Reality check on electric cars

Grok:
This isn't a full rejection of electrification—many companies still invest in EVs long-term—but a pragmatic recalibration.

Billions in EV-related losses (e.g., tens of billions across Ford, GM, Stellantis, Honda) have driven the pivot to profitable, in-demand HEVs as a bridge (or longer-term) solution.

Not a full rejection, but enough to indicate that without massive government intervention and forcing EV's on the public they will remain a niche market making up something like 5 to 10% of car sales at most.
Hybrids help meet emissions rules and consumer needs without full EV infrastructure dependence.

I see this, at this point as irrelevant. We've made vehicles about as pollution free as we are going to and any subsequent improvements hit the Law of Diminishing Returns.
In short, the data and corporate strategies show a clear industry-wide emphasis on non-plug-in hybrids as EV hype meets market realities.

Because they can't simply abandon EV's and hybrids due to government over-regulation of the market and recognize that hybrids are the least objectionable choice to stay in business. That is, Leftist environmentalism using government force is fucking the auto market.
This trend appears likely to continue into 2026 and beyond unless EV costs, range, and infrastructure improve dramatically.
Well, since none of the latter is going to happen any time soon, the trend away from EV's will be the norm to the extent manufacturers can skirt government forcing them to make them.
 
Not a full rejection, but enough to indicate that without massive government intervention and forcing EV's on the public they will remain a niche market making up something like 5 to 10% of car sales at most.

Massive government intervention isn't likely to vanish, IMO.

I see this, at this point as irrelevant. We've made vehicles about as pollution free as we are going to and any subsequent improvements hit the Law of Diminishing Returns.

Meh. Maybe, maybe not.

Because they can't simply abandon EV's and hybrids due to government over-regulation of the market and recognize that hybrids are the least objectionable choice to stay in business. That is, Leftist environmentalism using government force is fucking the auto market.

I suspect that keeping automakers in business is not a leftist priority.

Well, since none of the latter is going to happen any time soon, the trend away from EV's will be the norm to the extent manufacturers can skirt government forcing them to make them.

Could be. I really like the new Honda Prelude.
 
How many mind-blowing improvements in battery technology have taken place in the last 10 years?
Here's your sign:
:stup2:
the improvements in battery tech, have been compared to what it was pre Tesla launch are MASSIVE.

If you go back in this chat, almost 100% issues that Terry and others were citing as the reasons batteries could not improve enough to be competitive with ICE have been improved.

- Cold weather ability - FIXED and still improving
- Charging time - FIXEd and still improving
- Range issues - FIXED and still improving.

Just go look back in this thread and you will see those were the big thread and in just the time this thread has existed we have seen MASSIVE jumps in all three areas.

Now the main complaint you will see @T. A. Gardner try to push is that 'if you drive in the most remote rural regions you will struggle to find a charging station'.
 
Massive government intervention isn't likely to vanish, IMO.

Not as long as the Left is in power. Remove the Left from power, and EV's go away the next day.
Meh. Maybe, maybe not.

No maybe about it. Right now, with ICE vehicles, the percentage of air pollutants removed from is somewhere over 90% of the total produced.
I suspect that keeping automakers in business is not a leftist priority.

Economic success and wealth building are never Leftist priorities.
Could be. I really like the new Honda Prelude.
I drive a truck because I need a truck. One look at the bed of mine tells you it gets used and used hard and regularly.
 
the improvements in battery tech, have been compared to what it was pre Tesla launch are MASSIVE.

If you go back in this chat, almost 100% issues that Terry and others were citing as the reasons batteries could not improve enough to be competitive with ICE have been improved.

- Cold weather ability - FIXED and still improving
- Charging time - FIXEd and still improving
- Range issues - FIXED and still improving.

Just go look back in this thread and you will see those were the big thread and in just the time this thread has existed we have seen MASSIVE jumps in all three areas.

Now the main complaint you will see @T. A. Gardner try to push is that 'if you drive in the most remote rural regions you will struggle to find a charging station'.
Look at that video I posted up a few posts back. People don't want EV's and when given a choice, they don't choose them.
 
Not as long as the Left is in power.

Plenty of self-described "conservatives" bought into the EV mania.

Remove the Left from power, and EV's go away the next day.

Good luck.

