesign a spacecraft around Star Catcher’s system before using the service.

Optical power beaming is the technical center of the concept. A beam must deliver energy to a receiver at useful power levels, maintain pointing accuracy, avoid waste, limit risk to nearby systems, and remain compatible with spacecraft motion, orbital geometry, attitude constraints, and mission operations. Star Catcher’s materials refer to precision tracking systems and adaptive mirrors able to deliver energy to multiple satellites. The company says each Power Node could direct energy to as many as 50 satellites at once, a claim that still depends on future operational validation.

The company’s technical approach differs from microwave or radio-frequency power beaming concepts often associated with large space solar power stations. Star Catcher is pursuing optical energy transmission, with ground tests using laser systems and photovoltaic receivers. The receiver-side logic is commercially attractive because solar cells already convert light into electricity. The difficult part is not proving that solar cells produce power from light. The harder task is creating a reliable orbital service that can collect sunlight, condition it, point it accurately, manage heat, coordinate with client spacecraft, and operate within safety and regulatory limits.

The first practical market test will be whether a satellite operator can justify the cost of buying beamed power rather than launching a larger bus, larger solar arrays, larger batteries, different duty cycles, or more spacecraft. Star Catcher’s value proposition is strongest where additional power produces measurable revenue, mission performance, resiliency, or mission life. That makes high-throughput communications, direct-to-cell connectivity, high-resolution sensing, onboard computing, agile maneuvering, and hosted payload platforms natural early customer categories.

Demonstration Milestones Through May 2026

Star Catcher’s public technical record began with its March 21, 2025 announcement that it had completed its first demonstration of space power-beaming technology. The company said that test collected and transmitted concentrated solar energy over more than 100 meters to multiple off-the-shelf satellite solar arrays. It described the event as a validation of the system’s ability to send power to standard spacecraft solar panels without requiring custom receivers or retrofits.

The next major public milestone came in November 2025, when Star Catcher reported a power-beaming campaign at NASA’s Kennedy Space Center and Space Florida’s Launch and Landing Facility. The company said it delivered more than 1.1 kilowatts of electrical power to commercial off-the-shelf solar panels and delivered more than 10 megajoules of energy during the test campaign. Star Catcher framed the result as exceeding the previous public benchmark set by the U.S. Defense Advanced Research Projects Agency, whose Persistent Optical Wireless Energy Relay program had reported more than 800 watts delivered over 8.6 kilometers in a May 2025 test, according to Star Catcher’s record-breaking optical power-beaming release.

The November 2025 campaign also connected the technology to customer use cases. Star Catcher said it delivered one to 10 Suns of optical energy to single-junction and triple-junction solar panels commonly used in space, powered customer payloads tied to space data centers, in-space manufacturing, and remote sensing, and wirelessly transmitted energy to an Intuitive Machines Lunar Terrain Vehicle test article to recharge onboard batteries. The lunar vehicle reference does not mean Star Catcher had deployed a lunar power service. It means the company used the test campaign to demonstrate compatibility with power-hungry mission hardware tied to future lunar operations.

In April 2026, Star Catcher announced that it had completed Sextant Alpha, its first flight-heritage mission. The company said the mission, completed in late 2025, demonstrated proprietary spacecraft acquisition and tracking software on orbit at distances representative of commercial power-beaming operations. It flew aboard Loft Orbital virtual mission infrastructure and validated precision tracking and pointing functions needed for wireless energy delivery.

The next test step, as announced on May 12, 2026, is a first space-based optical power-beaming demonstration later in 2026. Star Catcher also said the Series A funding would accelerate a second orbital mission already in development. The company has not yet shown a publicly verified commercial orbital grid delivering routine power to customers, so its status as of May 12, 2026 is best described as an early-stage infrastructure company moving from ground demonstrations and subsystem validation toward orbital system demonstration.

