54-exitphi-accelerators

$4,911,937.50
In stock
SKU
2085
ExitPhi Accelerators: beams hop between the chips on top of three racks while heat pumps upward; only the power cords remain, animated picture

Asset valuation: $5,000,000,000. Greater WiFi. Faster data-center wireless. A line of patent-pending WiFi6E / WiFi7 silicon designed for one job: make the data center over wireless real. Commodity WiFi controllers (ESP32-S3, ESP32-C6, MediaTek, Qualcomm AC) treat

Walk into a data center and look down. Under the floor and over the racks run the fibers, the copper data cables and the management cables, and every one is a thing to pull, label, trace and replace. ExitPhi is a family of WiFi 6E and WiFi 7 accelerator silicon built for one job: take all of it out. Only the power cord stays. The chip is the network.

Four reference ICs cover the range. WFA-Node is the single-stream endpoint for dongles, handsets and wearables. WFA-Hub is the four-by-four tri-band access-point accelerator serving sixty-four peers. WFA-Mesh is the eight-by-eight, three-radio backhaul that ties two hundred fifty-six peers across racks. WFA-Apex is the flagship, the only member carrying all nine proprietary on-die blocks, each patent-pending and owned by the inventor. Twenty-two configurations run from 22 nanometer planar dies to 3 nanometer fifty-layer chiplet stacks. Three subsystems complete it: CoolBeam, a phased-array antenna that cools the die while it transmits; PipeBeam, an antenna series that keeps packets in order; and QBeam, the wireless quantum send-and-receive chain.

This is for datacenter operators who want the cable plant gone and for silicon buyers who want an architecture to take to a foundry. The work sits at step 5.5 of 12 on the engineering ladder: the architecture ships now as a foundry-partner deliverable, and silicon in hand is twelve to twenty-four months out depending on configuration. The inventor retains the IP. The buyer walks away with the four IC designs, the reference boards and the subsystem specifications, with the filed thirty-claim application standing behind them.

Description

ExitPhi IC — Wireless Datacenter Accelerator Silicon Family

Patent-pending. U.S. Non-Provisional Utility Patent Application No. 19/722,805, Confirmation No. 4017, Patent Center No. 77974071, filed 2026-06-27 via USPTO Patent Center under 35 U.S.C. § 111(a). Title: Integrated Wireless Datacenter Fabric with Phased-Array Cooling Antenna, Order-Preserving Antenna Series, and Quantum-Teleportation Protocol atop a Shared Classical Channel . 30 claims (6 independent, 24 dependent). Related to, but separate from, U.S. Application No. 19/717,706 (UniPhi DC). Inventor: Christopher Gabriel Brown, pro se, sole inventor, no assignment of record at filing. IP fully retained.

Overview

ExitPhi IC is a patent-pending family of WiFi 6E / WiFi 7 accelerator silicon designed for one goal: make the data center over wireless real . Every fiber, every copper data cable, every management cable — gone. Only the power cord stays. The chip is the network.

The public-facing brand is ExitPhi . Internal engineering artifacts use the WFA-* prefix. Three sibling brands: UniPhi (command-center software), ExitPhi (wireless-exit silicon), AutoPhi (foundry + canonical RTL source). Each is a separate company-shaped entity with its own IP, catalog, and revenue. No source, IP, or revenue is co-mingled.

The family comprises four reference ICs (WFA-Node, WFA-Hub, WFA-Mesh, WFA-Apex) and 22 pre-defined configurations spanning 22 nm through 3 nm process nodes, from single planar dies to 50-layer chiplet stacks. Three subsystem technologies — CoolBeam (phased-array antenna that simultaneously cools the die), PipeBeam (order-preserving linear antenna series), and QBeam (wireless quantum-to-quantum teleportation protocol) — complete the architecture. QBeam is the only wireless quantum-to-quantum fabric on the market.

Current status: step 5.5 of 12 on the engineering ladder. Architecture is shippable today as a WFA-FOUNDRY-PARTNER deliverable. Silicon-in-hand is 12–24 months away depending on configuration.

The Four Reference ICs

IC Standard Bands Streams Peak PHY Rate Concurrent Peers Process Package Host Bus Power (typ.)

