How to Optimize Your Solar Panels with SCE Time-of-Use Rates in 2026

What Time-of-Use Pricing Means for a Temecula Solar Homeowner

SCE does not charge a flat rate for electricity. What you pay per kilowatt-hour depends on when you use it. Under the TOU rate schedules that apply to almost all solar customers in 2026, the price of electricity swings dramatically based on the hour of day and the season.

Here is the concrete example that makes the stakes clear. Under TOU-D-PRIME, SCE's primary rate plan for NEM 3.0 solar customers, a kilowatt-hour consumed at noon on a weekday in July costs approximately $0.15. The same kilowatt-hour consumed at 6pm on the same weekday costs approximately $0.55. That is a 3.7x price difference for energy used six hours apart.

Now connect that to solar production. A south-facing 8 kW solar array in Temecula produces its maximum output between 10am and 2pm, exactly the window when electricity rates are cheapest. The grid demand peak, and therefore the highest electricity rates, hits from 4pm to 9pm, after solar production has dropped to near zero.

This timing mismatch is the central challenge of solar optimization under SCE time-of-use pricing. Solar produces most during cheap hours. You consume most during expensive hours. Every kilowatt-hour you shift from the expensive window to the cheap window saves you the difference, and that difference is substantial.

For a household spending $3,000 per year on electricity before solar, the split between peak and off-peak consumption determines how much of that bill actually disappears after going solar. A home that shifts 30 percent of its peak load to midday can eliminate $400 to $600 more annually than a home that makes no behavioral changes after installation.

The strategies in this guide focus on three levers: knowing which rate plan gives solar homeowners the best structure, scheduling your high-draw appliances into solar production hours, and using battery storage to bridge the gap between solar production and evening demand.

SCE TOU Rate Plans for Solar Customers in 2026: Full Rate Tables

NEM 3.0 solar customers in SCE territory have three primary TOU rate plan options. Each has a different peak window and rate structure. The right choice depends on when your household draws power from the grid. Here are the 2026 rate structures for each plan.

TOU-D-PRIME (Default for Most NEM 3.0 Solar Customers)

TOU-D-PRIME is the default rate plan for new NEM 3.0 solar interconnections in SCE territory. It is designed to align with solar production patterns, with the lowest rates during the hours when solar arrays generate the most power.

Rates are approximate as of Q1 2026 and include all applicable delivery, generation, and baseline adjustments. Actual rates vary by baseline allocation and usage tier. Confirm current rates at sce.com.

TOU-D-4-9PM (Alternative for Evening-Heavy Households)

TOU-D-4-9PM uses the same 4pm to 9pm peak window but has a slightly different rate structure that benefits households with significant loads after 9pm. If your family runs the dishwasher, does laundry, or uses high-draw electronics primarily after 9pm, this plan can produce lower annual bills than TOU-D-PRIME for some usage patterns.

TOU-D-5-8PM (Best for Households That Can Avoid 5pm to 8pm Only)

TOU-D-5-8PM has a shorter, tighter peak window from 5pm to 8pm Monday through Friday. This plan is advantageous for households that cannot avoid all peak usage from 4pm to 9pm but can consistently avoid the 5pm to 8pm core. Homeowners who typically eat dinner early, run appliances before 5pm or after 8pm, and have moderate evening loads may find this plan the most forgiving.

How NEM 3.0 Changed the TOU Calculus Entirely

To understand the TOU optimization strategies in this guide, you need to understand what NEM 3.0 did to solar economics in SCE territory starting April 2023. The change was fundamental, not incremental.

Under NEM 2.0, which still applies to solar systems interconnected before April 2023, excess solar power exported to the grid earned credits at near-retail rates. A solar homeowner exporting energy at 1pm during peak summer billing would earn credits worth roughly $0.35 to $0.45 per kWh. Those credits offset evening peak imports at similar rates. The math was roughly one-to-one, which made exporting solar a clean financial play.

Under NEM 3.0, export rates were restructured as flat avoided cost credits worth approximately $0.05 per kWh. The time of day you export no longer affects what credit you earn. Exporting during peak hours earns the same as exporting at midnight: about five cents per kilowatt-hour.

This single change eliminated the time-value of solar exports entirely. Sending power to the grid and buying it back during peak hours became a losing trade of $0.05 credited versus $0.55 charged, a ratio that destroys solar ROI if most of your production gets exported.

