Electric Baseboard Heat vs. Heat Pump: Which Costs Less in New York? 2026 Calculator
Electric baseboard heat and a heat pump can both use electricity to keep a New York home warm.
But they do not use electricity in the same way.
An electric resistance heater converts electricity directly into heat.
A heat pump uses electricity to move heat from outside the home to the inside.
That difference can dramatically change the number of kilowatt-hours required to deliver the same amount of heat.
And when electricity is expensive, efficiency matters even more.
The U.S. Energy Information Administration reported an average New York residential electricity price of 29.49 cents per kWh in June 2026.
So the important financial question is:
Can a heat pump save enough electricity to justify what it costs to install?
Same Heating Need
Baseboard: Electricity → Heat
Heat Pump: Electricity → Moves Heat
Lower Electricity Use Can Create the Payback
My Take: A Heat Pump Usually Wins on Running Cost, but Not Automatically on Total Cost
Short answer: In a New York home currently heated with electric baseboards, I would investigate a properly sized cold-climate heat pump because it can deliver more heat per kWh than resistance heating. But I would not replace working baseboards solely because a calculator shows lower monthly electricity use. The installation quote, winter performance, home layout and remaining years in the home determine whether the investment pays back.
My decision rule: First compare the same amount of delivered heat, using an assumed seasonal heat-pump COP rather than its best advertised efficiency. Then subtract the expected annual operating savings from the actual installed-cost difference. I would keep existing baseboards as backup when appropriate, rather than assume removing them is necessary to capture savings.
Electric Baseboard vs. Heat Pump Cost Calculator
This calculator compares the electricity required to deliver the same amount of useful heat.
For the heat pump, you can enter a seasonal COP assumption.
The calculator also lets you enter the installed cost of converting to a heat pump so you can estimate simple payback.
Baseboard vs. Heat Pump Heating Cost Calculator
Planning estimate only. The 30 million BTU heating load and 2.5 seasonal COP are illustrative assumptions. Actual heating demand and heat-pump performance vary by home, climate, equipment, sizing and outdoor temperature. Use your own electricity rate and contractor quote.
Example: Electric Baseboard vs. Heat Pump in New York
Consider the calculator's default example.
- Annual useful heating need: 30 million BTU
- New York electricity: 29.49¢/kWh
- Electric baseboard efficiency: 100%
- Heat pump seasonal COP: 2.5
- Net heat-pump installation cost: $8,000
One kilowatt-hour equals approximately 3,412 BTU.
So delivering 30 million BTU of useful heat with electric resistance requires approximately:
8,792 kWh per year.
At 29.49¢/kWh:
Electric baseboard heating cost ≈ $2,593 per year.
Now assume the heat pump averages a seasonal COP of 2.5.
The estimated electricity requirement becomes:
8,792 ÷ 2.5 ≈ 3,517 kWh per year.
At the same electricity price:
Heat-pump heating cost ≈ $1,037 per year.
Estimated annual savings:
about $1,556.
Under these assumptions, an $8,000 net installation cost produces a simple payback of approximately:
5.1 years.
Why Can the Difference Be So Large?
Electric resistance heating and heat pumps perform fundamentally different jobs.
Resistance heat converts electrical energy directly into heat.
At the point of use, an electric resistance heater can convert essentially all of the electricity it consumes into heat.
That sounds extremely efficient.
But a heat pump does something different.
It uses electricity to move existing heat rather than creating all of the heat through electrical resistance.
ENERGY STAR says an air-source heat pump can deliver up to three times more heat energy to a home than the electrical energy it consumes.
That is why a heat pump can use substantially fewer kWh to deliver the same useful heating output.
100% Efficient Does Not Mean Cheapest
This is one of the most confusing parts of electric heating.
A baseboard heater can be approximately 100% efficient at converting electricity into room heat.
But if you buy one kWh of electricity, resistance heating can provide roughly one kWh of heat.
If a heat pump operates at COP 2.5:
1 kWh of electricity → approximately 2.5 kWh-equivalent of heat delivered.
