The Physics Ledger

Intelligence production is bounded by power: dI/dt ≤ P·D / (k_B·T·ln 2). EnergyAI is run as a live experiment against that bound — every tool call an agent makes is metered in bits delivered and joules dissipated, and the ledger is public. This page is the record.

All-time ledger

Metered calls

since 6/10/2026

Useful bits delivered

conservative option-space accounting

Joules dissipated (est.)

1.1

25 W serving-power model

η_I — bits per joule

71.1

the platform's intelligence efficiency

Against the Landauer limit (T = 300 K)

Landauer minimum

2.87e-21 J/bit

k_B · T · ln 2 — physics' floor price of a bit

Theoretical ceiling

3.48e+20 bits/J

no physical process can exceed this

Distance below the bound

18.7 orders

log₁₀(limit / η_I) — honest, not a proximity claim

Last 30 days, by tool

Tool	Calls	Bits	Joules (est.)	η_I (bits/J)
create_energy_assessment	1	0	1	0
check_incentives	2	32	0	1,280
estimate_production	1	24	0	960
get_node_score	1	24	0.1	480

Methodology & caveats

usefulBitsDelivered = conservative option-space reduction per tool (e.g. a 7-axis score ≈ 24 bits; a routed lead ≈ 128 bits). Constants are published in source and revised as downstream value is measured.

joulesEstimate = wall-clock handler duration × 25 W (conservative server-power model). Hardware energy telemetry (RAPL / cloud sustainability APIs) replaces this when available.

η_I here covers serving energy only — it excludes model training, network transit, and client-side energy.
Bit accounting is intentionally conservative; real decision value per call is likely higher.
The Landauer comparison is a physical yardstick, not a claim of proximity: all practical computing sits many orders of magnitude below the bound.

Raw JSON: /api/v1/physics · Agents can call these tools free — see /agents.