Customers, Power Purchase Agreements, and Early Demand

Star Catcher’s commercial model borrows from terrestrial electricity markets by using power purchase agreements, usually called PPAs. A PPA is a contract in which one party agrees to buy electricity or power service from another party under defined terms. In Star Catcher’s case, the agreements concern future orbital energy service rather than electricity delivered through a terrestrial grid. The model gives the company a way to translate customer interest into contracted demand before the full network becomes operational.

The company announced a PPA with Astro Digital on September 16, 2025. Star Catcher said Astro Digital would buy power from the Star Catcher Network to support its mission-as-a-service model, including higher-power use of ESPA-class platforms such as Astro Digital’s Corvus XL. The company presented the partnership as a way to scale platforms from single-kilowatt buses to 10-kilowatt-plus mission capability without expanding the satellite’s physical footprint.

A second named commercial PPA came with Loft Orbital on November 18, 2025. Under that Loft Orbital agreement, Loft Orbital said it would purchase power from the Star Catcher Network to augment the power-generation capability of its constellation of mission-agnostic satellite platforms. Loft’s hosted payload model is a logical fit for Star Catcher because hosted payload operators often want more onboard power, processing, data handling, and operational flexibility than a standardized bus can provide at low cost.

By November 2025, Star Catcher said it had signed six PPAs collectively valued in the tens of millions of dollars in annual recurring revenue through the end of the decade. On May 12, 2026, the company reported seven PPAs, multiple government contracts, and a qualified commercial pipeline representing more than $3 billion in projected annual recurring revenue. Those figures should be read as company-stated commercial pipeline and contract information, not as audited revenue from an operational orbital grid.

Star Catcher’s early customer focus points toward satellite platforms, remote sensing, orbital data infrastructure, national security missions, direct-to-cell communications, advanced computing, in-space manufacturing, lunar systems, and space stations. These are all power-sensitive markets, but they differ sharply in timing and buying behavior. Hosted satellite platforms and remote sensing spacecraft may provide nearer-term demand. Large space stations, lunar industrial activity, and orbital manufacturing require longer deployment schedules and more customer-side capital formation.

The company’s early demand case rests on the idea that extra power has a direct economic or mission value. More power can support higher communications throughput, more frequent imaging, stronger propulsion availability, longer eclipse operations, or onboard data processing. A future customer would compare Star Catcher’s service price against larger solar arrays, larger batteries, larger spacecraft buses, higher launch mass, additional satellites, reduced mission output, or delayed capability.

Government, Defense, and Security Relevance

Star Catcher’s business has a clear defense and security dimension because many military and intelligence spacecraft carry power-hungry payloads. Synthetic aperture radar, optical observation, assured communications, onboard processing, and maneuvering all place pressure on spacecraft power systems. Star Catcher’s December 2025 announcement said AFWERX selected the company for a $1.25 million Small Business Innovation Research Phase II contract to mature space-to-space power-beaming subsystems for its orbital energy grid.

The defense value proposition is linked to endurance, responsiveness, and resilience. Satellites that can access external power may operate payloads more often, move with fewer power tradeoffs, maintain higher data rates, or recover more gracefully from degraded solar-array performance. Star Catcher’s May 2026 Series A announcement also said the funding would support deeper engagement with U.S. national security customers, and its customer base spans commercial operators and U.S. government stakeholders.

Any defense-linked power-beaming service would face scrutiny beyond ordinary commercial adoption. Beam pointing, optical safety, space traffic coordination, cyber resilience, spectrum-adjacent coordination even for optical systems, export controls, and mission assurance all matter. A customer buying orbital power for a national security mission would need confidence that the service does not create a new dependency that is more fragile than the problem it solves. It would also need confidence that an external power service can operate under degraded communications, contested space conditions, eclipse geometry, and dynamic tasking.

The presence of retired General John W. “Jay” Raymond on Star Catcher’s board gives the company a visible national security connection. That does not make the technology operational for military users, and it does not guarantee government adoption. It does indicate that Star Catcher is building board-level capacity to address space defense procurement, mission needs, and institutional customer expectations. For a company trying to sell orbital infrastructure, government demand can provide early validation, but it can also add contracting complexity and schedule risk.