So the heat pump can be much cheaper to operate even though the baseboard heater itself wastes very little electricity at the point of use.
What Does COP Mean?
COP stands for Coefficient of Performance.
For heating:
Heat Delivered ÷ Electricity Consumed
A COP of 1 behaves like electric resistance heat in this simplified energy comparison.
A COP of 2 means two units of heat are delivered for each unit of electrical energy consumed.
A COP of 3 means three units of heat are delivered for each unit of electricity.
How Much Does COP Change the New York Heating Bill?
Using the same 30 million BTU annual heating requirement and New York's June 2026 residential electricity price:
| Heating System | Effective COP | Annual kWh | Estimated Annual Cost |
|---|---|---|---|
| Electric Baseboard | 1.0 | 8,792 | $2,593 |
| Heat Pump | 2.0 | 4,396 | $1,296 |
| Heat Pump | 2.5 | 3,517 | $1,037 |
| Heat Pump | 3.0 | 2,931 | $864 |
These are mathematical scenarios, not promises of actual heat-pump performance.
The seasonal COP of a real installation depends on equipment, outdoor temperature, sizing, controls, defrost, backup heat and building conditions.
Why New York Electricity Prices Make This Interesting
EIA's June 2026 residential electricity data shows:
- U.S. average: 18.34¢/kWh
- New York: 29.49¢/kWh
A high electricity price makes inefficient electric heating expensive.
But it also makes every avoided kWh more valuable.
For the default example, moving from resistance heat to COP 2.5 reduces estimated electricity consumption by approximately:
5,275 kWh per year.
At 18.34¢/kWh, those kWh are worth roughly:
$967 per year.
At 29.49¢/kWh:
about $1,556 per year.
Same efficiency improvement.
Much larger dollar value in the New York example.
Does ENERGY STAR Have a Real-World Savings Estimate?
Yes.
ENERGY STAR's current consumer guidance estimates that upgrading to an ENERGY STAR certified air-source heat pump can save an average household approximately $460 per year when switching from electric resistance heating.
That is a national consumer estimate.
It is not a prediction for a specific New York home.
CostCandid therefore does not hard-code $460 into the calculator.
The calculator uses the home's assumed heating requirement, electricity rate and heat-pump performance instead.
Why Our Example Saves More Than $460
The calculator's default example produces a much larger number because it deliberately models:
- A 30 million BTU heating requirement
- 29.49¢/kWh electricity
- A seasonal COP of 2.5
New York's electricity rate in the example is substantially above the June 2026 U.S. residential average.
Different homes can produce much smaller or larger results.
Cold Weather Changes Heat-Pump Performance
A heat pump does not necessarily maintain the same COP at every outdoor temperature.
As outdoor conditions become more demanding, heating capacity and efficiency can change.
This is why a single COP from one laboratory temperature should not automatically be used as a whole-winter COP.
The calculator asks for an estimated seasonal COP instead.
Cold-Climate Heat Pumps Matter in New York
For a New York home relying heavily on a heat pump for winter heating, low-temperature performance should be part of the buying decision.
Current ENERGY STAR cold-climate criteria include low-temperature performance requirements designed to distinguish equipment intended for colder conditions.
Among the current requirements, cold-climate systems must demonstrate a COP of at least 1.75 at 5°F and retain at least 70% of their 47°F heating capacity at 5°F.
Those are certification thresholds, not promises that the system will operate at COP 1.75 throughout the winter.
Do Heat Pumps Work Below Freezing?
Yes.
Modern cold-climate heat pumps are specifically designed to operate in low outdoor temperatures.
ENERGY STAR notes that advanced air-source heat pumps can provide efficient heating in very cold conditions.
The more important homeowner question is not:
“Will a heat pump turn on when it is cold?”
It is:
“How much heat will this exact model deliver at my design temperature, and what backup strategy does this house need?”
Should You Remove the Existing Baseboards?
Not necessarily.
Keeping existing electric baseboards can provide backup or room-specific heating in some retrofit designs.
