32-quantum-battery-seed-two

The deliverable is a 17,543-file archive encompassing complete Verilog RTL, 350+ JSON variant configurations, Python generation and scaling tools, four architecture specifications, seven per-generation blueprints, foundry handoff packages, GDSII layout data (64-layer), EDA flow output, synthesis reports, and full documentation. File breakdown by type: 5,436 JSON manifests; 3,536 EDA reports (.rpt); 1,527 text files; 1,305 SVG figures; 1,024 logs; 913 Markdown documents; 610 TCL scripts; 506 Verilog HDL files; 272 DEF (design exchange format) files; 252 SDC timing constraints; 242 HTML files; 216 SDF timing annotation files; 156 Python scripts; 144 Liberty library files; plus archives, GDSII layout, and supporting material.

Every generation uses the same recursive controller architecture: each tier manages 10 sub-units through a standardised interface. A Seed Plant is 10 Farms; each Farm is 10 Arrays; each Array is 10 Racks; each Rack is 10 Packs; each Pack is 10 Modules; each Module is 10 Cells. The interface contract is identical at every level, so understanding one tier means understanding all seven.

Every module shares a common set of parameterised widths: POWER_WIDTH = 64, HEALTH_WIDTH = 32, TELEM_WIDTH = 128, CONFIG_WIDTH = 32, CONFIG_ADDR_W = 8, TEMP_WIDTH = 16, EFF_WIDTH = 16. Tier controllers additionally carry NUM_UNITS = 10 and NUM_TOTAL = 11 (10 active + 1 spare). All signals are active-high except the global active-low reset rst_n.

Every tier controller (G1 through G6) runs the same 8-state finite state machine, encoded as a 3-bit register. The states are:

Power steps up at each tier boundary, from cell-native DC at G0 to extra-high-voltage AC at G6:

Conversion efficiency exceeds 98 % at each stage. Bus losses decrease at higher tiers because high-voltage transmission is inherently more efficient. Cumulative system efficiency from cell to plant: G0 84–98 %, G1 82–96 %, G2 80–94 %, G3 79–93 %, G4 77–91 %, G5 76–90 %, G6 75–89 %.

Every tier uses N+1 redundancy: 10 active sub-units plus 1 hot spare. The spare is powered, configured, and held in STANDBY state — not exporting, but ready to take over within one activation cycle. Any single failure at any level is absorbed without power interruption.

At G1 (module level), failover completes within 1 clock cycle (100 ns at 10 MHz). The spare is already powered and configured; its power output ramps from 0 to target in 1 cycle while the faulted cell's contribution drops to 0 simultaneously. Bus capacitance smooths the sub-cycle transient. Zero-interruption guarantee.

Worst-case scenario: one sub-unit fault at every tier simultaneously. All spares activate, system continues at 100 % rated power, but with no remaining spares until repairs are completed. Two simultaneous faults at the same tier: spare replaces first, second unit's load is distributed across remaining 9 units (90 % capacity). Hot-swap replacement is supported at every tier above G0 without system shutdown.

Reliability estimates (assuming individual cell MTBF of 100,000 hours): G1 Module > 1,000,000 hours (99.9999 % availability); G6 Plant > 25,000 hours (99.997 % availability). Factory screening by seed determinant (Voxel Resonance, DEPO-003, range 0.6–0.95 per V19 standard) further extends effective MTBF.

The heat-to-power ratio remains below 1 % at all scales. At G6, a 2.5 TW plant rejects approximately 11.25 GW of net heat (0.45 % ratio) because the closed-loop power recycling architecture (EM cooling → LED recycler → battery) recaptures 87–95 % of generated heat, with the recycling factor improving at scale. Per-module thermal budget at maximum output (2.5 MW per cell, 98 % efficiency): 51 kW heat generated per cell, 495 kW removed by EM cooling per module, 445 kW recaptured by LED recycler, only 65 kW net heat to dissipate per module.

The seed_power_bus module implements arbitration at every tier via a request-grant protocol. Allocation follows the Golden Spiral Convergence principle (Mathematical Deposition DEPO-007):

Partial export during burst is preserved at every tier: burst power is consumed locally within each cell; export power travels the bus. No contention between burst and export.

The AES substrate (Project 14, USPTO 19/449,352, 50 claims) spreads heat 2.7× faster than silicon, preventing hot spots and enabling higher power density. Its 0.8 eV direct bandgap provides efficient photovoltaic conversion in the LED power recycler. At $5/kg, material cost remains viable at the million-cell plant scale. These properties cascade through the hierarchy: better cells mean less bus overhead at every tier.

The package includes 350 pre-configured system variants: 50 per generation (G0 through G6), stored as JSON files in the configs/ directory. Each configuration is identified by the convention G{tier}-{sequence}, e.g. G0-001 through G0-050, G1-001 through G1-050, and so on up to G6-050.