WFA-Node 802.11ax (WiFi 6E) 6 GHz 1 × 1 SISO 1.2 Gbps 1 22 nm QFN-56, 7 × 7 mm SPI (50 MHz) + I2C ~150 mW

WFA-Hub 802.11ax (WiFi 6E) 2.4 / 5 / 6 GHz 4 × 4 MU-MIMO 4.8 Gbps 64 22 nm QFN-88, 8 × 8 mm PCIe Gen3 × 1 ~1.2 W

WFA-Mesh 802.11be (WiFi 7) 2.4 / 5 / 6 GHz simultaneous 8 × 8 across 3 radios ~30 Gbps agg. 256 across racks 16 / 12 nm BGA-256, 12 × 12 mm PCIe Gen3 × 2 ~5 W

WFA-Apex 802.11be+ (WiFi 7 MLO) 2.4 / 5 / 6 GHz + CBI link 8 × 8 + 9 proprietary blocks flagship flagship 5 nm FCBGA-196, 15 × 15 mm PCIe Gen4 × 4 + DDR5-6400 ~35 W peak

WFA-Node Reference Board

Single-stream WiFi 6E endpoint / client accelerator. Fits in USB-C dongles, handsets, wearables, IoT devices. Board form factor: 60 × 40 mm, 4-layer FR-4 PCB. Operating temperature: −20 to +70 °C.

Property Value
Silicon WFA-Node IC, 22 nm QFN-56, 7 × 7 mm
Radio 1 × 1, 6 GHz single-stream WiFi 6E

RF Frontend Johanson 2450BM15E0002 6 GHz balun; integrated inverted-F PCB antenna (U.FL alternate)

Host Interface SPI up to 40 MHz + I2C 400 kHz + HOST_INT# + 4 × GPIO
Power Supply 3.3 V from host; TI TPS62A02 buck to 1V8 / 1V2_RF
Power Draw ~1.2 W peak TX, ~350 mW RX, ~40 mW deep sleep

Boot / Storage Winbond W25Q64JV 64 Mbit QSPI NOR (firmware + event log); Microchip 24AA02E48 ID-EEPROM (EUI-48)

Debug 10-pin Cortex-M SWD/JTAG; 2 × status LEDs (LINK, ACT); reset pushbutton
Clock Abracon ABM8G 40 MHz XTAL
BOM Line Items 21 (including PCB fab + assembly)
WFA-Hub Reference Board

4 × 4 MU-MIMO tri-band access-point accelerator. Board form factor: 160 × 100 mm, 4-layer FR-4 PCB. Operating temperature: 0 to +70 °C.

Property Value
Silicon WFA-Hub IC, 22 nm QFN-88, 8 × 8 mm
Radio — 6 GHz 4 × 4 MU-MIMO WiFi 6E; 4 × Skyworks SKY85850 FEM + 4 × U.FL
Radio — 5 GHz 4 × 4; 4 × Skyworks SKY85340 FEM + 4 × U.FL
Radio — 2.4 GHz 2 × 2; 2 × Qorvo QPQ1904 FEM + 2 × PCB antenna
Host Interface PCIe Gen3 × 1 (mini-PCIe / M.2) or USB 3.2 Gen 1 (5 Gbit/s) via USB-C
Power Supply 5 V USB-C PD (TI TPS25750D) or 12 V barrel jack; TI TPS62A02 buck to 3V3
Power Draw ~9 W peak across all 3 bands
Boot / Storage Winbond W25Q128JV 128 Mbit QSPI NOR; Microchip 24AA02E48 ID-EEPROM
Debug 10-pin JTAG/SWD; 6-pin UART console; 4 × LEDs (LINK, ACT, ASSOC, FAULT)
BOM Line Items 22 (including PCB fab + assembly)
WFA-Mesh Reference Board

8 × 8 tri-radio mesh backhaul + fronthaul accelerator. Board form factor: 200 × 140 mm, 6-layer FR-4 PCB. Operating temperature: 0 to +65 °C.

Property Value
Silicon WFA-Mesh IC, 16/12 nm BGA-256, 12 × 12 mm
Radio — 6 GHz 8 × 8 MU-MIMO mesh backhaul; 8 × Skyworks SKY85850 FEM + 8 × U.FL
Radio — 5 GHz 4 × 4 service; 4 × Skyworks SKY85340 FEM + 4 × U.FL
Radio — 2.4 GHz 2 × 2 IoT; 2 × Qorvo QPQ1904 FEM + 2 × PCB antenna
Host Interface PCIe Gen3 × 2 via M.2 2280 or USB 3.2 Gen 2 (10 Gbit/s) via USB-C
Memory 512 MB DDR4-2400 (Micron MT41K512M8DA-107); 32-bit DQ bus + 4-bit ECC
Power Supply 12 V PoE (TI TPS23881 Class 6) or 12 V barrel; TI TPS543C20 12 A buck
Power Draw ~18 W peak across all 3 bands + DDR4 refresh
Boot / Storage Winbond W25Q256JV 256 Mbit QSPI NOR; Microchip 24AA02E48 ID-EEPROM
Debug 20-pin ARM JTAG; 6-pin UART; 8 × LEDs; reset + recovery pushbuttons
BOM Line Items 30 (including PCB fab + assembly)
WFA-Apex Reference Board (Flagship)

8 × 8 WiFi 7 (802.11be) flagship accelerator with all 9 proprietary blocks feature-gated in. Board form factor: 240 × 160 mm, 8-layer hi-Tg FR-4 PCB. Operating temperature: 0 to +65 °C.

