78-reflective-tunnel

Description

Project 78 — FocusPhi Reflective Tunnel — Optical · Microwave · Nuclear (SKU 2109)

Founding IP: Six Chris G Brown 2017 inventions — Patent 3561 (1 light trigger, staircase mirror chips, nanophotonics), Patent 2486 (reflect-amplify chip shaping), Patent 2485 (compressed modular energy sequence), Patents 2495 / 2496 (microwaved nuclear reactive waste recycle), Patent 3457 (nuclear waste → medical radiology, dynamic equilibrium). All from 1 light trigger.txt (1,752 invention-entry IP source ledger, © 2017 Chris G Brown). Patents and underlying IP retained by the inventor.

Status: Concept (L1) with L2 watertight CAD meshes, numerically self-consistent theory (20/20), and L3-partial reduced-order simulation (5/5). Design targets only — not simulation- or hardware-validated.

Construction method: Segmented ring assembly — Christopher Gabriel Brown’s segmented-ring method.

FocusPhi is a passive reflective cavity built as a segmented ring assembly — Christopher Gabriel Brown’s segmented-ring method applied to the physics regime. Every tunnel is a stack of rings; every ring is N trapezoidal or curved segments joined edge-to-edge; and the inner face of every segment carries the variant-specific reflective lining. Three interchangeable interior-lining variants let the same segmented tunnel transport, store, concentrate, and (with a gain medium) amplify energy across three physics regimes:

• Optical — dielectric-mirror lining. Light bounces many times through the cavity volume; effective interaction pathlength multiplied by the cavity finesse. Intracavity intensity ~600× at F ≈ 626. Founding IP: Patent 3561 (2017) — “1 light trigger + varied colored laser semiconductor & microchip cold light micro chip, digital optics by colored micro mirrors, add subtract mode to divide and multiply digital platforms, color mathematics and algorithms based on color reflections for process control, staircase mirror chips, nanophotonics.”
• Microwave — conductive metallic lining (waveguide-class cavity). Standing-wave buildup between reflector ends. Cavity Q from 10&sup4; (room-temperature copper) to 10¹⁰ (superconducting niobium at 2 K). Founding IP: Patent 2485 (2017) — “compressed modular sequence to build a jet action of energy.”
• Nuclear — neutron-reflective liner (beryllium, graphite, or D₂O per application). Boosts the effective neutron multiplication factor k eff around a subcritical or radiological source by 1.3–2.0× over the bare configuration. Founding IP: Patents 2495 / 2496 (2017) — “microwaved nuclear waste … negative and positive nuclear reactive waste recycle” and Patent 3457 (2017) — “recycling nuclear waste into medical radiology use in a dynamic equilibrium.”

The tunnel is sold as an engineering package: SPEC, segmented-assembly specification, CAD-parametric shape catalog, three variant hardware SPECs, IP references, sibling-portfolio cross-references, worked examples, runnable verification scripts, watertight STL meshes, and worldwide commercialisation rights.

Honest Physics

A passive tunnel does not create energy — energy is conserved. What the tunnel does create is buildup : intracavity intensity proportional to the cavity Q (optical & microwave) or the reflector-boosted k-effective (nuclear). To exceed unity gain requires a gain medium inside the tunnel (laser / maser) or an externally-driven active source (klystron beam, fissile mass, etc.). Supplying that gain medium is out of scope for this project; the tunnel is dimensioned to accept common gain-medium form factors. The physics is textbook — Fabry-Pérot resonator theory, classical waveguide cavity Q, neutron reflector albedo — all more than a century of established results. The invention is the combination : the segmented-ring construction method, the three-variant lining table, the CAD-parametric shape family, and the hybrid-stack capability.

Construction — Segmented Ring Assembly

The construction method is Christopher Gabriel Brown’s segmented ring assembly . A ring is N trapezoidal segments joined edge-to-edge to form a polygonal cross-section that approximates a circle. The tunnel is a stack of such rings. Each segment carries the variant-specific reflective lining on its inner face. Length is arbitrary (add or remove rings). Cross-section is arbitrary (pick the ring diameter). Segments and rings can mix variants for a hybrid tunnel — an optical input stage, a microwave target stage, and a nuclear containment stage all in one stack.

