Solar + EV Guide

Solar Panels and EV Charging in Temecula: The Complete 2026 Guide

Adrian Marin|Independent Solar Advisor, Temecula CA

Helping Riverside County homeowners navigate SCE rates and solar options since 2020

Riverside County has one of the fastest EV adoption rates in Southern California. At SCE peak rates of 45 cents per kWh, charging a 60 kWh battery from the grid costs $27 per fill. Solar cuts that cost to near zero. Here is exactly how to pair the two systems, size the panels correctly, pick the right charger, and capture every available incentive.

Updated May 2026 | Temecula Solar Savings

Why Riverside County EV Owners Need to Think About Solar Differently

Southern California Edison serves the bulk of Temecula, Murrieta, and the surrounding Inland Valley. SCE runs a Time-of-Use rate structure by default for most residential customers, which means the price of electricity changes dramatically depending on when you draw it. During summer on-peak hours, roughly 4 PM to 9 PM Monday through Friday, rates can reach 45 cents per kWh or higher. During super off-peak hours from midnight to 9 AM, the same kilowatt-hour costs around 14 cents.

For a household without solar, the strategy is simple: charge your EV after midnight and avoid running heavy appliances between 4 PM and 9 PM. But solar changes the optimization problem entirely. Homeowners generating power from 9 AM to 4 PM need to think about where that power goes and how much it earns if it hits the grid versus how much it saves if it charges a car sitting in the driveway.

Temecula's commute patterns make this especially relevant. The Temecula-to-San Diego run is 55 to 65 miles each way. The Temecula-to-Los Angeles route is 80 to 100 miles each way. Round trips of 60 to 200 miles per day are common for residents who work in either metro area. Those mileage figures, multiplied by 250 to 260 working days per year, produce annual EV electricity consumption of 4000 to 8000 kWh, which is a significant load to plan around when designing a solar system.

The True Cost of Charging an EV at SCE Rates Without Solar

Let us put specific numbers to the cost equation so the solar savings are concrete rather than theoretical.

A mid-range EV with a 60 kWh usable battery, such as a Chevy Bolt EUV, Hyundai Ioniq 6, or base-trim Tesla Model 3, consumes roughly 3.5 miles per kWh under normal driving conditions in warm Southern California weather. A Temecula homeowner driving 15000 miles per year needs about 4286 kWh to power the vehicle annually.

At a blended SCE rate of 25 cents per kWh (a realistic average across all charging sessions including some peak and some off-peak), that comes to about $1072 per year in electricity for the car. At the SCE on-peak rate of 45 cents per kWh, the same consumption costs $1929 per year. At 14 cents per kWh on the overnight off-peak rate, it costs $600 per year.

The same 15000 miles in a 28 mpg gas vehicle at $4.60 per gallon (Temecula's approximate average for regular unleaded in 2026) costs $2464 per year. An EV charged entirely off-peak from the grid costs 76 percent less to fuel. An EV charged from solar costs essentially nothing beyond the amortized panel cost, which is already being recovered through savings on all household electricity consumption.

Filling a 60 kWh battery completely from a dead state costs $27 at peak rates and $8.40 at off-peak overnight rates. With solar production covering the daytime charging sessions, the effective cost of a full charge from solar falls below $2 in inverter conversion losses and negligible panel degradation. That is the number that motivates most Temecula EV owners to look at solar seriously.

NEM 3.0 and Why Self-Consumption Is Now the Core Strategy

California's Net Energy Metering 3.0 program, which took effect for new solar installations starting April 2023, fundamentally changed the economics of grid export for homeowners. Under the previous NEM 2.0 structure, electricity exported to the grid earned a credit close to the retail rate, often 20 to 30 cents per kWh. Under NEM 3.0, exported power earns the Avoided Cost Calculator rate, which averages 4 to 8 cents per kWh during most daylight hours.

The practical consequence is that exporting a kilowatt-hour to the grid earns roughly 5 cents, but buying that same kilowatt-hour back at evening peak rates costs 40 to 45 cents. The spread has never been wider. Every kilowatt-hour of solar production you consume directly in your home instead of exporting saves the difference between the buy rate and the export rate, which is roughly 35 to 40 cents per kWh.

