How to Choose an Electric Car in 2026 | Complete EV Buying Guide

More than 20 million electric cars were sold worldwide in 2025, representing roughly one in four new cars. Europe was one of the fastest-growing major markets, with electric-car sales increasing by more than 30% in 2025. The International Energy Agency expects roughly one in three cars sold in Europe in 2026 to be electric when battery-electric and plug-in hybrid vehicles are combined.

But growing popularity does not automatically mean an electric car is the right choice for everyone.

Buying an EV requires looking at cars differently. Engine size and fuel consumption are replaced by battery capacity, efficiency, charging speed, battery condition and charging infrastructure.

And one of the biggest mistakes buyers make is simple:

They compare electric cars almost entirely by advertised driving range.

Range matters, but it is only one part of the story.

A 450 km EV that charges exceptionally quickly may be much easier to travel with than a 550 km EV that charges slowly. A smaller, efficient EV can sometimes be a better ownership proposition than a heavy SUV carrying an enormous battery.

This guide explains what really matters when choosing an electric car new or used.

Before comparing models, understand the basic categories.

Battery Electric Vehicle BEV

A fully electric vehicle has no petrol or diesel engine.

Examples include cars such as the Tesla Model 3, Volkswagen ID.4, BMW i4, Hyundai Ioniq 5 and Renault 5 E-Tech.

You charge the battery and drive entirely on electricity.

For most buyers considering an “electric car,” this is the category we are discussing throughout this guide.

Plug-in Hybrid PHEV

A plug-in hybrid combines an electric motor and battery with a combustion engine.

It can drive shorter distances electrically, after which the petrol engine takes over.

A PHEV can make sense for certain drivers, but only if it is charged regularly. Driving a heavy plug-in hybrid without charging it defeats much of the purpose.

Hybrid  HEV

A conventional hybrid such as many Toyota models cannot normally be plugged in.

The battery is charged through regenerative braking and the combustion engine.

These should not be confused with fully electric vehicles.

Do not begin your search by asking:

“Which electric car has the longest range?”

Start with:

“What does my car need to do?”

Consider your normal week.

How many kilometres do you drive per day?

Can you charge at home or work?

How often do you travel 300–500 km in one day?

Do you regularly drive on the motorway?

Do you tow a trailer?

Do you travel through several European countries?

Do you park outside during winter?

Do you plan to keep the car for three years or ten?

The answers will determine which EV makes sense.

As a practical starting point:

These are guidelines rather than strict rules.

Buying far more battery than you actually need increases purchase price and usually vehicle weight.

European manufacturers advertise electric-car range using the WLTP testing cycle.

WLTP is useful for comparing one vehicle against another, but it should not be treated as a guaranteed real-world distance.

Speed, weather, heating, air conditioning, tyres, elevation and driving style can all change consumption.

ADAC testing has found that EVs under its real-world-style testing can average roughly 15–20% higher consumption than their WLTP figures suggest, while motorway driving and cold weather can increase the difference further.

Winter is especially important.

ADAC notes that winter conditions can increase EV energy consumption by roughly 10–30% in many situations, with larger differences possible in severe conditions.

That means a car advertised with 500 km WLTP range should not automatically be considered a 500 km motorway car in January.

What to check instead

When researching an EV, look for:

• WLTP range

• independent real-world range tests

• motorway range

• winter range

• efficiency in kWh/100 km

• usable battery capacity

Real-world consumption is often more revealing than battery size alone.

EV batteries are measured in kilowatt-hours  kWh.

Think of this as the size of the fuel tank.

A 50 kWh battery stores less energy than an 80 kWh battery.

But battery size alone does not determine range.

Efficiency matters.

Imagine two vehicles.

Car A

• 80 kWh usable battery

• 24 kWh/100 km consumption

Car B

• 70 kWh usable battery

• 17 kWh/100 km consumption

Despite having the smaller battery, Car B can potentially travel further because it uses energy much more efficiently.

This is why extremely large batteries should not automatically be viewed as better.

They may mean:

• more weight

• higher purchase price

• potentially more expensive tyres

• more electricity needed per kilometre

Efficiency should always be considered alongside battery capacity.

These two terms confuse many first-time EV buyers.

kWh = energy

Battery capacity and electricity consumption are measured in kilowatt-hours.

For example:

77 kWh battery

or:

18 kWh/100 km consumption

kW = power

Charging power and motor power are measured in kilowatts.

For example:

11 kW AC charging

or:

250 kW maximum DC charging

An easy way to remember it:

kWh tells you how much energy you can store.

kW tells you how quickly energy can move.

This is one of the most overlooked parts of choosing an EV.

Manufacturers often advertise an impressive figure such as:

“Maximum charging power: 250 kW.”

But maximum charging power does not tell the full story.

EV batteries do not normally charge at maximum power from 0 to 100%.

Charging speed follows a charging curve.

A vehicle might briefly hit 250 kW and quickly fall to 100 kW.

Another might peak at only 200 kW but maintain 180–200 kW for much longer.

The second car may actually complete a charging stop faster.

ADAC therefore considers average charging power between approximately 10% and 80% battery level a much more useful comparison than peak charging power alone.

When comparing EVs, check:

• maximum DC charging speed

• average 10–80% charging speed

• 10–80% charging time

• charging curve

• battery preconditioning

• AC charging capability

A good long-distance EV should not only travel far.

It should recover range quickly.

You will constantly see manufacturers advertising something like:

10–80% in 18 minutes

There is a reason.

Lithium batteries generally accept high charging power much more easily at lower states of charge.

As the battery becomes full, the battery-management system reduces power.

After approximately 80%, charging can become significantly slower. ADAC therefore recommends that during long motorway journeys, drivers often save time by continuing their journey around 80% rather than waiting for 100%.

