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Electric cars and tips to extend electric cars battery range

News

Electric cars: a bit of history

Unbelievable but true: electric cars and regenerative braking are not as new concepts as one might think!

Electric cars appeared in the 1800s before cars with internal combustion engines, and attempts to create better ones continued throughout the 1900s.

The Belgian “La Jamais Contente”, in 1899, was the first road vehicle to reach the speed of 105.882 km/h (65.79 mph), setting a world record for any method of propulsion (electric, steam or petrol).

La jamais contente

In 1967, the AMC Amitron was an experimental electric compact car built by American Motors Corporation and Gulton Industries. The advanced features included regenerative brake and battery designs that could provide 150 miles (240 km) on one charge. Technology issues and the high costs of batteries caused the end of development.

What is regenerative braking? With regenerative braking, a car recovers some of the energy lost from deceleration to reintroduce it back into the system and charge the battery. In classic cars, the energy developed when braking is converted into heat dissipating into the environment.

Today, the fastest electric car is the “Venturi Jamais Contente”, also dubbed the VBB, with the VBB-3 setting a new FIA-certified world record in 2016 on the famous salt flats of Bonneville in the USA, reaching 549 km/h (341 mph), a record that still stands today.

VBB-3

The world’s fastest electric road car is the Rimac Nevera. The Nevera is a compact hypercar with a top speed of 258 mph! 

Rimac Nevera the world's fastest car

Electric car range

Electric car range and consumption are determined by a test cycle called WLTP (World Light Vehicle Test Procedure), which became standard homologation in 2018 in place of the old NEDC. The WLTP procedure is used to type-approve all new cars. It is a more accurate measurement method than the previous NEDC test cycle.

WLTP  is primarily designed to calculate cars’ consumption and emissions. The test is used for the type approval and tax calculation of cars and is carried out at laboratories worldwide according to detailed guidelines. Real-life road driving is very different from laboratory tests.

Load, driving style, traffic conditions, type of route and weather are all factors that influence an electric car’s range (they are the same factors that also influence conventional cars). However, one is particularly critical for battery-powered cars: the outside temperature, which can put an electric car at a disadvantage.

Electric cars tests in Norway

The web magazine Motor and NAF (Norwegian Automotive Federation) tested 31 electric car models in 2022(other tests were made in 2020 and 2021).  The 31 cars did the same route, with the same conditions of speed, driving mode, driving style, air conditioning and added weight. Two tests were carried out in 2022, one in summer and the other in winter, to see how far the battery range in real driving conditions deviated from the WLTP claim. Only 21 models participated in the 2021 test.

These tests give an overview of how electric cars behave in real life and how much range they have in certain weather conditions.

 In the 2022 summer test with moving cloudiness, scattered rain showers, and 7-15°, the results were very different from the 2021 summer, where the weather was fine, partly cloudy, and temperatures between 15-20° C.

In the 2021 summer test, most of the participating cars exceeded the mileage specified by the WLTP. Only Polestar 2(-0.64%), Citroen e-C4(-1.43%) and Xpeng G3(-2.68%) did worse(details in the table below).

Car model WLTP range (stated) Range (measured) Deviation in percentage Consump.(stated) kWh/100 km Consump.(measured) kWh/100 km
Tesla Model 3 LR614 km654,9 km6.6614.812.4
Ford Mustang Mach-E RWD610 km617,9 km1.3016.515.0
Ford Mustang Mach-E AWD540 km551,9 km2.2018.716.0
Volkswagen ID.3 Pro S539 km564,0 km4.6416.213.5
Skoda Enyaq520 km522,0 km0.3817.214.5
Hyundai Kona484 km537,0 km10.9514.712.1
Volkswagen ID.4 1st Max487 km532,0 km9.2418.214.5
Polestar 2470 km467,0 km−0.6415.616.6
Audi e-Tron GT quattro468 km528,1 km12.8420.116.1
Ioniq 5460 km502,0 km9.1317.714.4
Xpeng G3451 km438,9 km−2.6814.7–
BMW iX3450 km556,2 km11.60pm19.013.3
Tesla Model 3 SR448 km454,4 km1.4314.212.2
Volkswagen ID.3 1st Plus420 km421,0 km0.2416.213.3
Mercedes EQA417 km451,8 km8.3518.115.0
Volvo XC40 Recharge415 km445,4 km7.3324.017.5
Citroën e-C4350 km345,0 km−1.4314.313.1
Opel Mokka-e324 km332,4 km2.5915.613.8
Fiat 500298 km307,8 km3.2914.912.4
Honda e210 km236,2 km12.4817.813.4
Mazda MX-30200 km219,6 km9.8019.013.2

In the 2022 summer, with lower temperatures(7-15°C) and rain, only 10 cars managed to exceed the mileage declared by the WLTP, the rest deviating from the declared value by between 0.15 and 14.48% less, as shown in the table below.