No maybe about it. Right now, with ICE vehicles, the percentage of air pollutants removed from is somewhere over 90% of the total produced.

Grok:


Yes, the claim is broadly accurate for key regulated pollutants in modern gasoline ICE vehicles.

Modern internal combustion engine (ICE) vehicles, particularly gasoline-powered ones with three-way catalytic converters (TWCs), oxygen sensors, and advanced engine controls, achieve very high conversion efficiencies for the main tailpipe pollutants: hydrocarbons (HC), carbon monoxide (CO), and nitrogen oxides (NOx). These systems typically convert over 90%—often 95–99%—of these pollutants produced by combustion into less harmful substances (like CO₂, water, and nitrogen).

Key Supporting Data​

  • EPA figures: New passenger vehicles are roughly 98–99% cleaner for common tailpipe pollutants (HC, CO, NOx, and particulates) compared to 1960s/1970s models without modern controls. Compared to 1970 models specifically, today's cars, SUVs, and trucks are about 99% cleaner.
  • Catalytic converter efficiency: Properly functioning converters can remove up to 98% of pollutants from the exhaust stream. Autocatalysts convert over 90% of harmful polluting gases.
  • Sources like Harvard and others note similar figures (up to 98% removal).
This is what the claim refers to: the percentage of pollutants produced by combustion that are removed/ converted before exiting the tailpipe.

Important Caveats​

  • Not 100% across all pollutants or conditions: Efficiency is highest once the catalyst is hot ("light-off" temperature, typically ~400°F/200°C+). Cold starts produce more emissions until the converter warms up. Particulate matter (PM) reduction is lower in gasoline engines without a gasoline particulate filter (GPF), and diesels use additional filters (DPF) for better PM control.
  • Real-world vs. lab: Modern vehicles meet strict standards (e.g., EPA, Euro 6), but actual performance depends on maintenance, fuel quality, driving conditions, and age. Malfunctioning converters drastically reduce effectiveness.
  • Overall impact: These controls (plus cleaner fuels) have dramatically improved urban air quality since the 1970s, even as vehicle miles traveled have increased.
The claim holds up well for the primary smog-forming pollutants in well-maintained modern gasoline cars. It's a testament to decades of emissions engineering.

Economic success and wealth building are never Leftist priorities.

I suspect that you're correct.

I drive a truck because I need a truck. One look at the bed of mine tells you it gets used and used hard and regularly.

What's that got to do with my preference?
 
Look at that video I posted up a few posts back. People don't want EV's and when given a choice, they don't choose them.
The arguments i have waged in this thread are over your lies and misinformation about the technology.

Whether or not you can dig up 'preference articles' and someone else can dig up the opposite is of no interest to me.

I do not care if you prefer Vanilla ice cream and someone else prefers chocolate, and given choice neither of you would buy the other. But i would care if you started to lie that one or the other is not 'ice cream' and only the one you prefer is. I would dispel that lie too.
 
the improvements in battery tech, have been compared to what it was pre Tesla launch are MASSIVE.

If you go back in this chat, almost 100% issues that Terry and others were citing as the reasons batteries could not improve enough to be competitive with ICE have been improved.

- Cold weather ability - FIXED and still improving
- Charging time - FIXEd and still improving
- Range issues - FIXED and still improving.

Just go look back in this thread and you will see those were the big thread and in just the time this thread has existed we have seen MASSIVE jumps in all three areas.

Now the main complaint you will see @T. A. Gardner try to push is that 'if you drive in the most remote rural regions you will struggle to find a charging station'.
Bihh, you ain't doin' nothin' but lying your ass off.
Cold? Not fixed.
Range? Not fixed. Well, it is fixed, and that's where the problem is, but you're just a lying retard.
The range on EVs is fixed whereas an ICE engine can refill and go from wherever there's a gas station.
No cold issues are fixed with batteries, you fucking moron, they lose range or fail in cold. STFU.
Lord help ya if you're driving in a cold area with an EV and need heat. :(
It's just not viable, dude. :dunno:
Energy can neither be created not destroyed.
It can be transferred.
It takes more energy to heat an electric car than to drive it.
 
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Bihh, you ain't doin' nothin' but lying your ass off.
Cold? Not fixed.
Wrong and stupid. There are MULTIPLE new innovations over coming the cold weather challenges.

