Do you dream of feeling how you are pressed into your seat when you press the gas pedal? Acceleration to “hundreds” in a matter of seconds is the main indicator of the car’s dynamics, which excites both drag racing fans and supercar fans. In 2026, the record holders are updated annually: electric cars are catching up with gasoline monsters, and tuning studios are squeezing incredible numbers out of production models.
But how to objectively compare acceleration time? Manufacturers often measure it under ideal conditions - on a prepared track, with traction control off and a professional racer at the wheel. In reality, the result is influenced air temperature, tires, car loading and even altitude above sea level. We have collected current data on the fastest production and limited models, and also revealed the secret why some electric cars outperform ICE supercars despite having less power.
TOP 5 production cars with the fastest acceleration to 100 km/h
The official record holders are not only exclusive hypercars worth millions of dollars. The 2026 ranking includes models that can be purchased (albeit with a wait in line). All figures below are manufacturer data, confirmed by independent tests. Car and Driver and MotorTrend.
- 🏆 1st place: Rimac Nevera — 1.85 s (electric car, 1914 hp)
- 🥈 2nd place: Tesla Model S Plaid — 1.99 s (electric car, 1020 hp)
- 🥉 3rd place: Koenigsegg Jesko Absolut — 2.5 s (gasoline, 1600 hp)
- 🔥 4th place: Bugatti Chiron Super Sport 300+ — 2.3 s (gasoline, 1600 hp)
- ⚡ 5th place: Porsche 911 Turbo S — 2.6 s (gasoline, 650 hp)
Please note: Rimac Nevera and Tesla Model S Plaid bypass the legendary Bugatti and Koenigsegg thanks to the instantaneous performance of electric motors. Gasoline supercars take time to spool up the turbos and gearbox, even with a starter system. Launch Control.
| Model | Time 0–100 km/h | Engine type | Power | Price (2026) |
|---|---|---|---|---|
| Rimac Nevera | 1.85 s | Electric | 1914 hp | ~2.2 million € |
| Tesla Model S Plaid | 1.99 s | Electric | 1020 hp | from $120,000 |
| Koenigsegg Jesko Absolut | 2.5 s | Gasoline, 5.0 V8 | 1600 hp | ~$3.3 million |
⚠️ Attention: Prices for exclusive models (for example, Koenigsegg or Bugatti) often do not include taxes, customs and options. Check the final cost with the dealer - it may differ by 20-30% depending on the region.
Why do electric cars accelerate faster than gasoline cars?
The secret lies in torque curve. Electric motors produce maximum torque from 0 rpm, while the internal combustion engine needs to spin up to a certain speed. For example, Tesla Model S Plaid develops 1420 Nm immediately after pressing the pedal, and Bugatti Chiron - “only” 1600 Nm, but only at 2000–6000 rpm.
Second factor - no gearbox. Electric cars do without it thanks to a wide range of engine speeds. There are no delays in switching, no loss of power in the transmission. Gasoline supercars have to use multi-disc clutches and robotic gearboxes with gear preselection, but even this does not compensate for the physical advantage of electricity.
The myth about the “eternal” acceleration of electric cars
In practice, after 150–180 km/h, electric motors begin to lose efficiency due to speed and heating limitations. Gasoline supercars (eg. Koenigsegg or SSC Tuatara) overtake them over long distances due to high maximum speeds (400+ km/h).
- ⚡ Instant moment: 100% traction from the first millimeter of pressing the pedal.
- ⚙️ No checkpoint: No gear change losses (0.1-0.3 s each).
- 🔋 Low center of gravity: Batteries are located in the floor, improving traction.
- 🤖 Electronics: Algorithms
Launch Controlmore accurately than that of an internal combustion engine.
How to achieve record acceleration in a regular car?
Even if you don't have Rimac Nevera, and a modest hatchback, you can reduce acceleration time by 10–30%. The main thing is to understand the physics of the process. Overclocking depends on three factors: engine power, road grip and car weight.
