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Are Solar Panels Worth It in My State? 2026 State-by-State Verdict

Are solar panels worth it in your state? Use 2026 electricity rates, net metering rules, and a 10-minute payback test to find out.

Akash Hirpara

Written by

Akash Hirpara

Co-Founder · SurgePV

Rainer Neumann

Edited by

Rainer Neumann

Content Head · SurgePV

Published ·Updated

Most homeowners ask the same question the wrong way. They start with the panel, the inverter, or the installer. The right place to start is your utility bill.

Whether solar panels are worth it in your state comes down to five numbers: your electricity rate, your monthly usage, your roof’s sun exposure, your state’s net metering rules, and the installed cost per watt in your market. Get those right and you can estimate your payback in minutes. Get them wrong and a salesperson will do it for you.

In 2026, the math changed. The 30% federal residential solar tax credit expired on December 31, 2025. That pushed average U.S. payback from roughly 6–10 years to about 8–12 years. But state-level factors now matter more than ever. A 7 kW system in Massachusetts can pay back in 7–9 years. The same system in Louisiana can take 18–22 years.

In this guide, you will learn:

  • Why your state matters more than the brand of panel you choose
  • The 2026 electricity rate map and what it means for payback
  • Which states still have strong net metering and which have weakened it
  • How to run a 10-minute payback test with your own bill
  • When solar is clearly worth it, borderline, or not worth it
  • How installers can use this data to set realistic expectations

Quick Answer

Solar panels are worth it in 2026 if your state has electricity rates above ~16¢/kWh, full retail net metering, a sunny south-facing roof, and you plan to stay in the home for at least 10 years. In low-rate states with weak incentives, payback often stretches past 15 years.

Why State Matters More Than Panel Brand

Solar panels are a financial product wrapped in hardware. The hardware is largely the same across installers. The economics are not. That is why the best solar design software starts with your utility rate and roof, not the panel datasheet.

Two identical 7 kW systems can produce wildly different returns depending on where they sit. A system in Boston produces less energy than the same system in Phoenix, but Boston’s higher electricity rate can make it pay back faster. A system in Seattle gets less sun, but Washington’s cheap hydro power also means each kWh saved is worth less.

The five drivers of solar ROI are:

  1. Retail electricity rate. Higher rates make every kWh you produce more valuable.
  2. Peak sun hours. More sun means more production per panel.
  3. Net metering or net billing. Full retail credit maximizes value. Reduced export credits hurt payback.
  4. Installed cost per watt. Soft costs vary by state, permit rules, and installer competition.
  5. State and local incentives. Some states add tax credits, rebates, SRECs, or property tax exemptions.

The first three are usually set by your state and utility. That is why the question is not “Are solar panels worth it?” It is “Are solar panels worth it in my state?”

The 2026 Electricity Rate Map

The national average residential electricity rate in early 2026 is roughly 18.8¢/kWh, according to EIA-derived data from ChooseEnergy and SaveOnEnergy. That is up about 21% from 2022. Rising rates help solar economics, but the starting rate still determines whether the math works.

Highest-Rate States: The Clearest Solar Case

StateAvg Residential Rate (¢/kWh)Why Solar Looks Strong
Hawaii42.23Isolated grid, expensive imported fuel
Maryland35.85Recent rate spikes, retail net metering
California33.35High rates, though NEM 3.0 requires batteries
Connecticut30.47Full retail net metering, high rates
Massachusetts30.21SMART program + full retail net metering
Rhode Island29.91Full retail + REG rebate
New York28.55NY-Sun incentives + VDER value stack
Maine28.32Full retail net metering, large rate increase
Alaska27.17High diesel/fuel costs
New Hampshire26.92High regional rates

In these states, a well-sited residential system can pay back in 6–10 years even without the federal ITC. The savings per kWh are high enough to overcome the upfront cost.

Mid-Range States: Solid with a Good Roof

StateAvg Residential Rate (¢/kWh)Notes
Florida~16.00Full retail net metering for grandfathered systems; good sun
North Carolina16–18Duke Energy full retail net metering
Ohio~16.00Full retail in many utility territories
Texas16.18No statewide net metering; utility-dependent
Colorado~15.00Xcel full retail net metering
Georgia14.60Georgia Power retail net metering

These states are usually borderline to positive. A south-facing roof, low install quotes, and high usage tip the scale toward “worth it.” Shading, an east-west roof, or low usage can push payback past 12 years.

