US residential solar · 2026 data

Can You Sell Solar Power Back to the Grid? What Net Metering Pays

SAVE

$0+

Over 25 Years

$16,800 Cost after ITC
9.3 yrs Payback
8.0 kW Typical system

Most homeowners need:

  • 20–24 panels typical
  • 8.0 kW average system
  • $16,800 after tax credits
  • 9.3 year payback
✓ Updated monthly ✓ NREL data ✓ Reviewed by solar experts ✓ IRS tax credit included
· 9 min read ·By ·Reviewed by Green Energy Calculators Editorial Team

Without solar vs with solar

25-year cost comparison for a $300/month US electric bill.

Without solar

25-year utility cost

$75,000

Rates rise ~3% per year (EIA avg.)

With solar

Net system cost

$16,800

After 30% federal ITC

Your savings

Difference

+$58,200

Estimated lifetime advantage

500,000+
calculations completed
25,000+
users monthly

Trusted by US homeowners · Data sourced from

NREL EIA Energy.gov DSIRE IRS / SEIA
Author Mark Sullivan
Reviewed by Green Energy Calculators Editorial Team
Last updated
Sizing formula kW = Annual kWh ÷ (Peak Sun Hours × 365 × 0.82)

Roughly 4.1 million US homeowners currently receive net metering credits on their electricity bills, according to the Solar Energy Industries Association (SEIA) — and the average household offsets $600 to $1,200 per year in electricity costs through the program. If you have rooftop solar and your panels produce more electricity than your home consumes at any given moment, that surplus flows out to the grid. Net metering is the billing mechanism that decides what you get paid — or credited — for it. The answer varies enormously depending on where you live, which utility serves you, and what rate structure your state has adopted.

Most homeowners are surprised to learn they rarely receive a cash check from their utility. Instead, net metering works like a bank account for kilowatt-hours: excess electricity earns credits at a set rate, those credits roll forward and offset future consumption when your panels underperform (at night, in winter, on cloudy days), and any remaining balance is either paid out at a reduced rate or simply forfeited at the end of the year. Understanding how that credit rate is calculated — and how it differs from what you pay to buy electricity — is the key to projecting your real financial return.

The program is not available everywhere, and its value is shrinking in several states as utilities push for policy changes. As of 2026, 41 states plus Washington D.C. have mandatory net metering rules, but the compensation rates, carryover rules, and system size caps differ so widely that two neighbors in different utility territories can end up with drastically different returns on the same solar investment.

How Net Metering Works: Credits, Rates and Billing Explained

When your solar panels produce more electricity than your home uses in a given hour, your meter runs backward — or in modern smart-meter homes, the excess kilowatt-hours are logged and converted into a bill credit. At the end of your billing cycle, those credits are subtracted from the electricity you drew from the grid during low-production periods. If your credits exceed your consumption, most utilities carry the surplus forward to the next month rather than paying it out immediately.

The rate at which your excess generation is credited is the single most important variable in this equation. Under full retail-rate net metering — the most generous version — you receive a credit equal to the full retail electricity price for every kWh you export. If your utility charges $0.14 per kWh, you receive $0.14 per kWh in credits. This is effectively the same as not using that electricity at all, and it represents the strongest possible financial case for rooftop solar.

However, several states have moved to reduced-rate or “avoided cost” net metering, where the credit is set closer to the wholesale price of electricity — typically $0.03 to $0.07 per kWh. That gap matters enormously. A home exporting 3,000 kWh per year earns $420 in credits under a $0.14 retail rate but only $90 to $210 under an avoided-cost rate. California completed a controversial shift to this model in April 2023 under its NEM 3.0 rules, cutting average export rates by roughly 75% for new solar customers.

Most utilities settle annual net metering accounts once per year. If you have leftover credits at that point, you typically receive payment at a lower “excess generation” rate — often just $0.02 to $0.04 per kWh — or the credits are simply zeroed out. Right-sizing your system is therefore critical: you generally want to produce roughly what you consume annually, not a large surplus. Use a solar net metering calculator to model your credit balance across all 12 months before deciding on system size. For a full price breakdown by system size and region, see our guide to How Much Do Solar Panels Cost in 2026? Complete US.

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What Each State Pays for Excess Solar Power in 2026

Net metering compensation rates span a wide spectrum across the country. At the generous end, Massachusetts homeowners credit their exports at the full retail rate — currently averaging $0.23 per kWh — giving them some of the strongest net metering returns in the nation. New York operates a slightly more complex “Value of Distributed Energy Resources” (VDER) tariff for larger systems, but standard residential customers under 25 kW still access retail-rate compensation in most utility territories.

Texas presents a different picture: the state has no mandatory net metering law, so participation and rates depend entirely on the specific utility or retail electricity provider. Many Texas utilities offer buyback programs, but rates vary from full retail to below $0.03 per kWh depending on which company serves your address. Florida maintains full retail-rate net metering as of 2026, though the state legislature has attempted to roll back the program multiple times, creating ongoing uncertainty for prospective solar buyers.

Hawaii — once a net metering leader — eliminated its traditional program in 2015 and replaced it with a “Smart Export” tariff. New solar customers in Hawaii receive a time-varying rate for exports, which can reach $0.10 to $0.18 per kWh during peak demand hours but falls to essentially zero during midday when the grid is already oversupplied with solar. This dynamic has pushed many Hawaiian homeowners toward battery storage rather than grid export as the primary strategy for capturing the value of their panels.

Horizontal bar chart showing net metering export credit rates in cents per kWh for 10 US states in 2026
Net metering export rates vary by more than 700% across states. Massachusetts leads at $0.23/kWh under full retail-rate net metering, while avoided-cost states like Louisiana credit exports at just $0.03/kWh — making battery storage a more attractive option in low-rate markets. Source: SEIA, EIA 2026.