The entire TOU optimization strategy shifted as a result. Under NEM 2.0, the game was partly about managing when you exported. Under NEM 3.0, the game is exclusively on the import side. Every strategy in this guide targets one goal: eliminate or minimize grid imports during the 4pm to 9pm peak window when rates are $0.44 to $0.55 per kWh.

The value of self-consumption also changed. Under NEM 2.0, self-consuming solar was roughly equivalent to exporting it because both routes captured near-retail rate value. Under NEM 3.0, self-consuming solar is dramatically more valuable than exporting it: self-consumption avoids a $0.15 to $0.55 purchase depending on the hour, while exporting earns only $0.05. The avoided-import value of self-consumption is 3x to 11x the export credit value.

For homeowners with existing NEM 2.0 systems, this guide's strategies still apply but with less urgency. Your export rates remain more favorable, which reduces the penalty for not optimizing. If you are on NEM 3.0 or planning a new solar installation in 2026, these strategies are not optional extras. They are the core of the financial case for solar.

TOU Optimization Without a Battery: Midday Appliance Load-Shifting

You do not need a battery to benefit from TOU optimization. The cheapest and most immediate strategy is rescheduling your high-draw household appliances to run during solar production hours, between approximately 9am and 3pm on weekdays. This is load-shifting, and it costs nothing to implement.

The principle is simple. Your solar array generates electricity during midday hours when SCE rates are lowest. If a high-draw appliance like a dishwasher, washer, or dryer runs during that window, it consumes solar energy directly and reduces the total energy your system exports at the low NEM 3.0 rate of $0.05 per kWh. Every kWh of appliance load you shift from evening peak into solar production hours saves you the $0.40 to $0.50 import-export spread.

Appliances to Shift and Estimated Daily Savings

Annual savings estimates assume 250 cycles per year for cycling appliances, 180 days of pool pump operation, and 200 charging sessions for EV. Savings reflect the $0.40 per kWh average spread between peak import rates and midday self-consumption rates.

The pool pump is often the single largest TOU optimization opportunity for Temecula homeowners. A pool pump running 8 hours per day on a standard schedule may run from 8pm to 4am, squarely in the off-peak window but not during solar production. Shifting it to 9am to 5pm costs nothing beyond a setting change on the pump's timer and moves 2 to 6 kWh per day into solar-offset hours.

For appliances you cannot shift manually because household schedules do not allow it, smart home controls and delay-start features are the solution. Most modern dishwashers have a delay-start button. Setting it each night to begin the cycle at 10am adds 30 seconds to your evening routine and saves $80 to $120 per year.

The TOU Plus Battery Strategy: Charge Midday, Discharge at Peak

Adding a battery to a solar system transforms TOU optimization from a behavioral practice into an automated financial engine. Instead of manually rescheduling every appliance, the battery automatically captures midday solar production and releases it during the evening peak when grid rates are highest.

The mechanism is straightforward. During solar production hours, your panels generate more power than the home immediately consumes. Without a battery, that surplus exports to the grid at roughly $0.05 per kWh under NEM 3.0. With a battery, that surplus charges the battery instead. When evening arrives and solar production drops, the battery discharges into the home, offsetting grid imports that would otherwise cost $0.44 to $0.55 per kWh.

The value of each kilowatt-hour stored and self-consumed is the full import rate avoided, approximately $0.44 to $0.55 during peak hours. Compare this to the $0.05 export credit that kilowatt-hour would have earned if it went to the grid. The difference, roughly $0.39 to $0.50 per kWh, is the battery's daily productivity for each cycle.

How Battery Discharge Mode Settings Work

Modern home batteries from Tesla, Enphase, and other manufacturers allow you to configure when the battery charges and when it discharges. For TOU optimization under SCE rates, the optimal settings are:

• Charge mode: solar priority (charge from solar first; use grid off-peak as backup if solar falls short)
• Discharge mode: time-based control, set to discharge during the 4pm to 9pm peak window
• Reserve setting: keep 20 percent reserved for backup power in case of outage
• Weekend setting: discharge on weekend evenings if household consumption is high during those hours

The Tesla app calls this operating mode "Time-Based Control." The Enphase app calls it "Savings Mode." Both allow you to define the peak hours when the battery should prioritize discharging into the home before drawing from the grid.

