PHOTONFLAME Technologies: Programmable Photonic Ignition

The Problem, By The Numbers

Combustion hasn’t evolved. The world pays the price.

For more than 100 years, spark plug technology has barely changed. It’s imprecise and inefficient, and it holds back performance, emissions, and engine intelligence. That means wasted fuel, lost power efficiency, and increased maintenance costs compared to photonic ignition.

Up to 15%

Fuel wasted due to inefficient combustion

Up to 30%

Higher real-world emissions from inconsistent ignition

Up to 10%

Power lost to ignition variability and misfires

Ongoing

Maintenance cost from plug replacement and downtime

Illustrative figures based on management’s internal engineering analysis of conventional spark-ignition performance under representative operating conditions. Actual results will vary by application and are not a guarantee of PHOTONFLAME’s future performance.

Why photonic ignition

Nothing left to wear out

A traditional spark plug erodes every time it fires: the gap widens, fouls, and eventually fails. PHOTONFLAME replaces that gap with a laser, so there's no electrode to wear down and no part to replace over the life of the engine.

More power, less wasted fuel

Because ignition is controlled by software instead of a fixed piece of metal, it can be tuned in real time to how an engine is actually running, unlocking more complete combustion, more usable power, and less fuel burned for the same output.

Reliable exactly where spark plugs fail

High-pressure conditions, lean fuel mixtures, and extreme environments are where conventional spark plugs misfire most often. PHOTONFLAME is designed to stay consistent precisely where traditional ignition breaks down.

Technology

Ignition, reinvented as a laser

Instead of an electrode and a spark, PHOTONFLAME uses a compact, high-power laser to ignite the fuel-air mixture, with pinpoint precision and none of the wear that eventually degrades a traditional spark plug. The result is a faster, more complete burn, triggered in a fraction of a millisecond, every time the engine fires.

Cutaway diagram of a PHOTONFLAME unit installed in a cylinder head, showing the optical window, optical focal point, and combustion chamber where the beam ignites the air-fuel mixture

Conceptual cutaway of a PHOTONFLAME unit seated in a cylinder head, illustrating the optical path from the unit's window to the focal point inside the combustion chamber.

System-level architecture diagram showing the signal path from vehicle or engine control, through PHOTONFLAME control, to the photonic ignition unit, to the combustion event

System-level view of the same signal path shown above: engine control electronics trigger the PHOTONFLAME control module, which fires the ignition unit at the commanded moment.

By The Numbers

Photonic ignition vs. spark ignition

Beyond the qualitative differences, the target engineering specifications point to a measurable performance gap: faster ignition, tighter timing control, and no wear-driven degradation over time.

Metric	PHOTONFLAME	Conventional Spark
Ignition latency	<1 ms	2–5 ms typical
Timing precision	±0.11° crank angle	±1–3° typical variability
Efficiency gain potential	10–15%	Baseline efficiency
Pressure tolerance	Up to 300 bar	100–150 bar typical limit
Electrode wear	Zero	Wear, fouling & gap degradation

Target specifications reflect PHOTONFLAME’s engineering design goals for its photonic ignition platform, currently under prototype development. These figures are for informational purposes only, are subject to change as development progresses, and are not a guarantee of future performance. Patent applications pending.

Engineering overview of the PHOTONFLAME unit showing front, side, and top views, and callouts for the engine interface, optical ignition interface, electrical interface, and control interface

Engineering overview of the target unit design, showing the four key interfaces: engine (mechanical), optical (ignition), electrical (power), and control (system integration).

Packaging

Fits where a spark plug already goes

Fits the same spark-plug socket engines already use, no re-engineering the engine required

Durable, self-cleaning optical window built to withstand real combustion conditions

A replaceable cartridge design is under evaluation, for easy servicing down the line

Connects directly into a vehicle's existing engine control system

No electrode, so nothing to wear out over the life of the engine

Designed to withstand the thermal and vibration environment directly under the valve cover, with no re-machining of the head required

Targeting compatibility with multi-cylinder performance and racing engine platforms

Conceptual rendering of PHOTONFLAME's target integration approach. The platform remains in prototype development; actual fit and form factor are subject to change. Patent applications pending.

Software & Connectivity

Every ignition event, logged and measurable

Because ignition timing is controlled photonically rather than mechanically, PHOTONFLAME's control electronics can report on every ignition event in real time — timing, cylinder pressure, and system health — targeted for direct integration with an engine's existing control and telemetry systems.

