The Grid Will Hold – Maybe – But the Bill Will Rise

By Terry L. Headley

The good news is that the lights are likely to stay on for most of us this weekend.

The less comforting news is that Americans are about to pay a lot more for electricity anyway — not because the grid fails, but because of how we now power it.

As another deep winter cold snap presses across much of the eastern United States, grid operators are doing what they always do in these moments: watching reserve margins, issuing conservation guidance, leaning on dispatchable generation, and quietly hoping nothing large trips offline at the wrong hour.

If history is a guide, the system will muddle through. It usually does. But survival isn’t the same thing as success. And it’s certainly not the same thing as affordability.

Even if there is no blackout, no emergency load shedding, and no headline-grabbing crisis, this weather event will still deliver a financial shock — one that will show up first in gas markets, then in wholesale power prices, and finally, months later, in the electric bills of households and businesses. That downstream billing impact is not accidental. It is structural. And it tells us far more about the state of the modern grid than any press release ever will.

Yes, the system will probably muddle through through this time. But one day in the not-too-distant future it won’t.

Counting the Cost of High Electric Bills

The modern American electric grid has become adept at avoiding disaster. Operators have more tools than ever: demand response, emergency imports, market signaling, conservation messaging, and sophisticated forecasting. What they do not have — at least not in sufficient quantity — is inexpensive, fuel-secure generation that can run whenever it is needed, regardless of weather.

In winter, the grid’s vulnerability is not generation capacity on paper. It is fuel deliverability in the real world.

Natural gas now sits at the center of that vulnerability. It dominates the marginal price of electricity across large portions of the country, particularly in regions like PJM Interconnection, which spans much of the Mid-Atlantic and Midwest. When gas is abundant and cheap, markets hum along. When it is constrained by cold weather, competing heating demand, pipeline limits, or freeze-offs, prices rise sharply — even if no generator actually fails.

Gas does not have to break to become expensive. It only has to be needed.

That is exactly what happens during prolonged cold snaps. Residential heating takes priority. Storage withdrawals accelerate. Pipelines run near their limits. Power generators bid defensively to secure fuel. The result is predictable: spot gas prices spike at constrained hubs, wholesale electric prices follow, and utilities quietly rack up higher procurement costs.

No blackout. No drama. Just higher bills.

And high electric bills extract a quiet but relentless toll. They are not merely an inconvenience; they function as a regressive tax on households least able to absorb them and a hidden drag on the broader economy.

For families, higher electric bills mean hard tradeoffs. Money spent keeping the lights on is money not spent on groceries, prescriptions, school supplies, or savings. For seniors on fixed incomes, a volatile power bill can force choices between heat and healthcare. For working households, it turns routine weather events into financial stress tests.

For businesses, especially manufacturers and small employers, high electricity costs erode margins, discourage expansion, and quietly kill jobs. Energy-intensive operations either scale back, pass costs along to consumers, or relocate to regions with more stable and affordable power. Over time, this hollowing-out effect weakens local tax bases and strains public services.

For communities, persistently high power costs accelerate decline. Retail districts dim. Investment slows. Population loss follows opportunity. Utility shutoffs rise, charitable assistance is stretched thin, and local governments face growing pressure to subsidize basic services that were once affordable.

And for the grid itself, high bills often signal deeper structural problems—overreliance on volatile fuels, premature retirement of reliable generation, or policy-driven distortions that shift costs from balance sheets to ratepayers. The bill arrives monthly, but the damage accumulates quietly, year after year.

In the end, high electric bills cost more than dollars. They cost stability, competitiveness, and confidence—exactly the things a healthy economy and a secure society require.

The Renewable Mirage in Winter

Renewable advocates often argue that wind and solar will insulate consumers from fossil-fuel volatility. Winter stress events expose the weakness of that claim.

Solar output is minimal during winter peak hours. Wind can help — or not — depending on meteorological luck. Batteries can shave peaks for minutes or a few hours, but they can’t carry a grid through multi-day cold events. When the weather turns hostile, renewables become supplements, not solutions.

That doesn’t mean renewables are useless. It means they are conditional. And conditional resources cannot set the reliability floor of a winter grid.

Yet they increasingly shape the cost structure of the system. Renewable mandates, tax credits, and priority dispatch suppress energy prices when conditions are favorable, discouraging investment in dispatchable generation. But when conditions are unfavorable — when cold sets in and demand spikes — those same policies leave the grid leaning heavily on gas, with fewer alternatives available to keep prices in check.

The irony is hard to ignore: policies sold as a hedge against volatility often amplify it.

