Pre-calculated from publicly available data. No access to your systems required. Select your operator or enter your own numbers.
How this works
Published PUE. Public power rates. Real math.
Major data center operators publish Power Usage Effectiveness data in annual ESG and sustainability reports. Synestra uses that data to estimate the Economic Availability gap — the difference between what a campus generates and what it delivers to useful compute. The calculation is transparent. The sources are cited. The number is yours to test.
Select a perspective
Landlord or tenant. The gap belongs to both.
Data center operators recover value through PUE reduction, BTM dispatch optimization, and stranded capacity. Tenants recover value through compute yield, GPU utilization, and workload efficiency. Select your perspective to see the relevant EA estimate.
055657585100
Underperforming0 – 54
Below Average55 – 64
Competitive65 – 74
High Performing75 – 84
Industry Leading85 – 100
Based on publicly available ESG data, most major AI infrastructure operators estimate a Full EA Score in the 50 – 56 range — Below Average to Underperforming. Synestra's first-deployment target is 73+, moving operators to Competitive. Every point of improvement is a point of cost advantage in the AI infrastructure market.
The following EA estimates are derived from each operator's publicly disclosed Power Usage Effectiveness (PUE). Sources are cited below each result. These are scenario estimates, not measured customer outcomes.
Tenant-side Economic Availability is the gap between contracted compute capacity and useful throughput delivered to workloads. The primary inputs are GPU utilization, thermal headroom, and workload scheduling efficiency.
GPU utilization gap
Industry average GPU utilization in AI data centers runs 65–75%. Theoretical ceiling with coordinated scheduling is 90–95%. That 20–25 point gap represents compute you are paying for and not using. At $38M per recovered MW-year, a 10 point utilization improvement on a 100MW AI campus is worth $38M annually.
Thermal derating
When facility-side PUE is high, thermal headroom is constrained. GPU cores derate under sustained thermal pressure — reducing clock speeds and effective throughput by 3–8% without triggering an alarm. Synestra correlates facility thermal state with compute output to surface derating before it compounds.
Workload scheduling
AI training workloads have natural pause states — checkpoint saves, data loading, inter-node sync. Scheduling non-uniform workloads to avoid coincident power peaks reduces demand charges and reduces the thermal load the facility must absorb. Neither the landlord nor the tenant typically coordinates this today.
Stranded capacity
Power and cooling systems are designed to peak workload with margin. A facility constrained at 85% IT load utilization due to thermal or power ceiling losses 15% of contracted capacity. Synestra identifies and closes that gap — making stranded capacity available for additional workload without additional infrastructure investment.
Tenant-side EA estimates require facility-specific inputs. Synestra can produce a baseline estimate for your campus using your deployed fleet size and published facility specifications.
The numbers below are the energy floor only — the minimum verifiable cost of operating at the PUE levels major operators disclose publicly. The full EA opportunity is substantially larger once recovered compute capacity is included.
500 MW campus · PUE 1.28 · $40 / MWh · PUE gap 0.08
Energy cost in the PUE gap, today
$38,356 / day
$1.15M per month · $14.0M per year · energy savings only · based on published PUE
200 MW campus
$15,342
per day · $5.6M/year energy floor
500 MW campus
$38,356
per day · $14.0M/year energy floor
1.4 GW campus
$107,397
per day · $39.2M/year energy floor
Energy floor assumes PUE 1.28 → 1.20 (gap of 0.08) at $40/MWh and the respective IT load. These are the energy savings alone — the minimum recoverable cost confirmed by public utility and ESG data. The full EA value includes what those recovered megawatts could do instead: run AI workloads. At $38M per recovered MW-year (Synestra's full-stack EA value intensity), a 500 MW campus at this PUE gap carries $1.52B in total EA opportunity annually. The energy floor is $14M. The gap between the two is compute capacity that overhead is consuming instead of generating revenue. Review the commercial thesis.
Why the full EA opportunity exceeds the energy floor by 100×: At $40/MWh and 8,760 hours per year, one recovered megawatt saves approximately $350K in energy annually. But one megawatt of recovered overhead capacity deployed to AI compute — at AI factory revenue rates — is worth orders of magnitude more. Synestra's $38M per recovered MW-year figure captures the full stack: direct energy savings, recovered compute capacity value, compute yield improvement from workload coordination, and BTM dispatch optimization on ERCOT-connected sites. The energy floor is the verifiable floor. The full EA value is the actual commercial opportunity. Operators who understand the difference compete on economics. Those who do not compete on capacity — and lose margin with every rack they fill.
The competitive frame: An operator running at EA Score 73 can serve the same AI compute demand as one running at 55 — at lower infrastructure cost and higher margin. As AI compute capacity expands, operators with higher EA Scores gain a pricing advantage that compounds across every tenant negotiation. A score of 55 is not a neutral starting point. It is a cost structure that a higher-scoring competitor can undercut.
Your Campus
Enter your own numbers.
Adjust the inputs below using your facility's published or internal specifications. The calculation uses the same methodology as the operator profiles above.
200 MW
5 MW1,000 MW
1.35
1.101.80
1.20
1.051.50
$50/MWh
$20$150
This is a scenario model based on the inputs above. It does not claim guaranteed outcomes, universal EA improvement, or Synestra customer operating data. Actual recoverable value depends on facility design, workload mix, controls maturity, and operating model. Full methodology.
EA Score Methodology
A defined index. A publishable standard.
The Economic Availability Score is a 0–100 index measuring the percentage of designed economic capacity an AI infrastructure campus is actually delivering. Synestra publishes the methodology. The score is calculated consistently across operators using the same formula.
Facility Score (public data)
Formula: (1 ÷ PUE) × 100
Measures the percentage of facility power that reaches IT equipment. A PUE of 1.28 means 78% of power reaches compute — a Facility Score of 78. Calculable from published ESG data for any operator that discloses PUE.
Full EA Score (requires deployment)
Formula: Facility Score × compute utilization
Adds the compute yield dimension — what fraction of IT power is actually delivering useful workload output. Industry average AI factory GPU utilization is approximately 70%, producing a Full EA Score of roughly 55 for a campus with a Facility Score of 78.
Synestra Target
Formula: (1 ÷ target PUE) × 100 × 88%
What is achievable with PUE improvement to the operator's stated target and workload coordination raising GPU utilization toward 88%. The gap between the current Full EA Score and the Synestra Target is the recoverable EA opportunity.
What the score means
Economic Availability is the gap between what your campus generates and what it delivers to useful compute.
The PUE gap captures the landlord-side recovery opportunity — power consumed by mechanical systems that could be recovered and redeployed as additional IT load or cost reduction. It does not capture BTM dispatch optimization, compute yield improvement, or workload scheduling efficiency, which are additional EA recovery levers. The full EA opportunity at a given campus is larger than the PUE gap alone.