TJE Ventures

Sticker Premium

Average new vehicle transaction price, 2026 (Kelley Blue Book, March 2026):

• EV: $43,500
• ICE: $37,200
• Difference: $6,300

The primary driver of that gap is the battery pack. A modern EV battery represents $8,000–$15,000 of the vehicle’s build cost depending on size and chemistry. Everything else — motors, suspension, body — is often cheaper to manufacture than a comparable ICE vehicle. The battery is the whole ballgame, and until battery costs fall far enough, the sticker premium follows.

The $6,300 average also obscures a wide spread across segments:

• Small / entry-level: Chevy Equinox EV vs. Chevy Equinox ICE — premium as low as $2,000–$3,000
• Mid-size crossover: Tesla Model Y vs. Toyota RAV4 — premium of $8,000–$12,000
• Full-size truck: Ford F-150 Lightning vs. F-150 ICE — premium of $10,000–$20,000 depending on trim

Buyers at the entry level face a much smaller hurdle than the average suggests. Buyers in the truck and SUV segments — the most popular vehicles in America — face a substantially larger one.

It is worth noting that battery costs have fallen roughly 90% over the past 15 years and continue to decline. Industry analysts project EV purchase price parity with comparable ICE vehicles somewhere between 2027 and 2030 for mainstream segments. When that crossover happens, this section of the cost equation flips. Until then, the premium is real and it compounds every other cost in this article — financing, insurance, depreciation — all scale with the purchase price.

Financing Cost

A higher sticker price means a larger loan, and a larger loan means more interest paid — even if the rate is identical. At a typical 2026 auto loan rate of around 7%, financing the $6,000–$6,300 purchase premium over 60 months adds roughly $1,100 in additional interest. That is money paid to the bank, not the car, and it never shows up in a fuel-cost comparison.

If you are comparing a $45,000 EV to a $39,000 ICE vehicle with the same down payment, the EV loan costs approximately $115/month more. Over five years that is $6,900 total out of pocket — purchase premium plus interest. The interest portion alone exceeds the annual fuel savings in Year 1.

Home Electrical Infrastructure

Before you can even begin to realize the fuel savings, you may need to spend thousands to make your home capable of charging the vehicle. The Level 2 charger hardware and installation ($1,500–$3,000) is just the starting point — and it assumes your home is already wired for it. Many are not.

Homes built before the 1990s commonly have 100-amp panels. Adding a 240V / 50-amp circuit for a Level 2 charger pushes many of these panels to or past capacity. A panel upgrade runs $1,500–$4,000 depending on location and local permitting. In some municipalities, a utility upgrade to the service line from the street adds another $500–$2,000.

All-in, a homeowner in an older house may spend $3,000–$9,000 before charging their first EV — a cost that is invisible in every advertised fuel-cost comparison and must be recovered entirely from fuel savings before the savings clock even starts.

Insurance

Average annual full-coverage insurance premium, 2026:

• EV: $3,500 – $4,000
• ICE: $2,700
• Difference: ~$1,000/year (20–30% more)
• Over 5 years: +$5,000

EV insurance costs more for four compounding reasons, and understanding them matters because they are structural — not temporary pricing quirks that will normalize as EVs become more common.

• Higher replacement value. Insurers price premiums against the cost to replace what they are covering. A $43,500 vehicle costs more to total out than a $37,200 one. This alone accounts for a significant portion of the premium differential and will only shrink when purchase price parity arrives.
• Expensive collision repairs. As detailed in the next section, EV repairs run 20–40% more than comparable ICE repairs due to structural battery integration, high-voltage certification requirements, and limited shop availability. Insurers price this risk into every policy, whether you ever have an accident or not.
• Battery replacement exposure. A total-loss event on an EV does not just write off the frame and body — it writes off a $10,000–$25,000 battery pack. Insurers model this tail risk and charge accordingly.
• Longer repair times. EVs spend more time in the shop, which means more days on a rental car covered under your policy. That daily rental cost is invisible to the driver but highly visible to the underwriter.

Premium by model gives a clearer picture of the range (national averages, 2026):

• Tesla Model Y: $3,800–$4,400/year
• Tesla Model 3: $3,600–$4,200/year
• Ford F-150 Lightning: $3,200–$3,800/year
• Chevy Equinox EV: $2,900–$3,300/year
• Comparable ICE crossover (RAV4, CR-V): $2,400–$2,800/year

Tesla models carry the highest premiums in part because of their repair cost profile and in part because Tesla’s proprietary parts and service network gives insurers less competitive pricing leverage on repairs. Some insurers have pulled out of EV coverage in certain states entirely, reducing competition and pushing remaining premiums higher.

