A relative told me she’d never buy an electric car because “you can’t drive them anywhere.” When I asked how far she drives on a typical day, the answer was twelve miles. Round trip. This is the disconnect we’re dealing with: people who drive 3,000 miles a year are convinced they need 400 miles of range. Meanwhile, Nissan is reportedly working on a city EV with 259 kilometers (about 161 miles) of WLTP range and a price tag under $25,000. The immediate reaction: “That’s not enough range.” But is that actually true, or have we internalized a myth?
The Claim: Nobody Will Buy a Short-Range EV
The belief goes like this: any EV with less than 250 miles of range is a non-starter. It won’t sell. People need the flexibility to road trip at a moment’s notice, and anything less than three hours of highway driving between charges is unacceptable. This conviction is so strong that automakers spend billions adding battery capacity most buyers will never use.
The Nissan Pixo EV would offer 259 kilometers (about 161 miles) of WLTP range from a roughly 27.5 kWh lithium-iron-phosphate battery pack. WLTP figures tend to run optimistic, so that works out to roughly 130 miles of real-world driving in mixed conditions, and closer to 100 miles in cold-weather highway driving. The vehicle itself is a compact five-door city car in the sub-150-inch class with modest power output, designed for European markets. Production would happen at Renault’s Novo Mesto plant in Slovenia, sharing a simplified platform with the Renault Twingo E-Tech and Dacia Spring. The claim is that this range specification is inadequate for modern buyers.
Where the Myth Originated
The anxiety comes from real experience. The first Nissan Leaf, launched in 2010, had a 24 kWh battery rated for 73 miles EPA. That battery, which lacked active thermal management, degraded quickly in hot climates, sometimes losing 20% of capacity in a few years. Owners who bought the car expecting 70 miles of range found themselves with 55 miles, then 50 miles. Range anxiety wasn’t theoretical. It was watching the battery bars disappear.
That experience created a mental model: you need a buffer. If the car says 200 miles, you might get 160. If it says 100 miles, you’re gambling. The automotive press amplified this. Every EV review for a decade included a range test, often in cold weather, showing real-world numbers well below the EPA rating. The message landed: advertised range is optimistic, so buy more than you think you need.
Add to that the infrastructure problem. In 2015, finding a working DC fast charger outside California was an adventure. Running low on charge meant hoping the single ChargePoint station at the grocery store wasn’t broken or occupied. The rational response was to buy maximum range to avoid public charging entirely. This made sense when public charging was unreliable and battery degradation was steep.
What Actual Driving Data Shows
The U.S. Department of Transportation’s National Household Travel Survey covers a large national sample of households. The median daily vehicle miles traveled is around 30 miles, with the mean somewhat higher, skewed upward by long-distance drivers. The overwhelming majority of individual vehicle trips are under 10 miles, and even the 90th percentile daily drive is well under 100 miles.
European data tracks similarly. The average daily distance driven in the EU is roughly 35 kilometers, about 22 miles. In Italy, where the Dacia Spring starts around €17,900 and the Renault Twingo around €20,000, the typical urban driver covers less than 40 kilometers per day. A vehicle with 259 kilometers of WLTP range covers roughly six average days of driving on a single charge.
The capital allocation question becomes clear when you price battery capacity. A 27.5 kWh pack at current LFP cell prices costs roughly $2,500 to $3,000 at the pack level. A 60 kWh pack costs perhaps $5,500 to $6,500. The delta is around $3,000 in direct costs, plus the structural and thermal management systems to support the larger pack. That $3,000 is roughly the difference between a $20,000 city car and a $23,000 city car before any margin.
If the vast majority of daily trips fit within 100 miles of range, you are asking buyers to finance an extra $3,000 in battery capacity they use a handful of times a year. That capital could go into faster charging hardware. The reported Nissan Pixo EV includes DC fast charging, which for a pack this size can reasonably add roughly 100 miles in a 20-to-30-minute stop. That is a coffee-break top-up to cover the small share of trips that exceed the daily driving pattern.
The Kernel of Truth
The concern is not irrational. There are use cases where 161 miles is genuinely insufficient. Rural drivers who commute 60 miles each way on two-lane highways cannot rely on a vehicle that delivers around 100 miles in winter conditions. Families with one car who need to cover both the daily commute and weekend trips to visit relatives 150 miles away face a real constraint.
Cold weather performance remains a legitimate concern. A 27.5 kWh pack in 20°F temperatures with highway driving might deliver 90 miles of usable range. If your commute is 50 miles one way, that is too close to the edge. Battery degradation, while much improved with LFP chemistry, still reduces capacity over time. A car that starts with 130 miles of real range might have well under that after eight years.
The charging infrastructure assumption also matters. If you cannot charge at home, a short-range EV becomes significantly less practical. Street parking in urban Europe, where the Nissan Pixo EV would be sold, often means relying on public charging. That works if chargers are plentiful and reliable, but introduces inconvenience that does not exist with a longer-range vehicle.
Why the Misperception Persists
Automakers benefit from the myth because battery capacity is the easiest way to justify price premiums. A manufacturer can charge $5,000 more for a 75 kWh battery versus a 50 kWh battery and point to the range number as tangible value. The buyer sees 300 miles versus 200 miles and feels the difference, even if they never use it. Marketing a 400-mile EV is easier than marketing a 200-mile EV with superior charging speed or efficiency.
Media coverage reinforces the pattern. Road trip reviews get clicks. Nobody writes “I drove to work and back for three months, the battery was always full, it was boring.” The stories are about cross-country travel, about finding the last charging station before the desert, about running the battery to 5%. These edge cases become the mental model.
The automotive industry is also conservative. Tesla proved buyers would pay for long-range EVs, so every competitor defaulted to that playbook. Building a 60 kWh EV is safer than building a 30 kWh EV and defending the strategy to dealers, reviewers, and the CFO. The capital goes where the established demand is, not where the usage data suggests it should go.
What Is Actually True
Most drivers do not need 300 miles of range. They need enough range to cover daily driving plus a buffer, combined with charging that is fast enough and convenient enough to handle the exceptions. A 130-mile real-world range vehicle with reliable DC fast charging and home charging access covers the overwhelming majority of driving needs for urban and suburban households.
The economics make sense when you stop financing unused capacity. A $20,000 city EV with 161 WLTP miles competes on total cost of ownership against a more expensive compact sedan. The fuel savings can run well over $1,000 per year at European electricity and petrol prices, and maintenance costs typically drop by a few hundred dollars annually. The shorter-range EV pays for itself faster because you spent less capital upfront on battery you rarely deeply discharge.
The market will segment. Long-range EVs will serve buyers who cannot charge at home, who drive rural routes, or who take frequent road trips. Short-range EVs will serve urban households with home charging and a second vehicle for longer trips, or buyers whose actual driving fits within the battery’s capability. The myth dies when buyers compare their driving logs to the spec sheet and realize the numbers work.