Configurations are generated by the seed_two_config_generator.py script and span the full parameter space for each generation: power output from minimum to maximum (log-scale interpolation), efficiency from base minimum to maximum, momentum fold across 11 tiers (1×, 10×, 100×, 1,000×, 10,000×, 100,000×, 1,000,000×, 10,000,000×, 50,000,000×, 100,000,000×, 200,000,000×). Every configuration record includes: config ID, generation, scale, form factor, bus type and voltage, active/spare/total cell counts, power output (mW/GW/TW), efficiency, momentum fold, storage (Wh/kWh/MWh), burst power, annual energy output (MWh/GWh/TWh), bus and thermal loss percentages, heat rejection, LED recycling and EM cooling efficiencies, substrate properties, redundancy model, failover time, estimated cost, and application list.

Configuration files per generation: seed_cell_configs.json (G0), seed_module_configs.json (G1), seed_pack_configs.json (G2), seed_rack_configs.json (G3), seed_array_configs.json (G4), seed_farm_configs.json (G5), seed_plant_configs.json (G6).

Commands flow downward (parent → child) as 128-bit command frames: 8-bit header, 8-bit target, 8-bit opcode, 96-bit payload, 8-bit checksum. Ten command opcodes: SET_POWER (0x01), SET_CONFIG (0x02), ENABLE (0x03), DISABLE (0x04), QUERY_HEALTH (0x05), QUERY_TELEMETRY (0x06), EMERGENCY_STOP (0x07), ACTIVATE_SPARE (0x08), ISOLATE (0x09), RESET (0x0A).

Telemetry flows upward (child → parent) as 128-bit telemetry frames: 8-bit header, 8-bit source, 16-bit frame ID, 96-bit payload containing power_output [63:0], efficiency [15:0], temperature [15:0] at 0.1 K resolution, health_status [31:0], battery_level [15:0], and momentum_fold [31:0]. Each tier compresses 10 telemetry frames into 1 via aggregation (sum power, max temperature, weighted-average efficiency, OR fault flags, minimum battery level, average momentum fold).

Communication channels scale with the hierarchy: G0↔G1 via on-PCB traces (10 Gbps, < 10 ns latency), G1↔G2 via backplane connector (1 Gbps, < 100 ns), G2↔G3 via copper Ethernet (1 Gbps, < 1 μs), G3↔G4 via fibre Ethernet (10 Gbps, < 10 μs), G4↔G5 via fibre (10 Gbps, < 100 μs), G5↔G6 via redundant fibre (10 Gbps, < 1 ms). External industry-standard protocols at G4+: Modbus TCP, DNP3, IEC 61850, ICCP/TASE.2, OpenADR.

Cybersecurity follows defence-in-depth: per-tier VLAN segmentation, TLS 1.3 on all Ethernet channels, certificate-based mutual authentication, role-based access control, anomaly detection on control traffic, and an air-gap option for G0–G2 tiers.

seed_two_config_generator.py — generates all 350 tier configurations (50 per generation) plus 8 industrial deployment profiles. Takes base cell parameters (AES substrate properties, LED recycling 90 %, EM cooling 97 %, 20 battery layers, 1,500 Wh, 75 MW burst, 32 thermal/harvester zones, 12,000 TSVs/mm², 500 chiplet layers, 16 quantum gate instructions, 48-bit accumulators, 10 MHz clock) and interpolates across the configuration space using log-scale power output, linear efficiency, and stepped momentum fold selection across 11 tiers. Outputs one JSON file per generation plus the deployment profiles JSON.

seed_two_scaling_calculator.py — calculates power aggregation, thermal derating, bus losses, efficiency cascade, redundancy overhead, and cost rollup across all 7 generations. Includes physics reference calculations from the Mathematical Depositions: photon momentum p = h/λ (DEPO-004), photon energy E = hc/λ, Landauer limit k_B × T × ln(2) = 2.85×10⁻²¹ J at 300 K (DEPO-009, Thermal Noise Floor), and Grover's algorithm speedup (DEPO-008). Per-tier parameters: bus loss (0.1 % at G0, 2 % at G1–G3, 1 % at G4–G6), thermal loss (0 % at G0, 1 % at G1–G4, 0.5 % at G5–G6), infrastructure cost (0 % at G0, scaling 5–10 % at higher tiers). Heat recycling factor improves at scale: 87 % at G0, +1.3 % per generation, reaching ~95 % at G6. Exports results to seed_two_scaling_results.json.

L4 (Tape-out / Mass-Manufacturable) per the project architecture specification. The archive bundles foundry-ready content: GDSII layout (64-layer, GEN6_QUANTUM_01141_COMPLETE_64LAYER.gds), synthesised netlists, timing constraints (.sdc), physical constraints (.xdc), standard delay format files (.sdf) across three process corners (ff at −40°C/1.95 V, tt at 25°C/1.80 V, ss at 100°C/1.60 V), liberty timing libraries (.lib), design exchange format files (.def), and complete EDA flow output from OpenLane runs.

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.