One nuance worth acknowledging: as EV repair infrastructure matures and more shops become certified, repair costs — and therefore premiums — should gradually decline. But that normalization is years away, and you are paying today’s rates today.

Collision Repair

EVs cost significantly more to repair after an accident — a cost that does not show up until it hits you. Three factors drive this:

• Structural battery packs. In many EVs the battery is integrated into the floor structure. A moderate collision that would be a simple frame repair on an ICE vehicle can require battery inspection or replacement on an EV, turning a $4,000 repair into a $15,000+ one.
• High-voltage safety rules. Any work near the battery or drivetrain requires certified technicians and specialized equipment. Independent shops often cannot touch it, reducing competition and driving up labor costs.
• Parts scarcity and shop availability. The EV repair network is still thin. Longer wait times at dealerships mean longer rental car periods — another cost absorbed by you or your insurer.

On average, EV collision repairs run 20–40% more than comparable ICE vehicles. This is a primary reason EV insurance premiums are higher — the two costs are directly linked.

Registration

Most drivers overlook registration, but it is a real and recurring cost. Many states charge EVs a higher annual registration fee for two reasons: the vehicle’s weight puts more stress on roadways, and the state collects no gas-tax revenue from EV drivers to fund road maintenance.

Annual EV registration surcharges by state (2025–2026):

• Georgia: $220 surcharge
• Texas: $200 surcharge
• Illinois: $100 surcharge
• California: $100 surcharge
• Washington: $75 surcharge
• Florida: $135 surcharge

The national average EV registration surcharge is approximately $128/year, vs. roughly $30–$50 for a comparable ICE vehicle. Over 5 years that is an additional $390–$490 out of pocket — before factoring in weight-based fees that scale with the vehicle’s curb weight.

Some states are moving toward per-mile road-use charges as a longer-term replacement for the gas tax. If that model spreads, the EV fuel-cost advantage narrows further.

Maintenance

Lower maintenance cost is the second most cited financial argument for EVs, after fuel savings. And like fuel savings, it is real — but smaller than advertised once the full picture is accounted for.

What EVs Do Not Need

The maintenance savings are genuine and stem directly from mechanical simplicity. An EV eliminates a significant portion of the service items that define ICE ownership:

• No oil changes ($80–$150 every 5,000–7,500 miles)
• No transmission fluid, coolant flushes, or spark plug replacements
• No timing belt, serpentine belt, or water pump
• Reduced brake wear — regenerative braking handles most deceleration, extending brake pad and rotor life significantly
• No exhaust system maintenance

Consumer Reports estimates average annual maintenance costs at $900 for EVs vs. $1,200 for ICE vehicles — a $300/year advantage. Over five years that is $1,500 in savings, which is real money. But it is also the smallest line item in this article, and it comes with an offset that most comparisons quietly omit.

The Tire Problem

EVs are heavy. The battery pack alone typically adds 1,000–1,500 lbs. compared to the equivalent ICE vehicle, putting total curb weights in the 4,500–6,000 lb. range for mainstream models. That weight, combined with the instant torque delivery of electric motors, accelerates tire wear significantly:

• EV tires wear 30–50% faster than on comparable ICE vehicles
• Many EVs require low-rolling-resistance tires with specific load ratings — not standard replacements from any tire shop
• Replacement cost: $300–$500 per tire, $1,200–$2,000 per set
• Replacement interval: every 25,000–35,000 miles vs. 40,000–60,000 miles on a typical ICE vehicle

At 13,000 miles per year, an EV owner may need to replace tires every 2–3 years instead of every 4–5. That additional set over a 5-year ownership period costs $1,200–$2,000 and largely wipes out the maintenance savings on paper.

What the Savings Number Misses

The $300/year Consumer Reports figure reflects scheduled maintenance — the predictable, routine service visits. It does not capture several categories that skew EV ownership higher over time:

• Out-of-warranty electrical repairs. Once the bumper-to-bumper warranty expires, EV-specific repairs — inverters, onboard chargers, thermal management systems, motor components — are expensive and require specialized labor. These are uncommon in the first 5 years but become a real variable beyond that.
• Software-related service visits. Sensor calibrations, camera replacements, and screen or computer failures are increasingly common EV service items with no ICE equivalent. Tesla alone has faced widespread touchscreen failures on early Model 3 and S units.
• Reduced independent shop access. ICE vehicles can be serviced at any shop in the country. Many EV repairs require a brand-certified dealership, eliminating price competition and adding scheduling delays. For owners outside major metro areas, the nearest qualified service center may be hours away.