"...Winter weather typically hurts the performance of modern EVs because freezing temperatures cause severe drops in battery capacity. Dongfeng proved that its battery packs perform well in extreme cold earlier this year. Despite ambient temperatures dropping down to -30°C, the battery successfully retained more than 74% of its electrical charge...." cite

Range? Not fixed.

WRONG and did i mention, you're stupid?

China’s CATL reveals 621-mile EV battery, under-7-minute charging to challenge BY


China’s CATL on Tuesday introduced a new set of electric vehicle battery technologies, including a lighter battery pack rated for a 1,000-km (621-mile) driving range and an upgraded fast-charging battery that can go from 10 percent to 98 percent in under seven minutes....

Well, it is fixed, and that's where the problem is, but you're just a lying retard.
The range on EVs is fixed whereas an ICE engine can refill and go from wherever there's a gas station.


No cold issues are fixed with batteries, you fucking moron, they lose range or fail in cold. STFU.
Lord help ya if you're driving in a cold area with an EV and need heat. :(
It's just not viable, dude. :dunno:
Energy can neither be created not destroyed.
It can be transferred.
It takes more energy to heat an electric car than to drive it.
It is viable and you are stupid and wrong. See innovations already posted by me prior.
 
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Wrong and stupid. There are MULTIPLE new innovations over coming the cold weather challenges.

"...Winter weather typically hurts the performance of modern EVs because freezing temperatures cause severe drops in battery capacity. Dongfeng proved that its battery packs perform well in extreme cold earlier this year. Despite ambient temperatures dropping down to -30°C, the battery successfully retained more than 74% of its electrical charge...." cite


WRONG and did i mention, you're stupid?

China’s CATL reveals 621-mile EV battery, under-7-minute charging to challenge BY


China’s CATL on Tuesday introduced a new set of electric vehicle battery technologies, including a lighter battery pack rated for a 1,000-km (621-mile) driving range and an upgraded fast-charging battery that can go from 10 percent to 98 percent in under seven minutes....





It is viable and you are stupid and wrong. See innovations already posted by me prior.
Buy you an EV and go out driving in the middle of winter in Minnesota then, retard.
Let's let Darwinism take its course. :rolleyes2:
 
Buy you an EV and go out driving in the middle of winter in Minnesota then, retard.
Let's let Darwinism take its course. :rolleyes2:
"... Researchers have developed a revolutionary "soft solvent" electrolyte that allows lithium-ion batteries to operate and fast-charge in extreme freezing temperatures. By reducing the binding energy between the electrolyte and lithium ions, it enables rapid ion transport, preventing battery death and extending range in sub-zero climates.
... allowing the battery to maintain conductivity down to -60 °C. [1, 2]
[1, 2, 3, 4]... "

"...Fast Charging: The addition of specialized additives builds a thin, protective layer on the electrodes. This supports a quick flow of ions, enabling rapid charges (around 15 minutes) even at -50 °C..." https://jijianxu.com/cold-weather-car-battery/
 
"... Researchers have developed a revolutionary "soft solvent" electrolyte that allows lithium-ion batteries to operate and fast-charge in extreme freezing temperatures. By reducing the binding energy between the electrolyte and lithium ions, it enables rapid ion transport, preventing battery death and extending range in sub-zero climates.
... allowing the battery to maintain conductivity down to -60 °C. [1, 2]
[1, 2, 3, 4]... "

"...Fast Charging: The addition of specialized additives builds a thin, protective layer on the electrodes. This supports a quick flow of ions, enabling rapid charges (around 15 minutes) even at -50 °C..." https://jijianxu.com/cold-weather-car-battery/
That's some Fantasyland bullshit, dumbass. One of us knows how things like that work, and it ain't you.
 
That's some Fantasyland bullshit, dumbass. One of us knows how things like that work, and it ain't you.
No. Those are from peer reviewed research studies.

You are the typical ignorant Majesty magat who refuses to believe technology can improve and that innovation is possible. Just like Terry your believe technology is locked in the state you knew it to be historically and you assume any change can't happen.

That is because you're stupid.
 
Grok:


The main remaining obstacles to mass acceptance of plug-in EVs (primarily battery electric vehicles or BEVs, plus plug-in hybrids) in the USA as of mid-2026 include a mix of economic, infrastructural, practical, and policy-related factors. EV sales grew rapidly earlier but stalled or declined in 2025 (down ~4% nationally after a strong 2024), with market share around 6-10% of new light-duty vehicles.