Nevada went through a well-documented net metering battle in 2015 and 2016 that nearly killed its residential solar market before the state reversed course. Today Nevada offers a tiered rate structure where the first portion of exports is credited at a higher rate, stepping down as export volume increases. Arizona shifted to a “net billing” system in 2017, offering export rates below retail but above avoided cost — currently around $0.10 per kWh in most territories. Connecticut and Illinois have preserved full retail-rate net metering, making them consistently strong markets for solar returns on investment.

Key Factors That Determine How Much You Earn Selling Solar Energy

Your annual earnings from net metering depend on three things working together: how much excess electricity your system produces, what rate those exports are credited at, and how efficiently your home consumes the solar it generates before exporting anything. The order matters. Self-consumed solar — electricity your home uses directly before it reaches the meter — is almost always worth more than exported electricity, because you avoid paying the full retail rate rather than earning a lower export credit.

EIA data shows the average US household consumes about 10,500 kWh per year, but that figure masks enormous regional variation. A home averaging 700 kWh per month in the Northeast may export very little even with a well-sized system, keeping most generation in-house. A larger home in Arizona running air conditioning through nine months of intense heat may consume 20,000 kWh annually and need a much bigger array to generate meaningful credits.

System orientation and shading have direct financial consequences. A south-facing roof in full sun will generate more midday power than a household can absorb — producing more exportable surplus. An east-west split array generates steadier production morning and afternoon, often matching consumption patterns more closely, but may export less at any given moment. NREL’s PVWatts tool estimates that a 7 kW system in Phoenix generates about 11,900 kWh per year, while the same system in Seattle produces roughly 7,200 kWh — a 65% difference that directly affects how many credits you accumulate. A solar system size calculator can model how different array configurations affect your annual export volume before you commit to an installation.

Time-of-use (TOU) rate structures add another layer of complexity. If your utility charges variable rates — $0.09/kWh overnight and $0.32/kWh during summer afternoons — and your net metering credit is set at the flat retail average, you may be better off self-consuming that expensive peak electricity than exporting it for a blended credit. Pairing solar with battery storage to capture peak-hour pricing is becoming a popular strategy in California, Illinois, and other states with aggressive TOU rate structures. The difference in bill outcomes between a well-timed self-consumption strategy and indiscriminate export can run $200 to $400 per year for a typical household, according to utility rate modeling by NREL.

Net Metering vs. Battery Storage: Which Strategy Pays Off More?

For most homeowners in states with strong retail-rate net metering, the grid itself functions as a free battery: you export surplus when production is high and draw it back at the same rate when you need it. This makes adding physical battery storage financially redundant in those markets — the economics rarely justify the added $10,000 to $15,000 cost of a home battery when the grid is already performing that function at no direct charge.

The calculation shifts significantly in states that have weakened net metering. In California after NEM 3.0, exported electricity earns as little as $0.04/kWh during midday hours when the grid is oversupplied, but self-consumed or battery-stored electricity discharged during evening peak hours avoids paying $0.30 to $0.45/kWh. That spread makes battery storage genuinely attractive, which is exactly the policy outcome the California Public Utilities Commission intended when it redesigned the program in 2023.

A home battery system changes the economics in two ways simultaneously: it increases self-consumption (so more solar output displaces expensive grid electricity) and it enables time-shifting (storing cheap midday solar to discharge during costly evening peaks). The Tesla Powerwall ROI calculator can model whether the upfront cost of battery storage pays back faster than relying on net metering credits in your specific utility territory — an important comparison to run before signing any installation contract.

Homes in states with poor or nonexistent net metering — parts of Texas, some rural electric cooperatives in the Southeast, and utilities that have capped their programs — often find that battery storage is the only viable way to capture meaningful value from excess solar production. For those households, the financial case for storage is not about premium features; it is the baseline requirement for a reasonable return on investment.

There is also a longer-term policy hedge to consider. Net metering depends on your utility’s willingness to maintain the program, the rate structure, and the carryover terms — all of which can change after you install. California and Nevada are cautionary examples of programs that were significantly restructured mid-market. Battery storage provides a degree of insulation against future policy shifts and adds backup power value that net metering credits alone cannot replicate. If you are in a state where the net metering rules feel politically unstable, factoring storage into your original installation plan is worth the conversation with your installer before signing anything. For state-by-state payback data, our guide to Solar Panel Payback Period by State is the most complete resource.

Frequently asked questions

Direct answers for US homeowners — sized for a $150/month electric bill.

Most utilities issue bill credits rather than cash payments under net metering. Your electricity bill decreases by the value of your exports each month. If annual credits exceed consumption, some utilities pay out the surplus at a reduced rate — often $0.02 to $0.04 per kWh — but most simply zero out the balance at year-end. A handful of utilities issue small annual checks, but direct cash payouts are the exception rather than the rule.

$150/month electric bill by state

System size and payback vary by electricity rate and sun hours — see your state.

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Popular state solar guides

Electricity rates and incentives vary — see data for your state.

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Popular utility companies

Solar rules and net metering vary by utility — not just by state.

Methodology & data sources

Calculation method: System size uses NREL PVWatts derate factor (0.82). Costs based on SEIA 2026 installed cost ($2.75–$3.20/W). Payback uses net cost after 30% federal ITC (IRC Section 25D). Savings assume full-retail net metering unless noted.

Official sources: EIA state electricity rates · NREL PVWatts · Energy.gov ITC guide · DSIRE incentives · SEIA market data · IRS Publication 5695.

All figures are estimates for educational purposes — not tax, legal, or investment advice. Consult a licensed installer and CPA for your situation.

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