Cylindrical Straight trapezoid Flat Straight tunnel Standard multipass (flat-mirror Fabry-Pérot)

Cylindrical Straight trapezoid Concave Straight tunnel with focusing walls Stable resonator; light focuses toward axis on every pass

Cylindrical Straight trapezoid Convex Straight tunnel with diverging walls Uniform illumination; anti-focusing

Conical Slanted trapezoid Flat / Concave / Convex Concentrator cone or beam expander Winston-cone-class concentration or beam expansion

Spherical (dome) Curved-edge segment Spherically concave Sphere or hemisphere Integrating sphere — uniform intracavity intensity

Spherical Curved-edge segment Spherically concave, matched to radius Confocal spherical cavity Very high finesse; stable transverse mode

Toroidal Curved-edge segment Toroidally concave Ring / donut Recirculating cavity; whispering-gallery-adjacent modes

Keyed shoulder Chip-scale optical (patent 3561 staircase) Photolith-defined shoulder, sub-micron

Kinematic three-point mount with fine-adjust screws High-finesse optical / superconducting microwave

Vacuum-flange with metal gasket (Conflat-class) UHV optical / cryogenic microwave

The segmented ring assembly is scale-invariant in construction : the same segment / ring / stack method builds a cavity across nine orders of magnitude of length.

Band Inner Ø Length Natural Variant Fabrication

Nano (chip) 5–50 µm 20–500 µm Optical (folded staircase, patent 3561) Photolithography, e-beam, DUV

The optical variant is the direct engineering descendant of Patent 3561 (2017) and Patent 2486 (2017). Every segment’s inner face carries a multilayer dielectric mirror stack tuned to the operating wavelength.

Chip-scale (folded, patent 3561 staircase) Fused silica or single-crystal silicon Photolith-compatible, sub-micron dovetail joinery, low CTE

Benchtop lab Invar or Zerodur Very low thermal expansion, holds alignment across ambient swings

Larger optical (0.3–2 m) Invar or ULE glass Same reason at scale

Visible (400–700 nm) Alternating SiO₂ / TiO₂ or SiO₂ / Ta₂O₅, 40–60 layers r ≥ 0.9995 per surface

Coating vendors (public commodity): Alluxa, Layertec, Optical Coatings Japan (OCJ), Newport.

Effective interaction pathlength L eff 200 m in a 1 m tunnel THEORY §4.5, Eq. 12: L eff  = L · F/π

• Input end: high-reflector disk (r ≥ 0.9999) — single-piece substrate with the same dielectric stack as the interior lining.
• Output end: partial output coupler (r ≈ 0.98–0.995 depending on required output coupling ratio).
• For stable-cavity builds, one or both end caps are concave spherical mirrors with radius of curvature R c matched to the tunnel length per the stability criterion 0 ≤ (1 − L/R₁)(1 − L/R₂) ≤ 1.

Charge/discharge photonics concentrator C4 integrating sphere / C5 Quantum Battery (project 5)

Chip-scale folded staircase-mirror stage C14 folded cylindrical on Si substrate AutoPhi Electromagnetic IC (project 31)

The microwave variant provides the emitter-target coupling stage for the microwave-nuclear recycling family (patents 2495 / 2496) and the containment cavity for Solo Negative Microwave (project 49).