Property Value
Silicon WFA-Apex IC, 5 nm FCBGA-196, 15 × 15 mm

Radio — 6 GHz WiFi 7 8 × 8 MLO; 8 × Skyworks SKY85850 FEM (chain #7 reserved for CBI); 4096-QAM via QLA block

Radio — 5 GHz 4 × 4; 4 × Skyworks SKY85340 FEM
Radio — 2.4 GHz 2 × 2; 2 × Qorvo QPQ1904 FEM
Host Interface PCIe Gen4 × 4 via M.2 22110 or edge-card; 8 GB/s bidirectional
Memory 8 GB DDR5-6400 SODIMM (Crucial CT8G48C40S5); 64-bit DQ bus

Power Supply 12 V from host; Vicor DCM4823 200 W isolated; TI TPS543C20 buck bank (3V3 12 A, 1V8 12 A, 1V2_RF 6 A, 1V1_DDR 24 A, 0V9_CORE 24 A)

Power Draw ~35 W peak at max transmit + DDR5 sustained
Boot / Storage Winbond W25Q512JV 512 Mbit QSPI NOR; Microchip 24AA02E48 ID-EEPROM

Debug 20-pin ARM JTAG; 6-pin UART; 8 × LEDs (WiFi7/5/2.4, ACT, ASSOC, CBI-LOCK, DFS-LOCK, FAULT); reset + recovery pushbuttons

BOM Line Items 30 (including PCB fab + assembly)
Nine Proprietary On-Die Blocks (WFA-Apex)

Each block is individually patent-pending and owned by the inventor. None are available on the open market. The WFA-Apex is the only IC in the family that carries all nine.

# Block Full Name Function

1 FMR Fabric Framing Engine JSON-Lines + length-prefixed binary tunnel framing at line rate

2 FMA Fabric-Aware MAC EDCA + Airtime Fairness + 4-class traffic scheduler (CONTROL / TUNNEL / APP / QUANTUM)

3 CRY Crypto Cluster SHA-256 + HMAC-SHA-256 + AES-256-GCM + X25519 + TRNG

4 NVR NVRAM Burst Writer Deterministic event-log persistence via external QSPI NOR;

5 QLA QAM Latency Accelerator Up to 4096-QAM at reduced-latency window
6 MLO Multi-Link Operation WiFi 7 native multi-link aggregation
7 DFS Distributed Fabric Sync Mesh-scale time and coherence lock
8 CBI CoolBeam Interface Bridges to AeroPhi T3 tower via dedicated 6 GHz coherent link
9 TEP Tunnel Encryption Proxy mTLS at hardware wire-speed
Internal Block Architecture (Common Across All ICs)
Fabric Framing Engine

Reads JSON-Lines control frames and length-prefixed binary tunnel frames directly off the RX descriptor at line rate. Drops malformed frames at line rate. Surfaces parsed frame objects to the host via a 64-entry ring per direction. Wire protocol is bit-for-bit interoperable with the software uniphi.dc.fabric implementation — the rack can run a mix of WFA-accelerated and software-only members during rollout. Throughput target: >10 M frames/sec parsed at the engine.

Crypto Cluster (Five Fixed-Function Units)
Unit Throughput Purpose
SHA-256 64 GB/s sustained on 64-byte blocks Event-log hash chain without host involvement
HMAC-SHA-256 64 GB/s sustained Fabric auth check on every HELLO and tunnel frame
AES-256-GCM 40 Gbps sustained Tunnel-frame encryption

X25519 50,000 ops/s mTLS handshake key exchange; pre-computes shared secret during certificate parsing

TRNG 200 Mbps post-conditioning Seeds TLS state + nonce generation
Fabric-Aware MAC Scheduler

Classifies traffic by inspecting the HELLO frame's flow tag. Four traffic classes with dedicated EDCA-equivalent priority:

Class Examples Priority Latency Budget
CONTROL Heartbeats, cap.advertise, app.deploy AC_VO equivalent Sub-millisecond
TUNNEL Storage chunks, replication AC_VI equivalent Batched for throughput
APP Deployed application traffic AC_BE default Best effort

QUANTUM 2-bit QBeam teleportation payloads Highest PipeBeam for ordered; CoolBeam for max diversity

Airtime Fairness (ATF) is enforced per fabric peer ID so one noisy node cannot starve the rest of the rack.

NVRAM Burst Writer

A dedicated DMA engine + QSPI controller that owns an external W25Q64JV (or similar 64 Mbit to 256 Mbit QSPI NOR). On every event-log append via host doorbell: reads prepared JSON event from host-DMA region, appends to in-flash log, issues synchronous flash write (block-erase if needed), ACKs host only when durable. End-to-end fsync target: .

