“Sporty” EVs: Instant Torque Is Not Character

Over the past few years, spending time around clubs and enthusiasts, I’ve had the chance to drive a number of electric cars marketed as sporty, or more precisely as having “a sporting character.” I’m not talking about supercars here, but about the sedans and crossovers that manufacturers never quite dare to call sports cars, as though they knew the word didn’t fit.

Let me concede the obvious up front: a few models escape the verdict. The Ioniq 5 N, a properly optioned Taycan, certain Performance variants all show real dynamic engineering. And when a phone manufacturer sets out to beat Porsche at the Nürburgring, you have to be fair about it: the people willing to spend the money are taking this seriously. But these are exceptions, and I’ll come back to them, because they tell you a great deal about everything else. What follows is about the production electric cars with sporting pretensions being sold today, not about track-prepped machines stripped bare and running slicks.

After all those drives, the conclusion keeps repeating itself: there’s plenty of shove, but rarely any sport.

The Tire First, the Chassis Second

To protect range and ride comfort, most of these cars ship on “eco,” “comfort,” or “efficient” rubber. This is not a minor detail. A tire designed to cut rolling resistance has neither the lateral stiffness nor the precision of a genuine performance tire. It doesn’t build temperature the same way, it won’t hold an angle, and it tells you nothing through the wheel.

I’ve written before, after restoring my E36 M3, about how completely a tire can rewrite a car’s character on its own. Here it works in the opposite direction, and the manufacturer then tunes the chassis to match that factory fitment. The outcome follows logically: a filtered, cautious platform calibrated around an envelope that was never meant to be dynamic. A non-sporting tire plus a non-sporting chassis equals a non-sporting car.

You can of course fit a Pilot Sport EV or a P Zero Elect, sometimes standard on the more muscular trims. But that moves the problem rather than solving it. An electric car weighing well over two tons puts its load through four contact patches of maybe five square inches each. Drive hard and the compound falls out of its working range within two or three laps, then starts greasing. A tire isn’t just a fitment decision, it’s a thermal budget, and mass spends it first.

That mass gets paid for elsewhere, too. I’ve argued that structural rigidity matters more than either power or lightness, and a battery pack bonded into the floor does deliver a remarkably stiff shell. But stiff and heavy is still heavy: two and a half tons doesn’t cancel out the coherence of a 2,456-pound A110 S, it simply competes in a different sport.

The Wall at 60 mph: Field Weakening Before the Battery

The standard line is that an electric motor, unlike a combustion engine with its power curve, accelerates in a perfectly linear fashion thanks to torque available from zero. In practice this stops being true the moment the first surge is over.

Every one of them I’ve driven puts on a convincing show from a standing start to 60 mph. Past that point, and emphatically past 90 or 125 mph, they get comprehensively walked by combustion rivals of equivalent output. The dominant cause is not the battery, contrary to what you usually read. It’s the motor itself.

A synchronous machine has a base speed, below which it delivers peak torque at a constant value. Above it, back-EMF climbs toward the pack’s available voltage, so to keep raising motor speed the inverter has to weaken the magnetic flux. This is field weakening (défluxage). Torque then falls off as 1/N, power plateaus, and eventually declines as iron losses and eddy-current losses mount. Meanwhile aerodynamic drag rises with the square of speed, and the power needed to overcome it with the cube. The two curves cross, and the result is that wall you feel physically, right through your back.

Layered on top of that are voltage sag under heavy current draw, thermal derating, and the limits the control strategy imposes on peak power. These aggravate the wall. They don’t create it.

The proof by counterexample is a single model: the Taycan, with its two-speed rear transaxle. Same chemistry, same battery physics, and a dramatically better 60-to-125. So the problem isn’t the cell, it’s the near-universal choice of a single fixed ratio expected to cover everything from a standstill to 155 mph on its own. Which means this isn’t a teething trouble that better cells will eventually cure. It’s a transmission compromise, accepted deliberately for efficiency, weight, and simplicity.

The 0 to 60 impresses. The 60 to 125 tells a very different story, and top speed hardly needs mentioning.

Performance That Depends on the Gauge and the Thermometer

Worse still, none of this performance is constant. It swings with state of charge, pack temperature, and battery health.

Over a lap of the Nordschleife, the car that leaves the first corner and the car that arrives at the last one are not the same machine. The pack heats up, the software pulls power, and the shove withers. Drive hard enough and thermal saturation arrives long before the pack actually runs out of energy. This is not some fringe phenomenon: Formula 1’s hybrid era ran into its own version of it, with simulations showing cars arriving at the end of long straights with the battery already spent.