Room-temperature Q Copper (OFHC) or silver-plated aluminium Low RF resistance at operating frequency

Very-high-Q Bulk niobium (superconducting below T c  ≈ 9.2 K) Q > 10⁹ achievable per accelerator practice

Industrial (microwave recycler) Stainless outer, copper-plated inner Structural + RF surface

S / C / X band, room temperature Electroplated copper (30–50 µm) Commodity; standard microwave-cavity practice

S / C / X band, cryogenic Bulk niobium (segment substrate) Segment IS the lining

Industrial 2.45 GHz (ISM band) Copper-plated stainless Compatible with high-power magnetron feed

Millimetre wave (30+ GHz) Silver-plated Reduces surface resistance at frequency

• Shorting plate (default) — solid conductor plate at both ends; forms a closed cavity.
• Tuned reactive termination — for cavities requiring specific mode spacing or external circuit coupling.
• Iris coupling — small aperture in one end plate coupling to an external waveguide.

Microwave-nuclear recycler emitter Cylindrical or slightly conical Microwave Nuclear Waste Recycling Center (project 8) / Small Microwave Nuclear Recycler (project 17)

The nuclear variant is a neutron reflector geometry — the tunnel wall scatters incident neutrons back toward the tunnel interior. Applied around a subcritical or non-multiplying source, it boosts the effective neutron flux inside the tunnel by 1.3–2.0× over the bare configuration.

Thermal (E  Graphite (nuclear-grade) or heavy water D₂O 0.70–0.95 Graphite ≈ 55 cm; D₂O ≈ 100 cm

Reflector material vendors: Beryllium — Materion (US), Ceradyne. Nuclear-grade graphite — Toyo Tanso, SGL Carbon. Heavy water (D₂O) — Isowater (Canada), Cambridge Isotope.

Reflector thickness ≥ 1 neutron migration length (Be ≈ 12 cm; graphite ≈ 55 cm; D₂O ≈ 100 cm)

Microwave-driven nuclear-waste recycle (patents 2495 / 2496) Cylindrical Microwave Nuclear Waste Recycling Center (project 8) / Small Microwave Nuclear Recycler (project 17)

• NRC licence (or agreement-state equivalent) appropriate to the source term (10 CFR 30 byproduct material or 10 CFR 40 source material).
• State radiation control programme registration.
• If source exceeds Type A quantity per 10 CFR 71: transport licensing per DOT HMR.
• If reflector contains beryllium: OSHA beryllium standard (29 CFR 1910.1024).
• If fissile loading exceeds SNM thresholds: 10 CFR 70 special nuclear material licence plus Criticality Safety Analysis per ANSI/ANS-8 series.
• All regulatory filings are buyer scope.

C1 Straight optical multipass Cy Opt Flat HR + OC (flat) Identity Absorption spectroscopy; laser resonator

C2 Confocal optical resonator Cy Opt Flat Concave R=L Position transposes across axis Fundamental laser cavity; largest stable mode volume

C3 Concentric optical resonator Cy Opt Flat Concave R=L/2 Position inverts through centre High-buildup spectroscopy; nonlinear conversion

C4 Integrating sphere Sp Opt/PTFE Sp (concave) none (closed) Directions randomised Photometry, calibration, uniform illumination

C5 Winston-cone concentrator Co Opt Cv (parabolic) Open + focused Angles fold toward axis Solar loop for Quantum Battery / Private Energy Farms

C6 Corner-cube retroreflector Cy Opt Cn90 any Direction retroreflects Lidar target simulation; free-space optical link

C7 Elliptical imaging cavity Cy (folded) Opt El (elliptical) Focal points F₁ → F₂ Confocal microscopy; point-to-point energy transfer

C8 Klystron interaction cavity Cy (short) MW (Cu) Flat SP (both) Standing-wave mode Microwave amplifier / oscillator

C9 Superconducting accelerator cavity Cy (multi-cell) MW (Nb) Flat, reentrant SP + iris π-mode standing wave Particle accelerator (SRF class)

C10 Subcritical assembly with Be reflector Cy Nu (Be) Flat PL (Be) Flux enhanced by reflector savings Research reactor benchmark

C11 Medical radioisotope loop Sp Nu (Be + graphite) Sp (concave) PL (Be) Dynamic equilibrium Medical radiology per patent 3457

C12 Radar target simulation Sp MW Sp (concave) none Isotropic scattering Radar cross-section calibration