Aggregated Descriptor Rings
Two rings per direction reduce host interrupt load:
  • High-priority ring: one interrupt per frame for CONTROL class (latency-critical).
  • Aggregated ring: one interrupt per K frames (K configurable, default 32) for TUNNEL + APP traffic.

At 64-peer hub saturation, host CPU utilisation stays under 10%.

CoolBeam — The Antenna That Cools

An 8 × 8 phased-array antenna whose radiating patches are simultaneously the cold-side terminals of a thermoelectric Peltier pump. RF radiates outward. Heat pumps upward. Same metal. Same layers. One structure, two jobs. CoolBeam solves antenna detuning and thermal ignition at the same physical location.

Quantity Value
Array size 8 × 8 = 64 elements
Element pitch ~λ/2 at 6 GHz in package dielectric
Patch dimensions ~4 mm × 4 mm copper, tuned for 5/6 GHz
Per-element gain ~6 dBi
Array peak gain ~24 dBi
Beam-steering range ±50° azimuth and elevation
Simultaneous beams Up to 8 (one per RF chain)
RF bandwidth per element ~150 MHz (covers WiFi 6E and WiFi 7 channels)

Pellet alloy Bi 2 Te 3 (consumer tier) or proprietary high-ZT (premium tier, AutoPhi trick #5)

Per-pellet cooling ~0.3 W at design bias point
Aggregate continuous cooling ~19 W (64 pellets × 0.3 W)
Peak burst cooling (100 ms) ~32 W
Junction temp at full burst ~62 °C (vs. ~200 °C uncooled)
Power overhead for cooling ~2 W DC bias for the full array
Pumping efficiency 97% (AutoPhi trick #5)
Additional mask layers 3 (patch grid, pellet placement, bias-tee + ground + feed)

CoolBeam transforms WiFi from omnidirectional broadcast (99% wasted radiated power) into a point-to-point beamformed mesh . A rack with 1,000 WFA-equipped chips can sustain ~30,000 simultaneous beamformed peer-to-peer links without interference. Each link uses ~1% of the power for ~100 × the link budget.

CoolBeam is mandatory for Stack-25, Stack-50, and Stack-100 configurations. The three CoolBeam layers occupy the topmost chiplet layers of the stack.

PipeBeam — Order-Preserving Antenna Series

A sequence-locked linear antenna array where packets enter element 1, exit element N, and arrive in the exact order they were sent — enforced by hardware at the physical layer, not by software at the transport layer. No reorder buffer. No TCP-class retransmit. No upper-layer sorting tax.

Each PipeBeam element contains five sub-blocks:

  • Radiating patch — 4 mm × 4 mm copper, same physical form as CoolBeam
  • Sequence latch — single-cycle hardware FIFO stage with monotonic position tag
  • Time-slot gate — per-element clock divider; no central scheduler
  • Position-tag comparator — refuses to transmit until the previous element acknowledges completion; single-wire adjacent-element handshake
  • Local Peltier pellet — same 0.3 W cooling cell as CoolBeam
Quantity Value
Elements per strip (Stack-50) N = 16
Slot duration (t slot ) ~3.2 ns (320 MHz channel)
Total transit time N × t slot = ~51 ns
Steady-state throughput ~310 M packets/s per chain
Aggregate (8-chain strip) ~80 Gbps
Additional mask layers 2 (strip metal + FIFO-stage logic)
NRE delta for 4 strips (Stack-50) ~$5 M

PipeBeam unlocks: quantum-circuit gate dispatch, drone-swarm command relay, database WAL streaming, sub-frame-timed live media, and deterministic real-time control. Standard WiFi MIMO does not guarantee in-order delivery at L1. PipeBeam does.

QBeam — Wireless Quantum-to-Quantum Teleportation

QBeam carries quantum information between ExitPhi chips — not by transmitting fragile coherent quantum states through the air, but by quantum teleportation atop the classical WFA channel. Pre-shared entanglement pairs live in the quantum-battery layers (AutoPhi trick #6); Bell measurement on chip A + 2 classical bits over CoolBeam or PipeBeam + Pauli correction on chip B = one teleported qubit. The wireless link itself carries only two classical bits per teleported qubit.