Here are the key barriers, based on recent surveys, market data, and analyses:

1.​

  • New EVs remain more expensive than comparable gas cars on average (e.g., ~$5,000–$7,000+ premium in transaction prices around $54k–$55k for EVs vs. lower for ICE vehicles).
  • The expiration of federal tax credits (e.g., the $7,500 incentive ended in September 2025) removed a major subsidy, hurting demand especially at the end of 2025.
  • Battery costs have fallen significantly, and used EV prices are approaching parity with gas cars, but new vehicle sticker shock persists for many buyers. High repair/replacement costs for batteries are also a top concern (cited by ~60% in surveys).
  • US preference for larger SUVs/trucks (which dominate EV offerings) pushes prices higher due to bigger batteries.

2.​

  • Public charging availability and reliability: Lack of convenient stations (especially DC fast chargers for long trips) is consistently one of the top barriers in surveys (~48–56% of respondents). Rural gaps, reliability issues (uptime, broken chargers), unclear pricing, and app fragmentation create "charge anxiety."
  • Infrastructure is expanding (e.g., DC fast ports grew ~33% in 2025 to ~68k), but it lags behind needs for mass adoption, particularly for apartment dwellers or those without home charging.
  • Home charging is ideal for most (majority of charging happens there), but not feasible for everyone; policy uncertainty has slowed some federal funding (e.g., NEVI program issues).

3.​

  • Perceived insufficient range for long trips (~42–57% concern) and charging times (much longer than refueling) remain big hurdles, even as average EV ranges approach 300 miles.
  • Cold weather reduces range; towing and heavy use (e.g., trucks) are still challenging for many models.
  • Surveys show these perceptions deter buyers more than actual experience for current owners.

4.​

  • Shifts in federal policy (e.g., expired incentives, changes to fuel economy standards, manufacturing investment pullbacks totaling ~$20B) have created turbulence and slowed momentum.
  • Limited availability of affordable models (fewer low-cost options compared to China/Europe) and automaker pullbacks on aggressive EV targets.
  • Hybrids are capturing more demand as a lower-risk bridge.

5.​

  • Consumer awareness and perceptions: Doubts about technology, safety (e.g., fires, though rare), resale value, and suitability for needs. Many non-owners overestimate problems that owners adapt to.
  • Grid and supply chain: Potential strains from high demand, though home/work charging handles most needs. Critical minerals and battery supply remain longer-term considerations.
  • Regional disparities: Stronger adoption in some coastal/urban areas; weaker in rural Midwest/South.
Progress is happening: Battery costs continue declining (aiding price parity), fast-charging networks are growing, more models are available (~70+ BEVs), and operating costs (fuel + maintenance) are significantly lower for EVs. Many barriers are diminishing over time, but mass acceptance (e.g., 30–50%+ share) requires cheaper vehicles, denser reliable public charging, clearer policy signals, and addressing perceptions.

Overcoming these will likely depend on market forces (falling prices, competition), private investment in charging, and any state-level or future policy support. Hybrids may continue bridging the gap in the near term.
 
Grok:


The main remaining obstacles to mass acceptance of plug-in EVs (primarily battery electric vehicles or BEVs, plus plug-in hybrids) in the USA as of mid-2026 include a mix of economic, infrastructural, practical, and policy-related factors. EV sales grew rapidly earlier but stalled or declined in 2025 (down ~4% nationally after a strong 2024), with market share around 6-10% of new light-duty vehicles.

Here are the key barriers, based on recent surveys, market data, and analyses:

1.​

  • New EVs remain more expensive than comparable gas cars on average (e.g., ~$5,000–$7,000+ premium in transaction prices around $54k–$55k for EVs vs. lower for ICE vehicles).
  • The expiration of federal tax credits (e.g., the $7,500 incentive ended in September 2025) removed a major subsidy, hurting demand especially at the end of 2025.
  • Battery costs have fallen significantly, and used EV prices are approaching parity with gas cars, but new vehicle sticker shock persists for many buyers. High repair/replacement costs for batteries are also a top concern (cited by ~60% in surveys).
  • US preference for larger SUVs/trucks (which dominate EV offerings) pushes prices higher due to bigger batteries.