C13 Whispering-gallery microwave To MW Flat (toroidal) none Travelling wave circulates Microwave frequency reference

C14 Chip-scale staircase mirror Cy (folded, chip) Opt (on Si) Flat with photolith steps Photolith end mirrors Beam steps through folded path AutoPhi EM-IC light-trigger stage (patent 3561)

H1 Microwave-nuclear waste recycler Cy MW input → transition SP → Cy Nu (Be) → PL end Nuclear waste recycle per patents 2495 / 2496 (projects 8 / 17)

H2 Solar-loop → quantum-battery Co Opt (Winston) → transition HR → Sp Opt (integrating) Private Energy Farms + Quantum Battery

H3 Optical input → microwave interaction Cy Opt → transparent transition → Cy MW → SP Novel maser configuration (optically-pumped maser)

H4 Elliptical optical → nuclear target Cy El Opt → transition HR → Cy Nu → PL Photonuclear activation experiments

H5 Three-stage (optical/microwave/nuclear) Opt input + MW interaction + Nu containment Full microwave-nuclear-optical laboratory in one tunnel body

R1 Cassegrain-in-tunnel Concave primary + convex secondary + optional field-flattener lens Compact long-focal-length imaging cavity

R2 Lens-relay multipass Flat HR end caps + relay lens between every N rings Long-path spectroscopy (100+ m effective)

R3 Elliptical tunnel (two-focus imaging) Elliptical concave inner face on every segment Perfect point-to-point energy transfer (patent 3561)

R4 Concave-corner retroreflector array Segment pairs meeting at internal 90° corners Lidar target array; free-space optical link return

R5 Prism-turn ring Flat interior + total-internal-reflection prism at ring Ring-laser gyro-adjacent geometry

R6 Aspheric concentrator + relay Parabolic primary + aspheric relay + aspheric field lens Solar concentrator recycling unabsorbed light

R7 Ecliptic (eclipse) coronagraph cavity Occulting disk on axis with spider vanes Block bright on-axis source; coronagraph geometry

R8 Hollow-beam laser resonator HR + OC end caps + annular intracavity aperture Optical trap physics; uniform-annulus illumination

R9 Elliptical + ecliptic stack Elliptical concave inner face + central occulting disk Point-to-point transfer past a bright intermediate emitter

Hybrid Tunnel Interface Conditions

• Optical → Microwave: band-limited coupling window — the optical cavity is transparent to microwaves and vice versa (wavelengths differ by factor 10&sup4;+).
• Microwave → Nuclear: microwave cavity closed by a shorting plate; nuclear reflector begins on the other side. Neutrons pass through the plate (steel thermalises but transmits most).
• Optical → Nuclear: optical cavity closed by a dielectric mirror (opaque to visible/near-IR, transparent to neutrons); nuclear reflector begins on the other side.
• In all cases, the “hybrid tunnel” is two or three end-to-end cavities of different physics, each with its own eigenmodes. The value is mechanical: one BOM, one fabrication run, one alignment procedure produces a device that performs three functions in sequence .

Fresnel equations (s-polarisation) r s  = (n₁ cosθ i  − n₂ cosθ t ) / (n₁ cosθ i  + n₂ cosθ t ) Coating design for optical variant

Snell’s law n₁ sinθ i  = n₂ sinθ t Refraction at every interface

Multilayer dielectric reflectance R = ((n H /n L ) 2N  − 1) / ((n H /n L ) 2N  + 1) Per-surface reflectance of optical lining

Metallic reflectance (normal incidence) R ≈ 1 − 2√(2ε₀ω/σ) Microwave variant surface reflectance

Skin depth δ = √(2 / (μωσ)) Microwave wall-loss thickness

Reflector-boosted k eff k eff,reflected  = νΣ f  / (Σ a  + D(π/(R+δ))²) Nuclear variant enhancement

Non-multiplying source flux boost φ reflected  = φ bare  · (1 + α·g) Reflector-boosted flux at target

Brewster’s angle tanθ B  = n₂ / n₁ Polarisation-selective resonator design

Corner-cube bevel angle segment_inner_bevel = π/2 − π/N Retroreflecting array segment geometry

A fully parameterised research-scale microwave-driven neutron-reflected target cell. Configuration H1 from the configurations catalog.