Financing, Investors, and Board Expansion

Star Catcher closed a $12.25 million seed round in July 2024, co-led by Initialized Capital and B Capital, with participation from Rogue VC. The seed funding announcement positioned the company to validate and demonstrate power-beaming services through ground demonstrations, an on-orbit demonstration, and later commercial service. That first financing round gave Star Catcher enough capital to move from concept announcement to visible technical tests during 2025.

The company’s May 12, 2026 Series A was much larger. Star Catcher announced a $65 million oversubscribed round led by B Capital and co-led by SHIELD Capital and Cerberus Ventures, with participation from GreatPoint Ventures, Helena, Oceans Ventures, and MVP Ventures. The new round brought total capital raised to $88 million. The company said the funding would support its first space-based optical power-beaming demonstration, a second orbital mission, engineering capacity, operations capacity, commercial expansion, and U.S. national security engagement.

The table below summarizes Star Catcher’s public financing and demonstration milestones through May 12, 2026.

Star Catcher’s investor mix matters because the company sits between energy infrastructure, space systems, deep technology, and defense. B Capital brings energy and growth-investment framing. SHIELD Capital brings defense and national security technology focus. Cerberus Ventures connects the company to a larger investment organization with interests in energy, digital infrastructure, computing, and other strategic domains. The board additions attached to the Series A also give investors direct governance influence as Star Catcher enters its more expensive orbital demonstration phase.

Business Model, Competitive Context, and Adoption Risks

Star Catcher is trying to create an orbital utility. That is a more complex business than selling a spacecraft component because the company must build infrastructure before customers can receive routine service. The first customer agreements help validate demand, but revenue at grid scale depends on successful orbital deployment, coverage, pricing, reliability, insurance acceptability, and integration into customer mission planning. A satellite operator may like the idea of more power but still hesitate if service availability, operational procedures, or contract terms increase mission risk.

The company’s most direct cost-benefit argument compares external power service with the cost of adding power inside the spacecraft. Larger arrays add mass, deployment complexity, drag in lower orbits, and integration work. Larger batteries add mass and thermal burden. Larger spacecraft buses raise manufacturing and launch costs. More satellites increase constellation complexity. Star Catcher’s service becomes attractive when its power purchase price is lower than those alternatives and when extra power creates revenue, resilience, or capability that the customer can measure.

Competitive context includes terrestrial and space-based power-beaming research, DARPA optical power-beaming work, space solar power programs, and other companies exploring orbital energy infrastructure. Caltech’s Space Solar Power Demonstrator showed wireless power transmission in space in 2023 and produced useful lessons for the broader field, even though Caltech’s project was an academic research demonstrator rather than Star Catcher’s commercial service model. The European Space Agency’s SOLARIS initiative examines space-based solar power for terrestrial energy, a different market path but part of the same broader technical conversation.

Regulatory and operational questions remain. Star Catcher will need to show that optical beams can operate safely near other spacecraft, that customer satellites can receive power without damaging solar arrays, that tracking and attitude-control systems can support real orbital geometry, and that the service can function amid space traffic, outages, and customer scheduling needs. Optical power-beaming systems also need a strong safety case because concentrated beams raise natural questions about mispointing, reflections, interference with sensors, and space situational awareness.

The company’s advantage is timing. Spacecraft power demand is rising because operators want more throughput, more onboard processing, more maneuverability, and more persistent sensing. Star Catcher is entering the market as satellite platforms, hosted payload models, direct-to-cell systems, and orbital computing concepts all face power limits. The risk is that power demand alone does not create an infrastructure business. Star Catcher has to turn demand into repeatable orbital service, priced low enough for customers and reliable enough for mission operators.