This is where EV charging becomes one of the most powerful tools a NEM 3.0 solar customer has. A car sitting in the driveway between 9 AM and 3 PM is a battery that can absorb excess solar production that would otherwise be exported at 5 cents per kWh. By scheduling the car to charge during peak solar production hours rather than overnight from the grid, you are effectively converting 5-cent exports into 40-cent savings. The math clearly favors daytime solar charging over overnight grid charging for most Temecula homeowners under NEM 3.0.

The caveat is that not every household has someone home during the day to plug in the car. If the vehicle is at a workplace or in a parking structure during peak solar hours, the overnight off-peak grid charging strategy at 14 cents per kWh is still far better than peak-rate grid charging, and a battery storage system (covered below) can help bridge the gap by storing excess daytime solar for evening EV charging.

Level 1 vs Level 2 Charging: What Every Temecula EV Owner Needs to Know

Every EV ships with a Level 1 charging cable that plugs into a standard 120-volt household outlet. Level 1 charging delivers 1.4 kW of power and adds approximately 4 to 5 miles of range per hour. Charging a fully depleted 60 kWh battery from Level 1 alone takes 40 to 45 hours.

For short commuters driving fewer than 30 miles per day, Level 1 charging is technically sufficient. A car parked for 8 hours overnight on Level 1 gains 35 to 40 miles of range, which covers a short in-city commute. But Temecula's commute profile, with 60 to 120 mile round trips common, makes Level 1 charging impractical for many residents. Arriving home with 40 percent battery remaining and needing to recover 30 to 60 miles overnight is straightforward on Level 2. On Level 1, it takes most of the night and still may not fully recover before the next morning.

Level 2 charging uses a dedicated 240-volt circuit, the same voltage as an electric dryer or oven. Depending on the charger amperage and the car's onboard charger capacity, Level 2 delivers 7 to 11 kW and adds 25 to 40 miles of range per hour. A 30 mile deficit recovered in about 1 hour. A full 200 mile depleted battery recovered in 5 to 8 hours overnight.

Level 2 also integrates better with solar and smart charging strategies. The higher power delivery rate means you can absorb more solar energy in a shorter window. A car charging at 7.2 kW for 3 hours absorbs 21.6 kWh from solar production. A car charging at 1.4 kW for the same 3 hours absorbs only 4.2 kWh. For NEM 3.0 self-consumption optimization, the faster charge rate matters.

The dedicated 240-volt circuit for a Level 2 charger requires a 40 to 60 amp breaker and appropriate gauge wire run from the electrical panel to the garage or carport. This is a licensed electrician job in California and typically costs $300 to $800 for the circuit installation alone, independent of the charger unit itself.

EV Charger Brands for Temecula Homes: Costs, Features, and Solar Compatibility

Four charger brands dominate the residential solar-plus-EV market in Riverside County. Here is what each costs installed and how each integrates with a solar system.

ChargePoint Home Flex ($550 to $700 installed). The ChargePoint Home Flex is adjustable from 16 to 50 amps, which lets the installer match amperage to your panel capacity rather than always pulling a 50-amp dedicated circuit. The ChargePoint app shows real-time energy use, total kWh delivered, and estimated cost per session. It supports scheduled charging windows so you can program the car to charge between 9 AM and 2 PM when solar is generating. Works with all J1772 and CCS-compatible vehicles, which is virtually every non-Tesla EV sold in the US.

Tesla Wall Connector ($400 to $600 installed). The Tesla Wall Connector is a 48-amp hardwired unit delivering up to 44 miles of range per hour on compatible Tesla vehicles. Tesla now ships the Wall Connector with a J1772 adapter in the box, making it usable with non-Tesla EVs at a reduced charge rate. Tesla owners who also have a solar system gain an advantage: the Tesla app can link the Wall Connector with Powerwall and solar inverter data so the car charges preferentially from solar or stored battery power before drawing from the grid.

Emporia Vue ($400 to $500 installed). The Emporia Vue combines a Level 2 charger with whole-home energy monitoring in a single unit. The Emporia app shows solar production, whole-home consumption, and EV charging simultaneously on one screen, which makes NEM 3.0 self-consumption optimization straightforward. It supports adjustable amperage between 16 and 48 amps and works with all J1772-compatible vehicles.

Grizzl-E ($350 to $500 installed). The Grizzl-E is the value option. It is a hardwired 40-amp unit with minimal electronics, no Wi-Fi, no app, no scheduling. What it offers is durability, a NEMA 4 outdoor rating, and simplicity. For a homeowner who charges on a fixed overnight schedule and does not need smart scheduling features, the Grizzl-E costs less and has fewer components that can fail. It is not the right choice for NEM 3.0 daytime solar self-consumption unless you pair it with a smart plug or load controller upstream.