On TOU-D-PRIME, the battery should begin discharging at 4pm and discharge through 9pm. If the battery fully discharges before 9pm, the home draws from the grid for the remainder of the peak window. On summer days with high AC usage, a 13.5 kWh battery may run out by 7pm or 8pm. On mild days, it carries through the full 5-hour peak window without grid imports.

Real Savings Math: A 10 kWh Battery at TOU-D-PRIME Rates

The battery arbitrage case is often presented with theoretical maximum numbers. Here is honest math using conservative assumptions for a Temecula homeowner.

Adding the self-consumption value: solar power that would have been exported at $0.05 per kWh is instead stored and used at the equivalent of $0.28 per kWh in mid-peak savings and $0.47 per kWh in on-peak savings. For a well-sized 7 to 8 kW solar system in Temecula, the battery captures 4 to 6 kWh of solar surplus per day that would otherwise export at the low NEM 3.0 rate.

At $1,407 per year in combined savings, a 10 kWh battery installed at $12,000 before incentives pays back in approximately 8.5 years without any incentives. After the 30% federal Investment Tax Credit reduces net cost to $8,400, payback is approximately 6 years. With SGIP added, payback shortens further.

These numbers represent the TOU arbitrage and self-consumption value only. They do not include the backup power value that a battery provides during SCE Public Safety Power Shutoffs, which Temecula has experienced multiple times. For homeowners in High Fire Threat District areas, the backup value is real even though it does not appear in a financial model.

Smart Appliances and TOU: Automating Your Load Shifts

Manual appliance scheduling works, but it requires daily attention and breaks down when household routines shift. Smart appliances and controllers automate TOU load-shifting so it happens consistently without behavioral effort.

Smart Thermostats: Nest and Ecobee for Pre-Cooling

Both Nest (Google) and Ecobee thermostats support TOU scheduling. You can program the thermostat to pre-cool aggressively from 11am to 3:30pm using cheap solar power, then hold a higher temperature setpoint during the 4pm to 9pm peak window. The Ecobee also supports direct integration with utility rate plans in some markets, and its "Smart Recovery" feature automatically calculates how early to start cooling to reach a target temperature by a specified time.

For Temecula, program your thermostat to:

• Cool to 69 to 70 degrees Fahrenheit between 11am and 3:30pm
• Raise setpoint to 76 to 78 degrees at 4pm
• Return to comfort temperature at 9pm
• Resume overnight setback after 11pm

This schedule can reduce AC-related peak imports by 40 to 70 percent depending on home insulation quality, outdoor temperature, and how cool you pre-set the home.

Smart EV Chargers: Emporia Vue and Wallbox

Standard Level 2 EV chargers draw 7.2 to 11.5 kW continuously. That load during peak hours is catastrophic for a TOU bill. Smart EV chargers solve this by allowing you to program charging windows that avoid peak hours entirely.

Emporia Vue Level 2 charger integrates with the Emporia app and can be programmed with SCE TOU rate schedules. It charges only during the hours you designate as off-peak or solar, and it will pause charging automatically if peak hours begin before a scheduled session completes. Wallbox chargers offer similar scheduling features with a clean mobile interface and support for OCPP protocol, which allows integration with home energy management systems.

Both support solar-direct charging modes, where the charger dynamically adjusts its draw based on live solar production data, consuming only the solar surplus that would otherwise export to the grid at the low NEM 3.0 rate.

Smart Pool Controllers: Pentair IntelliConnect and Hayward OmniHub

For the many Temecula homeowners with backyard pools, the pool pump is a major energy draw and a prime TOU optimization target. Variable-speed pumps use 50 to 90 percent less energy than single-speed pumps and can be throttled up or down based on time of day.

Pentair IntelliConnect and Hayward OmniHub both offer remote scheduling that lets you set the pump to run at high speed during solar production hours (9am to 3pm) and throttle down or stop during evening peak hours. If your pool also has a heat pump, scheduling it to heat between 10am and 2pm when solar production is highest and rates are cheapest can save $300 to $800 annually depending on how aggressively you heat the pool.

The Pre-Cooling Strategy for Temecula Summers

Temecula summers are genuinely hot. High temperatures from late June through September regularly reach 95 to 105 degrees Fahrenheit, and some homes without good insulation or shade can see interior temperatures climb quickly when the AC is throttled back during the evening peak window.

