The physical world doesn’t accept “probably.”
Reality-Bound Computing
Deterministic Execution for Physical Systems.
- 01Reality
- 02Resolution
- 03Derivation
- 04Qualification
- 05Execution
- 06Remeasurement
A movement command has been issued. The command is not execution authority.
Authority is established
before execution.
RBC is a deterministic execution architecture grounded in physical admissibility and the Science of Stability. It is not an artificial intelligence product and does not depend on artificial intelligence. Its purpose is to determine whether a proposed physical action is admissible under the current measurable physical configuration before execution is authorized.
04 / Qualification
Establish physical admissibility before any authority is granted.
← Remeasurement returns the sequence to Reality
No admissibility → No authority → No execution
A computational result alone does not grant execution authority.
The current physical configuration must support the transition.
After execution, the system is measured again before it continues.
From mathematical foundation to hardware implementation.
Selected platform
Lattice MachXO5-100T
FPGA implementation metrics. Values describe the current Control + Perception architecture, before physical hardware-in-the-loop validation.
LUTs in the current architecture
Available LUT4 resources
Resource utilization
Remaining LUT fabric
≈10.8% utilized / ≈89% remaining
| Engineering layer | Current position | Scope |
|---|---|---|
| Foundational mathematical work | Foundation | First-principle mathematics and deterministic architecture. |
| Deterministic RTL | Implemented | Deterministic logic in register-transfer level form. |
| FPGA synthesis | Implemented | Synthesized deterministic architecture. |
| Implementation | Implemented | Hardware implementation flow. |
| Programming bitstream | Generated | Valid programming bitstream. |
| End-to-end runtime | Evidence available | Runtime evidence; portability work across FPGA targets. |
Next engineering phase
Physical FPGA validation and hardware-in-the-loop testing.
The next stage connects the architecture to real sensors, measures timing and power, and evaluates controlled physical execution.
Timing, power, and physical-system behavior will be measured during Phase II hardware validation. This work has not yet been performed.
Adaptive lower-limb prosthesis
A proposed human-coupled platform for demanding physical validation.
A prosthesis places execution in direct contact with a person. The program will evaluate admissibility, authorization, and execution under controlled physical conditions.
CAD
Develop the physical design.
Qualification fixtures
Prepare controlled evaluation.
Prototype
Build the testable system.
Bench evidence
Record physical test results.
Qualified revision
Revise against the evidence.
The prosthesis is the validation platform.
RBC is the underlying computing architecture.
One core architecture.
Multiple physical industries.
The commercial model is to license the architecture while retaining ownership and control of the underlying intellectual property. Manufacturers bring product engineering, domain qualification, and routes to market.
01 / Environment
Robotics
Motion that must be authorized before it becomes physical.
A focused commercial model
Licensing can extend the architecture across industries without requiring RBC to manufacture finished machines. The planned role is architecture development and integration support for manufacturing and engineering partners.
IP ownership and integration rights
The licensing strategy is to retain underlying intellectual property ownership and control while defining partners’ integration rights. IP rights and commercial terms would be documented in each agreement.
Science. Commercialization. Institutional strategy.
Science
Alexander Wolfgang Strüver
Foundational Research & Institutional Direction
Foundational science, the underlying mathematical principles, and RBC technical direction.
Commercialization
Craig Bracken
Founder, Covert Alert · U.S. Market & Distribution Partner
U.S. commercialization, strategic market development, distribution relationships, and commercial opportunities.
Institutional Strategy
Julia Fournier
Strategic Partner | Institutional Strategy & Global Partnerships
Institutional investment strategy, investor relationships, global partnerships, and strategic introductions.
Craig Bracken | Technology Founder & Operator
Craig founded Covert Alert, overseeing approximately $10 million invested in its technology development and infrastructure across a multiyear engineering program. His experience includes building engineering teams, deploying capital, developing complex technology infrastructure, managing product execution, and commercializing technology.
Separate initiatives
Covert Alert and RBC are separate initiatives. Covert Alert’s historical investment is not RBC capital, and it is not part of RBC’s assets, capitalization, or the proposed financing.
Proposed institutional financing.
A proposed $10,000,000 equity financing to advance physical validation, hardware development, engineering qualification, and commercialization.
- $10,000,000
- Proposed capital raise
- $30,000,000
- Pre-money valuation
- $40,000,000
- Post-money valuation
- 25%
- Proposed investor ownership
Proposed negotiating terms for a conventional priced equity financing, assuming no additional capitalization adjustments. Subject to final agreements and capitalization, due diligence, definitive documentation, and applicable securities requirements.
- Existing shareholder equity
- 75%
- Proposed financing type
- Conventional priced equity round
- Funding tranches
- To be negotiated
- Final security terms
- Subject to definitive documentation
What the investment advances
- 01Physical FPGA implementation
- 02Hardware-in-the-loop testing
- 03Engineering personnel and technical development
- 04Physical prototype construction and controlled testing
- 05Dedicated evaluation hardware and semiconductor development
- 06Industrial qualification, independent verification, and commercialization
The financing is intended for the next stage of engineering and commercial development. Allocation and scope will follow an approved budget.
AI Chip Corporation’s hardware engineering role supports FPGA implementation and the path toward dedicated semiconductor realization.
Julia Fournier · Institutional Strategy & Global Partnerships
The next conversation is personal.
“Reality-Bound Computing is engaging institutional investors and strategic partners for the next phase of engineering and commercialization.”
Julia Fournier is the primary institutional contact for private investment discussions and investor materials.
Let’s discuss what comes next.
We welcome private discussions with institutional investors and strategic partners interested in the engineering, commercialization, and long-term development of Reality-Bound Computing.
Private meetings: physical validation, engineering collaboration, and the proposed $10 million financing.
- Institutional contact
- Julia Fournier · Institutional Strategy & Global Partnerships
- Materials
- The 10-page investment overview is available on request.