The rhythm of a track day suffers accordingly. Fifteen or twenty minutes of running, then a recharge made slower by the fact that the pack is already hot and the system is busy protecting its cells. And the ultra-fast charging we keep being promised remains, for now, an industrial mirage: the power delivery and heat rejection problems don’t evaporate because a press release says so. A combustion car strings sessions together without a thought, a fill-up takes three minutes, and the only real constraints are the brakes and the tires.

Combustion engines fade too, of course, but along a legible path: oil temperature, brake wear, tire pressures. You anticipate it, you manage it, it becomes part of the driving. In an EV, battery chemistry sets the pace, and it rarely announces itself in advance.

Braking: Fade Is Not the Worst of It

Genuinely useful day to day and occasionally uncanny, regenerative braking runs out of answers quickly when you start pushing. On track, under thermal load, the pack heats and the software cuts regeneration abruptly. The friction brakes are then asked to absorb, alone, the deceleration of well over two tons.

And the problem doesn’t stop at fade. An EV’s friction brakes are specified on the assumption that regen will handle the vast majority of everyday stopping: modest discs, drums at the rear on some models, pads that are so rarely worked they never properly bed in. The day they’re actually asked to do the job, they’re learning it on the spot.

But the real issue lies elsewhere. Almost all of these cars are brake-by-wire: the pedal expresses an intention, and the software apportions it between regeneration and friction. That blend shifts with state of charge, pack temperature, and speed. So the same pedal travel will not produce the same deceleration twice. And driving at the limit doesn’t ask for stopping power, it asks for repeatability: knowing, corner after corner, exactly what that third of pedal travel is worth. It’s precisely the argument about physical controls versus software interfaces, transposed onto the single most critical control in the car.

The everyday version of the problem is more telling still. Start down a mountain pass with a full battery: the pack can absorb nothing, regen is essentially absent, and everything lands on the discs. Same car, same road, two different machines depending on what time you set off.

What You Don’t Feel

This may be the heart of the matter, and it’s the part nobody talks about.

In a combustion car, information reaches you from every direction. Engine note tracks engine load, which lets you time a corner exit by ear without looking at anything. Revs climb and you know where you are in the usable band. There’s a gear to choose, a weight transfer to provoke by lifting, a left foot with something to do. The car talks, and driving it consists largely of listening. I’ve tried elsewhere to describe the moment when the driver, the machine, and the road stop being three separate things; that moment rests entirely on this dialogue.

In an electric car, all of it vanishes. What’s left is a rheostat with an excellent response and nothing to say, and one you cannot know will still be delivering in ten seconds what it’s delivering right now. You go quickly without ever really driving. That is the “character” the brochures advertise, and it is nowhere to be found.

What Electric Does Better, and Deserves Credit For

It would be dishonest to stop there, because in several respects the electric architecture is superior, and not marginally so.

The center of gravity sits very low, with the pack laid flat across the floor, so body roll is contained naturally without resorting to punishing anti-roll bars. Torque vectoring is instantaneous and far finer than anything a mechanical differential can manage, because it waits on no hydraulic actuator. Driveline inertia is close to nil, which allows traction corrections at speeds no combustion powertrain can approach. And the throttle response, taken on its own, is beyond reproach.

So the problem isn’t the technology. The problem is what gets done with it when range remains the first commandment.

Conclusion: Speed Is Not Sportiness

Motorsport, even at the amateur level, is not a stopwatch reading from a standing start. It’s a whole balance: turn-in, grip, consistency, braking endurance, heat management, the ability to repeat an effort. Measured on that ground, most “sporting character” EVs remain what they are: very fast, very heavy, very efficient cars that are rarely sports cars.

None of this is reactionary nostalgia. Edison already dreamed of putting the world on electric power, and his failure came down to infrastructure and chemistry, not to the idea. What’s missing today is identifiable and therefore fixable: less mass, a multi-speed transmission to escape the single-ratio compromise, thermal management sized for sustained use rather than for the homologation cycle, and brakes designed to work alone instead of playing backup to regen. Nothing exotic, just engineering trade-offs the market hasn’t yet demanded. Assuming, that is, that manufacturers are still trying to build a car and not a $600,000 design object.

One model deserves the last word. The Ioniq 5 N simulates gears and an engine note. The reflex is to call it a gimmick, but the admission buried in it is fascinating: Hyundai conceded that sensation is part of the very definition of sportiness, and decided it had to be restored, artificially if necessary. That may well be the real question of the coming decade. If the simulation becomes good enough that you can’t tell the difference from the driver’s seat, will there be anything left to object to?