The Quiet Role of Coal

This is where coal enters the discussion — not as a political symbol, but as an economic stabilizer.

When coal still dominated the grid, winter pricing behaved differently. Coal plants stored months of fuel on site. They did not compete with residential heating for delivery. They did not depend on pipeline pressure or wellhead performance. When cold arrived, they simply ran.

That mattered.

Coal-heavy systems were not immune to outages or price swings, but they were insulated from the kind of fuel-driven volatility that now defines winter power markets. Coal did not set the marginal price every hour, but it capped how high that price could go. It acted as ballast — heavy, unglamorous, and stabilizing.

Consider the role played by plants like John E. Amos Power Plant in West Virginia. Facilities like this are not interchangeable widgets. They anchor voltage, reduce transmission stress, and provide firm megawatts precisely when they are most valuable. When they run, they suppress scarcity pricing across wide swaths of the grid. When they retire, that suppression disappears — and consumers pay the difference.

If Coal Still Dominated the Grid, This Cold Snap Would Barely Register

It is worth asking a simple, uncomfortable question: If coal still dominated the electric grid the way it once did, would this cold snap even matter?

From a consumer perspective, the answer is largely no.

In a coal-dominated system, winter cold was an operational issue, not a pricing crisis. Load went up, coal units ran harder, operators adjusted dispatch, and the system absorbed the stress. What did not happen — at least not routinely — were sharp fuel price spikes, emergency conservation messaging, or springtime bill surprises blamed on “market conditions.”

The reason was structural.

Coal plants carried weeks — sometimes months — of fuel on site. That fuel was already purchased, already delivered, and already insulated from real-time weather events. Coal did not compete with residential heating demand. It did not depend on pipeline pressure, compressor stations, or wellhead performance. When the temperature dropped, coal plants did not enter a bidding war with homeowners for survival. They simply ran.

That mattered because coal often sat at or near the margin during winter peaks. And when coal is the marginal fuel, prices behave differently. They move modestly. They reflect cost, not fear. They do not explode because of perceived scarcity three states away.

Contrast that with today’s system. Natural gas now sets the price in much of the country. Gas does not need to fail to become expensive; it only needs to be stressed. Cold weather alone is enough. Add pipeline congestion, freeze-offs, or even the risk of nonperformance, and markets immediately inject a scarcity premium. Wholesale electric prices spike — even if every generator shows up and no emergency is declared.

That volatility then works its way downstream. Utilities absorb higher procurement costs. Fuel adjustment clauses kick in months later. Consumers see higher electric bills long after the weather has passed and are told, vaguely, that it was “because of winter.”

Under a coal-dominated grid, that chain reaction was muted or absent. Gas prices might still rise for home heating, but electricity did not compound the pain. Households were not hit twice — once for gas, and again for gas-driven power prices. Industrial customers did not face the same level of real-time exposure. Regulators were not forced to explain why nothing went wrong yet bills still went up.

None of this means coal eliminated winter stress. It did something more valuable: it absorbed it. Coal acted as ballast — heavy, unfashionable, and quietly stabilizing. By removing that ballast without replacing its function, we did not make the grid more fragile in obvious ways. We made it more expensive in subtle, recurring ones.

That is why today’s cold snap will show up on electric bills even if the grid performs flawlessly. And that is why, when coal still dominated, it would have passed with little more than a footnote in an operator’s log.

The lights stayed on then, too.

The difference is that the bill did not quietly grow teeth afterward.

How the Bill Really Shows Up

Consumers rarely connect winter reliability events to their electric bills, because the impact is delayed and obscured.

Here is how it actually works:

  1. Renewables go MIA.
  2. Cold weather tightens reserves
  3. Gas prices spike at regional hubs
  4. Wholesale power prices rise during peak hours
  5. Utilities absorb higher procurement costs
  6. Fuel adjustment clauses catch up months later

By spring, customers open their bills and wonder why rates are higher, even though “nothing happened.” Utilities point to weather. Regulators nod. The underlying structural cause goes largely unexamined.

Industrial customers feel it immediately through real-time pricing and demand charges. Residential customers feel it later, but more painfully, as higher energy bills stack on top of already elevated heating costs.

This is not a one-off phenomenon. It is now a recurring feature of winter.

We Chose This…

None of this is accidental. We made policy choices that traded fuel security for market efficiency, and market efficiency for political aesthetics. We shifted the grid toward just-in-time fuel delivery. We retired on-site fuel without replacing its stabilizing function. We assumed markets would solve problems that are, at their core, physical.

Markets are excellent at pricing scarcity. They are less effective at preventing it.

