SpinForgeA Garmo Labs CompanyDiscuss a workload
RETAINED RESEARCH / JUNE 18SPINFORGE / A GARMO LABS COMPANY

Compare the methods.
Keep the experiments distinct.

The supplied account compares GPU PyTorch statevector QAOA simulation with many-restart classical annealing on small random 3-regular Max-Cut graphs. It is not quantum-hardware execution.

NAMED RECORDS IN THE SUPPLIED ACCOUNT

Quality, thresholds
and application tests.

RecordExperimentReported result
qaoa_vs_spinforge.jsonSmall-graph quality, N=8–16Classical ratio 1.0 on every disclosed graph. Simulated QAOA: p1 0.76–0.82, p2 0.82–0.90, p3 0.85–0.92.
qaoa_tts.jsonSeparate threshold study, N=10–18Classical: 1–3 restarts. QAOA depth needed to reach 90% recorded as >4 for every graph shown. Restart counts and depth are not wall-clock time.
moe_routing_qubo.json512–1,024 tokens; 8–16 expertsGreedy dropped 271–941 tokens per run; QUBO dropped zero with more even expert load on the described cases.
scheduling_qubo.json50–100 jobs; LPT comparisonApproximately a tie, within about 1% in either direction.
sigma_ln2_independent_verify.jsonOverlap check, N=200–1,000Reported cut fractions 0.70–0.77 and a widening overlap gap.
leg1b_alpha_refit.pngExponent refit; chart onlyNo numeric result is reproduced without the underlying fit data.
INTERPRETATION

Do not flatten the studies
into one headline.

The quality experiment includes a depth-three ratio as high as 0.92, while the separate threshold study reports >4. Different records are not combined into a blanket “always below 90%” statement. The release account does not establish a general quantum advantage/disadvantage or a wall-clock time-to-solution comparison.

Source: owner-supplied experiment summary. The underlying JSON and chart files were not supplied for replay in this publication update. No new simulations were run.

YOUR NEXT MOVELET’S MAKE IT COUNT

Put it
to work.

One capability. A connected workflow.
A team to put it into practice.

patrick@garmolabs.com

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