Concept dashboard for PHOTONFLAME's control software, showing ignition timing, cylinder pressure, ignition status, peak pressure, combustion quality, and CAN bus connection status

Concept view of PHOTONFLAME's control & telemetry software, targeting real-time ignition timing, cylinder pressure, and system-health reporting over a standard CAN bus connection.

Path to Production

How PHOTONFLAME gets from prototype to production

Our plan moves deliberately: prove the technology works, prove it works in real engines under real conditions, then scale it into engines built by others.

Prototype & validation

Build and bench/dyno-test a fully working prototype over a structured 32-week program, confirming the technology performs as designed before it goes near a real engine.

Paid pilots & real-world testing

Put PHOTONFLAME into the hands of the motorsports, industrial, and aerospace partners already engaged with us, testing it in real engines, under real operating conditions.

Hardware deployment & OEM licensing

Begin deploying ignition systems directly, and license the technology to engine manufacturers and Tier-1 suppliers so it can be built into new engine programs at scale.

Production royalties & recurring revenue

As PHOTONFLAME is built into production engines, we earn ongoing per-unit royalties, plus recurring revenue from fleet management and diagnostics software.

Four-stage PHOTONFLAME development timeline: Prototype (concept validated), Engineered Prototype (performance validated), Production Intent (pre-production validated), and Scale (built for global impact)

The same four stages above, shown against the unit's evolving hardware — from an early bench prototype through to a production-representative design ready to scale.

Market Opportunity

A multi-billion-dollar opportunity, one market at a time

PHOTONFLAME’s commercialization strategy is intentionally phased, starting in high-performance motorsports and industrial applications, where the technology can be proven fastest, before expanding into the far larger automotive, energy, and aerospace markets.

$187B+

Total Addressable Market

Global, across motorsports, automotive, industrial, energy, and aerospace

$39B+

Serviceable Available Market

Next 10 years, within PHOTONFLAME’s phased commercialization strategy

$3B+

Serviceable Obtainable Market

Next 10 years, management’s estimate of realistic capture

Target Market	TAM	SAM (10 yr)	SOM (10 yr)
Motorsports	$8B+	$2.1B+	$250M+
Automotive OEM & Performance	$72B+	$12B+	$1B+
Industrial Engines	$46B+	$9B+	$750M+
Energy & Natural Gas	$28B+	$6B+	$500M+
Aerospace & Defense	$21B+	$5B+	$400M+
Emerging & Adjacent Markets	$12B+	$5B+	$250M+

Market estimates reflect PHOTONFLAME management’s analysis of publicly available industry research and are intended to provide directional market sizing based on the Company’s target applications. TAM, SAM, and SOM figures are management estimates only, are not guarantees of future results, and supporting methodology is available upon request.

PHOTONFLAME photonic ignition units installed in a large-bore industrial natural-gas engine, with a technician monitoring power output, thermal efficiency, and emissions on a display

Target industrial application: large-bore natural-gas engines, where faster and more complete combustion supports lower emissions and higher thermal efficiency.

Concept fleet-monitoring dashboard for PHOTONFLAME-equipped assets, showing total output, average efficiency, run hours, and per-asset status across a connected fleet

Concept fleet-management view for connected, PHOTONFLAME-equipped assets — the recurring software layer behind the royalty and diagnostics revenue described above.

Traction

Engaged before we asked

Motorsports

NASCAR ecosystem

Signed letter of support from Colton Collins (ARCA/NASCAR Driver) supporting future R&D, validation, and potential motorsports pathways within the NASCAR ecosystem.

Motorsports

NHRA engagement

Active technical engagement and discussions across the NHRA community.

Energy

Breton Energy

Soft letter of intent supporting future collaboration.

Aerospace

Aerospace discussions

Active technical engagement including kerosene ignition applications and validation pathways.

Industrial

Natural gas compression

Partnership discussions underway with a leading natural gas compression provider, under a mutual NDA.

Capital

The Veterans Fund

Letter of intent prepared for participation, contingent upon lead investor confirmation.

Capital

Angels Partners

Investment application submitted and under review.

Relocation

Texas partnership

Engaged with the Office of the Governor of Texas, the Texas Department of Economic Development, and the Dallas Regional Chamber to relocate headquarters and operations to the Dallas–Fort Worth area.

Patent portfolio

Three non-provisional patent filings covering core photonic ignition architecture and related systems, filed January 11, 2026.

Support reflects an individual driver's endorsement and does not constitute an endorsement by NASCAR, ARCA, or their affiliates.

PHOTONFLAME ignition units mounted on an engine dyno test bench, with a live engine development dashboard showing engine speed, power, torque, and ignition timing

Target bench/dyno validation setup for the prototype & validation program described above — instrumented for engine speed, power, torque, and ignition timing.