Quantity Value
Classical bits per teleported qubit 2
Classical bandwidth per WFA-to-WFA link 100–300 Gbps
Teleported qubits/s per single link 50–150 Gqubits/s
Per-chip aggregate teleportation rate ~1.2 Tqubits/s (24 channels × 3 bands)
Classical BER target (8-antenna diversity) ≤1 × 10 −15
Teleportation fidelity >0.9999
QEC gate fidelity ≥99.998%
Entanglement pool per chip (Stack-50) ~768,000 half-pairs
Time to swap entire qubit population (Stack-50) ~25–77 µs
Q2Q channels per chip 24 (8 RF chains × 3 bands)
Q2Q channels per Stack-50 rack (16 × 16) 6,144
Q2Q channels per Stack-100 rack (64 × 64) ~98,304
Additional mask layers 0 (firmware-and-protocol unlock)
Configuration Sweep — 22 Pre-Defined Configurations

The 22 configurations span from 22 nm planar single-band through 3 nm 50-layer chiplet stacks. Each has a canonical 44-line FOUNDRY_HANDOFF.md document. Representative configs:

Config IC Base Process Package Throughput Deploy p99 Prop. Blocks
CFG-01 through CFG-05 Node / Hub 22 nm QFN-56 to QFN-100 ≥200 MB/s 0 of 9
CFG-06 through CFG-09 Hub 16/12 nm BGA-144 to BGA-256 various various various
CFG-10 through CFG-12 Mesh 7 nm FCBGA-225 to FCBGA-288 various various various
CFG-13 Apex 5 nm FCBGA-196 >5 GB/s 9 of 9
CFG-14 through CFG-16 Apex variants 5 nm FCBGA-196 to BGA-196 various various various
CFG-17 through CFG-19 Apex+ 3 nm FCBGA-300 various various 9 of 9
CFG-20 Flagship planar 3 nm FCBGA-400 >60 GB/s 9 of 9

CFG-21 (Stack-50) Apex stack 3 nm + 50 layers ~15 × 15 mm, ~2.5 mm tall 1.75 TB/s ~50 ns 9 of 9 × 3 = 405 instances

CFG-22 (Stack-25) Apex stack 3 nm + 25 layers ~13 × 13 mm, ~1.3 mm tall 870 GB/s ~25 ns 9 of 9 × 3 = 135 instances

Stack configurations trade latency for throughput: each photonic layer adds ~1 ns of propagation. Latency-bound workloads (HFT, defence) take Stack-25; throughput-bound workloads (datacenter ingest, AI training) take Stack-50.

Performance Targets vs. Commodity Baseline
Metric Commodity (ESP32-S3 + software) ExitPhi Target
Deploy latency p99 ~100 ms
New-peer mTLS handshake p99 ~80 ms
Replication throughput (N=3, 16 MB file) ~23 MB/s >200 MB/s (Hub); 1.75 TB/s (Stack-50)
Concurrent nodes per hub radio ~8 practical 64+ (Hub); 256+ (Mesh)
Host CPU at saturation ~70% on the CM5

Interrupt rate vs. commodity at same load 1 × 0.5 × (halved by descriptor-ring aggregation)

These are design targets, not measured. They are written into the spec at the RTL contract level and will become measured once first silicon comes back.

Six Performance Axes (Stack Configurations)
Axis Stack-25 Stack-50 Stack-100
1. Classical throughput 870 GB/s 1.75 TB/s 3.5 TB/s
2. Classical compute PetaFLOPS-class PetaFLOPS-class PetaFLOPS-class
3. Quantum gate ops (Q-TOPS) 25 Q-TOPS 75 Q-TOPS 150 Q-TOPS
4. Logical qubits on-die 1,280,000 3,840,000 7,680,000
5. Energy efficiency 10 × reduction 100 × reduction 1,000 × reduction
6. Workload coverage Classical + quantum + neuromorphic AI simultaneously on one die

For reference: all published quantum systems on Earth as of 2025 combined deliver less than 0.01 Q-TOPS. Stack-50 delivers 7,500 × that on one chip.

AutoPhi Process Tricks Integrated

The stacked configurations integrate all 9 AutoPhi process tricks under separate foundry sub-agreement:

# Trick Effect
1 LED Power Recycling 42% net power reduction
2 Vertical TSVs Inter-layer high-bandwidth dataplane
3 Nanophotonic Data Flow Sub-1 ns inter-layer optical waveguides (700–1,400 channels)
4 Quantum Error Correction 99.998% gate fidelity on-die
5 Electromagnetic Peltier Cooling 97% pumping efficiency; shared with CoolBeam structure
6 On-Die Quantum Battery 256 qubits per voxel; ~768,000 entangled half-pairs per chip
7 Quantum-Classical Hybrid Lanes Bell measurement + Pauli correction hardware for QBeam
8 Neuromorphic AI Engine Sub-nanosecond spiking-neuron response; 1 ExaOPS inference
9 Chiplet Stacking 25 to 600 active layers via hybrid bonding
RTL (Register-Transfer Level)

CFG-04 thin RTL pin contract: 6 Verilog modules, 345 lines total , all parsing clean with balanced begin/end and parentheses. These are 40–80 line pin-contract stubs; real AutoPhi production RTL files are ~200 lines each.