All four chargers require a NEMA 14-50 outlet or hardwired 240-volt connection. All four are eligible for the federal 30 percent charger tax credit (up to $1000) when installed at a primary residence. Installation by a licensed electrician in Riverside County typically adds $200 to $400 to the charger cost for straightforward runs under 25 feet from the panel.

How to Size a Solar System That Covers Both Your Home and Your EV

Correct system sizing is the step most Temecula homeowners get wrong when adding an EV. The default approach of sizing solar only to your current electricity bill misses the additional load the EV will add once it is sitting in your garage and charging daily.

The calculation starts with your current annual electricity consumption in kWh, which appears on your SCE billing statements. A typical 2000 square foot Temecula home uses 10000 to 14000 kWh per year. Add the projected EV consumption. Here is a reference table for common EV models at 15000 annual miles:

• Tesla Model 3 Standard Range: approximately 3600 kWh per year
• Tesla Model Y Long Range: approximately 4200 kWh per year
• Chevy Bolt EUV: approximately 4000 kWh per year
• Hyundai Ioniq 6: approximately 3800 kWh per year
• Ford F-150 Lightning: approximately 5500 to 6000 kWh per year
• Rivian R1T: approximately 5500 to 6500 kWh per year

Trucks and larger SUVs consume significantly more electricity than compact and mid-size sedans, largely because of their weight and drag coefficient. A Ford F-150 Lightning driven 15000 miles adds roughly 5700 kWh to annual household consumption, which is nearly 50 percent more than a Tesla Model 3.

After estimating total annual consumption (home plus EV), divide by the annual production per kilowatt of solar in Temecula. At 5.5 peak sun hours per day and a standard system efficiency of 80 percent, each installed kW of solar capacity produces roughly 1600 to 1800 kWh per year in this region.

Example: A Temecula home using 12000 kWh per year adds a Model Y at 4200 kWh per year for a total of 16200 kWh. Dividing 16200 by 1700 (mid-range production figure) gives 9.5 kW of solar needed to offset 100 percent of total consumption. At roughly $2.80 to $3.20 per watt installed before the federal tax credit, a 9.5 kW system costs $26600 to $30400 before incentives and $18600 to $21300 after the 30 percent federal Investment Tax Credit.

Adding 3000 to 5000 kWh of EV consumption to a household's solar design typically means adding 2 to 3 panels to a standard 400-watt residential panel system, or approximately 1.8 to 2.4 kW of additional capacity. The incremental cost is $5000 to $7000 before the tax credit, dropping to $3500 to $4900 after incentives.

Smart Charging and Time-of-Use Optimization for SCE Customers

SCE's Time-of-Use rates create three distinct charging windows that EV owners should understand regardless of whether they have solar.

The super off-peak window runs from midnight to 9 AM on the TOU-D-PRIME plan, with rates around 14 cents per kWh. This is the cheapest grid power available in the SCE territory. Charging from midnight to 6 AM keeps the car ready by morning and avoids both peak and partial-peak rates.

The partial-peak and shoulder window runs roughly from 9 AM to 4 PM on weekdays in the summer season. Rates during this window are moderate, and solar production is at its peak. This is the ideal window for solar self-consumption charging. If the vehicle is home and plugged in, it should be scheduled to charge during this window before any export occurs.

The on-peak window runs from 4 PM to 9 PM on weekdays from June through September, with rates reaching 45 cents or higher per kWh. Charging the car during this window from the grid is the most expensive possible scenario. With smart scheduling on any of the four charger brands mentioned above, this window is easy to avoid entirely.

Most EV manufacturers also build charge scheduling directly into the vehicle's touchscreen or mobile app, independent of the charger. Tesla's scheduled departure feature lets you set a target departure time and battery level, and the car calculates backward to start charging at the cheapest available time. Hyundai, Kia, Ford, and GM offer similar scheduled charging features through their respective apps.

For NEM 3.0 solar customers who are home during the day, the ideal configuration is to set the smart charger to run between 9 AM and 2 PM, catching peak solar production hours and avoiding any evening grid import. If the car cannot absorb all available solar production (because it is already full), a battery storage system such as a Tesla Powerwall or Franklin aHome takes over and stores the excess for evening household use.