Car WLTP (range/consumption) Stop Deviation
Mercedes-Benz EQS 450+711 km/unknown620 km/17.5-12.80%
Mercedes-Benz EQS 580 4MATIC647 km/unknown596 km/18.5-7.88%
BMW iX xDrive50591 km/21.4 kWh568.5 km/19.0-3.81%
BMW i4 eDrive40565 km/16.9 kWh583.6 km/14.33.29%
Kia EV6 RWD528 km/16.5 kWh500.2 km/14.8-5.27%
Mercedes-AMG EQE 43 4MATIC518 km/unknown443 km/20.7-14.48%
Polestar 2 LR Single Motor517 km/17.8 kWh*520.6 km/14.70.70%
Tesla Model Y LR Dual Motor507 km/16.9 kWh545 km/13.27.50%
Ford Mustang Mach-E GT500 km/20.0 kWh436.6 km/21.1-12.68%
NIO ES8500 km/21.5 kWh443.6 km/17.7-11.28%
Audi e-tron Q4 40498 km/18.1 kWh460.9 km/16.1-7.45%
BMW i4 M50497 km/19.0 kWh521.1 km/16.14.85%
Skoda Enyaq Coupe RS491 km/17.8 kWh497 km/14.91.22%
Kia EV6 4WD484 km/18.0 kWh459.2 km/17.0-5.12%
Hyundai Ioniq 5 RWD481 km/16.8 kWh446 km/14.9-7.28%
Skoda Enyaq iV80X481 km/18.2 kWh446 km/16.8-7.28%
Polestar 2 LR Dual Motor477 km/19.8 kWh*446.6 km/17.1-6.37%
VW ID.5 GTX473 km/18.7 kWh453 km/16.9-4.23%
Xpeng P7470 km/19.4 kWh436 km/16.6-7.23%
VW ID.4 GTX466 km/18.9 kWh428 km/17.5-8.15%
Hongqi EHS-9465 km/22.0 kWh371 km/unknown-20.22%
Audi e-tron Q4 50 quattro459 km/19.3 kWh459.6 km/16.60.13%
MG ZS Long Range440 km/17.8 kWh443 km/15.00.68%
Volvo C40 Recharge437 km/21.1 kWh418.7 km/18.1-4.19%
Renault Mégane E-tech428 km/17.1 kWh413 km/14.0-3.50%
Cupra Born424 km/15.5 kWh376.0 km/14.8-11.32%
Porsche Taycan 4 Cross Turismo412 km/25.0 kWh403 km/21.7-2.18%
Mercedes-Benz EQB 350 4MATIC407 km/not specified411 km/16.30.98%
BMW iX xDrive40400 km/20.8 kWh399.4 km/17.6-0.15%
BID Tang400 km/21.6 kWh407.6 km/unknown1.90%
Maxus Euniq6354 km/21.0 kWh388.4 km/17.69.72%

In the winter 2022 test, with partly cloudy weather, from 0 to -10 degrees, no car reached the WLTP declared value, with deviations ranging from 11 per cent fewer km travelled by the BYD Tang to 28.75 per cent less by the Peugeot e-2008.