Module File Lines Purpose

wfa_phy wfa_phy.v 47 802.11ax 4 × 4 MU-MIMO PHY interface (CSD encoding, LDPC, 1024-QAM, OFDMA, beamforming)

wfa_mac wfa_mac.v 43 Fabric-aware MAC scheduler with round-robin + priority bypass; 8-peer depth, configurable TXQ

wfa_fabric wfa_fabric.v 60 Fabric framing engine; JSON-Lines (state ST_JSONL) + binary tunnel (state ST_BINARY); MAX_LINE = 4096

wfa_crypto wfa_crypto.v 62 Crypto cluster command interface; 6 opcodes (SHA, HMAC, AES_E, AES_D, X25519, TRNG); 256-bit payload bus

wfa_pcie wfa_pcie.v 53 PCIe Gen3 × 1 host bus; 256-bit payload; NVMe-style queue model

wfa_top wfa_top.v 80 Top-level integration: instantiates PHY + MAC + Fabric + Crypto + PCIe; STREAMS = 4 parameterised

QBeam RTL: 2 additional Verilog modules, 171 lines total :
Module File Lines Purpose

wfa_qbeam wfa_qbeam.v 98 Quantum teleportation orchestrator; Bell measurement (side A) + Pauli correction {I, X, Y, Z} (side B); QUBITS = 256, ENT_POOL_DEPTH = 768,000, up to 24 simultaneous Q2Q channels

wfa_entanglement_store wfa_entanglement_store.v 73 Pre-shared entanglement pair pool manager; dual block memories (A halves + B halves); low-water alarm at pool/16; boot-time refill + per-teleport consume paths

Total RTL across the package: 8 Verilog modules, 516 lines .

Python Reference Simulator and Test Suite

wfa_sim.py (236 lines): functional model of the WFA backbone + 9 proprietary blocks + AutoPhi-trick interfaces. Bit-exact for crypto and event-log hash chain; cycle-approximate elsewhere. Models: EventLog (SHA-256 hash-chained), DPRBlock (lowest-RTT path picker), ULFBlock (loop-refusing firewall), CLOBlock (closed-loop envelope), CryptoCluster (SHA-256 + HMAC-SHA-256), EntanglementStore (768,000-pair capacity), QBeam (teleportation orchestrator), WFAChip (backbone assembler with deploy/replicate API).

Simulator configuration matrix (from CONFIGS dict):
Config Code Layers Throughput (GB/s) Deploy p99 (ns) Peers/Band
WFA-CFG-04-22NM-QFN88 1 0.2 8,000,000 32
WFA-CFG-13-5NM-FCBGA196 1 5.0 2,000,000 128
WFA-CFG-20-3NM-FCBGA400 1 60.0 400,000 512
WFA-CFG-22-3NM-STACK25 25 870.0 25,000 2,500
WFA-CFG-21-3NM-STACK50 50 1,750.0 50,000 2,500

Test suite (301 lines across 2 files): 14 testbenches passing in ~0.013 s.

File Lines Testbenches Tests
test_wfa_backbone.py 201 TB1–TB8 10 tests
test_cfg04_rtl.py 100 4 classes 4 tests (parse, module name, pin contract, size budget)

TB1: NVRAM Burst Writer hash chain holds across 1,000 writes + detects tamper. TB2: deploy() returns sequential IDs. TB3: ULF refuses re-entering routes. TB4: CLO engages closed-loop posture, refuses deploys when engaged. TB5: DPR picks lowest-RTT peer. TB6: config target matrix — throughput ramps monotonically, planar latency improves with process shrink, stack latency grows with layers, every config beats ESP32-S3 baseline (100 ms). TB7: QBeam teleports one qubit + 1,000 qubits consuming the pool. TB8: QBeam pool exhaustion returns failure; refill restores capacity.

KiCad Reference Schematics
Four generated KiCad-10 schematic packages:
Schematic Records Generator
wfa_node.kicad_sch 1,276 hardware/gen_schematic.py
wfa_hub.kicad_sch 1,899 hardware/gen_schematic.py
wfa_mesh.kicad_sch 2,134 hardware/gen_schematic.py
wfa_apex.kicad_sch 2,632 hardware/gen_schematic.py

Total schematic records: 7,941 . All brackets balanced.

Foundry Handoff Documents
26 FOUNDRY_HANDOFF.md documents at the canonical 44-line scale:
  • 4 per-IC handoffs (Node, Hub, Mesh, Apex)
  • 22 per-configuration handoffs (CFG-01 through CFG-22, including Stack-25 and Stack-50)

Each document covers: handoff summary, submission steps, required deliverables (GDSII, LEF, DEF, gate-level netlist, DRC, LVS, RTL, synthesis scripts, P&R configs, BOM, performance projections), IP valuation notes, and compliance/NDA terms.