Parameter Value Source

Microwave operating frequency 2.45 GHz (ISM band, worldwide licence-exempt) Standard industrial ISM

Cooling 40 kW water-cooled jacket, 15 L/min at ΔT = 20 K Standard industrial magnetron practice

Hardware BOM total ≈ $472k Commodity-sourced; see BOM.md

Rough total build cost (with room, licence, sim, labour) ≈ $700k Research-scale first article

H1 Bill of Materials Summary

Every design number in this listing is reproduced by a runnable verification script ( verify/verify_theory.py , 20/20 checks pass). The verification found and fixed two real documentation errors on its first run — that is the point of running the physics, not just quoting it.

Three independent-method reduced-order solvers in sim/simulate.py cross-check the closed-form theory:

• Optical — transfer-matrix method (TMM) over a 20-pair SiO₂/Ta₂O₅ quarter-wave stack independently derives mirror reflectance and confirms achievable finesse exceeds the 626 design floor.
• Microwave — cylindrical-cavity eigenmode solve (Bessel-prime zero for TE₀₁₁) reproduces the 63 mm single-cell length at 2.45 GHz. Wall-loss Q of the single-cell pancake (~2.4k) explains why the H1 worked example stacks 19 cells.
• Nuclear — 1-group neutron-diffusion finite-difference k-eigenvalue solve confirms reflector raises k eff (k bare  = 1.232 → k reflected  = 1.271). Physics direction is correct; full MCNP quantifies the 1.3–2.0× band.

Microwave Nuclear Waste Recycling Center (project 8) Microwave + Nuclear (paired) Emitter-target coupling stage + neutron-reflector containment

Small Microwave Nuclear Recycler (project 17) Microwave + Nuclear (paired) Compact-footprint variant of the above

Quantum Battery (project 5) Optical Concentrator around charge/discharge photonics

AutoPhi Electromagnetic IC (project 31) Optical (folded, chip-scale) Staircase-mirror stage — direct descendant of patent 3561

1 System Architecture Segmented ring assembly with interchangeable interior lining selects the physics regime; same body serves optical, microwave, and nuclear; supports hybrid stacks.

2 Core Technology Stack Buildable using existing commodity segments, coatings, and reflector materials — no unobtainium. All materials shipping today from qualified vendors.

3 Physics Basis All design numbers reduce to five classical results: specular reflection, Fresnel equations, Fabry-Pérot finesse, cavity Q, reflector-boosted k eff .

4 Performance Envelope Optical ~600× buildup, Q = 1.25×10⁹, 200 m effective path; microwave Q 10&sup4;–10¹⁰; nuclear 1.3–2.0× k eff boost — all from analytic theory.

5 Manufacturing Path 20 mm to 2 m diameter, 100 mm to 10 m length, using Christopher Gabriel Brown’s segmented-ring assembly method. All joinery options have existing practice.

6 Simulation Basis End-to-end simulatable in existing physics simulators before any hardware exists. Meep/Lumerical (optical), HFSS/CST (microwave), MCNP/OpenMC (nuclear).

7 Portfolio Integration Plugs into six existing portfolio projects as a subsystem, not a bolt-on.

8 Regulatory Pathway Every variant has a well-defined regulatory pathway with existing precedent. IEC 60825 (optical), FCC Part 18 (microwave ISM), 10 CFR 30/40/70 (nuclear).

9 Risk Register Material risks enumerated; none is a showstopper. Joint-line loss, Be supply, Nb cost, alignment across thermal cycles, NRC calendar — all have known mitigations.

10 Commercialisation Readiness L1 concept today with clear path to L4 foundry-ready. L1 → L4 timeline for H1: 6–12 months, ~$700k all-in.

