Jacksonville’s next technology story may begin above the atmosphere.
Star Catcher Industries, a Jacksonville-based space technology company, is developing what it describes as a space-based power grid. The concept uses concentrated solar energy and laser-based optical power beaming to deliver electricity to satellites already in orbit: without requiring those spacecraft to be redesigned or retrofitted.
As of August 2026, Star Catcher is relocating its headquarters to Building 400 at the Merritt at Gate Parkway office park. The expansion is designed to support a larger team and increased manufacturing capacity. The company has also secured a reported $60 million Space Force award and raised approximately $88 million in total capital.
An in-space power-beaming demonstration is targeted for later in 2026.
The project is still advancing through testing and development. But it offers a clear look at how satellite technology is moving from a specialized aerospace field into a broader infrastructure platform: and why Jacksonville matters.
Jacksonville’s Satellite Technology Moment
Jacksonville is not traditionally viewed in the same way as Cape Canaveral or Houston. However, the city has several practical advantages for a growing space technology company:
- Access to Florida’s established aerospace and defense network
- Proximity to launch, testing, and research facilities
- Available office, engineering, and manufacturing space
- Strong transportation and logistics infrastructure
- A growing technology workforce
- Connections to Space Florida and federal space programs
Star Catcher’s move to Building 400 is more than a headquarters change. Reporting from the Jacksonville Daily Record describes a roughly $2 million project that will allow the company to significantly expand its footprint.
The company’s growth also reflects a larger shift. Space businesses increasingly need facilities for more than software development. They need places to build, test, assemble, and support hardware.
For Jacksonville, that can mean more high-skilled jobs, supplier opportunities, engineering activity, and investment tied to the expanding orbital economy.
How Star Catcher’s Space-Based Power Grid Works
Today, most satellites generate their own electricity using onboard solar panels. They store extra power in batteries for periods when the Earth blocks direct sunlight.
That model works, but it creates limits.
Every satellite must carry its own power-generation and storage equipment. Batteries add weight. Solar arrays take up space. Power generation can decline as panels age. During periods in Earth’s shadow, available energy may be restricted.
Star Catcher’s proposed system works more like a utility grid.
The basic process
- Solar collection stations operate in orbit.
- Large optics, including Fresnel lenses, concentrate sunlight.
- The station converts that energy into laser light.
- The laser beam is aimed at a satellite’s existing solar panels.
- The receiving satellite gets additional power without a major hardware retrofit.
In simple terms, a power node in space acts like a remote solar utility. Instead of sending electricity through wires, it sends energy through a carefully controlled optical beam.
According to pv magazine USA, Star Catcher is focusing initially on power nodes positioned above low Earth orbit. The company says this placement could provide longer exposure to sunlight while allowing the nodes to serve satellites in lower orbits.
Star Catcher also says its technology may deliver substantially more power to compatible satellite arrays than those arrays could collect on their own. That is a company projection, not a guarantee for every spacecraft.
Why the “No Retrofit” Feature Matters
Space hardware is expensive and difficult to change after launch.
A satellite may spend years in design, testing, and manufacturing before reaching orbit. Once it launches, replacing a solar array or adding a new receiver may be impossible or cost-prohibitive.
A power-beaming system designed to work with existing solar panels could reduce that barrier.
Potential advantages include:
- Extending the useful life of aging satellites
- Reducing the amount of battery capacity spacecraft need to carry
- Providing more power for communications and computing
- Supporting missions during limited-sunlight periods
- Allowing satellite operators to prioritize mission equipment over power hardware
- Helping future spacecraft use shared infrastructure instead of operating as isolated systems
Star Catcher has reported previous optical power-beaming tests on Earth, including a 2025 demonstration that delivered more than 1.1 kilowatts to commercial solar panels. In April 2026, the company also reported completing an in-orbit spacecraft tracking and pointing demonstration.
The planned later-2026 space demonstration is an important next step. It should provide additional information about how the system performs in the actual orbital environment.
What the $60 Million Space Force Award Signals
On August 21, 2026, the Jacksonville Business Journal reported that Star Catcher received a $60 million Space Force award.
The reported structure includes:
- $30 million in government funding
- $30 million in private matching capital
- Support for advancing the company’s orbital energy grid
- Technical milestones connected to military utility
This does not mean a full commercial grid is already operating. It indicates that the technology has received meaningful government support for further development and demonstration.
The award also highlights why dependable orbital power has national security importance. Satellites support navigation, communications, weather monitoring, Earth observation, and defense operations. More reliable power could improve the availability and performance of those systems.
At the same time, commercial operators may benefit. Communications companies, remote-sensing providers, research organizations, and future space-based computing platforms all depend on energy in orbit.