The Federal EV Charger Tax Credit in 2026: What Qualifies and How to Claim It

The federal Alternative Fuel Vehicle Refueling Property Credit under IRC Section 30C provides a 30 percent credit on the cost of a qualifying EV charger installed at a primary residence, capped at $1000 per property. For a Level 2 charger costing $600 installed, the credit reduces your federal tax liability by $180. For an installed system costing $3000 including panel upgrade costs attributable to the charger, the credit reaches the $1000 maximum cap.

The credit is claimed on IRS Form 8911 in the tax year when installation is completed. It is non-refundable, meaning it can offset taxes you owe but will not generate a cash refund if the credit exceeds your liability. Any unused credit carries forward to subsequent tax years.

To qualify, the property must be the taxpayer's primary residence. Second homes and rental properties do not qualify for the residential credit, though a separate commercial credit with different terms applies to certain non-residential installations. The charger must be a qualified EVSE capable of Level 2 or higher charging, which rules out standard 120-volt Level 1 cables.

When an EV charger is installed in the same project as a solar system, the charger cost may be bundled into the solar system cost and claimed under the solar Investment Tax Credit (ITC) under IRC Section 25D rather than Section 30C. The ITC allows the same 30 percent rate but with no dollar cap. For a charger bundled into a $30000 solar project, the entire combined cost qualifies for 30 percent, potentially generating a larger total credit than the $1000 cap under Section 30C alone. Your tax professional should determine which treatment generates the larger benefit in your specific situation.

California EV Incentive Programs for 2026: What Replaced CVRP

The California Clean Vehicle Rebate Project (CVRP), which provided $1000 to $7500 in direct rebates to EV buyers, closed to new applicants in November 2023. The program ran out of funding and has not been renewed. Any dealer or website claiming you can still receive a CVRP rebate in 2026 is misinformed.

Current California EV incentive programs as of 2026:

Clean Vehicle Assistance Program (CVAP). CVAP provides grants and below-market-rate financing to low-income California residents purchasing or leasing new or used EVs. Eligibility is income-based, with most grants available to households earning less than 300 percent of the federal poverty level. Grant amounts vary by income tier and vehicle type. CVAP is administered by the California Air Resources Board and funded through the Greenhouse Gas Reduction Fund.

Clean Cars 4 All. This program targets residents of high-pollution communities and provides up to $12000 toward replacing a high-emission vehicle with an EV or plug-in hybrid. Riverside County qualifies as an eligible region. Income caps apply, and applicants must surrender the old high-emission vehicle as part of the program.

SCE Clean Fuel Reward. SCE offers a point-of-sale rebate on new EV purchases for customers within its territory, delivered at the dealership at time of purchase. The rebate amount varies by vehicle but has historically been $750 to $1500. No post-purchase paperwork is required; the dealer applies the discount automatically. Confirm the current rebate amount with your SCE representative before purchase, as amounts change periodically.

Federal Clean Vehicle Credit. The federal EV tax credit under the Inflation Reduction Act provides up to $7500 for new qualifying vehicles and up to $4000 for qualifying used EVs purchased from a licensed dealer. Income caps and MSRP limits apply, and the vehicle must have a battery assembled in North America. As of 2026, the credit is also available as a point-of-sale option, meaning the dealer reduces the purchase price directly rather than the buyer waiting for a tax refund.

Riverside County EV Charger Permit Process: What to Expect

California law requires permits for Level 2 EV charger installation, but AB 1236 (in effect statewide) mandates that jurisdictions provide an expedited permit process for residential EV chargers. Riverside County and the City of Temecula are both compliant with AB 1236, which means permit applications for standard residential EV charger installations must be processed within three business days.

The permit application for a residential EV charger in Temecula requires a site plan showing the charger location relative to the electrical panel, a one-line electrical diagram showing the circuit, and documentation of the charger model and amperage. Most licensed electrical contractors handle permit applications as part of their installation service.

For straightforward installations where no panel upgrade is required, the permit process is usually completed within one week from application to inspection sign-off. When a panel upgrade is required, the inspection scope expands and timelines can stretch to two to three weeks depending on inspector availability.

Homeowners who install an EV charger without a permit are not eligible for the federal Section 30C tax credit and may face complications at resale inspection. The $100 to $300 permit cost is worth it for both legal compliance and tax credit eligibility.