The result is a grid that survives winter stress events — but at a higher and more volatile cost. We have optimized for avoiding blackouts, not for protecting consumers from price shocks.

The Bottom Line

The grid will likely get through this winter storm. Operators are competent. Procedures are in place. The system will bend, not break.

But bending has a price.

Renewables will be MIA. Gas prices will rise. Wholesale electric prices will spike. Retail bills will follow. And once again, consumers will pay for a system that values politics over reliability.

Coal’s continued presence on the grid does not eliminate these costs — but its absence guarantees they will be higher.

If we want affordable electricity in winter, we must stop designing a grid that depends on perfect conditions to keep prices low.

And the bill always comes due.

About Seneca

The Seneca Center for Energy & Critical Minerals Policy is an independent research and policy organization focused on the strategic importance of traditional energy and critical mineral resources to the United States economy, national security, and industrial base.

Seneca conducts original research, economic analysis, and policy evaluation related to coal, natural gas, nuclear energy, electric reliability, supply chains, and domestic mineral development. Its work emphasizes affordability, reliability, and sovereignty—examining how energy and mineral policy decisions affect working communities, manufacturers, ratepayers, and long-term national resilience.

Rejecting advocacy driven by ideology or donor pressure, Seneca is committed to evidence-based analysis, transparent sourcing, and practical solutions grounded in real-world operating conditions. The Center’s work is designed for policymakers, regulators, industry leaders, and the public—particularly those seeking clear analysis unfiltered by fashionable narratives or political orthodoxy.

About The Hedley Company

The Hedley Company is a communications, research, and strategic advisory firm specializing in energy, natural resources, infrastructure, and public policy.

Founded by professionals with decades of experience in journalism, public affairs, and industry advocacy, the firm provides disciplined research, message development, policy analysis, and crisis communications support to companies, trade associations, nonprofits, and public institutions. Its work bridges data and narrative—translating complex technical and regulatory issues into language that decision-makers, media, and the public can understand.

The Hedley Company is known for its rigor, institutional memory, and independence. It favors facts over slogans, context over outrage, and long-term credibility over short-term applause. Clients rely on the firm not for trend-chasing, but for steady judgment rooted in experience and respect for how industries and communities actually function.

About the Author

T. L. Headley is an energy communications strategist, researcher, and writer with more than twenty-five years of experience in journalism, public relations, and policy advocacy.

A former reporter covering energy and government, Headley has served as communications director for major coal and energy trade associations and has advised industry leaders, policymakers, and grassroots organizations on regulatory, economic, and public perception challenges. He is widely recognized for his role in shaping modern energy messaging in coal-producing regions and for defending baseload energy in an era of policy volatility and market distortion.

Headley holds a master’s degree in public relations and an MBA in management and economics. His writing blends analysis with institutional memory—focused on how policy decisions affect workers, communities, electric reliability, and the national interest. He lives in West Virginia, where energy policy is not an abstraction, but a lived reality. 

This article was originally published by RealClearEnergy and made available via RealClearWire.

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AlbertBrand
January 27, 2026 2:36 pm

What really irks me is that we have centuries worth of coal in the United States and we’re not using it enough. Technology has improved immensely and coal fired generators are over 50% efficient. With scrubbers and other pollution control they run very clean.

Reply to  AlbertBrand
January 27, 2026 3:19 pm

In my last house I had a space heater that burned coal pellets. It burned so clean that it didn’t require a standard above the roof chimney- a mere smoke pipe exiting the house directly behind the stove. It was power vented to draw air through the stove. The pellets were loaded behind the stove and ran on a chain into the stove. The smoke coming out that pipe looked like nothing but steam and you couldn’t smell anything. I’d get the coal pellets in 40 pound bags.

BCofTexas
January 27, 2026 2:37 pm

To summarize: during a stress on the grid such as our current weather, coal plants deliver with little financial impact, while gas plants deliver “just in time” at bid prices. The cost of pulling that gas out of the ground did not go up, no new people had to be hired to deliver, and no equipment upgrades were needed. In other words when the bids go up the margin increase is pure profit. Nice work if you can get it. Long term gas contracts would help this a lot but gas suppliers are not going to give in to that as long as they are getting huge windfalls.

MarkW
Reply to  BCofTexas
January 27, 2026 3:04 pm

Prices go up, they also go down. This is just basic economics, supply and demand. No conspiracy here.

hdhoese
Reply to  MarkW
January 27, 2026 3:10 pm

Doesn’t take a conspiracy. Although the roots were there the really sad part is that two generations ago we knew better, even before that had fuel oil heaters. Some compare Piltdown man but its more like a huge primate population producing renewables to become fossils. 

