CONFIDENTIAL Hans Royal  |  Royal Energy Analytics LLC  |  Compute Heat Rate™
CHR Hedge Accounting Framework

Why CHR Is the Better Hedge Than Raw MWh

Industrial CFOs need instruments that hedge the cause of their repricing risk, not just the composite price outcome. The Compute Heat Rate™ provides the reference variable for a new class of cause-based financial instruments.

Section 01: The Core Problem

MWh Hedges Answer the Wrong Question

A traditional energy hedge protects against: "What if electricity gets more expensive?"

The right question for AI-concentrated grid hubs is: "What if electricity gets more expensive specifically because a demand class entered my market that will never curtail at any price I can survive?"

Those are fundamentally different risk profiles with different instrument requirements.

"We don't speculate" is precisely the argument for CHR instruments, not against them. By not hedging the CHR, you are implicitly speculating that AI demand will not affect prices at your node. That is not neutral. That is an unhedged bet.

The CFO Reframe — Hans Royal
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Traditional MWh Hedges Assume Mean Reversion

Every conventional electricity hedge is priced on the assumption that supply and demand rebalance. High prices attract generation, prices come back down. CHR identifies a structural repricing: a new permanent equilibrium. When your swap rolls off, the baseline is higher. You delayed exposure, not hedged it.

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Over-Inclusive Coverage Wastes Premium

A blanket MWh swap hedges everything: weather events (temporary), gas spikes (mean-reverting), and CHR dynamics (structural). You pay premium for risk categories that will self-correct, diluting the cost-effectiveness of your hedge against the one risk that won't.

CHR Instruments Hedge the Cause

A CHR-referenced instrument targets the specific causal mechanism: AI demand tolerance pulling up clearing prices at your node. More targeted, lower premium, tighter accounting correlation, and embedded intelligence about whether the risk is growing or shrinking.

Section 02: The Historical Precedent

The Spark Spread Analogy

The gas heat rate derivative market was created because generators recognized that hedging the causal variable (the fuel-to-power conversion ratio) was superior to hedging the composite outcome (the electricity price). CHR follows the identical logic on the demand side.

Supply Side: Established

Gas Heat Rate

1Gas price rises
2Heat rate converts fuel cost to generation cost
3Generators bid higher into wholesale market
4Wholesale price rises (supply-pushed)
5Spark spread derivatives hedge the conversion risk
Key: Generators hedge the relationship between their input (gas) and their output (electricity), not just the output price.
Demand Side: New Category

Compute Heat Rate™

1AI revenue per MWh vastly exceeds industrial thresholds
2CHR quantifies AI willingness-to-pay for electricity
3AI load bids up / refuses to curtail in wholesale market
4Wholesale price rises (demand-pulled)
5CHR derivatives hedge the displacement risk
Key: Industrial consumers hedge the cause of their cost increase (AI demand tolerance), not just the aggregate price movement.
Section 03: Accounting Treatment

ASC 815 Hedge Effectiveness: Why CHR Qualifies Better

Under ASC 815, a derivative qualifies for hedge accounting only if there is a "highly effective" correlation between the instrument and the hedged risk (R² ≥ 0.80, slope 0.80 to 1.25). CHR instruments produce tighter correlation because they reference the causal variable directly.

Generic MWh Swap

Hedges all sources of price movement at the hub. Correlation to AI-specific risk is diluted by weather, gas prices, outages, and other non-structural drivers.

Estimated R² to CHR-specific risk: ~0.55 to 0.70

Effectiveness testing must account for basis risk across all price drivers. Over-hedges non-structural volatility the company may not want to pay for.

CHR Protection Contract

Hedges specifically the demand-side structural repricing mechanism. Settlement references CHR or CHRPS threshold at the relevant hub.

Estimated R² to CHR-specific risk: ~0.85 to 0.95

References the causal variable directly. Excludes weather, gas, and outage noise. Higher R² values under ASC 815 regression testing for the specific risk being managed.

The CHR instrument doesn't hedge "electricity prices go up." It hedges "electricity prices go up because of the specific structural mechanism at my node." That specificity is the accounting advantage.

Section 04: The Decision Trigger

CHRPS: From Abstract Risk to Time-Stamped Action

A CFO cannot hedge a gas heat rate if they don't use gas. But they absolutely face electricity price risk. The question is whether the source of that risk is identifiable, measurable, and hedgeable. CHR says yes. CHRPS tells you where and when.

Interactive CHRPS Gauge: PJM DOM Hub

Adjust data center penetration to see how CHRPS evolves and when the hedging trigger activates.

12%
0 — Minimal 150 — Moderate 400 — Elevated 800+ — Critical
0-150
150-400
400-800
800+
Current CHRPS
340
Classification
Moderate
Recommended Action
Begin scoping PPA or CHR Protection Contract
Unhedged Exposure (100 MW, 15yr)
$85M
Section 05: Head-to-Head

Instrument Comparison: Option A vs. Option B

For the same industrial consumer (steel mill, 100 MW, PJM DOM hub), compare two available instruments.

Option A

Conventional MWh Financial Swap
Structure
10-year swap at $55/MWh
Risk Targeted
All price movement (undifferentiated)
Premium Cost
Higher: blanket coverage
ASC 815 Correlation
Moderate: ~0.55-0.70 R²
Mean-Reversion Risk
Yes: overpays if prices revert
Roll-Off Intelligence
None: blind to structural risk changes
Counterparty
Banks, trading desks (liquid)
Downside if Wrong
$10-$15/MWh overpay
vs.

Option B

CHR Protection Contract
Structure
Pays out when CHRPS exceeds threshold or wholesale exceeds CHR trigger
Risk Targeted
AI-driven structural repricing only
Premium Cost
Lower: precisely targeted
ASC 815 Correlation
High: ~0.85-0.95 R²
Mean-Reversion Risk
No: only triggers on structural shifts
Roll-Off Intelligence
CHRPS trajectory informs next action
Counterparty
Generators at DC-heavy hubs (emerging)
Downside if Wrong
Premium lost (lower cost basis)
Section 06: The Asymmetric Payoff

The Cost of Being Wrong vs. the Cost of Being Right

The case for CHR hedging does not require certainty. It requires only that the expected value of hedging exceeds the expected value of waiting.

AI is a Bubble
~10%
$30-$50/MWh
If Hedged
Slight overpay
$10-15/MWh
If Unhedged
No harm
Messy Middle
~25%
$50-$80/MWh
If Hedged
Solid hedge
+$5-15/MWh
If Unhedged
Manageable
CHR Thesis Holds
~45%
$100-$160/MWh
If Hedged
Major savings
+$30-50/MWh
If Unhedged
$26M+/yr per 100 MW
Supercycle
~20%
$150-$250+/MWh
If Hedged
Transformative value
+$60-100/MWh
If Unhedged
Existential risk

The cost of being wrong and hedged is measured in single-digit dollars per MWh. The cost of being right and unhedged is measured in hundreds of millions. This is a 10:1 risk-reward ratio favoring immediate execution.

CHR Asymmetric Payoff Framework — Hans Royal