Net Maintenance Position

Accounting for accelerated tire wear, the honest net maintenance savings over 5 years is closer to $0–$500 — not the $1,500 the headline figure implies. For drivers who encounter any out-of-warranty electrical work, that position goes negative.

Maintenance is the one cost category where EVs have a structural advantage over ICE vehicles. It is a real advantage. It is just not as large as it is typically presented, and it does not come close to offsetting the premium costs in the other sections of this article.

Fueling Truth

Fuel cost is the one category where EVs genuinely and consistently win. The numbers are real, the savings are meaningful, and this is the foundation of every pro-EV financial argument. The question is not whether the savings exist — they do — but whether they are large enough, reliable enough, and available to enough drivers to offset everything else in this article.

The Base Case: Home Charging

Annual fuel costs at 13,000 miles, best-case EV scenario:

• ICE (25 mpg at $4.49/gal): $2,335/year
• EV home charging ($0.18/kWh, 3.5 mi/kWh): $669/year
• Annual savings: ~$1,700

That is a real and substantial difference. At 13,000 miles per year with reliable home charging at $0.18/kWh, an EV saves roughly $140/month on fuel. Over five years that is $8,500 — the largest single offset in the cost comparison. This is the number EV advocates lead with, and they are right to.

The catch is the word best-case. Home charging at $0.18/kWh requires owning a home with the right electrical infrastructure, living in a state with moderate electricity rates, and charging overnight on a standard or off-peak rate. Not every EV buyer has all three.

Public and Fast Charging

For drivers without home charging — renters, condo owners, apartment dwellers — the math shifts substantially:

• EV DC fast charge / Supercharger ($0.45/kWh, 3.5 mi/kWh): $1,671/year
• Savings vs. gasoline: ~$664/year

At Supercharger rates, the annual fuel savings drop from $1,700 to roughly $664 — a 61% reduction in the primary financial argument for EV ownership. For drivers relying on Level 2 public chargers (typically $0.30–$0.40/kWh), savings shrink further or disappear entirely depending on local gas prices.

Approximately 35% of U.S. households are renters. The EV fuel savings argument, as typically presented, does not apply to them.

Charging Rate Scenarios Side by Side

• Home charging at $0.13/kWh (low-rate states): $483/year — savings of $1,852
• Home charging at $0.18/kWh (national average): $669/year — savings of $1,666
• Home charging at $0.25/kWh (high-rate states, rising trajectory): $929/year — savings of $1,406
• Public Level 2 at $0.35/kWh: $1,300/year — savings of $1,035
• DC fast charge / Supercharger at $0.45/kWh: $1,671/year — savings of $664

Your actual savings depend entirely on where you charge and what you pay per kWh. The difference between the best case and the worst case is $1,200/year — which over five years is the difference between $9,260 in savings and $3,320. Both are real scenarios depending on the driver.

The Access Problem

For renters, condo owners, and apartment dwellers, home charging is often not an option at all — not a matter of cost, but of physical access and landlord permission. This matters because the entire fuel savings case rests on home charging. A driver who relies primarily on public infrastructure will save significantly less, pay more per kWh, and absorb the time cost of planned charging stops. For that driver, the financial case for an EV is weak by the numbers — regardless of how compelling it looks in the headline comparison.

Rising Electricity Rates

The fuel savings above assume $0.18/kWh for home charging. That rate is already above the national average for some markets, and the trend line is not favorable. U.S. residential electricity rates have risen approximately 30% since 2020 and continue to climb as utilities invest in grid upgrades, transmission infrastructure, and the added demand from EVs themselves.

If your rate rises from $0.18 to $0.25/kWh — a realistic 5–10 year trajectory in many states — annual home-charging cost rises from $695 to $964. The savings vs. gasoline shrink from $1,700/year to roughly $1,400/year. Small shifts compound over a 10-year ownership period and quietly narrow the advantage that was supposed to justify the premium.

Gas prices are volatile too, but the assumption that electricity is a stable, cheap alternative is increasingly optimistic.