2.​

  • Public charging availability and reliability: Lack of convenient stations (especially DC fast chargers for long trips) is consistently one of the top barriers in surveys (~48–56% of respondents). Rural gaps, reliability issues (uptime, broken chargers), unclear pricing, and app fragmentation create "charge anxiety."
  • Infrastructure is expanding (e.g., DC fast ports grew ~33% in 2025 to ~68k), but it lags behind needs for mass adoption, particularly for apartment dwellers or those without home charging.
  • Home charging is ideal for most (majority of charging happens there), but not feasible for everyone; policy uncertainty has slowed some federal funding (e.g., NEVI program issues).

3.​

  • Perceived insufficient range for long trips (~42–57% concern) and charging times (much longer than refueling) remain big hurdles, even as average EV ranges approach 300 miles.
  • Cold weather reduces range; towing and heavy use (e.g., trucks) are still challenging for many models.
  • Surveys show these perceptions deter buyers more than actual experience for current owners.

4.​

  • Shifts in federal policy (e.g., expired incentives, changes to fuel economy standards, manufacturing investment pullbacks totaling ~$20B) have created turbulence and slowed momentum.
  • Limited availability of affordable models (fewer low-cost options compared to China/Europe) and automaker pullbacks on aggressive EV targets.
  • Hybrids are capturing more demand as a lower-risk bridge.

5.​

  • Consumer awareness and perceptions: Doubts about technology, safety (e.g., fires, though rare), resale value, and suitability for needs. Many non-owners overestimate problems that owners adapt to.
  • Grid and supply chain: Potential strains from high demand, though home/work charging handles most needs. Critical minerals and battery supply remain longer-term considerations.
  • Regional disparities: Stronger adoption in some coastal/urban areas; weaker in rural Midwest/South.
Progress is happening: Battery costs continue declining (aiding price parity), fast-charging networks are growing, more models are available (~70+ BEVs), and operating costs (fuel + maintenance) are significantly lower for EVs. Many barriers are diminishing over time, but mass acceptance (e.g., 30–50%+ share) requires cheaper vehicles, denser reliable public charging, clearer policy signals, and addressing perceptions.

Overcoming these will likely depend on market forces (falling prices, competition), private investment in charging, and any state-level or future policy support. Hybrids may continue bridging the gap in the near term.
Leaves off that resale value for EV's is for shit.

Home charging at level 2 will set you back anywhere from about $1000 to $5000 depending on what kind of deal you can get with a pro or contractor. My charge is about $1500 right now. The charger is about $500 (that's at about 10 to 20% off retail which is what I pay). Wiring and other components about $300 to $400. Labor is about $300 to $500 all depending on the length of the run and how everything has to be installed. This assumes your existing service panel can handle the install without a new one. New panel needed because your house is old or it is packed full? Add another $3500 to $4000 to that price tag from me or about $8000 to $10,000 for some contractor that advertises on television.

You don't know a "Guy," you will pay triple to quadruple what I charge.
 
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Leaves off that resale value for EV's is for shit.

Home charging at level 2 will set you back anywhere from about $1000 to $5000 depending on what kind of deal you can get with a pro or contractor. My charge is about $1500 right now. The charger is about $500 (that's at about 10 to 20% off retail which is what I pay). Wiring and other components about $300 to $400. Labor is about $300 to $500 all depending on the length of the run and how everything has to be installed.

You don't know a "Guy," you will pay triple to quadruple what I charge.


Grok:


T.A. Gardner's points are valid concerns for many potential EV buyers, especially on resale value and the real costs of home charging. Here's a balanced, data-driven breakdown as of mid-2026.

Resale Value​

EVs do depreciate faster than most gas vehicles right now, supporting the "for shit" characterization in many cases.