The pre-cooling strategy works by using the thermal mass of your home as free energy storage. Your walls, floors, furniture, and even the air volume in your home can absorb cooling and hold it for several hours. By cooling the home more aggressively during cheap solar hours, you deposit cooling capacity that releases slowly during the expensive peak window when the AC is running less.

The practical schedule for a Temecula home with 2,000 square feet and moderate insulation:

How long the pre-cooling effect lasts depends on your home's insulation quality, the outdoor temperature differential, and how cool you pre-set the home. In Temecula homes with double-pane windows and reasonable attic insulation, a 69-degree pre-cool at 2pm can maintain indoor temperatures below 76 degrees until approximately 7pm even when outdoor temperatures are in the mid-90s. In homes with single-pane windows or poor attic insulation, the effect may only last 2 to 3 hours.

Pre-cooling does increase your midday solar consumption, which is exactly the goal under NEM 3.0. Every kWh your AC uses at noon is solar power self-consumed at the equivalent of $0.28 per kWh in avoided imports, rather than exported at $0.05 and bought back at $0.55.

The Summer Peak Penalty: Calculating Your Personal TOU Exposure

SCE's summer peak rates on TOU-D-PRIME reach approximately $0.55 per kWh during the on-peak window from 4pm to 9pm, June through September. This is the highest electricity rate most residential customers in the country pay, and it directly determines how much TOU optimization is worth for your household.

To calculate your personal summer peak exposure, you need your interval usage data from SCE. Log in to sce.com, navigate to My Account, and download your hourly or 15-minute interval data for the most recent June, July, and August. This data shows exactly how many kilowatt-hours your home drew from the grid during each hour of every day.

Sum the kWh consumed between 4pm and 9pm across all weekdays in those three months. That is your summer peak exposure in kilowatt-hours. Multiply by $0.55 to get the approximate dollar cost of your summer peak consumption.

For the household in this example, the summer peak window alone costs $626 over three months, or about $209 per month in just peak-hour charges. This is the upper bound on what TOU optimization strategies can save from summer peak alone.

In practice, no optimization strategy eliminates all peak consumption. Cooking dinner, running house lights, watching television, and managing occupant comfort all generate some peak draw that cannot be shifted. A realistic summer peak reduction of 50 to 70 percent is achievable with a battery plus pre-cooling, saving $313 to $438 from summer peak charges in this example.

How to Read Your SCE Bill to Identify TOU Exposure

Your SCE bill contains the data you need to quantify your current TOU exposure and calculate how much a battery would save. Most homeowners never read past the total due amount. The itemized usage section is where the insight lives.

Finding Your Peak Usage Charges

On a TOU bill, SCE itemizes energy charges by time period. Look for line items labeled "On-Peak," "Mid-Peak," and "Off-Peak" or similar language specific to your rate plan. Each line shows the kilowatt-hours consumed in that period and the rate applied. Your on-peak line is the number to focus on.

For NEM 3.0 solar customers, the bill also shows energy exported and the avoided cost credits applied. You will see a section showing how many kWh were exported and the credit amount. Dividing the credit amount by the exported kWh confirms the export rate you are receiving. For NEM 3.0 customers in 2026, this should be in the $0.04 to $0.07 range.

Using SCE Interval Data to Size a Battery

Interval data from sce.com shows your hourly consumption in 15-minute or 60-minute increments. Download 12 months of interval data and calculate the average kWh you import from the grid between 4pm and 9pm on weekdays. That average is your daily peak exposure. A battery sized to cover 80 to 100 percent of your daily peak draw eliminates most peak-hour charges.

For example, if your interval data shows average daily peak imports of 8 kWh, a 10 kWh battery (with 90 percent round-trip efficiency yielding 9 kWh effective discharge) covers your typical peak demand. You will still draw from the grid on high-AC days or days with guests, but the average case is covered.

If you want to request this analysis before buying a battery, any reputable solar and storage installer in Temecula can pull your interval data with your permission and model the battery savings projection against your actual usage history.

Choosing the Right TOU Rate Plan: SCE's Rate Comparison Tool and What It Tells You

The difference between TOU-D-PRIME, TOU-D-4-9PM, and TOU-D-5-8PM can translate to $100 to $400 per year for a solar household. The right choice is not generic. It depends on when your household actually draws from the grid after solar production is subtracted.