But there is a major operating-cost risk:
If resistance backup runs frequently, expected heat-pump savings can shrink.
A homeowner should understand how the thermostat and controls determine when baseboard heat operates.
The Backup-Heat Trap
Suppose the new heat pump handles most of the winter, but electric baseboards remain active and frequently run at the same time.
The house may still consume substantial resistance-heating electricity.
The heat pump itself can be efficient while the total utility bill disappoints.
That is why equipment efficiency and system-control strategy are separate issues.
Can a Mini-Split Replace Electric Baseboard Heat?
In many homes, ductless mini-splits are one possible replacement strategy.
This can be particularly attractive where there is no existing ductwork.
A single-zone mini-split may replace or reduce baseboard use in one important area.
A multi-zone system may serve several rooms.
A whole-home project requires proper heating-load and distribution analysis.
New York Is Actively Targeting Electric Resistance Heating
This is not just a theoretical retrofit scenario.
NYSERDA's current Room Heat Pump Program identifies buildings with electric resistance heating as a good fit for room heat-pump retrofits.
NYSERDA is also supporting multifamily projects in which heat pumps replace electric-resistance heating systems to reduce energy use and operating costs.
That makes baseboard-to-heat-pump conversion particularly relevant to New York's electrification market.
What About Heat-Pump Installation Cost?
This is the other half of the decision.
A baseboard heater may already be installed and working.
The heat pump requires capital investment.
The financial test is:
÷
Expected Annual Heating Savings
= Simple Payback
If the heat pump costs $8,000 net and saves $1,556 per year:
$8,000 ÷ $1,556 ≈ 5.1 years.
If it saves only $500 per year:
Payback = 16 years.
The installation price and actual heating load matter just as much as the efficiency claim.
What About Cooling?
This comparison intentionally focuses on heating cost.
But a heat pump can also provide air conditioning.
Electric baseboards cannot.
If the home currently uses window air conditioners or needs a new cooling system anyway, part of the heat-pump installation cost may be buying a service the homeowner would otherwise purchase separately.
That can improve the overall economics.
CostCandid does not automatically assign a dollar value to that benefit because every home has a different existing cooling setup.
What If the House Already Needs New Air Conditioning?
Then comparing the entire heat-pump installation cost against keeping existing baseboards can exaggerate the incremental cost of choosing a heat pump.
The more appropriate comparison may become:
New cooling system + existing baseboard heating
versus:
Heat pump providing both cooling and heating.
That is a different financial scenario and should be evaluated with actual contractor quotes.
What About New York Heat-Pump Incentives?
New York continues to support qualifying heat-pump installations through NYS Clean Heat and participating utility programs.
Available incentives depend on factors such as:
- Utility territory
- Building type
- Equipment
- Project design
- Heating-load coverage
- Program eligibility
Do not subtract an advertised rebate from the heat-pump price until the specific project is confirmed eligible.
What About the Federal $2,000 Heat-Pump Tax Credit?
Do not use an old article to budget a 2026 project.
The former Section 25C Energy Efficient Home Improvement Credit included a heat-pump benefit of up to $2,000.
Under current federal law, Section 25C is not available for qualifying property placed in service after December 31, 2025.
Therefore a heat pump newly installed in 2026 should not be modeled with the former federal $2,000 credit.
Could Weatherization Improve the Math?
Yes, but not because insulation makes the heat pump itself more efficient.
Air sealing and insulation can reduce the amount of heat the house needs.
That can reduce:
- Annual heating energy
- Peak heating load
- Potential equipment capacity
- Backup-heat requirements
The best time to understand the building load is before final heat-pump sizing.
When Heat Pump Conversion Is Financially Strongest
The economics generally become more attractive when:
- Electric baseboards currently provide substantial winter heating
- Electricity prices are high
- The house has a meaningful heating load
- The heat pump maintains good seasonal efficiency
- Installation cost is reasonable
- Confirmed incentives reduce net cost
- The house also needs cooling
- Resistance backup use can be minimized appropriately
When Keeping Baseboards May Still Make Sense
Heat-pump conversion is not automatically the cheapest decision for every room.
