Energy Production
ARBOK-LAMPCORE is a speculative but physically viable initiative to construct the world's fastest brute-force supercomputer entirely based on vacuum tubes, not transistors.
Technology brief
ARBOK-LAMPCORE is a speculative but physically viable initiative to construct the world's fastest brute-force supercomputer entirely based on vacuum tubes, not transistors.
The challenge
SHA-256 / Scrypt mining; brute-force key cracking; Monte Carlo simulations; genetic and evolutionary algorithms; molecular dynamics (1 atom per core); massive neural network training; parallel ray rendering. Target industries: cybersecurity, AI/ML research, real-time simulation.
ARBOK solution
ARBOK-LAMPCORE is a speculative but physically viable initiative to construct the world's fastest brute-force supercomputer entirely based on vacuum tubes, not transistors. The design uses billions of ultra-simple, ultra-fast 8-bit RISC cores (800 MHz–2 GHz) built from dual-triode vacuum tubes (6Н16Б, 6С62Н). Rather than mimicking modern CPUs, it focuses on radical parallelism, simplicity, and analog speed for applications such as crypto mining, brute-force search, and massive stochastic simulations. Target full-system performance is 84–96 exaFLOPS (FP32-equivalent) from approximately 70–80 billion cores and ~80 billion tubes.
Massive parallelism by physical design: each core is an 8-bit RISC processor with a fixed-length instruction set of 24–32 instructions (load/store, ALU, branches), Harvard architecture, and a 5–6 stage pipeline, built from ~140–160 dual-triode vacuum tubes. Logic gate delay is 0.5–0.8 ns, giving typical clock frequency of 800 MHz and up to 2 GHz. There is no speculative or out-of-order logic; computation is hybrid analog-digital.
Market and application
Cybersecurity, AI/ML research, real-time simulation. [количественные оценки — требует уточнения из базы]
Estimated rack cost: $5,000–15,000. Energy usage: very high, comparable to exascale silicon systems. Maintenance: high (tube degradation, hot-swap design).
Use cases
SHA-256 / Scrypt mining; brute-force key cracking; Monte Carlo simulations; genetic and evolutionary algorithms; molecular dynamics (1 atom per core); massive neural network training; parallel ray rendering. Target industries: cybersecurity, AI/ML research, real-time simulation.
Next steps: build a 1,000-core lab demo board; evaluate heat, performance, and longevity; develop soldering and placement automation; partner with DARPA, CERN, and HPC labs; launch the "Glow-in-the-Dark ExaFLOP" pilot. Maintenance is high due to tube degradation, mitigated by hot-swap design.
[требует уточнения из базы]
ARBOK-LAMPCORE is a speculative but physically viable initiative to construct the world's fastest brute-force supercomputer entirely based on vacuum tubes, not transistors. The design uses billions of ultra-simple, ultra-fast 8-bit RISC cores (800 MHz–2 GHz) built from dual-triode vacuum tubes (6Н16Б, 6С62Н). Rather than mimicking modern CPUs, it focuses on radical parallelism, simplicity, and analog speed for applications such as crypto mining, brute-force search, and massive stochastic simulations. Target full-system performance is 84–96 exaFLOPS (FP32-equivalent) from approximately 70–80 billion cores and ~80 billion tubes.
SHA-256 / Scrypt mining; brute-force key cracking; Monte Carlo simulations; genetic and evolutionary algorithms; molecular dynamics (1 atom per core); massive neural network training; parallel ray rendering. Target industries: cybersecurity, AI/ML research, real-time simulation.
Massive parallelism by physical design: each core is an 8-bit RISC processor with a fixed-length instruction set of 24–32 instructions (load/store, ALU, branches), Harvard architecture, and a 5–6 stage pipeline, built from ~140–160 dual-triode vacuum tubes. Logic gate delay is 0.5–0.8 ns, giving typical clock frequency of 800 MHz and up to 2 GHz. There is no speculative or out-of-order logic; computation is hybrid analog-digital.
| Parameter | Value |
|---|---|
| Core type | 8-bit RISC, fixed-length instruction |
| Instruction set | 24–32 (load/store, ALU, branches) |
| Architecture | Harvard, 5–6 pipeline stages |
| Tube count per core | ~140–160 |
| Clock frequency | 800 MHz typical, up to 2 GHz |
| Logic gate delay | 0.5–0.8 ns |
| Performance per core | 1.0–1.8 GFLOPS (INT ops, FP32 emulated) |
| Module form factor | 60 × 80 cm board, ~1,000 cores, ~150,000 tubes, 128 KB local memory (tube-based flip-flops), 1 GHz clock bus |
| Rack | ~64,000 cores (64 boards), standard 42U |
| Full system target performance | 84–96 exaFLOPS (FP32-equivalent) |
| Total cores | ~70–80 billion |
| Total tube count | ~80 billion |
| Racks | ~1.1–1.25 million |
| Facility size | 350 m × 550 m, height 4.5–5 m |
Performance projections: single board 1,000 cores ≈ 1.2 TFLOPS; single rack 64,000 cores ≈ 76.8 TFLOPS; full cluster 80B cores ≈ 96 EFLOPS.
Dual-triode vacuum tubes (6Н16Б, 6Н17Б, 6С51Н, 6С62Н) forming 8-bit RISC cores; 60 × 80 cm modules holding ~1,000 cores and ~150,000 tubes with 128 KB of tube-based flip-flop local memory on a 1 GHz clock bus; 42U racks of 64 boards (~64,000 cores); full facility of ~1.1–1.25 million racks. Fully modular and robot-solderable; fault-tolerant via modular redundancy; passive glow-based thermal monitoring.
Can be built with existing supply chains — all required tubes are in current production, no semiconductor fabs or lithography are required, and the work is purely electrical engineering. Fully modular and robot-solderable with hot-swap design. Fault-tolerant via modular redundancy. Zero speculative or out-of-order logic. Hybrid analog-digital computation, massively parallel by physical design. Passive glow-based thermal monitoring, and the visible glow from 80 billion tubes doubles as a sci-fi art installation.
[требует уточнения из базы]
Next steps: build a 1,000-core lab demo board; evaluate heat, performance, and longevity; develop soldering and placement automation; partner with DARPA, CERN, and HPC labs; launch the "Glow-in-the-Dark ExaFLOP" pilot. Maintenance is high due to tube degradation, mitigated by hot-swap design.
TRL 3–4 — Experimental board-level prototype possible now. System architecture defined. No fundamental physics barrier.
Cybersecurity, AI/ML research, real-time simulation. [количественные оценки — требует уточнения из базы]
Estimated rack cost: $5,000–15,000. Energy usage: very high, comparable to exascale silicon systems. Maintenance: high (tube degradation, hot-swap design).
Very high energy usage comparable to exascale silicon systems. High maintenance burden from tube degradation. Requires development of soldering and placement automation at unprecedented scale.
[требует уточнения из базы]
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Partnership pathway