Cold Weather Performance

Advertised range figures are measured at 70°F. In the real world, cold temperatures reduce EV range significantly:

• At 20°F: range drops 20–40% depending on model
• At 0°F: some vehicles lose nearly half their rated range

The cause is twofold: lithium-ion batteries deliver less power in the cold, and cabin heating draws heavily from the battery (EVs have no engine waste heat to repurpose). ICE vehicles lose some efficiency in cold weather too, but the effect is far smaller and does not strand drivers.

For drivers in northern states, the practical range on a winter day may be 150–180 miles on a vehicle rated at 260. That forces more frequent Supercharger stops on road trips, eroding the home-charging fuel savings that anchor the best-case cost scenario.

The Hidden Time Tax

This is not a dollar figure, but it is a real cost. Filling a gas tank takes 5 minutes. A DC fast-charge session (the fastest public option) takes 20–45 minutes to recover meaningful range — and that assumes the charger is working, not occupied, and not rate-throttled because the battery is above 80%.

For daily commuters who charge at home overnight, this is a non-issue. For anyone relying on public infrastructure, doing road trips, or living in a condo without home charging, the time cost is real and recurring. Factor in the detour to find a charger, the wait, and the slower top-up above 80%, and a long drive can add an hour or more to your trip versus a gas vehicle.

Time has value. It belongs in the honest accounting.

Depreciation

Depreciation is the largest single cost of vehicle ownership for most drivers, and it is the one most consistently ignored when people compare EVs to ICE vehicles. You do not write a check for it, but you pay it every year in lost resale value.

5-year value retention (average):

• EV: 41.2% — a $43,500 EV is worth ~$17,900 after 5 years
• ICE: 54.4% — a $37,200 ICE is worth ~$20,200 after 5 years
• Difference: $5,800 more value lost on the EV

Three forces drive EV depreciation faster than ICE, and they reinforce each other:

• New model discounts undercut used prices. When manufacturers cut prices on new EVs — as Tesla has done repeatedly — the used market reprices immediately. A buyer choosing between a 2-year-old used Model Y at $32,000 and a new Model Y at $36,000 does the math quickly. The discount on new inventory directly compresses what anyone will pay for used. ICE manufacturers do not reprice their lineups with the same frequency or magnitude.
• Battery anxiety in the used market. A used ICE buyer knows what they are getting. A used EV buyer has to ask: how many charge cycles has this battery seen, what is its current range capacity, and what will it cost to replace if it degrades further? That uncertainty is rational and it suppresses what buyers will pay. Even a battery in good condition sells at a discount because the buyer cannot easily verify it.
• Technology obsolescence. EV software, range capability, and charging speed are advancing rapidly. A 2021 EV with 250-mile range and 150kW charging competes poorly against a 2026 model with 320-mile range and 250kW charging. ICE vehicles improve incrementally; the fundamental experience of a 2021 Toyota Camry is not meaningfully different from a 2026 one. EV buyers know their purchase will feel dated faster, and used-market pricing reflects that.

The federal tax credit adds a fourth force specific to EVs: a used EV competes directly against a new EV that came with a $7,500 purchase incentive (when available). That credit effectively lowers the cost of new competition, making it harder for used EVs to hold value at any price point.

5-year retention by model (for comparison):

• Tesla Model 3: 45.5%
• Tesla Model Y: 41.9%
• Tesla Model X: 38.8%
• Cybertruck: 43.2%
• Nissan Leaf: ~28–33% — among the worst in the segment
• Chevy Bolt EV: ~35–38%

For context, ICE vehicles known for reliability hold value considerably better:

• Toyota Camry: ~57%
• Honda CR-V: ~60%
• Toyota Tacoma: ~72%

Tesla leads the EV segment on retained value — largely because of brand strength, the Supercharger network, and software update longevity. But even the best EV depreciates faster than a mid-range Toyota or Honda. For brands without Tesla’s network and software ecosystem, the depreciation gap is significantly wider.

The practical implication: depreciation is a cost you pay whether you sell the car or not. If you keep it, you absorb the lost equity silently. If you sell, you see it all at once.

Battery Time Bomb

Every EV comes with a ticking clock. The battery that powers it is also the most expensive component in it, it degrades from the day you drive off the lot, and at some point it will need to be replaced. The question is not whether that happens — it is whether it happens while you still own the car, and whether it happens on your dime.

The Warranty Window

Federal law requires EV manufacturers to warranty the battery for 8 years or 100,000–150,000 miles, whichever comes first. Within that window, significant capacity loss (typically below 70% of original) is covered. Outside of it, you are on your own.