Keeping existing baseboards can remain financially reasonable when:
- A room is used very rarely
- Annual heating demand is tiny
- The heat-pump installation is unusually expensive
- The homeowner expects to move soon
- The baseboards serve only as occasional backup
That is why payback should be calculated rather than assumed.
What Should You Ask an HVAC Contractor?
Before converting from electric baseboard heat, ask:
- What is the home's design heating load?
- How was that load calculated?
- What is the proposed heat pump's capacity at 47°F?
- What is its capacity at 17°F?
- What is its capacity at 5°F?
- What is its COP at 5°F?
- Is it ENERGY STAR cold-climate designated?
- Will the existing baseboards remain?
- How will backup heat be controlled?
- What electrical work is required?
- What is the gross installation price?
- Which incentives are actually confirmed?
- What is the net project price?
Three New York Decisions I Would Model Before Signing
Scenario 1: High heating demand and a suitable cold-climate system
Suppose the home needs 12,000 kWh of delivered space heat over a heating season. Electric baseboards would use approximately 12,000 kWh of electricity. At an illustrative seasonal COP of 2.5, a heat pump would use approximately 4,800 kWh for the same delivered heat, before any backup heat or other system differences. At an assumed marginal electricity rate of $0.25/kWh, the modeled annual energy difference is $1,800. This is arithmetic from hypothetical inputs, not a New York statewide savings estimate.
Scenario 2: Low-use second home or small heating load
Suppose delivered heat is only 3,000 kWh per season. With the same COP and rate assumptions, the modeled energy difference falls to 1,800 kWh, or $450 per year. If the net installation premium were an illustrative $7,000, simple payback would exceed 15 years. I would be reluctant to convert solely for heating savings in that case.
Scenario 3: Cold-weather backup heat and an expensive installation
Suppose 20% of the seasonal delivered heat comes from electric-resistance backup and the remaining 80% is supplied by a heat pump at an assumed COP of 2.5. For 12,000 kWh of delivered heat, the system would use approximately 2,400 + 3,840 = 6,240 kWh of electricity. At $0.25/kWh, the modeled savings against 12,000 kWh of baseboard use would be $1,440 per season, before other costs. I would not use a high laboratory COP to model a house that needs substantial backup heating.
Scenario limitations: The examples deliberately hold delivered heat and electricity rate constant. They exclude installation, maintenance, financing, incentives, cooling benefits and system losses unless otherwise stated. Seasonal COP and backup share must be adjusted for the actual design.
What Would Make Me Keep the Baseboards?
I would consider keeping them as the main system when the heating load is small, the house will be sold soon, the heat-pump installation requires unusually expensive electrical or building work, or the proposed system cannot reliably serve the rooms. I would also ask whether air sealing and insulation can reduce the required equipment size before committing to a major replacement.
What I Would Ask the Contractor to Prove
- Show the room-by-room heating load and the design outdoor temperature used.
- Identify the exact equipment model and its cold-weather heating capacity.
- Explain when existing electric baseboards will operate as backup and who controls them.
- Separate equipment, electrical work, installation and any eligible incentive in the quote.
- Estimate annual kWh using a defensible seasonal performance assumption, not only rated COP.
CostCandid's Final Decision
High baseboard bills and a reasonable installed quote: I would seriously consider a cold-climate heat pump. Low heating demand or a high conversion premium: I would keep baseboards longer and consider weatherization first. Unclear winter performance: I would not sign until the contractor explains design temperature, backup operation and the likely annual electricity use.
Frequently Asked Questions
Is a heat pump cheaper to run than electric baseboard heat?
Usually, when the heat pump operates at a COP materially above 1.0. A heat pump moves heat instead of generating all of it through electrical resistance, so it can deliver substantially more useful heat per kWh.
How efficient is electric baseboard heat?
Electric resistance heating converts essentially all of the electricity consumed at the point of use into heat. But a heat pump can deliver multiple units of heat for each unit of electricity consumed, which can make it much cheaper to operate.