Low-Rate States: Longer Payback, Honest Assessment Needed

StateAvg Residential Rate (¢/kWh)Why Solar Is Harder
Louisiana12.44Low rates, limited incentives
Tennessee13.12TVA-dependent, limited net metering
North Dakota11.95Cheap power, low sun in winter
Idaho13.01Cheap hydro power
Nebraska13.10Low rates, limited incentives
Utah13.17Low rates, though good sun

In these states, solar can still work for homes with very high usage or ideal roofs. But the typical homeowner will see paybacks of 15–22 years. That is close to or beyond the warranty life of many inverters.

How Net Metering Decides Your Real Savings

Net metering is the policy that lets you send excess solar power to the grid and get credited at the retail rate. It is the single biggest policy factor in residential solar ROI.

In 2026, the picture is mixed. About 34 states plus Washington D.C. still have mandatory net metering or near-retail compensation, according to SEIA-cited data. Another handful have voluntary programs. But several major markets have shifted to lower export credits.

States with Strong Net Metering in 2026

  • Massachusetts
  • New Jersey
  • New York
  • Maryland
  • Connecticut
  • Vermont
  • Maine
  • Colorado
  • Illinois
  • Minnesota
  • Oregon

In these states, every kWh you export in summer helps pay for winter usage. That smooths out production swings and shortens payback.

States Where Net Metering Has Weakened

  • California: NEM 3.0 pays avoided-cost export rates, roughly 5–8¢/kWh. Batteries are now essential for good ROI.
  • Nevada: Lower export credits and new demand charges in some territories.
  • Arizona: Most utilities moved to net billing with reduced export rates.
  • Hawaii: Self-supply tariffs pushed most new systems toward batteries.
  • Florida: Systems installed after January 2024 face declining netting rates. Grandfathered systems keep retail rates through 2029.

If you live in a weakened net metering state, self-consumption becomes the goal. That means sizing the system to match your usage, adding a battery, or shifting usage to midday. You can model this with a solar proposal tool that shows production, self-consumption, and export credits side by side.

The Real Cost of Going Solar in 2026

The average U.S. residential system in 2026 costs between $2.50 and $3.50 per watt installed, based on NREL and EnergySage data. That translates to roughly $17,500–$24,500 for a 7 kW system before any incentives.

Cost per watt varies by region:

RegionCost per Watt7 kW System Total
Arizona, Nevada, Texas$2.30–$2.50$16,100–$17,500
Florida, Georgia, North Carolina$2.50–$2.70$17,500–$18,900
Ohio, Illinois, Colorado$2.70–$2.90$18,900–$20,300
New York, New Jersey, Maryland$2.90–$3.20$20,300–$22,400
Massachusetts, Connecticut, Rhode Island$3.20–$3.60$22,400–$25,200

Hardware is cheap. Solar modules themselves are now $0.18–$0.31 per watt. Soft costs, labor, permitting, customer acquisition, and installer margin make up 50–65% of the total. That is why two states with the same sun can have very different prices.

Hidden Costs to Budget For

  • Permits and interconnection: $500–$2,000 depending on the jurisdiction.
  • Electrical upgrades: $500–$3,000 if your panel cannot handle the solar breaker.
  • Roof work: $2,000–$8,000 if the roof needs repair or reinforcement before panels go on.
  • Tree trimming: $500–$2,000 if shading is a problem.
  • Battery: $12,000–$18,000 for a 13.5 kWh battery if you want backup or live in a net billing state.

Always get at least three quotes. The spread between the highest and lowest bid is often $5,000 or more.

Solar ROI Scenarios: Three Real Homeowners

Numbers make more sense with examples. These are illustrative scenarios based on 2026 market conditions.

Scenario 1: High-Rate State, Strong Net Metering

  • Location: Massachusetts
  • System: 7 kW, $3.20/W = $22,400
  • Annual production: 8,400 kWh
  • Electricity rate: 30¢/kWh
  • Net metering: Full retail
  • First-year savings: $2,520
  • Simple payback: 8.9 years

This is a strong case. Even without the federal ITC, the high rate drives a sub-10-year payback.