Model (temp. ranged from 0° to -10°) WLTP figures STOP Deviation
Tesla Model 3 LR Dual engine614 km/14.7 kWh521 km-15.15%
Mercedes-Benz EQS 580 4matic645 km/18.3 kWh513 km-20.47%
BMW iX xDrive50591 km/21.4 kWh503 km-14.89%
Tesla Model Y LR Dual engine507 km/16.9 kWh451 km-11.05%
Volkswagen ID.3 PRO S539 km/16.3 kWh435 km-19.29%
Kia EV6 2WD528 km/16.5 kWh429 km-18.75%
NIO ES8 LR 7 seats488 km/21.5 kWh425 km-12.91%
Kia EV6 4WD484 km/18.0 kWh423 km-12.60%
Volkswagen ID.4 Pro485 km/18.4 kWh414 km-14.64%
Hyundai Ioniq 5 2WD481 km/16.8 kWh408 km-15.18%
BMW i4 M50497 km/19.0 kWh406 km-18.31%
Skoda Enyaq iV80X477 km/18.2 kWh403 km-15.51%
Porsche Taycan 4 Cross Turismo456 km/22.4 kWh402 km-11.84%
Polestar 2 LR Single engine517 km/18.6 kWh400 km-22.63%
Audi e-tron GT463 km/21.1 kWh392 km-15.33%
Xpeng P7470 km/19.4 kWh383 km-18.51%
Audi e-tron Q4 40485 km/18.6 kWh380 km-21.65%
Hyundai Ioniq 5 4WD (19-inch)460 km/17.7 kWh369 km-19.78%
Hyundai Ioniq 5 LR 4WD (20-inch)430 km/17.7 kWhxx
BID Tang400 km/21.6 kWh356 km-11.00%
Volkswagen ID.4 GTX466 km/18.6 kWh353 km-24.20%
Audi e-tron Q4 50 quattro459 km/19.1 kWh349 km-23.97%
Skoda Enyaq iV80509 km/17.7 kWh347 km-31.83%
Tesla Model 3 SR448 km/14.0 kWh346 km-22.87%
Polestar 2 LR Dual engine476 km/20.2 kWh340 km-28.57%
Polestar 2 LR Dual engine (with luggage)470 km/19.5 kWhxx
Cupra Born395 km/15.4 kWh339 km-14.18%
Volvo C40 Recharge437 km/21.1 kWh333 km-23.80%
Mercedes-Benz EQA 250401 km/17.7 kWh331 km-17.46%
BMW iX xDrive40402 km/20.7 kWh316 km-21.39%
Mercedes-Benz EQB 350 4matic407 km/18.1 kWh315 km-22.60%
Opel Mokka-e338 km/16.2 kWh263 km-22.19%
Peugeot e-2008320 km/15.6 kWh228 km-28.75%

 At this link, you can read the entire Norwegian article: Here is the range verdict on Norwegian electric cars

The loss of range is amplified if several factors come into play simultaneously: cold weather, wet ground, mud or snow, strong wind, heavy load, large tyres, use of the heating system or air conditioning, etc. Low temperatures also affect the charging times of electric batteries, which are significantly longer.

Simple tips to extend the electric vehicle’s battery life

  1.  a BEV’s range will be extended by a smooth and fluid driving style with less acceleration and deceleration. Reduce also the cruising speed will effectively lower energy consumption;
  2. travel at a constant speed as much as possible;
  3. adjust your speed by dosing your acceleration, even downhill;
  4. charge at 100% before a long trip, and once on the road, better to stop twice to recharge at 80% than to stop once to charge at 100% because the left 20% charge is slower.
  5. pre-heat or pre-cool the interior when the car is charging, and on the road, use the eco-climate function;
  6. use the deceleration energy recovery system: when you need to stop the vehicle, first release the accelerator pedal to decelerate and then stop;
  7. take advantage of regenerative braking if the vehicle allows it. Thanks to this function, you can recover a percentage of energy during braking and deceleration that would otherwise be lost. The mechanism is simple and is based on converting the kinetic energy of movement, something that cannot happen in thermal vehicles. 
  8. as with conventional cars, electric cars are also less efficient if the tyres are not properly inflated. A car with underinflated tyres will certainly consume more energy and lead to premature tread wear;
  9. travel light by removing unnecessary weight from the boot or roof rack, and even remove the roof rack itself if it is unnecessary. Extra weight significantly reduces the energy efficiency of an electric vehicle. In addition, the roof rack negatively affects the vehicle’s aerodynamics;
  10. do not charge your mobile phone in the car; 
  11. plan the best route for your journey that allows a constant speed to be maintained and includes enough charging points so that you are not left with a 0% charge in the middle of nowhere and have to call roadside assistance.

Conclusions

As seen from the tests in Norway, the weather (low or high temperatures, rain, snow, winds) has a major influence on the battery range of an electric car, but it is not the only factor. An aggressive driving style with higher speeds, more aggressive acceleration and deceleration significantly increase energy consumption, as do the car’s road conditions, weight and aerodynamics.

Auxiliary devices such as air conditioning, window heaters, fans, lights, sound systems, windscreen wipers, navigation system, etc., also consume energy.

Until technology allows us greater battery autonomy, we must be very careful how we use what we have!

So if you want to buy an electric car now, you must think carefully about how you will use it daily! Remember that there are also hybrid cars, which offer a better alternative for long distances! 

Filed Under: News Tagged With: BEV, electric car, electric car battery, electric car range, regenerative braking

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