Star Catcher’s Status as of May 12, 2026

As of May 12, 2026, Star Catcher had not yet deployed a full operational power grid in space. Its status was more precise: funded early-stage orbital infrastructure company, validated ground-test performer, on-orbit software demonstration owner, PPA holder, government contract recipient, and 2026 orbital demonstration candidate. That distinction is important because the company’s strongest claims concern demonstrated subsystems and planned service capability, not a completed grid already selling routine orbital electricity.

The company had reported more public progress than many speculative space infrastructure startups. It had a named headquarters, named founders, named investors, named board additions, named commercial customers, multiple test campaigns, and a concrete orbital demonstration target. It also operated in a market where customer pain is real: spacecraft power budgets limit what satellites can do. These facts support treating Star Catcher as a company to watch rather than a purely conceptual venture.

Commercial proof still depends on the 2026 demonstration sequence and later service deployment. A successful orbital test would not by itself prove full market viability, but it would answer the most immediate technical question: whether Star Catcher can move from ground tests and pointing software validation to space-based optical power delivery. After that, the company would still need to prove service scale, multi-customer scheduling, unit economics, orbital safety, manufacturing repeatability, and customer-side operational trust.

Star Catcher’s broader significance comes from its attempt to move satellite power from a spacecraft design constraint to a purchased orbital service. If the model works, it could shift how customers size spacecraft, choose payloads, plan eclipse operations, evaluate very low Earth orbit missions, and design power-intensive commercial or defense constellations. If it falls short, the company will still have tested an important question for the space economy: whether shared energy infrastructure can become a practical service before large-scale human or industrial activity in orbit demands it.

Summary

Star Catcher is one of the clearest examples of a new class of space infrastructure company built around services that spacecraft could buy after launch. Its planned product is not communications bandwidth, imagery, launch capacity, or satellite hosting. It is power availability, delivered through optical beams to existing solar arrays. That approach gives the company a direct link to a growing operational problem: satellites are being asked to communicate more, sense more, compute more, maneuver more, and remain available for longer periods, yet their power budgets remain limited by onboard hardware.

The company’s progress through May 12, 2026 is substantial but incomplete. Star Catcher raised $12.25 million in seed funding, completed a 100-meter ground demonstration in Jacksonville, reported more than 1.1 kilowatts delivered to commercial solar panels during a Kennedy Space Center test campaign, completed the Sextant Alpha tracking and pointing software demonstration in orbit, secured a $1.25 million AFWERX Phase II contract, signed seven reported PPAs, and announced a $65 million Series A that brought total capital raised to $88 million. The next test is whether its planned 2026 space-based optical power-beaming demonstration can move the company from convincing technical narrative to orbital proof.

Star Catcher’s long-term case depends on disciplined execution rather than the appeal of the idea alone. Satellite operators will buy power only if it improves mission economics, reduces spacecraft burden, increases revenue, extends mission life, or strengthens resilience at an acceptable cost and risk level. The company’s opportunity is significant because power touches almost every high-value activity in orbit. Its risk is equally direct: an orbital utility has to be dependable before customers can build missions around it.

Appendix: Useful Books Available on Amazon

• The Case for Space Solar Power
• The High Frontier: Human Colonies in Space
• Mining the Sky
• The Space Economy
• Space Is Open for Business

Appendix: Top Questions Answered in This Article

What Does Star Catcher Do?

Star Catcher is developing a space-to-space power service for satellites and spacecraft. Its planned Star Catcher Network would collect solar energy in orbit, concentrate and refine it, and beam it to spacecraft that can receive the energy through existing solar arrays.

Is Star Catcher Operational Yet?

Star Catcher had not announced a fully operational commercial power grid in space as of May 12, 2026. It had completed ground demonstrations, reported an on-orbit tracking and pointing software demonstration, signed customer agreements, raised venture funding, and announced plans for a 2026 orbital power-beaming demonstration.

How Much Money Has Star Catcher Raised?

Star Catcher announced a $65 million Series A round on May 12, 2026. The company said that round brought its total capital raised to $88 million, following its earlier $12.25 million seed round announced in July 2024.