January 27, 2026 2:43 pm

“That doesn’t mean renewables are useless. It means they are conditional. And conditional resources cannot set the reliability floor of a winter grid.”

OK. I can agree that renewables – assuming that means wind and solar – are not “useless.” They are WORSE than useless for system supply. They are PARASITIC to the reliable sources. They serve no overriding purpose at all concerning emissions of CO2, because incremental CO2 has no perceptible influence on climate trends to begin with.

And about natural gas, the supply constraints need to be mitigated by well-planned pipeline extensions/expansions.

Thank you for your patience on this issue.

Editor
Reply to  David Dibbell
January 27, 2026 4:53 pm

The problem is not exactly as you portray it. The problem is not (wind and solar) renewables per se, the problem is that governments have interfered to give them market priority. If there was a free market, renewables would enjoy contributing their share, but that share would be a lot smaller than the government-enforced share that they have today.

Intelligent Dasein
January 27, 2026 2:58 pm

This is AI-generated slop.

Editor
Reply to  Intelligent Dasein
January 27, 2026 5:05 pm

Now maybe the article was written by Grok which then lied to hide that fact, but I really do think that’s unlikely. If you want, you can check with a different AI. I asked Grok “can you tell if any of this article is generated by AI? [link]”.
Grok replied: No, the article does not appear to have been generated by AI, either in whole or in part. It reads as a standard opinion piece with a consistent human voice—opinionated, metaphorical (e.g., “the bill did not quietly grow teeth afterward”), and structured for emphasis through repetition and rhetorical questions. There’s even a minor typo (“muddle through through this time”), which is more typical of human drafting or editing oversights than AI output.

The author, Terry L. Headley, is a real person with a track record of writing on energy topics, particularly advocating for coal and critiquing renewable policies. He’s the founder of The Hedley Company, a communications and research firm focused on the energy sector, and has published similar articles across outlets like RealClearEnergy, CFACT, and Energy Central. This piece aligns with his established style and themes, such as in “Energy Policy Must Answer to Reality, Not Rhetoric.” [..]

January 27, 2026 3:15 pm

here in Wokeachusetts

You’ll NEVER Trust Green Energy Again After Hearing This
BOSTON
Winter Storm Fern exposed the biggest energy policy failure in Massachusetts history. While you were freezing in your home, the $3.5 billion Vineyard Wind project produced just 1% of our electricity. The $1.6 billion transmission line from Canada ran BACKWARDS. And we burned fuel oil at emergency levels—pumping 150 metric tons of carbon into the air every minute.

January 27, 2026 3:31 pm

‘None of this is accidental. We made policy choices that traded fuel security for market efficiency, and market efficiency for political aesthetics. We shifted the grid toward just-in-time fuel delivery. We retired on-site fuel without replacing its stabilizing function. We assumed markets would solve problems that are, at their core, physical.’

Fuel security, market efficiency and political aesthetics? Why not acknowledge the truth out loud? Our political ‘leaders’ fell hook, line and sinker for the Left’s demonization of CO2, and they did it because none of our so-called science ‘experts’ had the backbone to call out the phenomenological physics of radiant transfer theory:

“A physical theory is called phenomenological if it expresses mathematically the results of observed phenomena without clarifying their fundamental origin and significance. Typically, the development of a phenomenological theory is based on experience-based heuristic short cuts lacking rigorous justification. Most phenomenological theories are short-lived and get replaced by fundamental first principle theories. However, as we discuss in this Essay, some phenomenologies can survive for centuries despite their inherently limited scientific value and eventually become an impediment to scientific progress.”

“Whether spelled out explicitly or not, the key premise of phenomenological photometry as well as of the phenomenological RTT is that matter interacts with the energy of the electromagnetic field rather than with the electromagnetic field itself. This profoundly false assumption explains the deceitful simplicity of the phenomenological concepts as well as their ultimate failure. Indeed, the very outset of both phenomenological disciplines is the postulation of the existence of the radiance as the primordial physical quantity describing the “instantaneous directional distribution of the radiant energy flow” at a point in space. This is followed by a “derivation” of the scalar RTE on the basis of “simple energy conservation considerations” and the postulation that it is the electromagnetic energy rather than the electromagnetic field that gets scattered by particles and surfaces.”

https://ntrs.nasa.gov/api/citations/20140012672/downloads/20140012672.pdf

Editor
January 27, 2026 4:47 pm

Excellent article, thanks. The takeaway message is that with a coal baseload, gas only has to cater for demand variation. Without coal, gas has to cater for supply variation too, which for wind and solar is often extreme.
NB. Nuclear and coal both provide baseload.