  • Recent data: EVs lose ~57-60% of their value after 5 years on average (vs. lower for many ICE cars). Luxury and some mainstream EVs (e.g., certain Teslas, Mach-E, ID.4) have seen 60%+ drops.
  • Used EV prices have fallen sharply (average around $27k–$35k, narrowing the gap with gas cars to ~$1k–$2k in many segments), driven by new-car price cuts, expiring incentives, lease returns flooding the market, and rapid tech improvements making older models feel outdated.
  • Battery degradation plays a role in buyer hesitation (health below ~80% noticeably hurts value), but real-world data shows most modern batteries degrade slowly (often 8-12% over 10 years or 100k+ miles). Failures are rare within warranty (typically 8-10 years/100k-150k miles).
  • Nuances: Teslas have held value better than many non-Tesla EVs. Used EVs are becoming strong bargains for buyers (great entry point now), but risky for original owners planning to sell soon. The gap is narrowing as the market matures, and lower operating costs (electricity + maintenance) can offset some depreciation over time.
This is a legitimate obstacle to mass adoption—uncertainty about long-term value makes buyers cautious compared to reliable depreciators like Toyotas.

Home Level 2 Charging Costs​

Gardner's breakdown aligns closely with current realities: $1,000–$5,000 total is a realistic range, with his ~$1,500 experience (charger ~$500, wiring/components $300–400, labor $300–500) on the lower/optimistic end for a straightforward job.

Typical 2026 breakdowns:

  • Charger hardware: $300–$900.
  • Installation (labor, wiring, materials, permits): $800–$3,000 average for standard jobs (short run, adequate panel capacity).
  • Total: Often $1,000–$2,750 for many homes; up to $5k–$7k+ if you need a panel upgrade, long conduit run, or complex permitting.
"You don't know a guy" factor: Yes—DIY or buddy deals can save a lot, but professional installation is strongly recommended (and often required for warranties/insurance/safety). Electrician shortages and local rates push costs higher for many. Apartment dwellers or renters face bigger hurdles (no control over installation).

Counterpoints on charging:

  • Most EV owners (70-80%+) primarily charge at home, where it's far cheaper (~1/3–1/2 the cost of gas equivalent, especially off-peak).
  • Many new EVs come with basic Level 1 (120V) capability for free/slow charging, and some buyers skip full Level 2 initially.
  • Incentives or utility rebates sometimes offset costs, though federal ones have changed.

Broader Context for Mass Acceptance​

These are real frictions:

  • Upfront ownership costs (vehicle + charger install) hit harder without subsidies.
  • Resale anxiety amplifies range/charging concerns for fence-sitters.
However, for people with home charging access who keep cars long-term (or buy used), total cost of ownership often favors EVs due to fuel and maintenance savings. The barriers are easing as used prices drop, more affordable models arrive, and charging networks grow—but they're still significant for widespread adoption beyond enthusiasts and urban/suburban buyers with garages. Hybrids sidestep many of these issues for now.

If you're evaluating personally, factors like your driving habits, home setup, and how long you'd own the vehicle matter a lot.
 
Grok:


T.A. Gardner's points are valid concerns for many potential EV buyers, especially on resale value and the real costs of home charging. Here's a balanced, data-driven breakdown as of mid-2026.

Resale Value​

EVs do depreciate faster than most gas vehicles right now, supporting the "for shit" characterization in many cases.

  • Recent data: EVs lose ~57-60% of their value after 5 years on average (vs. lower for many ICE cars). Luxury and some mainstream EVs (e.g., certain Teslas, Mach-E, ID.4) have seen 60%+ drops.
  • Used EV prices have fallen sharply (average around $27k–$35k, narrowing the gap with gas cars to ~$1k–$2k in many segments), driven by new-car price cuts, expiring incentives, lease returns flooding the market, and rapid tech improvements making older models feel outdated.
  • Battery degradation plays a role in buyer hesitation (health below ~80% noticeably hurts value), but real-world data shows most modern batteries degrade slowly (often 8-12% over 10 years or 100k+ miles). Failures are rare within warranty (typically 8-10 years/100k-150k miles).
  • Nuances: Teslas have held value better than many non-Tesla EVs. Used EVs are becoming strong bargains for buyers (great entry point now), but risky for original owners planning to sell soon. The gap is narrowing as the market matures, and lower operating costs (electricity + maintenance) can offset some depreciation over time.
This is a legitimate obstacle to mass adoption—uncertainty about long-term value makes buyers cautious compared to reliable depreciators like Toyotas.

Home Level 2 Charging Costs​

Gardner's breakdown aligns closely with current realities: $1,000–$5,000 total is a realistic range, with his ~$1,500 experience (charger ~$500, wiring/components $300–400, labor $300–500) on the lower/optimistic end for a straightforward job.