Scenario 2: Mid-Rate State, Good Sun

  • Location: Florida
  • System: 7 kW, $2.60/W = $18,200
  • Annual production: 9,800 kWh
  • Electricity rate: 16¢/kWh
  • Net metering: Declining for new systems
  • First-year savings: $1,568
  • Simple payback: 11.6 years

Borderline but viable. If the homeowner adds a battery or gets a lower install quote, payback improves.

Scenario 3: Low-Rate State, Cheap Power

  • Location: Louisiana
  • System: 7 kW, $2.50/W = $17,500
  • Annual production: 9,100 kWh
  • Electricity rate: 12.4¢/kWh
  • Net metering: Limited
  • First-year savings: $1,128
  • Simple payback: 15.5 years

This is a weak case for many homeowners. The system works, but the payback is long.

State Incentives That Still Exist in 2026

Without the federal ITC, state incentives carry more weight. Here are the main types still active in 2026.

State Tax Credits

  • Arizona: 25% state tax credit, capped at $1,000.
  • New Mexico: 10% state tax credit up to $6,000.
  • South Carolina: 25% state tax credit, capped at $3,500.
  • New York: 25% state tax credit up to $5,000.

Rebates and Performance Payments

  • Massachusetts SMART program: Performance-based payments for 10 years.
  • New Jersey ADI program: Payments based on system production.
  • Rhode Island REG program: Small-scale renewable energy grants.
  • Maryland SRECs: Solar Renewable Energy Certificates add value per MWh produced.

Property and Sales Tax Exemptions

About 36 states offer some form of property tax exemption for solar. That means the added home value from solar does not increase your property tax bill. Several states also exempt solar equipment from sales tax.

Always check the Database of State Incentives for Renewables and Efficiency (DSIRE) for the latest rules. State programs change frequently.

The Federal Credit Is Gone: What That Means

The 30% federal Investment Tax Credit for residential solar expired at the end of 2025. For a $22,000 system, that was a $6,600 credit. Losing it adds roughly 3–4 years to payback.

However, leases and power purchase agreements (PPAs) may still capture credits because the financing company owns the system. That changes the comparison.

Cash Purchase vs. Loan vs. Lease/PPA

FactorCash PurchaseSolar LoanLease / PPA
Upfront cost$17,500–$25,000$0$0
Federal creditNot availableNot availableCaptured by lessor
Monthly payment$0$130–$220$80–$180
25-year savingsHighestModerateLowest
Home value impactYesYesUsually no
Maintenance responsibilityHomeownerHomeownerLessor
Selling complicationsNoneLoan payoffLease transfer

Cash purchase usually wins on lifetime savings if you have the capital. A loan is a reasonable middle ground. Leases and PPAs are simpler but often save less and can complicate a home sale.

Geographic Differences Within Your State

State averages hide local variation. A home in San Diego and a home in San Francisco are both in California but have very different solar economics. San Diego has more sun and different utility rates.

Within a state, check:

  • Your utility territory. Different utilities have different net metering rules and rate structures.
  • Local solar access. Coastal fog, mountain shade, and tree cover matter.
  • Local installer competition. More installers usually mean lower prices.
  • City or county incentives. Some municipalities add rebates or faster permitting.

Use a tool like the NREL PVWatts calculator to model your specific address. It is free and accounts for local weather, roof orientation, and shading. For installer-grade accuracy, solar design software can combine satellite imagery, shading analysis, and utility rate structures in one model.

Roof Requirements: When Solar Does Not Work

A great financial case can fall apart on a bad roof. Here are the main disqualifiers.

Direction and Tilt

South-facing roofs produce the most in the Northern Hemisphere. East- and west-facing roofs can work but produce 10–20% less. North-facing roofs are usually not worth it unless the tilt is shallow and you are in a very high-rate state.

Shade

Even partial shade from trees, chimneys, or neighboring buildings can cut production dramatically. Microinverters or power optimizers help but add cost. A proper shadow analysis before signing a contract will show you exactly how much shade costs you.

Roof Age and Material

If your roof needs replacement within five years, replace it first. Removing and reinstalling panels later costs $2,000–$5,000. Asphalt shingles and standing-seam metal are ideal. Slate, tile, and wood shake can be more expensive to work with.

Roof Size and Space

A typical 7 kW system needs about 350–400 square feet of usable roof space. Smaller roofs limit system size, which limits savings.

How to Calculate Your Own Payback in 10 Minutes

You do not need a salesperson to run the numbers. Here is a simple method.

