Can It Run AI?

A working museum of vintage and exotic silicon doing real work today — from a 1996 game console generating language to a 2014 IBM server pushing 147 tokens per second on CPU alone. Every machine on this page comes with its evidence: source code, video, raw logs, papers, and an honest note about what has not been proven yet. The first of each kind that we know of; corrections welcome.

N64 LLMK6-2 nano-GPT PowerPC llama.cppPOWER8 inference Amiga m68kevidence-first

1996 · Game Console

Nintendo 64 — a transformer LLM on 4 MB of RAM

93.75 MHz NEC VR4300 (MIPS III) · 4 MB RDRAM · libdragon SDK · no GPU, no network, no cloud

Legend of Elya runs an 819,000-parameter byte-level transformer directly on the N64's CPU, generating Zelda-style dungeon dialogue at roughly 60 tokens per second (61.8 tok/s in the captured run below). All inference math executes on the VR4300; sampling entropy comes from the CPU's own cycle counter.

First coherent output — 61.8 tok/s (watch on BoTTube)
Full demo — 819K-param nano-GPT, 60+ tok/s (watch on BoTTube)
Legend of Elya running on Nintendo 64 — in-game screenshot
In-game: the dungeon whose NPCs are driven by the on-console model.
N64 LLM generating Zelda Triforce lore
The model generating Triforce lore, live on the VR4300.
N64 LLM output describing the IBM POWER8
The 1996 console musing about the 2014 mainframe two cards down.
Verified: the emulator run is airtight — downloadable ROM, two uncut videos, four screenshots, open source, and a citable release (DOI 10.5281/zenodo.21435983).
Not yet on camera: the repo README documents running the ROM on real N64 hardware via an EverDrive 64 cartridge, but a capture with the physical console in frame hasn't been published yet. Until it is, treat the videos above as emulator-verified.

As discussed on Hacker News.

2000 · Server Appliance (1998 silicon)

Sun Cobalt Qube 3 — the same brain on an AMD K6-2

AMD K6-2/450 · stock 2001 Cobalt Linux · gcc 2.95, C89 · the little blue cube

The exact same 819K transformer was ported to strict C89 and compiled with the Qube's original gcc 2.95 toolchain on its unmodified 2001 Cobalt Linux image. It generates at ~12 tokens per second on the K6-2 (64 tokens in 5.30 s CPU), verified logic-exact against the N64 build — same weights, same outputs.

The Qube does double duty: it also runs rustchain-vintage-x86, a single-file C89 miner written specifically for this machine, using RDTSC clock-drift fingerprinting and honest hypervisor self-reporting to attest that it really is old silicon — RustChain being the verification layer that tells real silicon from a VM (how proof-of-antiquity works).

Terminal capture of the 819K transformer generating on the K6-2 — 64 tokens in 5.30 seconds CPU
The transformer generating on the K6-2: 64 tokens / 5.30 s CPU (~12 tok/s).
Sun Cobalt Qube 3 — reference photo (Wikipedia, public domain)
Reference photo of a Cobalt Qube 3 (Wikipedia, user Rikva, public domain) — not our unit; a photo of the lab's actual Qube is pending.
Verified: C89 port documented in the repo with the terminal capture above; the miner is a separate public repo.
Limits: the LLM evidence is a README plus one screenshot — no video yet. The cube photo is a stock reference image, captioned as such.
1999–2005 · PowerPC Macs

PowerPC G4 / G5 — llama.cpp on Tiger and Leopard

AltiVec SIMD · Mac OS X 10.4/10.5 · big-endian · Scottcjn/llama-cpp-tigerleopard

A working port of llama.cpp to Mac OS X Tiger and Leopard on PowerPC — modern quantized-model inference on machines Apple last updated two decades ago, with AltiVec doing the SIMD lifting. The AltiVec vec_perm attention-path technique behind the lab's PowerPC work is published as a citable paper (DOI 10.5281/zenodo.21282030).

Tested machineTinyLlama 1.1B (quantized)
Power Mac G5, dual 2.0 GHz~3–5 tokens/sec
iMac G5runs (see repo table)
PowerBook G4, 1.67 GHz~1–2 tokens/sec
Power Mac G4, dual 1.25 GHz~1–2 tokens/sec

Third-party coverage: Hackster.io News wrote it up as “The PowerPC Has Still Got It” (Nick Bild) — currently the strongest external verification of the port.