How much can a heat pump save compared with electric resistance heat?
ENERGY STAR currently cites average savings of about $460 per year for households switching from electric resistance heating to an ENERGY STAR certified air-source heat pump. Actual savings vary substantially by home and energy price.
How much does electric baseboard heating cost in New York?
It depends on the home's heating requirement. In the calculator's illustrative 30-million-BTU example, electric resistance heating requires about 8,792 kWh, which costs approximately $2,593 at New York's June 2026 average residential electricity price of 29.49¢/kWh.
Do heat pumps work in a New York winter?
Modern cold-climate heat pumps are designed for low-temperature operation. Actual capacity and efficiency still decline or change with conditions, so check the specific model's low-temperature performance and the home's design heating load.
Should I remove my electric baseboards after installing a heat pump?
Not automatically. Some systems retain them as backup. The important issue is understanding when they will operate, because frequent resistance backup can reduce expected savings.
Can a mini-split replace baseboard heating?
It can in many applications, particularly homes without ductwork. Whole-home replacement should be designed around room and building heating loads rather than simply installing one indoor unit per existing heater.
Why is New York a strong market for this conversion?
New York combines cold winters, a significant stock of older buildings and relatively high residential electricity prices. NYSERDA also identifies electric-resistance-heated buildings as suitable candidates for certain heat-pump retrofit programs.
Can I still claim the old federal $2,000 heat-pump credit in 2026?
No for a new 2026 installation under current Section 25C rules. The credit is not available for property placed in service after December 31, 2025.
The Bottom Line
If a home already heats with electricity, the financial argument for a heat pump can be unusually straightforward.
1 kWh electricity ≈ 1 kWh useful heat
Heat Pump at COP 2.5
1 kWh electricity ≈ 2.5 kWh useful heat
Under the article's New York example:
Baseboard: about $2,593/year
Heat pump: about $1,037/year
Estimated difference: about $1,556/year
But that does not mean every New York homeowner will save $1,556.
The number depends on the house, weather, electricity rate, heat-pump performance and backup heating.
The buying decision is ultimately:
How much electricity will this house actually save, and how many years will those savings take to recover the installation cost?
CostCandid Methodology
This calculator compares the electricity required to deliver the same useful amount of space heating.
Annual BTU ÷ 3,412.142
Electric Resistance Consumption
Useful Heating kWh ÷ Resistance Efficiency
Heat-Pump Consumption
Useful Heating kWh ÷ Seasonal COP
Annual Heating Cost
Electricity Consumption × Electricity Rate
Simple Payback
Net Heat-Pump Installation Cost ÷ Annual Heating Savings
The default annual heating requirement of 30 million BTU is an illustrative scenario rather than an estimate for every New York home.
The default heat-pump seasonal COP of 2.5 is also illustrative. Actual seasonal performance varies with equipment, climate, sizing, controls, defrost operation and backup heating.
The calculator assumes 100% point-of-use efficiency for electric resistance baseboard heating.
The default electricity price of 29.49¢/kWh is the EIA New York residential average for June 2026. The corresponding U.S. residential average was 18.34¢/kWh.
ENERGY STAR's approximately $460 annual savings statement for switching from electric resistance heat is presented separately as a national consumer estimate and is not used as the calculator's result.
The calculator does not automatically model cooling savings, maintenance, future electricity-price changes, financing, equipment replacement, weatherization or the former federal Section 25C credit.
Data checked: September 2026.
Sources
- U.S. Energy Information Administration — Residential Electricity Prices by State
- U.S. Energy Information Administration — U.S. Residential Electricity Price
- ENERGY STAR — Air-Source Heat Pumps
- ENERGY STAR — Heat Pump Key Product Criteria
- ENERGY STAR — Air-Source Heat Pump Consumer Savings Guidance
- NYSERDA — Room Heat Pump Program
- NYSERDA — NYS Clean Heat
- Internal Revenue Service — Home Energy Credit Expirations
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