Panel Upgrades for Older Temecula Homes: When You Need One and What It Costs

Temecula's residential building stock includes a large number of homes built during the city's first major growth period in the 1980s and 1990s. Many of these homes have 100-amp electrical service panels, which were adequate for pre-EV households but run tight when a solar inverter, a Level 2 EV charger, and existing household loads are all operating simultaneously.

A 100-amp panel has a maximum continuous load capacity of 80 amps, or 19.2 kW at 240 volts. A solar system sending 8 kW through the inverter, a Level 2 charger pulling 9.6 kW at 40 amps, and a central air conditioner pulling 5 kW simultaneously exceeds the safe capacity of a 100-amp panel.

A 200-amp service upgrade increases the maximum continuous load capacity to 160 amps, or 38.4 kW. That is sufficient to run solar, EV charging, air conditioning, an electric oven, and normal household loads without approaching the panel's limits.

The cost of a 200-amp service upgrade in Riverside County in 2026 runs from $2000 to $4000 depending on whether SCE requires a new meter socket, whether the existing panel is in a convenient location for the new service entrance, and whether the utility requires any work at the street-side connection point. Adding this cost to a solar project is almost always preferable to skipping it and running into capacity issues after installation.

Alternatively, smart load management panels from companies such as Span and Leviton allow circuit-level power control that can keep total draw within a 100-amp panel's limits by automatically reducing EV charger output when other heavy loads are running. These panels cost $3000 to $5000 installed but can postpone or eliminate the need for a full service upgrade in some cases.

Vehicle-to-Home and Vehicle-to-Grid Technology: The Emerging Option for Temecula Homeowners

Most EVs in 2026 are still one-directional: power flows from the grid or charger into the battery, and that is where it stays until the motor uses it to drive the wheels. A growing number of vehicles now support bidirectional power flow, allowing the car to send power back to the home or to the grid.

Vehicle-to-Home technology uses the EV battery as a home backup power source. When the grid goes down, the car can power essential circuits in the house through a compatible bidirectional charger and transfer switch. The Ford F-150 Lightning's 98 kWh battery can run an average home for three to four days without solar input, or indefinitely when paired with a solar system that continues generating during daylight hours.

Vehicles with confirmed bidirectional charging capability available in the US market as of 2026 include:

• Ford F-150 Lightning (V2H via Ford Charge Station Pro and Sunrun home integration)
• Chevy Silverado EV (V2H via PowerShift Charger)
• Hyundai Ioniq 5 and Ioniq 6 (V2L standard, V2H with compatible inverter)
• Kia EV6 (V2L standard, V2H with compatible inverter)
• Nissan Leaf with CHAdeMO port (V2H with compatible inverter and CHAdeMO EVSE)
• Genesis GV60 (V2L standard)

Tesla vehicles do not currently support bidirectional charging. Tesla's approach to home backup relies on the Powerwall battery rather than the vehicle battery. This is a meaningful limitation for Tesla owners considering the backup power use case, and it is worth factoring into the vehicle selection decision if backup power during outages is a priority.

Vehicle-to-Grid technology goes one step further, allowing the car to sell power back to the utility during high-demand periods. V2G is in pilot programs in California but is not widely available for residential customers as of 2026. Pacific Gas and Electric and SDG&E have both run V2G pilots; SCE has announced plans for residential V2G programs but has not launched a broadly available offering for Temecula-area customers yet.

Tesla-Specific Considerations: Wall Connector, Powerwall, and the Integrated Ecosystem

Tesla sells solar panels, the Powerwall battery, and the Wall Connector charger as an integrated system. For homeowners who drive a Tesla vehicle, this integration creates genuine advantages that third-party component combinations cannot fully replicate.

The Tesla app unifies solar production, Powerwall charge level, Wall Connector session history, and vehicle range data in a single interface. The system can be configured to prioritize solar charging of the car before Powerwall storage, or to charge the Powerwall first and then the car, depending on homeowner preference and forecast data. Tesla's Storm Watch feature automatically charges the Powerwall to 100 percent before incoming severe weather events, using whichever power source is cheapest at that moment.

The Tesla Wall Connector is a 48-amp hardwired unit that delivers up to 11.5 kW to compatible Tesla vehicles. It now ships with a Magic Dock J1772 adapter, making it compatible with non-Tesla EVs at a reduced charge rate of up to 7.7 kW. Installed cost is $400 to $600 in the Temecula area, making it one of the more affordable premium Level 2 options.