SCE's Rate Comparison Tool at sce.com uses your actual 12-month interval data to calculate what you would have paid under each eligible rate plan. The tool is free, takes about 5 minutes, and produces a clear dollar comparison across all plans you qualify for. This is the only reliable way to choose between TOU plans.

Common patterns that favor specific plans:

• High midday solar self-consumption with low evening loads: TOU-D-PRIME usually wins because the super-off-peak window on weekends captures high self-consumption value
• EV charging done entirely after midnight: TOU-D-4-9PM may win because all after-9pm loads including EV charging fall into off-peak
• Household that cannot easily avoid 4pm to 5pm and 8pm to 9pm but can avoid 5pm to 8pm: TOU-D-5-8PM may produce the lowest bill by reducing the high-rate window

One important note: if you are on NEM 3.0, you must stay on a TOU rate plan. SCE does not offer a flat rate option for NEM 3.0 customers. The choice is which TOU plan, not whether to use TOU pricing.

SCE allows one free rate plan change per 12-month billing period. Make your change after running the Rate Comparison Tool and reviewing at least 6 months of post-solar interval data. Changing plans too soon, before your solar system has produced a full seasonal cycle, can produce misleading comparisons because summer and winter production differ significantly.

SCE Billing Cycle and True-Up: How TOU Affects Annual Net Billing

NEM 3.0 solar customers on SCE receive monthly bills that show net energy charges but do not settle the solar credit balance until the annual true-up. Understanding how TOU affects the true-up calculation is critical for managing expectations about your annual solar savings.

Each month, SCE calculates the energy you imported from the grid at the applicable TOU rate and subtracts the avoided cost credits for energy you exported. If your monthly solar production exceeds your consumption, you build a credit balance that carries forward. At the annual true-up, the accumulated credit or debit is settled.

The TOU structure creates an asymmetric true-up dynamic. Imports during peak hours cost $0.44 to $0.55 per kWh and run up your debit balance quickly in summer months. Exports during any hour credit only $0.05 per kWh and accumulate slowly. A solar system that exports generously all year but fails to offset peak-hour imports still faces a significant true-up bill.

The optimization target for true-up is not exporting as much solar as possible. It is avoiding peak-hour imports as much as possible. A household that exports 8,000 kWh per year but imports 3,000 kWh during peak hours will owe:

This scenario illustrates why a large solar array without a battery can still produce a large true-up bill under NEM 3.0. The solar is producing, but the production happens at the wrong time relative to peak consumption.

TOU optimization strategies, whether through appliance scheduling, battery storage, or behavioral shifts, directly reduce the peak import portion of the true-up calculation. Cutting peak imports by 2,000 kWh at $0.50 average saves $1,000 at true-up, which is the most direct path to a near-zero true-up balance.

Winter vs Summer TOU: How Solar Production Aligns Differently

The TOU optimization challenge is primarily a summer problem in Temecula. Winter creates a different dynamic that is worth understanding so you can adjust strategies seasonally.

Winter TOU Rate Differences

Winter on-peak rates under TOU-D-PRIME are approximately $0.37 per kWh versus $0.55 in summer. The peak window remains 4pm to 9pm Monday through Friday. The off-peak rate drops to about $0.13 per kWh. The spread between peak and off-peak narrows in winter, which reduces but does not eliminate the value of TOU optimization.

How Winter Solar Production Changes the Calculus

Winter solar production in Temecula is lower than summer for two reasons. Shorter days reduce total production hours. Lower sun angles reduce the efficiency of panels, particularly those tilted for summer optimization. An 8 kW system producing 45 kWh per day in July may produce 25 kWh per day in January.

Additionally, winter in Temecula brings earlier sunsets. The 4pm to 9pm peak window in December begins when the sun is very low on the horizon, meaning solar production has largely stopped by the time peak rates begin. Battery storage therefore becomes even more important in winter because there is less late-afternoon solar to offset the beginning of the peak window.

Heating loads in winter also shift the equation. If your home uses an electric heat pump for heating, winter heating loads during the peak window are comparable to summer AC loads. Gas-heated homes have lower winter peak exposure from HVAC. Understand your winter heating fuel before calculating winter TOU exposure.

