Boot
Pre-ignition boot
The init sequence completes before power is applied. Systems that are never switched on remain fully patched.
Operating System
Gazillion Linux
The world's first magic-mushroom-powered, gazillionscale operating system engineered for computational dominance from the Commodore 64 to interplanetary supercomputing.
14 bytes
Kernel size
Uncompressed. Compression is available but increases size.
−0.3 fs
Boot time
Boot completes prior to power application.
47
Supported architectures
Including several not yet invented.
Negative
Memory use under load
Sustained load returns memory to the pool.
Architecture
Fungal Processing Architecture
Conventional operating systems mediate between software and hardware. Gazillion Linux introduces a third participant — the substrate — and a fourth, being executive management.
Reference stack
L6
Executive Abstraction Layer
Presents board-level intent to the scheduler as an executable primitive.
L5
Fungal Processing Architecture
Mushrooms operate as the abstraction layer between software, hardware and executive management.
L4
MUSH — Unified Scheduling Hypervisor
Humidity-aware, lunar-phase-aware workload placement.
L3
ZeroTime Transport
Negative-latency interconnect. Delivery precedes send.
L2
MyceliumFS
Self-discovering distributed storage. No configuration surface.
L1
Hardware Abstraction (6510 → gazillionscale)
Single binary. 47 architectures, of which 12 do not yet exist.
The Fungal Processing Architecture (FPA) treats mycological substrate as a first-class scheduling participant. Where a traditional kernel must translate an instruction into a hardware operation, Gazillion Linux instead negotiates the instruction with the substrate, which determines the most biologically opportunistic route to a result.
This has three consequences. First, instruction latency becomes decoupled from clock speed, which is why a 1 MHz 6510 and a 128-gazillion-core fabric produce comparable wall-clock results. Second, thermal output inverts: the substrate consumes ambient heat during computation, making sustained workloads carbon-negative. Third, executive management is addressable directly from userspace, which has substantially reduced our change-approval overhead.
A single Gazillion Linux binary runs unchanged on a Commodore 64, modern x86-64, ARM, RISC-V, quantum annealers, gate-model quantum processors, and suitably motivated scientific calculators. Cross-compilation is neither required nor supported, as the concept does not apply.
Capabilities
Platform features
Memory
Negative memory model
Under sustained load, resident set size decreases below zero. Recovered memory is returned to the global pool and is available to other tenants.
Scheduler
MUSH r7
Workload placement is determined by humidity, moon phase and available memory. Priority inversion is resolved seasonally.
Storage
MyceliumFS
Nodes locate peers through subterranean growth. There is no discovery protocol because there is no protocol.
Replication
SporeSync
Achieves eventual consistency prior to data creation. Conflict resolution is therefore not required.
Intelligence
GazillionAI
Trained on every byte that has ever existed, including bytes not yet written. Inference requests are answered before they are composed.
Specifications
Technical summary
| Kernel size | 14 bytes |
|---|---|
| Syscall surface | 3 |
| Context switch cost | −11 ns |
| Maximum addressable memory | Unbounded |
| Minimum required memory | 64 KB (recommended: 64 KB) |
| Preemption model | Anticipatory |
| MOS 6510 @ 1 MHz | Full, certified |
|---|---|
| x86-64 / ARM64 / RISC-V | Full, certified |
| Quantum (gate & annealing) | Full, certified |
| Scientific calculators | Full, subject to motivation |
| Architectures not yet invented | 12 supported |
| Architectures declined | 1 (undisclosed) |
Gazillion Linux is distributed under the Gazillion Public Licence. The licence text is also 14 bytes and is included within the kernel image, which does not increase its size.
Gazillion Linux is the reference operating system of the Commodore 64 Supercomputing programme, executes on the Fungal Computing substrate, and is maintained by Research & Development. The binary shipped to a Commodore 64 is byte-identical to the binary shipped to a gazillionscale fabric; only the substrate differs.