For an average driver covering 13,000 miles per year, the warranty expires by mileage at around year 8. That sounds like a long runway — until you consider that most Americans keep a vehicle for 8–12 years, and battery degradation accelerates in later years. The warranty window and the ownership window overlap uncomfortably.

How Batteries Degrade

Lithium-ion batteries lose capacity gradually through normal use. Several factors accelerate the process:

• Frequent DC fast charging (Supercharging). High-speed charging generates heat and stresses the cells. Occasional fast charging is fine; relying on it daily shortens battery life measurably.
• Charging to 100% or depleting to 0% regularly. Manufacturers recommend keeping the battery between 20% and 80% for daily use. Most drivers do not follow this, and most charging systems do not enforce it.
• Heat. Sustained high temperatures — hot climates, aggressive driving, lack of active thermal management — degrade cells faster. This is why EVs in Arizona and Florida show higher degradation rates than those in moderate climates.
• Age, independent of use. Lithium-ion cells degrade on a calendar basis as well as a cycle basis. A battery that has sat partially charged in a hot garage for years is degraded even without heavy use.

Real-world data from high-mileage Tesla owners shows roughly 10–15% capacity loss by 100,000 miles under typical conditions — meaning a vehicle rated at 300 miles of range delivers closer to 255–270. The degradation curve is gradual at first and steeper in later years.

Replacement Costs

Out-of-warranty battery replacement costs as of 2026:

• Tesla Model 3 / Y: $10,000 – $18,000
• Tesla Model S: $12,000 – $20,000
• Tesla Model X: $17,000 – $25,000
• Tesla Cybertruck: $20,000+
• Nissan Leaf (older 40kWh pack): $8,500 – $12,000
• Chevy Bolt: $9,000 – $16,000

These figures include parts and labor. They do not include the diagnostic costs, rental vehicle costs during a repair that can take 2–6 weeks, or the possibility that the manufacturer no longer supports the battery chemistry in an older model.

The Totaling Threshold

The critical number is the vehicle’s market value at the time of replacement. A 10-year-old Tesla Model 3 in average condition may be worth $12,000–$15,000 on the used market. A battery replacement on that vehicle costs $10,000–$18,000. When the repair cost approaches or exceeds the vehicle’s value, the car is effectively totaled — not by a collision, but by time and chemistry.

This is not hypothetical. Owners of older Nissan Leafs and early Chevy Bolts are already facing this decision. As the first wave of mainstream EVs ages past their warranty windows over the next several years, this will become a common and highly visible problem.

Battery costs are falling and will continue to fall. A replacement that costs $15,000 today may cost $7,000 in 2030. But you are buying today’s car at today’s replacement cost risk — not the future’s.

Five-Year Total Cost

The comparison below is $45,000 EV vs. $39,000 ICE vehicle, reflecting 2026 transaction prices. Three scenarios are shown because where and how you charge determines the outcome more than any other variable.

All figures are conservative midpoint estimates based on data from prior sections. The $7,500 federal purchase credit that was available through late 2025 is deliberately excluded — it is gone, and a fair comparison reflects what a buyer faces today, not last year. Its elimination does mean today’s math is $7,500 worse than it was for a buyer who acted before October 2025.

Cost Item	Scenario A Home, No Upgrade	Scenario B Home + Upgrade	Scenario C Public / Supercharger
Purchase premium	+$6,000	+$6,000	+$6,000
Financing (interest on premium, 7% / 60 mo.)	+$1,100	+$1,100	+$1,100
Insurance differential (5 × $1,000)	+$5,000	+$5,000	+$5,000
Registration surcharge (5 × ~$90 net)	+$450	+$450	+$450
Depreciation differential	+$5,800	+$5,800	+$5,800
Home charging infrastructure	+$1,500	+$5,500	—
Fuel savings (5 years)	−$8,500	−$8,500	−$3,320
Maintenance savings, net of tire wear	−$250	−$250	−$250
Net 5-year cost increase	+$11,100	+$15,100	+$14,780

Scenario A — Home charging, existing wiring (charger install only). Best realistic case for an owner-occupant with a modern panel. +$11,100 vs. ICE over 5 years.

Scenario B — Home charging, panel upgrade required. Common for homes built before the 1990s. Midpoint infrastructure cost of $5,500 (charger + panel). +$15,100 vs. ICE over 5 years.

Scenario C — Public / Supercharger primary charging. Applies to renters, condo owners, and anyone without home charging access. Fuel savings shrink to $3,320 (5 × $664). +$14,780 vs. ICE over 5 years.

