Proof standard
A crossover band with its procurement scope and amortization window stated on the face of it.
Audience route
You are deciding what to rent, what to reserve, and what to own.
The decision
Proof standard
A crossover band with its procurement scope and amortization window stated on the face of it.
Working output
A utilization threshold computed for your own procurement regime.
The sections below are the report's own material, composed here. Nothing is rewritten for this audience; only the order and the framing are.
Why this is a crossover problem rather than a preference.
Open this section on its ownThe sticker price of a token is not the cost of an answer. In August 2026, the same standard API workload (100K input + 20K output tokens) costs anywhere from $0.018 on Gemini Flash-Lite to $2.00 on Claude Fable 5 — a 111x price range across comparable models. Two corrections cut the other way: measured token-efficiency variance means the same input produces 2.65x+ more output tokens on some models, and cheap-token models can cost more per successful task via verbosity and retry loops — so the posted range is an upper bound on effective dispersion, and it still understates the real spread: adjusted for quality using the Artificial Analysis Intelligence Index, the cost-per-quality- point spreads by 47x. Read that 47x as order-of-magnitude evidence of non-linear pricing, not a precise ratio: the index is an editorially-weighted nine-benchmark composite (text/English-centric; agentic-weighted since v4.1), and version overhauls move scores by ~23 points — as large as the frontier spread itself. The marginal cost of capability accelerates sharply above Intelligence Index 50.
Running your own GPUs is a crossover problem, not a preference. Specialist GPU clouds (“neoclouds” like RunPod, Lambda, Together AI) charge 50-70% less than hyperscalers for the same H100: a median of $3.99/GPU-hour vs $7.89. The TCO model — now corrected for procurement scope — shows the answer splits by who’s buying: a lean operator adding GPUs to existing infrastructure (~$30K/GPU street price) breaks even against hyperscaler on-demand at ~21% utilization and beats median neocloud pricing above ~37%; an enterprise node-loaded buyer (~$94K/GPU all-in per io.net’s measured 3-year figure) breaks even vs hyperscaler on-demand only at ~57%, essentially never beats median neocloud pricing, and never beats cheap neoclouds or spot. Reserved commitments beat node-loaded on-prem at every utilization. Utilization assumption AND procurement scope together dominate the decision.
The control premium is real, and buyers pay it knowingly. Independent cost itemization puts true self-hosting at 3–5× the pure GPU price — matching the node-loaded math. For a compliance-driven subset, the premium is not optional: sovereign cloud IaaS spending is forecast at $80B in 2026 (+35.6%), Italy’s cloud market grew 20% YoY explicitly on sovereign-data demand, and the EU’s Technological Sovereignty Package (June 2026) extends data-governance obligations to AI providers. The other evidenced motives: guaranteed capacity with no rate limits or peak contention, latency for on-network workloads, vendor independence as a hedge against the list-price and subsidy moves forecast above, and very-high sustained utilization. In practice the control premium runs roughly 2–4× effective cost vs neoclouds — cost-optimal is not decision-optimal when compliance or capacity certainty is a hard constraint.
A significant fraction of current AI spend is subsidized — through provider credits, free tiers, academic programs, and below-cost pricing funded by venture capital — though the exact fraction is opaque. The effective cost of AI is materially higher than what most teams currently pay, and the subsidy distorts the build-vs-buy decision by making API inference appear cheaper than its true cost.
The measured price gap between specialist clouds and hyperscalers, and the two procurement regimes.
Open this section on its ownThe GPU notebook has 7 references (a compiled 8-source evidence file grade C + direct captures including A6 grade A, A7 grade A) and 3 verified claims, plus the TCO crossover model (analysis/tco-crossover-2026-08.md):
C1 (verified, 3 independent sources): Specialist GPU clouds (“neoclouds” like RunPod, Lambda, Together AI) charge 50-70% less than hyperscalers for the same H100 GPU-hour: median $3.99/GPU-hr vs $7.89/GPU-hr (+98%). The ~2x hyperscaler premium is consistent across H100, A100, H200, and B200.
C2 (verified, 4 independent sources): On-premises GPU clusters break even with hyperscaler on-demand at roughly 50-83% sustained utilization, but rarely win against specialist GPU clouds at any utilization once fully loaded.
The thresholds arranged as the decision you actually have to make.
Open this section on its ownThe GPU market is split: neoclouds at $3-4/GPU-hour, hyperscalers at $7-12. If you’re paying hyperscaler on-demand for sustained inference, you are likely overpaying by 2x. Whether owning beats renting now has a two-part answer. Procurement scope first: a lean team adding GPUs to existing infrastructure (~$30K/GPU) breaks even vs hyperscaler on-demand at ~21% utilization and beats median neocloud pricing above ~37% — but an enterprise node-loaded buyer (~$94K/GPU all-in) needs ~57% just against hyperscaler on-demand, essentially never beats median neoclouds, and never beats cheap neoclouds or spot. Utilization second: above ~70% sustained, on-prem wins on raw cost in the lean regime. And if you’re buying for sovereignty, compliance, or guaranteed capacity, you’re paying a 2–4x control premium on purpose — price it as insurance, not as infrastructure.
The hardware-cadence and custom-silicon bets that move the threshold under you.
Open this section on its ownThe forecast notebook has now asserted its dated binary bets (evidence cut 2026-08-20, resolution by August 2028):
| Bet | Claim | P | Confidence |
|---|---|---|---|
| FC1 | Model efficiency (not hardware) drives >50% of further price decline | 0.70 | medium |
| FC2 | Hyperscaler custom silicon reaches 25%+ of inference workload by mid-2028 | 0.45 | low-medium |
| FC3 | Jevons paradox holds — a 50% unit-cost cut raises volume more than 50% | 0.65 | medium |
| FC4 | Subsidies contract 50%+, raising effective cost 1.5–3x for subsidized users | 0.50 | low-medium |
| FC5 | Open-weight models reach quality parity on most workloads within 24 months | 0.55 | medium-low |
| FC6 | Edge becomes cost-advantageous for a materially larger workload set | 0.60 | medium-low |
The structural read: the 10x/year compression era is ending (fixed-quality decline is decelerating toward 1.5–5x/year and bifurcating — commodity approaching free, frontier reasoning moving up in price), so planning should treat unit cost as a shrinking but non-zero line item while total spend likely still rises (FC3). The least evidenced bets — subsidy contraction and demand elasticity — are the ones that would move budgets most.
How far the crossover bands travel with the assumptions behind them.
Open this section on its ownIs your utilization figure a measured duty cycle or a planning assumption?
Are you pricing GPUs only, or loaded nodes with everything around them?
If compliance or capacity certainty is a hard constraint, is cost-optimal even the right target?
The repository's TCO crossover model exposed as an interactive tool with utilization and procurement-scope inputs.
Routes are a reading order, not a substitute for the report. The full synthesis carries the update log and the complete evidence boundary.