OCS / Tools / Workflow — MTH Compute Budget

End-to-end workflow · 4 stages · all client-side

The MTH Compute Budget

Pick an allowed IMBH mass. Extract BZ power. Apply the Bekenstein-Landauer-Lloyd limits. Factor in time dilation. The complete quantitative argument for why an ergosphere civilization outcomputes anything built from matter and light — in one browser session.

🔬 Established GR + MHD ✦ MTH application speculative
No backend · No tracking · State in URL hash · v1.0 · 2026-06-01
01
IMBH Constraint Window
Choose the IMBH Mass
Select a mass within the observational constraint window
▶

The IMBH mass is the single most important free parameter in the MTH argument. It sets both the BZ power (Stage 2) and the Schwarzschild radius for time dilation (Stage 4). Two current bounds are in genuine tension: Häberle et al. 2024 (stellar kinematics) places a lower limit of ≥8,200 M☉, while Bañares-Hernández et al. 2025 (pulsar timing) places an upper limit of ≤6,000 M☉ — the ranges do not overlap. The Chen et al. 2025 JWST non-detection constrains the product M × accretion efficiency from above, not mass alone; it is not a lower bound on mass.

Input
30,000 M☉
Stage 1 outputs
IMBH mass M 30,000M☉
Schwarzschild radius r_s —AU
Gravitational radius r_g —km
Constraint window —
→ Passes to Stage 2:  M = 30,000 M☉
02
Blandford–Znajek Power Extraction
BZ Power Output
Set spin and magnetic field to extract ergosphere power
▶

The Blandford-Znajek process couples a spinning black hole's angular momentum to magnetic field lines threading the horizon, pumping electromagnetic Poynting flux outward as a relativistic jet. The power scales as P_BZ ∝ B² M² a², making mass and spin the dominant handles. The magnetic field B is the engineering variable — it must be sustained by an accreting magnetised plasma or engineered magnetosphere. Mass M is fixed by Stage 1 and cannot be changed here.

Inputs (M from Stage 1)
From Stage 1 30,000 M☉
a* = 0.900
10⁶ T
Stage 2 outputs
BZ power P_BZ —W
Kardashev level K —
vs. solar luminosity L☉ —
Horizon radius r₊ —km
Horizon angular velocity Ω_H —rad/s
→ Passes to Stage 3:  P_BZ = —
03
Bekenstein–Landauer–Lloyd Limits
Maximum Compute Rate
Convert BZ power into fundamental ops/sec ceilings
▶

Two independent physics bounds cap the ops/sec extractable from the BZ power. Landauer: every irreversible bit erasure costs at least k_B T ln 2 joules, so ops/sec ≤ P / (k_B T ln 2) — this depends on the operating temperature. Lloyd: the quantum-speed (Margolus-Levitin) theorem bounds ops/sec ≤ 2E / (π ħ) from the total available energy — temperature-independent. The binding limit (whichever is smaller) is the actual ceiling.

Inputs (P_BZ from Stage 2)
P_BZ from Stage 2 —
2.73 K (CMB)
—
Stage 3 outputs
Landauer ops/sec —
Lloyd ops/sec —
Binding limit —
vs. Earth's best silicon (est.) —
→ Passes to Stage 4:  M = — for Schwarzschild radius · binding ops/sec, the frame-invariant proper rate
04
Gravitational Time Dilation
Compute Budget Across Frames
Time near the horizon runs slower: ops per external year drop with dτ/dt, and the wait benefit grows
▶

A clock at radius r near a Schwarzschild black hole ticks at dτ/dt = √(1 − r_s/r) relative to a clock at infinity, so hardware sitting at 1.5 r_s completes fewer operations per external year than an identical rig farther out, dwindling toward zero as r → r_s. Per subjective (proper) year the rate is unchanged: binding ops/sec × 3.16e7 s/yr, frame-invariant. What the dilation actually buys is the wait: one subjective year at 1.5 r_s corresponds to 1.73 exterior years, so a civilisation parked deep in the potential well reaches the far future of the universe while aging slowly. The MTH computation claim therefore rests on the time-skip benefit, not on any increase in compute rate.

Inputs (M and r_s from Stage 1)
r_s from Stage 1 —
1.50 r_s
100 r_s
Stage 4 outputs
Clock rate dτ/dt (hardware r · observer r_obs) —
Hardware ops per external year (rate × dτ/dt at r) —
Ops per subjective year (frame-invariant) —
Ops/ext-yr vs. exterior observer (1.00× at equal radii) —
✓ MTH Compute Budget — Full Summary
IMBH mass
—
M☉
BZ power output
—
watts
Binding ops/sec
—
ops/s (Landauer or Lloyd)
Hardware ops / ext. year
—
binding rate × dτ/dt at r

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