Step 1: Find Your Annual Usage

Look at the last 12 months of electric bills. Add up the kWh used. A typical U.S. home uses 10,500–11,000 kWh per year.

Step 2: Size Your System

A common rule of thumb is to size the system to produce 100% of your usage. Divide annual usage by your local peak sun hours times 365.

For example, in a location with 4.5 peak sun hours per day:

System size (kW) = Annual usage (kWh) / (Peak sun hours × 365)
System size = 11,000 / (4.5 × 365) = 6.7 kW

Step 3: Estimate System Cost

Multiply system size by your local cost per watt. For a 6.7 kW system at $2.85/W:

Gross cost = 6,700 × $2.85 = $19,095

Step 4: Subtract Incentives

If your state offers a $1,000 tax credit and you can sell SRECs for $500 over the first few years:

Net cost = $19,095 - $1,000 - $500 = $17,595

Step 5: Estimate Annual Savings

Multiply annual production by your electricity rate. For 10,500 kWh at 18¢/kWh:

Annual savings = 10,500 × $0.18 = $1,890

If your state has net billing instead of net metering, reduce this by 10–30%.

Step 6: Calculate Simple Payback

Payback = Net cost / Annual savings
Payback = $17,595 / $1,890 = 9.3 years

A payback under 10 years is generally strong. Ten to 14 years is borderline. Over 15 years is risky unless you are very confident you will stay in the home.

Solar Panels and Home Value

Owned solar systems generally increase home value. Lawrence Berkeley National Laboratory found a premium of about $4 per installed watt. A 7 kW system could add roughly $28,000 in value. Homes with solar also tend to sell faster.

Leased systems are different. They do not add the same value and may require the buyer to assume the lease. Some buyers see them as a liability.

When Solar Is Not Worth It in 2026

Solar is not right for every home. Be honest if you fall into one of these categories.

  • Monthly bill under $80. The savings are too small to justify the upfront cost.
  • Electricity rate under 13¢/kWh. Payback is usually 15+ years.
  • Heavily shaded roof. Production losses make the system uneconomic.
  • North-facing roof. In most of the U.S., this kills production.
  • Moving within 5–7 years. You may not recoup the investment before you sell.
  • Roof needs replacement soon. Do the roof first, then solar.
  • No net metering and no battery. In weak export-credit states, the economics are thin.

Commercial Solar vs. Residential: Different Rules in 2026

Commercial solar still qualifies for Section 48E clean energy credits, so commercial paybacks remain much shorter than residential. A commercial system in Virginia might pay back in 5–6 years with a 20%+ IRR, while the same state’s residential payback is 11–14 years.

If you own a business or commercial property, the federal credit landscape is very different from residential. Commercial projects also benefit from accelerated depreciation and larger scale economies.

For installers, this means residential proposals need sharper state-level modeling. A generic national payback number will mislead customers. Use a tool like SurgePV’s generation and financial tool to run location-specific ROI scenarios, or start from the homepage to see how the platform ties design, simulation, and proposals together.

The Battery Storage Question

Batteries change the math in two situations:

  1. Weak net metering. If your export credits are low, storing solar for evening use improves value.
  2. Backup power. If outages are common, the battery has value beyond pure financial return.

A 13.5 kWh battery costs $12,000–$18,000 installed. In a state like California under NEM 3.0, a battery can shorten payback by 2–4 years by increasing self-consumption. In a full net metering state, the financial case for a battery is weaker unless you need backup. Our solar proposal software lets you model with and without storage so customers see the difference.

State-by-State Quick Reference: Is Solar Worth It?

StateRate (¢/kWh)Net MeteringEst. PaybackVerdict
Hawaii42.23Net billing6–9 yearsStrong yes, battery helps
California33.35NEM 3.09–13 yearsYes with battery
Massachusetts30.21Full retail7–9 yearsStrong yes
Rhode Island29.91Full retail + REG6–8 yearsStrong yes
Connecticut30.47Full retail7–9 yearsStrong yes
Maine28.32Full retail7–9 yearsStrong yes
New York28.55VDER8–10 yearsYes
New Jersey~20.00Full retail + ADI7–9 yearsStrong yes
Maryland35.85Full retail + SRECs8–10 yearsStrong yes
Florida~16.00Declining10–12 yearsYes, good sun
North Carolina16–18Full retail (Duke)11–13 yearsYes
Ohio~16.00Full retail11–14 yearsYes
Texas16.18No statewide12–16 yearsDepends on utility
Colorado~15.00Full retail11–13 yearsYes
Georgia14.60Full retail12–15 yearsBorderline
Tennessee13.12Limited15–18 yearsBorderline
Louisiana12.44Limited18–22 yearsWeak case
North Dakota11.95Limited20+ yearsNot recommended

Use this table as a starting point, not a final answer. Your roof, usage, and local installer quotes will move the numbers.