What these figures do not include:

• Collision repair premium — 20–40% higher per incident, unquantifiable without knowing your accident history
• Rising electricity rates — each $0.05/kWh increase reduces annual fuel savings by ~$185
• Cold-weather range loss — forces additional Supercharger stops for northern drivers
• Any out-of-warranty battery event — a single replacement adds $10,000–$25,000 to the total instantly
• Software subscription costs — variable, but a growing category with no ICE equivalent

The table reflects the predictable, quantifiable costs. Every item in the exclusion list pushes the number higher. None of them push it lower.

What About Leasing?

Leasing is the one scenario where the EV financial case actually holds up for many drivers. It does not eliminate the costs — but it restructures who bears them.

Where leasing works in your favor

• The battery risk vanishes. You return the car at 3 years, well inside the warranty window. The ticking clock that threatens a $10,000–$25,000 out-of-warranty replacement becomes someone else’s problem — specifically, the manufacturer’s.
• Depreciation is priced in, not absorbed. The steep EV depreciation curve is baked into your monthly payment as the difference between the purchase price and the residual value. You are paying for it either way, but with a lease you never own an asset that is losing value faster than you expect.
• The tax credit loophole. After October 2025, the $7,500 federal EV purchase credit was eliminated for most buyers. However, leased vehicles qualified under a separate commercial vehicle provision, allowing dealers to pass some or all of the credit through as a capitalized cost reduction. Buyers lost $7,500; many lessees did not. That is a significant swing that closed much of the price gap.

Where leasing works against you

• You build no equity. Every payment is an expense. At the end of 36 months you own nothing and start over. A purchased ICE vehicle, even a depreciating one, leaves you with an asset you can sell or drive until the wheels fall off.
• Mileage caps punish the drivers who benefit most. Standard leases allow 10,000–12,000 miles per year. High-mileage drivers (the ones for whom EV fuel savings are most meaningful) are exactly the ones who will blow past the cap. Over-mileage penalties of $0.25–$0.35/mile add up fast: 5,000 extra miles per year over a 3-year lease costs $3,750–$5,250 in penalties alone.
• Residual value games. To make monthly payments look attractive, manufacturers sometimes set artificially high residual values. This is great during the lease — lower payments — but it means the buyout price at lease end is above market. You cannot profit from it, and if you want to buy the car, you overpay.
• Insurance and charging costs do not change. You still pay the EV insurance premium every month. You still need a home charger setup or rely on public infrastructure. The structural cost disadvantages do not disappear with a lease.

The bottom line on leasing

Leasing is the most financially rational way to drive an EV for the average driver — provided you stay under the mileage cap and can capture the credit pass-through. You get the fuel savings and the technology experience while the manufacturer absorbs the battery degradation and depreciation risk. But you are renting, not building wealth, and the moment your mileage exceeds the cap, the math collapses quickly.

If you drive fewer than 12,000 miles a year, have home charging, and can get the credit passed through by the dealer: a lease is the honest financial choice. If you drive more than that, buying still does not pencil out, and leasing becomes expensive. In that case, a fuel-efficient ICE vehicle remains the most economical option by a wide margin.

Environmental Impact

While not directly a cost issue, it is often misunderstood. Many EV supporters inject environmental arguments to justify the higher cost. The reality: most electricity still comes from fossil fuels. This is slowly changing, but will remain true for many years because renewable energy sources cannot keep up with demand — and in many cases are not yet cost-effective (a subject for another article).

Bottom Line

Who actually saves money?

An EV makes economic sense only if all of these conditions are true:

• You drive a lot (20,000+ miles/year) — amortizes the premium
• You charge at home on cheap power (under $0.15/kWh)
• You keep the car long-term, not just 5 years
• You buy a lower-cost model (Model 3 SR, Bolt, Equinox EV) where the premium is small
• You bought before October 1, 2025, and got the $7,500 federal credit

If any of the above is not true, the math turns against you fast.

Conclusion

• EVs are not a wallet decision. They are a values decision dressed up as a wallet decision.
• The fuel is cheaper; everything else is more expensive.
• The federal subsidy that helped close the gap is gone.
• The battery clock is ticking from the day you drive off the lot.
• You are not saving money — you are shifting where it is spent: away from oil companies, and toward Tesla, your insurer, and a used-car market that will consume your resale value.

Buy an EV if you want one, but don’t pretend it’s a financial decision.