The Possible Real-World Impact
The space-based power grid is still an emerging concept. Its long-term impact will depend on successful demonstrations, launch costs, safety requirements, regulatory approvals, customer demand, and the economics of building multiple orbital nodes.
If those challenges can be managed, possible applications include:
More capable communications
Additional energy could help satellites handle higher data volumes and support more demanding communications services.
Better Earth observation
Earth-observation satellites may be able to collect, process, and transmit more imagery. That matters for agriculture, emergency response, infrastructure monitoring, and weather analysis.
Longer satellite service life
Extra power could help compensate for solar-panel degradation over time, potentially allowing some satellites to remain useful longer.
Orbital computing
More available power could support specialized computing services in space. This remains an early-stage possibility, but it is one reason investors and defense agencies are watching the technology.
New commercial infrastructure
The network model could create an energy-as-a-service market in orbit. Satellite operators may eventually purchase power when and where they need it, much as businesses buy electricity from a utility on Earth.
What Homeowners Can Learn From the Satellite Shift
You do not need to own a satellite to benefit from the same technology trend.
Satellite imagery is already helping homeowners plan major property projects. Modern systems can analyze overhead images to estimate roof dimensions, roof sections, pitch, and overall complexity.
That creates a faster starting point than waiting days for multiple contractors to visit simply to provide a ballpark figure.
With an instant roof replacement estimate, homeowners can get an initial budget range before scheduling an in-person inspection.
Satellite-powered measurements can help identify:
- Approximate roof square footage
- The number of roof planes
- Roof complexity and angles
- Estimated material quantities
- Regional labor and material factors
- Low, middle, and high replacement price ranges
At Get My Roof Estimate Now, satellite-powered measurements are designed to be approximately 90–95% accurate for most homes, with results delivered in about 60 seconds. The service is free and does not require a credit card.
An online estimate is not a replacement for a contractor’s final inspection. Satellites cannot confirm every condition beneath shingles, identify all forms of hidden moisture, or evaluate structural damage up close.
It is best used as a planning tool.
Jacksonville Roof Planning: Start With Better Information
Florida homeowners face specific roofing concerns, including intense sun, heavy rain, humidity, wind, and storm exposure. Roof age and material selection also matter.
A typical full roof replacement in 2026 often falls within the broad U.S. range of $8,000 to $25,000, but the actual number depends on:
- Roof size, measured in squares
- Material selection
- Roof pitch
- Number of valleys, hips, and dormers
- Tear-off and disposal requirements
- Underlayment and flashing needs
- Local labor rates
- Permit and code requirements
- Storm-related damage
Common material categories include:
- Architectural shingles (Popular): A practical balance of appearance and cost
- Metal roofing (Premium): Long service life and strong durability, with a higher initial price
- Synthetic roofing (Premium): Specialized appearance and performance characteristics
- Roof coatings (Situational): More suitable for certain roof systems than standard pitched shingle roofs
Homeowners can start a free roof estimate to understand the likely cost before contacting contractors.
A Practical Satellite-Informed Roof Planning Checklist
Use technology to organize the first stage of your project, then confirm the details with a qualified professional.
- Check the roof’s age. Asphalt shingle roofs commonly approach replacement planning around 20 to 30 years, depending on installation and conditions.
- Look for visible warning signs. Watch for curling, cracking, missing shingles, granule loss, ceiling stains, and recurring leaks.
- Get an address-specific estimate. National averages are useful, but your property’s size and location matter more.
- Compare material options. Ask how shingles, metal, and other systems affect cost and expected service life.
- Request two or three written contractor proposals.
- Verify licensing and insurance.
- Ask what the satellite estimate does and does not include.
- Schedule an in-person inspection before signing a contract.
You can also review the company’s roof replacement guidance for additional planning benchmarks and use the roof estimate location directory to explore available markets.
Jacksonville’s Technology Edge Is Still Developing
Star Catcher Industries is not the only company shaping the future of satellite services. But its progress demonstrates an important point: the orbital economy needs infrastructure, not just spacecraft.
Power is one of that infrastructure’s most basic requirements.
Jacksonville’s expanding role in this work could bring aerospace manufacturing, engineering, and investment closer to the city’s established logistics and business networks. The company’s 2026 headquarters expansion, new Space Force award, and planned in-space demonstration are meaningful milestones: but they are milestones in an ongoing development process.
The broader lesson for homeowners is equally practical. Satellite technology is becoming more useful on Earth, too.
From satellite imagery to satellite-powered measurements, better data can make large decisions faster and more transparent. For a roof replacement project, that means getting a useful budget range in 60 seconds: then using that information to plan carefully, compare contractors, and move forward with confidence.