Model Solar ROI for Any State

Stop guessing. Run location-specific payback, IRR, and NPV scenarios for your customers in minutes.

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Built for solar installers · State-specific rates · Export-ready proposals

Final Verdict: Are Solar Panels Worth It in My State?

Solar is worth it when the combination of high electricity rates, strong net metering, good sun, and reasonable install costs produces a payback you are comfortable with. For most homeowners, that means under 12 years.

The federal tax credit is gone, but solar is not dead. It just requires sharper math. High-rate states still offer strong returns. Mid-rate states need a good roof and competitive quotes. Low-rate states need a specific reason, such as very high usage or backup power needs.

Before you sign a contract, do three things:

  1. Run the 10-minute payback test with your own bill and at least three quotes.
  2. Check your state’s current net metering rules at DSIRE or your utility website.
  3. Verify your roof. South-facing, unshaded, and in good condition is the ideal.

If the numbers work, solar is one of the few home improvements that pays you back. If they do not, wait. Panel prices and state incentives change. A bad deal today is not better than a good deal in two years.

For a broader global view, see our guide to solar payback period by country.

Frequently Asked Questions

Are solar panels worth it in my state in 2026?

Solar panels are worth it in 2026 if your state has electricity rates above about 16¢/kWh, full retail net metering, and your roof gets good sun. In low-rate states with weak incentives, payback can stretch past 15 years.

What state has the fastest solar payback period?

Hawaii, California, Massachusetts, Rhode Island, and Maine currently show the fastest residential paybacks, often 6–10 years, because high electricity rates outweigh the loss of the federal ITC.

How do I calculate my solar payback period?

Divide your net system cost by your first-year annual savings. For example, a $22,000 system that saves $2,200 in year one has a 10-year simple payback. Add 2–3 years if your state uses net billing instead of full retail net metering.

Does net metering still exist in 2026?

Yes, but it is shrinking. About 34 states plus Washington D.C. still have mandatory net metering or near-retail compensation. California, Nevada, Arizona, and Hawaii have moved to lower export credits, which makes batteries more important.

Is solar worth it without the federal tax credit?

It can still be worth it in high-rate states. The 30% residential ITC expired at the end of 2025, so national average payback moved from roughly 6–10 years to 8–12 years. Leases and PPAs may still capture credits through the financing company.

Should I buy, lease, or sign a PPA?

Cash purchase usually yields the highest lifetime savings if you can afford it. A solar loan keeps upfront cost at zero but adds interest. Leases and PPAs are simpler but typically save less and can complicate a home sale.

What roof conditions make solar not worth it?

Heavy shading, a north-facing roof, an old roof that needs replacement within five years, or limited usable space can make solar uneconomic. East- and west-facing roofs can work but produce 10–20% less than south-facing roofs.

Do solar panels increase home value?

Owned systems generally add value. Lawrence Berkeley National Laboratory found a premium of about $4 per watt, and homes with solar often sell faster. Leased systems do not add the same value and may need lease transfer at sale.

About the Contributors

Author
Akash Hirpara
Akash Hirpara

Co-Founder · SurgePV

Akash Hirpara is Co-Founder of SurgePV and at Heaven Green Energy Limited, managing finances for a company with 1+ GW in delivered solar projects. With 12+ years in renewable energy finance and strategic planning, he has structured $100M+ in solar project financing and improved EBITDA margins from 12% to 18%.

Editor
Rainer Neumann
Rainer Neumann

Content Head · SurgePV

Rainer Neumann is Content Head at SurgePV and a solar PV engineer with 10+ years of experience designing commercial and utility-scale systems across Europe and MENA. He has delivered 500+ installations, tested 15+ solar design software platforms firsthand, and specialises in shading analysis, string sizing, and international electrical code compliance.

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