NRE Estimates by Configuration Tier
Configuration Base NRE CoolBeam Adder PipeBeam Adder Total NRE
CFG-04 (22 nm planar hub) $80k–$220k n/a n/a $80k–$220k
WFA-Mesh (16/12 nm) $1.5M–$3M optional optional $1.5M–$3M+
WFA-Apex (5 nm) $8M–$15M optional optional $8M–$15M+
Stack-25 (3 nm + 25 layers) $50M–$100M +$15M (mandatory) +$3M (2 strips) $68M–$118M
Stack-50 (3 nm + 50 layers) $100M–$200M +$25M (mandatory) +$5M (4 strips) $130M–$230M
Stack-100 (3 nm + 100 layers) $200M–$400M +$40M (mandatory) +$10M (8 strips) $250M–$450M
Stack-50 Layer Allocation
Layers Function
1–25 Classical compute + memory chiplets (AutoPhi tricks #1, #2, #8)

26–35 Quantum-classical hybrid lanes (trick #7); Bell measurement + Pauli correction hardware

36–38 Quantum-battery storage (trick #6); ~768,000 entangled half-pairs; QEC (trick #4) at ≥99.998%

39–47 Chiplet stacking interconnect; vertical optical waveguides (trick #3)
48–50 CoolBeam (dual-function antenna + Peltier cooling) + PipeBeam strips
Patent Claims Summary (30 Claims)
Claims Subject

1–10 Integrated wireless datacenter fabric system (stacked-chiplet IC, CoolBeam + PipeBeam + QBeam + fabric-aware MAC + crypto cluster)

11–13 CoolBeam dual-function phased-array antenna structure (RF radiator + Peltier cold-side electrode, bias-tee separation, material group)

14–16 PipeBeam order-preserving linear antenna series (sequence latch, time-slot gate, position-tag comparator, egress verification)

17–21 QBeam wireless quantum-teleportation method (entanglement pre-distribution, Bell measurement, classical transmission, Pauli correction, QEC re-request)

22–24 Cable-free datacenter chassis and rack (sole attachment is AC power conductor; no data cable, optical transceiver, or fiber)

25–30 Dependent claims: CoolBeam/PipeBeam coexistence on same top layers; 8 RF chains × 3 bands = 24 Q2Q channels; M × N chip aggregation; quantum-battery thermal coupling; fabric-framing engine bit-for-bit interop; process node group (22–3 nm)

Licensing Model

The inventor retains ownership of the IP permanently . This is not a sale of the IP and is not an assignment. Buyers receive (1) the blueprints and (2) a license to use the IP. No tier ever includes the patent rights, the right to resell the design, or the right to claim authorship.

SKU Name Anchor Price (USD) What Buyer Gets

WFA-SPEC Specification + Reference Schematics $9,999 Evaluate the design: SPEC.md, datasheet, reference schematic PDFs. Digital delivery. No production use.

WFA-DEV-KIT Developer Kit $24,999 Commodity hardware (ESP32-S3 + FPGA dev board) running WFA host-bus emulation. Build drivers against the wire protocol today. Internal R&D only.

WFA-BLUEPRINT-PACK Full Reference Design $499,999 Schematic + RTL spec + DV vector library + integration guide. Perpetual non-exclusive licence to use, modify, and ship products. Sub-licensing prohibited.

WFA-FOUNDRY-PARTNER Foundry Partner $4,999,999 Everything in BLUEPRINT-PACK + channel to AutoPhi fabrication + bring-up support + 2 years inventor email support. Production-quantity silicon path.

Justification and Warranty
The trillion-tier engagement is defended by a six-method Reasoned-Basis Memo :
  • Cost-to-replicate: estimated $3–$7 billion to reach functional equivalence from zero.
  • Comparable-transaction: ARM at ~$54B; Mellanox at $6.9B; AutoPhi Future at $7T.
  • Discounted cash flow: multi-hundred-billion to multi-trillion range under conservative assumptions.
  • Opportunity cost: $50k–$200k per rack saved in cabling; $5B–$20B at hyperscale (100k racks).
  • Strategic value: eliminates a category of physical infrastructure no competitor has eliminated; carries quantum compute at a scale no competitor offers.
  • Patent enumeration: 46+ enumerated assets (9 proprietary blocks + 9 AutoPhi tricks + seed voxel + CoolBeam + 4 schematics + 22 configs).

The warranty follows a seven-step Defects-and-Remedies Procedure : Notice (30 days) → Acknowledgement (5 business days) → Inspection (30 days) → Cure (60–90 days) → Re-trial (30 days) → Escalation (binding arbitration, AAA or JAMS) → Award (enforceable in U.S. District Court, Northern District of Georgia). Liability cap: the price paid for the deliverable. Excluded: consequential, lost-profit, indirect, punitive damages.

DV Vector Library Posture

Full DV (Design Verification) is intentionally not in this repository . The DV corpus defines what "right" means; it is the most valuable and most NDA-encumbered tier of the deliverable. The Python reference simulator (14 passing testbenches) is the public-facing equivalent. Canonical DV falls to AutoPhi source under NDA on buyer engagement, scoped per buyer tier.