For non-Tesla EV owners who are considering Tesla solar or Powerwall, the integrated advantage is reduced but not eliminated. The Powerwall and Tesla solar system still provide superior monitoring and automation compared to most third-party combinations, and the Wall Connector serves any J1772 vehicle. The main limitation for non-Tesla EV owners is that the app cannot display vehicle-specific range data or push EV scheduled charging commands; those functions still require the vehicle's own app.

One important caveat: Tesla's solar products are sold exclusively through Tesla's own salesforce and installation team. Independent solar installers in Temecula cannot install Tesla panels under Tesla's warranty, though they can and do install Powerwalls as a standalone product alongside panels from other manufacturers.

Full ROI Calculation: What a Temecula Solar-Plus-EV System Returns Over 10 Years

The return on investment calculation for a combined solar and EV charging system involves several independent savings streams that compound over the system's life. Here is a representative calculation for a Temecula homeowner in 2026.

Starting assumptions: 2000 square foot home, current SCE bill of $200 per month ($2400 per year), Tesla Model Y Long Range driven 15000 miles per year, 9.5 kW solar system installed at $29000 before incentives, Tesla Wall Connector at $500 installed.

Incentives applied at year zero:

• 30 percent federal ITC on solar: $8700
• 30 percent federal charger credit (Section 30C): $150 (30 percent of $500)
• Net cost after incentives: $20650

Annual savings calculation:

• Home electricity savings from solar: $2400 per year (offset of existing SCE bill)
• EV fuel savings versus gasoline: $2464 per year in avoided fuel at $4.60/gallon for a 28 mpg equivalent
• EV electricity cost (some overnight off-peak grid charging still needed): minus $300 per year
• Net annual savings: approximately $4564 per year

Payback period: $20650 net cost divided by $4564 annual savings equals 4.5 years. That is a simple payback without accounting for SCE rate increases over time. SCE residential rates have increased an average of 4 to 6 percent per year over the past decade. Applying a conservative 4 percent annual rate increase accelerates the payback to approximately 4.2 years and increases total 10-year savings to roughly $55000 against a $20650 investment.

System life: Solar panels from major manufacturers carry 25-year production warranties and commonly operate productively for 30 years or more. The EV charger has no moving parts and is expected to last 15 to 20 years. At a 4.5-year payback, the system generates positive returns for over 20 years of remaining life.

Home value uplift: Lawrence Berkeley National Laboratory research consistently shows that solar installations add approximately $4 per watt to home resale value in California. A 9.5 kW system adds roughly $38000 to appraised value, which exceeds the net system cost in this example. EV charger installation adds additional value as buyer demand for EV-ready homes grows in Riverside County.

How to Get an Accurate Quote for Solar Plus EV Charging in Temecula

Accurate system sizing for a solar-plus-EV project requires a few pieces of information that a reputable installer will gather before quoting. Be cautious of any company that gives a firm price without asking for all of the following.

12 months of SCE bills. The installer needs to see full-year consumption data to account for seasonal variation in both home electricity use and EV charging patterns. A quote based on a single summer bill will oversize the system; a quote based on a winter bill will undersize it.

EV make, model, and annual mileage. As shown in the sizing section above, annual EV consumption varies by more than 2500 kWh between a compact sedan and a large pickup truck at the same annual mileage. The installer needs the specific vehicle to model the additional load accurately.

Roof orientation, pitch, and shading assessment. Temecula rooftops facing south or southwest with pitches between 20 and 30 degrees produce the highest output. Panels on north-facing slopes or heavily shaded by mature trees may produce 30 to 50 percent less than a south-facing equivalent, which changes the system size needed to achieve the same offset.

Electrical panel age and amperage. The installer should pull the panel schedule and verify service amperage before quoting. If a panel upgrade is required, it should be included in the quote rather than presented as a surprise cost after installation begins.

Backup power preference. If you want the ability to power the home during grid outages, a battery storage system such as a Powerwall or Franklin aHome adds $10000 to $15000 to the project cost before incentives. This preference changes the system design significantly and should be established at the quoting stage rather than added on later.

Getting two to three quotes from licensed Riverside County installers and comparing the system sizes, production estimates, and itemized costs is the single most reliable way to ensure you are paying a fair price and getting a system that will actually offset your combined home-plus-EV load.

Temecula Solar Savings provides free customized estimates for Temecula, Murrieta, Menifee, and Lake Elsinore homeowners. We review your SCE bills, model your EV load, and present system sizing with full incentive calculations before you speak with any installer.