L1 — Concept Complete Full document set, six founding patents cited, four hardware SPECs, 28 configurations, 10-section PoF

Theory numerically self-consistent Complete verify/verify_theory.py — 20/20 checks pass

L2 — Parametric CAD Complete 10 real watertight STL meshes validated by verify/verify_stl.py (10/10); OpenSCAD parametric segment library

L3-partial — Reduced-order simulation Complete sim/simulate.py — TMM optics + cylindrical-cavity eigenmodes + 1-group neutron diffusion, 5/5 pass

L3-full — 3-D FDTD / HFSS / MCNP Downstream (buyer) Requires full-fidelity simulators and compute

L4 — Foundry-ready Downstream (buyer) Fabricate + measure first article; ~$700k / 6–12 months per H1 BOM

L5 — In production Downstream (buyer) Deploy into consumer sibling project

Optical substrate (Invar / Zerodur / fused silica) Vacuum-Melting / Corning / Heraeus Standard optics-industry inventory

Multilayer dielectric coating Alluxa, Layertec, OCJ, Newport Standard laser-mirror coating vendors

Microwave substrate (OFHC copper, Ag-plated Al) Luvata, ThyssenKrupp Standard microwave-cavity practice

Superconducting niobium segments Ningxia Orient Tantalum, ATI SRF-accelerator community sources

FocusPhi is priced as a horizontal enabling platform — the shared reflective-cavity substrate under six portfolio products. Owning it is owning the concentrator / resonator / reflector primitive all six depend on.

Kit Scope Price (USD)

FocusPhi Complete Platform All 3 variants + all 28 configurations + full CAD library + all worked examples + verification suite + worldwide commercialisation rights $100,000,000

FocusPhi Optical Kit Optical variant + all optical configs (C1–C7, C14, R1–R9 optical) + CAD + commercialisation rights $50,000,000

FocusPhi Microwave Kit Microwave variant (Cu / superconducting Nb) + all microwave configs (C8, C9, C12, C13) + CAD + commercialisation rights $50,000,000

FocusPhi Nuclear Kit Nuclear variant (Be / graphite / D₂O) + all nuclear configs (C10, C11) + CAD + regulatory workmap + commercialisation rights $50,000,000

FocusPhi Hybrid Kit Any one hybrid stack (H1–H5) fully worked, e.g. the H1 microwave-nuclear recycler; includes both constituent variants $75,000,000

FocusPhi Bespoke Configuration One custom configuration beyond the 28 catalog configs, engineered to buyer spec $50,000,000 floor, quoted

All kits are Base, No IP — engineering package and worldwide commercialisation rights convey; the six founding patents are retained by the inventor. Reference on the bid catalog as row 58 ($100M headline). Included at no extra charge inside All In One (20T) .