Pre-cooling strategy does not apply in winter, but a complementary pre-heating strategy can reduce peak-hour heat pump runtime: run the heat pump to warm the home to 70 or 71 degrees before 4pm using off-peak or solar power, then let the setpoint drift to 66 or 67 degrees during the peak window. Thermal mass holds warmth for 2 to 4 hours before the home needs supplemental heat.

EV Charging Strategy Under SCE TOU Rates

An electric vehicle is one of the highest-draw appliances in a modern home. A Level 2 EVSE (EV Supply Equipment) rated at 48 amps draws 11,520 watts continuously. Running that load during the SCE peak window at $0.55 per kWh costs $6.34 per hour. Charge for 3 hours during peak and you have added $19 to your electricity bill for that single session.

Never charge your EV during the 4pm to 9pm peak window under any SCE TOU plan unless unavoidable. This is the highest-impact single rule for Temecula EV owners under TOU pricing.

Two Optimal EV Charging Windows

EV Charging and Battery Interaction

If you have both a home battery and an EV, configure the battery to discharge during 4pm to 9pm for household loads rather than EV charging. Your home battery is too small to charge a car and handle household loads simultaneously. Let the battery offset household peak imports, and charge the EV separately on its overnight or midday schedule.

Some homeowners ask whether to charge the EV from the battery overnight. This is not optimal. Charging the battery from solar or off-peak grid and then charging the EV from the battery overnight introduces two round-trip efficiency losses (battery and EV onboard charger) rather than one. Direct off-peak or solar charging to the EV is always more efficient than routing through a home battery.

Monitoring TOU Performance: Enphase, SolarEdge, and SCE My Account

TOU optimization is not a one-time setup. It requires ongoing monitoring to verify that your strategies are working and to catch changes in household consumption patterns that might require adjustments.

Enphase Enlighten App

Enphase Enlighten shows solar production at the individual panel level, battery state of charge, home consumption, and grid import and export in a clear timeline view. For TOU optimization purposes, look at the daily timeline view and verify that battery discharge is occurring between 4pm and 9pm, that home consumption during peak hours is primarily battery-sourced rather than grid-sourced, and that the battery state reaches near-full by 3:30pm on days with adequate solar production.

The Enlighten self-consumption percentage metric is the most important single indicator. A well-optimized Enphase system with appropriately sized solar and storage should show self-consumption above 85 percent on typical weekdays.

SolarEdge mySolarEdge App

The SolarEdge mySolarEdge app provides production, consumption, and storage data with TOU period overlays if you configure your utility rate schedule in the app settings. The most useful view for TOU analysis is the energy flow diagram that shows real-time and historical energy routing: solar to home, solar to battery, battery to home, and grid to home. Any grid-to-home flow during peak hours is a TOU optimization opportunity.

SolarEdge's StorEdge (home battery) systems allow setting charge and discharge schedules based on TOU periods directly within the mySolarEdge interface. Confirm your charge start time is set to 9am or later on solar production days and discharge window is set to 4pm to 9pm.

SCE My Account: Green Button Data and Bill Analysis

SCE's online account portal at sce.com provides Green Button data downloads of your 15-minute interval usage data. Download your last 3 months of interval data monthly and review it in a spreadsheet to calculate your peak-hour imports for the period. Compare month over month to confirm that your load-shifting strategies are producing measurable reductions in peak-hour grid draws.

The SCE My Account dashboard also shows your current billing cycle's net charges broken down by time period. Monitoring the on-peak charges section each month gives you a real-time indicator of whether your TOU strategies are working before the annual true-up arrives.

Target metric: on-peak grid imports should be trending lower month over month after implementing optimization strategies, particularly in summer months when peak rates are highest. If peak imports are not declining, the issue is usually one of three things: the battery is not discharging at the right time, appliance load shifts are not actually occurring as scheduled, or household consumption is higher than the battery can cover.

Frequently Asked Questions About SCE TOU Rates and Solar Optimization

Related Resources for Temecula and Riverside County Solar Homeowners

• Home Battery Storage in California: Costs, Incentives, and Payback for Temecula Homeowners
• California Solar Incentives in 2026: SGIP, Federal ITC, and SCE Rate Schedules
• Federal Solar Tax Credit Guide for California Homeowners
• NEM 3.0 Solar Guide for Temecula and Riverside County Homeowners
• Contact Us for a Solar and Battery Quote in Temecula