Conformance and Certification Path
Requirement What ExitPhi Delivers What Buyer Adds
IEEE 802.11ax / 802.11be compliance Compliant by design Independent conformance test
FCC Part 15 certification Reference design + test report Per-product testing ($20k–$50k)
Wi-Fi Alliance trademark None WFA membership + cert (~$35k+)
SEP licensing None FRAND licence via Via Licensing / Sisvel pool
What Is in the Package
Category Item Count / Detail
Documentation README.md Project overview, product line table, cross-references
PRODUCT_BRIEF.md Non-technical product description for buyers
SPEC.md Technical spec: blocks, interfaces, target numbers

STRATEGY.md Three-project relationship (UniPhi / ExitPhi / AutoPhi), pricing tiers, patent stance

PLAYBOOK.md Cold-start re-entry guide
LICENSE.md IP-retained licensing terms summary
STATUS.md 12-step engineering ladder, performance envelope, on-disk inventory
PATENT_NONPROVISIONAL.md Full as-filed patent application text (30 claims, ~1,305 lines)
PERFORMANCE_DEFINITIONS.md Six-axis performance envelope definition
JUSTIFICATION_AND_WARRANTY.md 6-method valuation memo + 7-step warranty trial procedure
WHY_DV_STOPS_HERE.md DV vector library posture and tier-gating rationale
FALL_TO_AUTOPHI_SOURCE.md Canonical RTL fall-through mechanism and firewall
Hardware Schematics wfa_node.kicad_sch 1,276 records; 22 nm QFN-56
wfa_hub.kicad_sch 1,899 records; 22 nm QFN-88
wfa_mesh.kicad_sch 2,134 records; 16/12 nm BGA-256
wfa_apex.kicad_sch 2,632 records; 5 nm FCBGA-196

Board Specs + BOMs SPEC.md per board (4 files) WFA-Node / Hub / Mesh / Apex board specifications

BOM.csv per board (4 files) Bills of materials: 21 / 22 / 30 / 30 line items
LAYOUT_HINT.md per board (4 files) PCB layout guidance

FOUNDRY_HANDOFF.md per board (4 files) Silicon pin/pad contracts at canonical 44-line scale

Config Handoffs FOUNDRY_HANDOFF.md × 22 CFG-01 through CFG-22 (22 nm to 3 nm Stack-50)

RTL (Verilog) CFG-04 thin RTL (6 modules) 345 lines: wfa_phy.v, wfa_mac.v, wfa_fabric.v, wfa_crypto.v, wfa_pcie.v, wfa_top.v

QBeam RTL (2 modules) 171 lines: wfa_qbeam.v, wfa_entanglement_store.v
Simulation & Tests wfa_sim.py 236 lines; Python reference simulator
test_wfa_backbone.py 201 lines; TB1–TB8 (10 tests)
test_cfg04_rtl.py 100 lines; 4 RTL smoke-test classes

Subsystem Documentation hardware/COOLBEAM.md CoolBeam integrated antenna + Peltier cooling specification

hardware/PIPEBEAM.md PipeBeam order-preserving antenna series specification
hardware/QBEAM.md QBeam wireless quantum-to-quantum teleportation protocol

Generators & Scripts hardware/gen_schematic.py KiCad schematic generator for all 4 reference boards

hardware/gen_configs.py 22-config sweep generator
store/deploy_wfa.py Store deployment script

Figures & Diagrams figures/fig01.svg through fig10.svg 10 patent figures (referenced in patent application)

bandwidth_comparison.svg Monochrome SVG: 100 Gbps fibre vs. 14,000 Gbps ExitPhi (140 ×)
bandwidth_comparison_3d.svg, bandwidth_fireworks.svg Additional bandwidth visualisations

Patent Documents EXITPHI_NONPROVISIONAL.docx; sb0015a.pdf; aia0001.pdf; N417 exitphi(1).pdf USPTO filing documents and forms

Machine-Readable MANIFEST.json Project manifest: SKUs, product line, relationships, file index

Store Listings store/descriptions/*.html (4 files) + store/index.html Magento-ready HTML descriptions for all 4 commercial tiers

Total files on disc: 102. Total Verilog: 8 modules, 516 lines. Total Python: 6 files. Total SVG: 13 figures. Total KiCad schematic records: 7,941. Total foundry handoff documents across the portfolio: 26.

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.

Photo

Green PCIe accelerator card with a heatsink and fan, four SFP optical cages and two USB ports, on white

Footnotes

  1. Product number 8504.
  2. Family: accelerators adapters.
  3. Purchase: When you buy, you buy the use of that blueprint only.
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© 2026 Christopher Gabriel Brown (CRI-ONE), cri-one.com