Let's start by preparing the car:
☑️ Checklist for record overclocking
Now the driving technique:
- Press the brake pedal with your left foot (for an internal combustion engine, this will prevent a rollback and allow you to gain momentum).
- With your right foot, increase the speed to
3000–4000 rpm(for turbo engines - up to2500 rpm). - Quickly release the brake while adding gas. On an electric car, just press the pedal to the floor.
- On an internal combustion engine with a manual transmission, shift gears to
6000–6500 rpm(for atmospherics - on7000+ rpm).
⚠️ Attention: Frequent launches from Launch Control or “over-throttle” at high speeds reduce the life of the clutch and turbines. On some models (for example, BMW M5) the manufacturer limits the number of starts in maximum power mode - after 5–10 attempts, the system is blocked for 10 minutes.
Overclocking tuning: what really works?
If the factory characteristics are not enough, the owners resort to tuning. But not all modifications are equally effective. For example, setting straight-through exhaust without modification of the engine it will give an increase of only 2–5 hp, but chip tuning or replacing a turbine can reduce acceleration by 0.5–1.5 seconds.
| Tuning type | Power gain | Effect on acceleration 0–100 km/h | Cost (average) |
|---|---|---|---|
| Chip tuning (Stage 1) | +20–50 hp | –0.2–0.5 s | 15 000–40 000 ₽ |
| Replacement of turbine + intercooler | +80–150 hp | –0.5–1.2 s | 200 000–500 000 ₽ |
| Lightweight wheels (cast/forged) | — | –0.1–0.3 s | 50 000–200 000 ₽ |
| Installing a limited differential | — | –0.3–0.8 s (due to better grip) | 100 000–300 000 ₽ |
The most budget-friendly way to speed up overclocking is lighten the car. Every 100 kg weight loss gives benefits in 0.1–0.2 s at "hundred". For example, replacing standard seats with carbon ones (Sparco or Recaro) will save 20–30 kg, and removing the rear row in the coupe will save another 50 kg.
Before chip tuning, check whether it will void your warranty. Some dealers (eg. Volkswagen or Toyota) will void the warranty even for components not related to the engine if traces of tampering are detected in the ECU.
World acceleration records: from dragsters to hypercars
The absolute record for acceleration to 100 km/h does not belong to production cars, but to special cars for drag racing. For example, Top Fuel Dragster accelerates to “hundreds” in 0.8 s, but this is not a car in the usual sense - rather, a rocket on wheels with a 10,000-horsepower engine and jet propulsion.
Among serial (albeit limited) models, it holds the palm Rimac Nevera (1.85 s), but already in 2026 it can be overtaken Devel Sixteen - hypercar with stated 5007 hp (although independent tests have not yet been carried out). Interesting fact: Devel Sixteen uses three turbines and a nitrous oxide injection system, which allows you to develop 12,800 Nm of torque!
- 🚀 Top Fuel Dragster: 0.8 sec (10,000+ hp, track only).
- 🔌 Rimac Nevera: 1.85 s (production electric car).
- 💎 Devel Sixteen: ~1.7 s (stated, tests in 2026).
- 🏁 Dodge Challenger SRT Demon 170: 1.66 sec (petrol, drag racing only).
Hypercars with an acceleration time of less than 2 seconds require special preparation before starting: warming up the studded tires, cooling the brakes and batteries (for electric cars), and using fuel with an octane rating of 102+.
What kills overclocking: 5 common mistakes
Many drivers lose precious seconds due to poor technique or underestimating physics. Here are the most common mistakes:
- Shifting gears too early. For example, on BMW M3 optimally switch to
7000 rpm, not on5000- this way you use the full potential of the motor. - Using ESP in overclocking mode. The stabilization system dulls throttle response, even in “sport” mode. It's better to turn it off on the track.
- Cold tires. The rubber reaches maximum grip only after warming up to
80–100°C. Before this, the friction coefficient is 20–30% lower. - Incorrect tire pressure. For overclocking you need reduce blood pressure by 0.2–0.3 atm from the recommended one - this will increase the contact patch.
