ILLATIO ECOSYSTEM // SPARSE MOE INFERENCE INFRASTRUCTURE GUILD CORE 140F6F7
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Guild Labs / research initiative

A smaller footprint.
A larger possibility.

How much intelligence can we build with less? Guild Labs explores the relationship between model architecture, numerical representation, and the machines that run them.

GUILD LABS // SPARSE & TERNARY STUDY ● VERIFIED SNAPSHOT
Architecture diagram showing token intake, GPU VRAM dense attention and Gated DeltaNet execution, Host RAM routed Mixture-of-Experts dispatch, and speculative verification. 01 // INTAKE & DRAFT Prompt / Drafter • Normal (T=1) • GPU MTP (k=1) • Lookup / Retr 02A // TIER 1 · GPU VRAM Dense & Attention State GQA / QSA + Gated DeltaNet Shared Expert + Top-K Router 02B // TIER 2 · SYSTEM RAM Sparse MoE Expert Pool 8/256 (Ornith) · 10/512 (Qwen) GPACK mmap + GEXEC AVX-512/AVX2 03 // VERIFY & COMMIT Window Verifier • Exact Target Dist • KV / GDN Commit • Cost min ms/tok
Research Target Sparse MoE + Ternary
Ideal log2(3) 1.585 bits/weight
Proposed Family Eon (Grant Pending)
Systems Base Guild Core v0.x
Heterogeneous MoE execution pipeline Conceptual diagram · measured metrics above

Efficiency, from the
model to the machine.

01

Sparse by design

How can Mixture-of-Experts architectures increase model capacity while limiting the work required for each token?

02

Less precision.
More intention.

What can ternary and low-bit representations offer when we consider model quality, training, and hardware execution together?

03

Local, by nature

How should model design change when GPU memory is limited, system RAM is plentiful, and data stays on the user’s machine?

02 / Proposed model family

Introducing an ambition.
Eon.

Eon is the name of our proposed model family. Our interests include efficient large language models, sparse MoE architectures, and ternary representations.

The architecture, scale, and release schedule are not finalized. There are no released Eon checkpoints or published Eon research results to announce.

Research grant decision pending. We are awaiting a decision; funding has not been announced as awarded.

What does a bit buy?

A simple way to explore weight storage. These are mathematical estimates for hypothetical parameter counts, not Eon specifications or runtime memory requirements.

16-bit
65.19 GiB
8-bit
32.60 GiB
4-bit
16.30 GiB
Ternary
6.46 GiB
+1 0 -1 0 +1 0 0 -1 +1 0 -1 +1 0 +1 -1 0 0 +1 -1 0 +1 0 -1 0

Storage = parameters × bits ÷ 8 ÷ 2³⁰. Ternary uses the ideal log₂(3) ≈ 1.585-bit information bound. Packing, scales, mixed precision, activations, KV cache, and runtime workspaces add overhead. Storage reduction alone says nothing about quality or speed.

Our systems work is open.

Guild is where we develop and measure local inference infrastructure today.

Explore Guild