What the Buyer Receives

• Top-level SPEC, STATUS, PRODUCT_BRIEF, STORE_LISTING, MANIFEST.json.
• THEORY.md — 14 sections, 28 numbered equations covering angles of reflection, Fresnel, cavity Q, k-effective, N-gon approximation, refraction, elliptical mirrors, ecliptic (eclipse) occulting elements, corner-cube retroreflection, Brewster angle. Every design number traces to a numbered equation.
• CONFIGURATIONS.md — 14 single-variant + 5 hybrid + 9 refractive-hybrid configurations with angle-of-transposition primer, ellipse-vs-ecliptic distinction, and selection guide.
• PROOF_OF_FUNCTION.md — 10-section proof of function in the Chris G Brown convention.
• SCALES.md — scale range documentation from nano (µm chip staircase) to hydro (2 m industrial), with physics limits at each end.
• KIT_AND_PRICING.md — complete pricing framework and kit definitions.
• TESTED_AND_LIMITS.md — honest maturity report, rung-by-rung L1–L5 status, buyer verification path.
• IP_REFERENCES.md — six 2017 founding patents cited with invention text.
• Four hardware SPECs — shared TUNNEL segmented-assembly + per-variant OPTICAL, MICROWAVE, NUCLEAR.
• OpenSCAD parametric segment library — segment.scad, ring.scad, tunnel.scad, and H1 configuration; text-based, executable in any OpenSCAD installation; renders to STL / STEP.
• 10 real, openable, watertight STL meshes — 7 watertight PART solids + 3 multi-body ASSEMBLY previews, spanning nano (µm) to hydro (m) scale. Generated by pure-Python generator, validated by verify/verify_stl.py (10/10 pass).
• verify/verify_theory.py — runnable numerical proof that every documented number reproduces from first-principles physics (20/20 checks).
• verify/verify_stl.py — mesh validation (10/10 zero degenerate, zero open edges).
• sim/simulate.py — three independent-method reduced-order solvers (TMM optics, cylindrical-cavity eigenmodes, 1-group neutron diffusion) cross-checking the theory (5/5 pass).
• Worked example H1 — fully parameterised microwave-nuclear recycler with full parameter fill, numeric derivation, and ~$472k commodity BOM (~$700k rolled up).
• LICENSE.md — terms, retention clauses, governing law (State of Georgia).
• Worldwide, non-exclusive commercialisation rights.

What the Buyer Does NOT Receive

The underlying patents are retained by the inventor. Chris G Brown patents 3561, 2486, 2485, 2495, 2496, and 3457 (all 2017) remain the sole property of Christopher Gabriel Brown. This is a documentation + commercialisation-rights transaction — not a patent licence and not a patent assignment . If the buyer requires a patent licence or assignment, that is a separate transaction to be negotiated in writing.

Also NOT included:

• Prototype hardware or first-article measurements.
• Full-fidelity FDTD / HFSS / MCNP simulation results (reduced-order sims are included; full-fidelity is buyer scope).
• NRC / FCC / IEC regulatory filings.
• Selection and integration of a gain medium for amplification embodiments.
• Coating-vendor procurement.

Nuclear, special nuclear material 10 CFR 70 SNM licence if fissile loading exceeds thresholds

• Available only to companies incorporated, headquartered, and primarily operating in the United States of America.
• All transactions in USD only.
• All payments are final, non-refundable, and non-recoverable.
• Communication by email and postal mail only. No phone calls, no brokers, no intermediaries.

The package contains the complete FocusPhi engineering document set, parametric CAD sources, generated STL meshes, runnable verification and simulation scripts, a fully parameterised worked example with commodity BOM, variant-specific hardware specifications, IP reference documentation, and licensing terms.

File / Directory Description

README.md Project overview, directory listing, sibling portfolio interfaces, contact.

SPEC.md Top-level technical specification — scope, normative references, terms, system context, segmented ring assembly (§5), parametric shape family (§5.1), optical variant (§6), microwave variant (§7), nuclear variant (§8), can/cannot section (§9), portfolio interfaces (§10), buyer receives/does not receive (§11–12).

THEORY.md Formal physics — 14 sections, 28 numbered equations. Angles of reflection, Fresnel, multilayer dielectric, metallic reflection, neutron reflection, cavity Q and buildup, finesse, storage time, effective pathlength, nuclear k eff , N-gon geometry, segment curvature, conical (Winston), spherical, hybrid interface conditions, refraction (§11), elliptical mirrors (§11.3), ecliptic/eclipse occulting elements (§11.4), corner-cube retroreflection (§12), Brewster angle (§13).

CONFIGURATIONS.md 28 named configurations — 14 single-variant (C1–C14) + 5 hybrid (H1–H5) + 9 refractive-hybrid (R1–R9). Angle-of-transposition primer, refractional energy level, selection guide.

PROOF_OF_FUNCTION.md 10-section proof of function in the Chris G Brown convention.

STATUS.md Subsystem-by-subsystem status table with next milestones.

MANIFEST.json Machine-readable catalog of the entire project.

PRODUCT_BRIEF.md One-page pitch document.