- They forget about
Launch Control. In most sports cars, this mode is activated by a separate button or combination of pedals (for example,brake + gas + ESP buttonon Mercedes-AMG).
Another common mistake is ignoring aerodynamics. At speeds above 100 km/h, a raised spoiler or open windows create parasitic drag that can eat up to 0.3 s at acceleration up to 200 km/h.
The future of overclocking: what awaits us after 2026?
Experts predict that by 2026, production electric cars will be able to accelerate to 100 km/h in 1.5 seconds thanks to:
- 🔋 Solid state batteries (they are lighter and release energy faster than lithium-ion ones).
- 🤖 AI algorithms, which will predict road grip and distribute traction between the wheels in real time.
- 🚗 Active aerodynamics with variable geometry (for example, McLaren Speedtail already uses “flexible” spoilers).
Gasoline supercars will not give up their position without a fight. Koenigsegg and Bugatti They are working on hybrid systems, where electric motors help at the start, and the internal combustion engine takes over high speeds. For example, in Koenigsegg Gemera (2026) stated acceleration to 100 km/h in 1.9 s using a combination of a 2-liter turbo engine and three electric motors.
⚠️ Attention: In some countries (for example, Germany or Switzerland), acceleration tests on public roads are considered the same as street racing and are punishable by a fine of up to 5,000 € or deprivation of a license. For legal measurements, use closed tracks or airfields.
FAQ: Answers to frequently asked questions about acceleration to 100 km/h
Is it possible to damage a car by frequent acceleration?
Yes, especially when it comes to models with wet clutch (for example, DSG or ZF 8HP). Each launch with Launch Control wears out friction clutches by 0.05–0.1 mm. Manufacturers usually limit the number of such starts - for example, Audi RS3 the limit is 500 starts over the entire service life.
Also suffer turbines (due to thermal loads) and drive shafts (due to shock loads). On electric cars, the main wear and tear occurs tires and bearings motors.
Why does the acceleration time of the same car differ in different tests?
The result is influenced by at least 7 factors:
- Air temperature (cold air is denser, which improves boost).
- Altitude (at every kilometer above 1000 m the power drops by ~10%).
- Type of surface (asphalt vs. concrete vs. drag strip).
- Tire pressure and temperature.
- Availability of passengers or cargo.
- Fuel quality (octane number).
- Driver skills (reaction time to gear changes).
The spread between tests can reach 0.5 s even on professional tracks.
Which car accelerates to 1 million rubles the fastest?
In 2026, the leader in terms of price/dynamics ratio is Hyundai Kona Electric (64 kWh) with acceleration to 100 km/h in 7.6 s (price from 2.5 million ₽). Among gasoline models - Kia Ceed GT (1.6 T-GDi, 204 hp) with acceleration in 7.2 s (from 1.8 million ₽).
If we consider the used market, then BMW M235i (F22) with chip tuning accelerates in 4.5–5 s with a budget of up to 1 million rubles.
Is it true that diesel cars accelerate more slowly?
Yes, but not always. Modern diesels with two-stage turbines (for example, BMW B57 or Audi 3.0 TDI) accelerate to 100 km/h in 5.5–6.5 s, which is comparable to naturally aspirated gasoline engines. However, at the “lower levels” (0–60 km/h) they lose due to turbo lag - delayed reaction to gas.
The exception is diesel engines with electric compressor (for example, Audi SQ7 TDI), which do not have this disadvantage.
Is it possible to improve acceleration by changing only the tires?
Yes, but the effect depends on the original spikes. For example, replacing standard all-season tires with Michelin Pilot Sport 4S or Pirelli P Zero Trofeo R can reduce acceleration by 0.2–0.4 s thanks to:
- Soft rubber compound (better grip).
- Larger contact patch (wide profile).
- Reduced weight (lightweight cords).
On electric cars the effect is stronger - up to 0.5 s, since instantaneous torque requires maximum traction.