Team

Founder-led, industry-connected

John Gibson

Founder & CEO

John is the inventor and technical founder behind PHOTONFLAME, drawing on more than twenty years of independent research across combustion, photonics, lasers, and engine technology. A U.S. Marine Corps veteran, he leads technology, IP, product vision, and capital strategy.

Justin McColley

Co-Founder & COO

Justin brings more than twenty years of experience in operations and workforce leadership, overseeing compliance, SOPs, and scheduling across field operations. He leads the operational execution and commercialization infrastructure PHOTONFLAME needs to scale.

Origin Story

It started with a laser pointer, not a lab

John Gibson’s fascination with lasers started with a laser pointer and grew into a personal invention, a biometric-controlled photonic lighter, before it ever touched an engine. That changed while he was helping a friend work on a misfiring cylinder: if focused light carried enough energy to ignite something from across a room, why couldn’t that same principle be engineered into a spark plug? Digging into the physics, John found laser ignition wasn’t new. Researchers had proven it worked in engines as far back as the late 1970s. What had never caught up were the lasers, electronics, and manufacturing needed to make it practical. That gap is what PHOTONFLAME exists to close.

It started with curiosity about a blue laser, and collided with a misfiring cylinder in a friend’s car. Once I saw the connection, I couldn’t stop asking the next question.

John Gibson, Founder & CEO

FAQ

Questions investors ask us

Why hasn’t someone already done this?

Laser and photonic ignition have been researched for decades, but practical commercialization has historically been limited by cost, packaging, reliability, thermal management, power electronics, and manufacturing challenges. PHOTONFLAME is focused on integrating modern photonics, electronics, and software into a commercially viable ignition platform, capabilities that have only recently become practical to combine at this scale and cost.

Why not just go electric?

Electrification will continue to play an important role in transportation and energy, but hundreds of millions of internal combustion engines remain in operation worldwide and are expected to keep serving critical roles for decades, in motorsports, heavy-duty transportation, industrial equipment, natural gas compression, distributed power generation, marine, aviation, and defense. PHOTONFLAME isn’t competing against electrification; it’s focused on improving the performance, efficiency, and reliability of the combustion systems that will keep powering those industries, including compatibility with alternative and cleaner fuels.

What is PHOTONFLAME’s current stage?

PHOTONFLAME is a pre-revenue company currently advancing prototype development along a structured 32-week engineering plan. Funding is intended to support engineering, prototype construction, testing, validation, intellectual property expansion, and early commercialization activities.

How will PHOTONFLAME generate revenue?

The long-term business model spans hardware sales, OEM licensing, strategic partnerships, per-unit production royalties, and recurring software revenue from fleet management, diagnostics, and biometric authorization services, giving PHOTONFLAME multiple independent paths to revenue rather than reliance on a single market or customer.

Why does the platform include biometric activation?

PHOTONFLAME’s platform is being designed to support biometric authentication for authorized system activation where appropriate. This is intended to provide an additional layer of operational security while enabling future fleet management, equipment authorization, and theft-deterrence applications across commercial, industrial, and specialty use cases.

What protects PHOTONFLAME’s technology?

PHOTONFLAME has filed multiple non-provisional patent applications covering its core photonic ignition architecture and related systems, and continues to expand its intellectual property portfolio as development progresses.

Upcoming Raise

Testing the Waters Ahead of a Future Raise of Up to $1,000,000

Before running any formal offering, PHOTONFLAME is gauging investor interest through a Testing the Waters (TTW) campaign, no money or commitment required. See the phased raise structure, use of funds, market sizing, and how to reserve your spot on our TTW page.

See Raise Details & Express Your Interest

This is not an offer to sell or a solicitation of an offer to buy securities. Before any offering, PHOTONFLAME may conduct a Testing the Waters campaign under Reg CF to gauge interest; no offer or solicitation will be made until PHOTONFLAME files a Form C with the SEC and the offering is live on IPO Wallet. No offering is open yet, and no money or other consideration is being solicited or accepted at this time; if any were sent it would not be accepted. Any indication of interest expressed here or during a Testing the Waters campaign is non-binding and revocable, involves no commitment or payment of any kind, and does not obligate PHOTONFLAME or IPO Wallet in any way. Full offering terms will be published only once PHOTONFLAME's Form C is filed and the offering is live on IPO Wallet. Investing in early-stage private companies involves significant risk, including total loss of investment; see the full risk disclosures in the site footer.

The spark plug hasn’t changed since the first telephone was invented. We’re replacing it with a laser.