STORE_LISTING.md Store copy source (kicker, title, subtitle, lead, stat strip).

IP_REFERENCES.md Six founding 2017 patents with invention text, prior-art posture, and what buyer receives/does not receive.

SCALES.md Scale range: nano (µm chip) to hydro (m industrial), variant-by-band, physics limits.

KIT_AND_PRICING.md Kit definitions and pricing for all tiers ($50M–$100M).

TESTED_AND_LIMITS.md Honest maturity report. Per-deliverable L1–L5 status, what this workstation can/cannot deliver, recommended buyer verification path.

LICENSE.md Licence terms — what conveys, what does not, retention clauses, governing law (State of Georgia).

LICENSE.txt Short-form licence.

LICENSE-INDUSTRIAL.txt Industrial variant licence.

CONTACT_INFO.txt Licensor contact details.

1 light trigger.txt 1,752-invention IP source ledger (© 2017 Chris G Brown).

google_patents_search_list.txt Prior-art search list.

Tomorrow.txt Inventor planning notes.

hardware/TUNNEL/SPEC.md Shared segmented ring assembly spec — CAD-parametric shape catalog, segment geometry, ring joinery (butt/pin/dovetail/keyed shoulder), ring stacking, end caps, ports, assembly sequence, design software.

hardware/OPTICAL/SPEC.md Optical variant — segment substrate table, dielectric mirror stack per wavelength band, end caps, recommended shapes per application, design targets, environment, sibling consumers.

hardware/MICROWAVE/SPEC.md Microwave variant — Cu/Ag/Nb substrate options, interior lining per operating regime, end caps, coupling, room-temp and superconducting Q targets, cooling, sibling consumers.

hardware/NUCLEAR/SPEC.md Nuclear variant — Be/graphite/D₂O reflector materials, segment joinery (nuclear-specific), end plugs, regulatory posture, sibling consumers.

hardware/TUNNEL/cad/ OpenSCAD parametric segment library — segment.scad, ring.scad, tunnel.scad, configs/H1_worked_example.scad, README.md.

hardware/TUNNEL/cad/stl/ 10 generated watertight STL meshes (7 PART solids + 3 ASSEMBLY previews), nano to hydro scale. Validated by verify/verify_stl.py (10/10 pass, zero degenerate, zero open edges).

examples/H1_microwave_nuclear_recycler/ Fully parameterised H1 worked example — README.md, WORKED_EXAMPLE.md (full parameter fill, numeric derivation), BOM.md (~$472k hardware, ~$700k rolled up).

verify/verify_theory.py Runnable numerical verification — 20/20 checks, every documented number reproduced from first-principles equations.

verify/verify_stl.py STL mesh validation — 10/10 pass, all watertight.

sim/simulate.py Three independent-method reduced-order solvers (TMM optics, cylindrical-cavity eigenmodes, 1-group neutron diffusion) — 5/5 cross-checks pass.

figures/ Hero and variant render sources (SVG, PNG, HTML gallery), icon generators.

dist/ Consumer kit ZIPs (Complete Platform, Optical, Microwave, Nuclear, Hybrid-H1) + SHA256SUMS.txt + full internal archive.

outbound/ Outreach materials — archetypes, targets, prospects, follow-ups, email templates, briefs.

catalog/descriptions/ Per-variant and platform store descriptions (HTML) + shared style block.

reflective_tunnel_store_description.html CMS-ready store page HTML.

How this is delivered

This package ships on a single Blu-ray disc, posted to the delivery address on your order. The archive on the disc is AES-256 encrypted; the passphrase is sent separately, by email, once the disc is despatched — so the disc alone is of no use to anyone who intercepts it.

Discs are despatched by tracked, signed-for post. Allow 5 business days for mastering and verification before despatch.

© 2026 Christopher Gabriel Brown. All rights reserved. Patents and underlying IP retained by the inventor. Six founding patents (3561, 2486, 2485, 2495, 2496, 3457), all 2017. Design targets only. First to market — documented public offering.

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