Typical 2026 breakdowns:

  • Charger hardware: $300–$900.
  • Installation (labor, wiring, materials, permits): $800–$3,000 average for standard jobs (short run, adequate panel capacity).
  • Total: Often $1,000–$2,750 for many homes; up to $5k–$7k+ if you need a panel upgrade, long conduit run, or complex permitting.
"You don't know a guy" factor: Yes—DIY or buddy deals can save a lot, but professional installation is strongly recommended (and often required for warranties/insurance/safety). Electrician shortages and local rates push costs higher for many. Apartment dwellers or renters face bigger hurdles (no control over installation).

Counterpoints on charging:

  • Most EV owners (70-80%+) primarily charge at home, where it's far cheaper (~1/3–1/2 the cost of gas equivalent, especially off-peak).
  • Many new EVs come with basic Level 1 (120V) capability for free/slow charging, and some buyers skip full Level 2 initially.
  • Incentives or utility rebates sometimes offset costs, though federal ones have changed.

Broader Context for Mass Acceptance​

These are real frictions:

  • Upfront ownership costs (vehicle + charger install) hit harder without subsidies.
  • Resale anxiety amplifies range/charging concerns for fence-sitters.
However, for people with home charging access who keep cars long-term (or buy used), total cost of ownership often favors EVs due to fuel and maintenance savings. The barriers are easing as used prices drop, more affordable models arrive, and charging networks grow—but they're still significant for widespread adoption beyond enthusiasts and urban/suburban buyers with garages. Hybrids sidestep many of these issues for now.

If you're evaluating personally, factors like your driving habits, home setup, and how long you'd own the vehicle matter a lot.
Hey Grok! I'm a pro. I'm retired and just doing it to stay busy. I'm not trying to make a living off it. I do these installs pretty regularly so I know what it costs to do one.
 
Hey Grok! I'm a pro. I'm retired and just doing it to stay busy. I'm not trying to make a living off it. I do these installs pretty regularly so I know what it costs to do one.


Grok:


Got it—thanks for the extra context, T.A. Gardner.

As a retired pro who does these installs regularly just to stay busy (not for full-time income), his ~$1,500 total figure (charger ~$500, wiring/components $300–$400, labor $300–$500) makes perfect sense for straightforward jobs where he knows the homeowner or keeps overhead low.

Current 2026 Reality on Costs​

Recent data aligns closely with his experience for standard installations:

  • Total typical range: $1,000–$2,750 for many single-family homes (including charger).
  • Breakdown:
    • Charger hardware: $300–$800 (his $500 is right in the middle for a solid Level 2 unit).
    • Materials/wiring/breaker/conduit: $200–$500.
    • Labor + permitting: $500–$1,500 for short runs with adequate panel capacity.
  • His ballpark (~$1,500 total) sits comfortably in the realistic lower-to-average end for a clean job (panel has space, run isn't too long, no major upgrades).
Higher costs kick in when:

  • Panel upgrade needed (common in older homes): +$1,300–$4,500.
  • Long wire runs or trenching: +$500–$1,000+.
  • Complex permitting or location-specific rates.
Electrician shortages and full-time business overhead (insurance, marketing, etc.) explain why many quotes come in at "triple or quadruple" what a casual/retired pro like him might charge. Homeowners without connections often pay $2,000–$3,500+ for the same work.

Why This Matters for EV Adoption​


This upfront barrier (on top of the vehicle price) is a real friction point, especially for:

  • First-time buyers without a "guy."
  • Renters or apartment dwellers (limited or no control).
  • Homes needing electrical upgrades.

Many surveys and studies still flag home charging access/cost as a top obstacle alongside range anxiety and public infrastructure.

Offsets that help:

  • Electricity savings over time (often pays back the install in a few years for moderate drivers).
  • Some remaining state/utility rebates or the federal tax credit (30% up to $1,000 in certain cases, though check expiration).
  • Used EVs + basic Level 1 charging as a low-cost entry point.

T.A.'s perspective from the trenches is valuable—real-world installs aren't always the clean national averages you see in reports. If you're considering an EV yourself, getting a couple of local quotes (and asking about his availability 😉) is the best move. Factors like your home's panel, distance to garage, and local rates will dictate the actual number.
 
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