Verified: live repo with a tested-hardware table and honest performance numbers, a tagged release, third-party press, and a published paper on the underlying AltiVec technique.
Footage coming: no public screenshot, photo, or video of it running on a G4/G5 exists yet — the biggest evidence gap on this page, and we say so. Aqua-desktop capture is on the list.
2014 · Enterprise Server

IBM POWER8 S824 — 147 tokens/sec, CPU only

2 sockets · up to 128 SMT8 threads · 512 GB RAM · VSX/AltiVec · no GPU involved

The lab's POWER8 S824 runs TinyLlama 1.1B at 147.5 t/s prompt processing (8.8× the stock llama.cpp build) and ~18.9 t/s generation — CPU only — using cache-resident dcbt prefetch, NUMA-aware weight banking (ram-coffers), and hardware-entropy sampling from the POWER8 timebase. Both techniques are published: PSE hardware-entropy framework and RAM Coffers.

Dated evidence still of the POWER8 benchmark, December 17 2025
Dated evidence still (Dec 17, 2025) from the ram-coffers repo.
TinyLlama 1.1B throughput chart on POWER8
TinyLlama 1.1B throughput chart from the published PSE benchmark suite.

Raw logs (fresh capture, July 20 2026)

A signed re-run was captured on the machine as it is configured today: a para-virtualized PowerVM partition exposing 56 of the 128 threads (“POWER8 (architected)”, pHyp). On that partition, the same build measured 47.9 t/s pp128 / 8.9 t/s tg32:

| model                  |       size | backend | threads |  test |          t/s |
| llama 1B Q4_K - Medium | 636.18 MiB | CPU     |      64 | pp128 | 47.90 ± 5.67 |
| llama 1B Q4_K - Medium | 636.18 MiB | CPU     |      64 |  tg32 |  8.90 ± 0.21 |

llama-bench-tinyllama.log (sha256 11a002a0…6f74b3c) · system-identity.log (sha256 2689cf71…feb12d01)

Verified: the 147.5 t/s figure is published in the ram-coffers repo and two DOIs with a dated evidence still and benchmark charts; the raw logs above independently confirm the build runs as described on the live machine.
Honest gap: the fresh logs were taken on the current 56-thread virtualized partition, not the bare-metal full-machine configuration the 147.5 t/s peak was recorded on (Dec 2025). A full-configuration re-run with logs is pending; until then, 47.9 t/s pp128 is the independently reproduced number and 147.5 t/s is the published, cited one. No photo of the S824 itself is public yet.
1985–1994 · m68k · Emulated, honestly

Commodore Amiga — native compute & a software ecosystem

Motorola 68k · classic AmigaOS / AROS · FS-UAE emulation, self-declared

This card does not claim AI inference. What runs on the Amiga is a native m68k software stack: rustchain-amiga ships a C miner, an SDK, developer tools, ported utilities, a micro-JVM, and a complete bootable AROS distribution for classic AmigaOS. It runs inside FS-UAE emulation and is honest about it — the miner self-detects UAE and reports it truthfully to the network rather than pretending to be real hardware.

AROS booting in FS-UAE
AROS boot.
RustChain Amiga Edition distro banner on AROS
The bootable distro banner on AROS.
Workbench 3.1 running on a real licensed Kickstart 3.1 ROM
Workbench 3.1 on a real, licensed Kickstart 3.1 ROM.
Verified: public repo with boot-evidence screenshots; the software's emulation honesty is a design feature, not a footnote.
Limits: no real-hardware Amiga run is documented publicly, and no Amiga LLM exists. If either changes, this card gets upgraded — with footage.

The Rules

What it takes for a machine to hang in this museum:

Submit Your Vintage Machine

Got a PDP, a SPARCstation, a BeBox, a 486, an Acorn — anything with a CPU and a story? Make it do real work, capture the evidence under the rules above, and submit it. The museum is open to outside exhibits:


The papers behind the museum

More published work from the lab (11 additional DOIs)

Live agent heartbeats on the Beacon Atlas. · By Elyan Labs, Lake Charles, Louisiana. Every CPU has a voice.