Who Founded Star Catcher?

Star Catcher was founded by Andrew Rush, Michael Snyder, and Bryan Lyandvert. Rush and Snyder previously worked in space manufacturing through Made In Space and Redwire, and Lyandvert brought venture investment and operating experience.

Where Is Star Catcher Based?

Star Catcher is based in Jacksonville, Florida. The company has emphasized its Florida identity, including its first public system-level power-beaming demonstration at EverBank Stadium in Jacksonville in March 2025.

How Does Star Catcher Beam Power to Satellites?

Star Catcher’s planned Power Nodes would collect sunlight, concentrate it, refine it into wavelengths suited for spacecraft solar panels, and transmit it through optical beams. Customer satellites would use existing solar arrays, which is central to the company’s no-retrofit adoption argument.

Who Are Star Catcher’s Named Customers?

Star Catcher has publicly announced power purchase agreements with Astro Digital and Loft Orbital. The company also stated in May 2026 that it had seven PPAs, multiple government contracts, and a qualified commercial pipeline.

Why Would Satellites Need External Power?

Satellites need power for payloads, communications, computing, propulsion, thermal control, and eclipse operations. More available power can support higher duty cycles, more data processing, stronger communications links, or more frequent maneuvering.

What Is the Defense and Security Relevance?

Defense and security missions often need power-intensive sensing, communications, maneuvering, and onboard processing. Star Catcher’s AFWERX Phase II contract and board expansion show that the company is treating U.S. national security customers as part of its early market.

What Is the Main Risk for Star Catcher?

The main risk is converting demonstrations and agreements into reliable orbital service. Star Catcher must prove optical power delivery in space, operational safety, customer scheduling, cost advantage, spacecraft compatibility, and repeatable infrastructure deployment.

Appendix: Glossary of Key Terms

Star Catcher Network

The Star Catcher Network is the company’s planned space-based power grid. It would use orbital Power Nodes to collect solar energy, concentrate it, refine it, and beam it to customer satellites or spacecraft using their existing solar arrays.

Optical Power Beaming

Optical power beaming is the transfer of energy using directed light, often laser-based or laser-like optical transmission. In Star Catcher’s model, concentrated optical energy would be sent to spacecraft solar panels and converted into electricity by the receiving spacecraft.

Power Node

A Power Node is Star Catcher’s term for an orbital platform that would collect, condition, and distribute solar energy to customer spacecraft. The company describes these nodes as modular elements of its planned power grid in space.

Power Purchase Agreement

A power purchase agreement is a contract to buy power or energy service under defined terms. Star Catcher uses the term for future orbital energy sales to satellite operators and spacecraft service providers.

Low Earth Orbit

Low Earth orbit is the orbital region relatively close to Earth, commonly used by communications, Earth observation, science, and hosted payload satellites. Star Catcher’s early customer use cases focus heavily on missions in this region.

Fresnel Lens

A Fresnel lens is a lightweight optical lens design that can concentrate light with less mass and thickness than many conventional lenses. Star Catcher describes Fresnel lenses as part of its sunlight collection and concentration approach.

AFWERX

AFWERX is the innovation arm associated with the U.S. Department of the Air Force and Air Force Research Laboratory. It supports small businesses and technology developers through programs including Small Business Innovation Research contracts.

Small Business Innovation Research

Small Business Innovation Research, often shortened to SBIR, is a U.S. government program that funds small companies developing technologies with commercial and government uses. Star Catcher announced an AFWERX Phase II SBIR contract in December 2025.

Hosted Payload

A hosted payload is a customer instrument or system carried on another operator’s satellite platform. Hosted payload providers may benefit from external power if additional energy allows more processing, longer operations, or greater payload flexibility.

Eclipse Operations

Eclipse operations refer to spacecraft activity during periods when Earth blocks sunlight from reaching the satellite. During eclipse, satellites rely on stored battery energy, which can limit payload use, communications, propulsion, or mission duty cycles.