At home, the situation is different.

You can simply leave the car charging overnight according to the charging limits recommended by its manufacturer.

If you frequently travel long distances, look for an EV with battery preconditioning.

A battery charges fastest when it reaches an appropriate operating temperature.

During winter, arriving at a fast charger with a very cold battery can dramatically reduce charging performance.

Modern EVs can warm the battery before reaching a charging station.

The best systems automatically begin preconditioning when a fast charger is selected in the navigation system.

This can significantly improve charging consistency during winter road trips.

For frequent European motorway drivers, this feature deserves serious consideration.

DC fast charging gets most of the publicity.

But most EV charging should ideally happen while the vehicle is already parked.

This is where AC charging matters.

Typical European EVs may support:

• 7.4 kW AC

• 11 kW AC

• 22 kW AC

An 11 kW onboard charger is a useful standard for many European buyers.

Some older EVs have much weaker AC charging capabilities, which can become inconvenient.

European public AC charging predominantly uses Type 2, while modern European DC fast charging primarily uses CCS/Combo 2.

Always check charging compatibility when buying an imported vehicle.

One of the biggest factors determining whether EV ownership is convenient is not actually the car.

It is where you charge it.

If you have a driveway, garage or parking space where you can install a charger, EV ownership can become extremely convenient.

You arrive home.

You plug in.

The next morning the car is ready.

It effectively turns your home into your personal fuel station.

If you cannot charge at home or work, the calculation changes.

You may become dependent on:

• public AC chargers

• fast chargers

• charging subscriptions

• variable electricity prices

• charger availability

That does not automatically make an EV impractical, especially in areas with strong charging infrastructure, but you should research your local situation before buying.

European charging infrastructure continues to grow.

Under the EU Alternative Fuels Infrastructure Regulation, charging pools for passenger EVs on major parts of the TEN-T road network are being deployed at maximum intervals of around 60 km, with minimum power requirements increasing over time.

For drivers travelling between Belgium, the Netherlands, Germany and France, long-distance EV travel is consequently becoming easier.

But infrastructure is only half of the equation.

Your vehicle still needs good charging hardware and route-planning software.

Probably not as much as many buyers think.

Every lithium battery gradually loses capacity.

This process is called battery degradation.

Battery condition is normally expressed as:

State of Health — SOH

A new battery is approximately 100% SOH.

If a 70 kWh battery has 90% SOH, its effective usable capacity has decreased compared with when it was new.

Large-scale real-world research from Geotab published in 2026, analysing more than 22,000 electric vehicles, found average battery degradation of around 2.3% per year, although degradation varies significantly by model, battery chemistry, climate and charging behaviour.

In other words:

A used EV does not automatically need a new battery simply because it is five or six years old.

But battery condition should absolutely be checked.

Most major manufacturers offer separate warranties for the high-voltage battery.

A common arrangement is approximately:

8 years / 160,000 km

with a minimum remaining battery capacity often around 70%.

Exact terms differ by manufacturer and model.

Before buying, ask:

• How much battery warranty remains?

• Does the warranty transfer to a new owner?

• What minimum capacity does it guarantee?

• Are there servicing requirements?

• Is the warranty valid in Belgium?

• Is it valid if the vehicle was originally sold in another country?

That last question is particularly important when importing EVs.

For decades, used-car buyers focused heavily on kilometres.

EVs add another extremely important number:

battery State of Health.

When possible, obtain an independent battery-health report.

ADAC specifically recommends battery-health testing when buying a used EV because battery condition directly affects range, usability and vehicle value.

For a used EV, investigate:

Battery SOH

Do not simply believe dashboard range.

Obtain a proper test where possible.

Remaining battery warranty

Confirm it in writing.

Charging performance

Test both AC and DC charging if possible.

Underbody condition

The battery pack sits underneath the vehicle.

Damage caused by an accident or significant impact should be taken seriously.

Service and accident history

An EV has fewer traditional engine components, but suspension, brakes, tyres, cooling systems and electronics still matter.

Software

Check that:

• updates work

• navigation works

• smartphone application can be transferred

• previous owner accounts have been removed

Charging cables

Make sure the appropriate charging cable is included.

Replacing cables afterwards can be expensive.

You may increasingly encounter two terms while researching EVs:

LFP — Lithium Iron Phosphate

and

NMC — Nickel Manganese Cobalt

Neither chemistry is automatically “better.”

They have different strengths.

LFP batteries

LFP has become increasingly popular, particularly in more affordable EVs.

According to the IEA, LFP batteries represented more than half of global EV battery deployment in 2025. They are generally less expensive to manufacture but have lower energy density than NMC batteries.

They can be particularly attractive for everyday vehicles where cost and durability matter more than fitting the maximum possible amount of energy into a small battery pack.

NMC batteries

NMC technology generally offers higher energy density.

This can be useful for:

• longer-range cars

• performance vehicles

• vehicles where battery weight and size matter

The IEA also notes that NMC currently retains advantages in energy density and some cold-weather applications.

For the average buyer, however, battery chemistry should not become the main purchasing decision.

Range, efficiency, warranty, charging performance and battery condition matter more.

And always follow the manufacturer's recommendations regarding regular charging limits.

In Belgium and northern Europe, a heat pump is a useful option.

Heating a car consumes energy.

A heat pump can heat the cabin more efficiently than a traditional resistive heating system, particularly in suitable temperature ranges.

For drivers living in Belgium, the Netherlands, Germany or Scandinavia, it is therefore worth checking whether a vehicle:

• has a heat pump as standard

• offers one optionally

• does not have one at all

It should not necessarily decide the entire purchase, but it becomes more valuable for frequent winter driving.

Electric vehicles offer several genuine advantages.

Lower mechanical complexity

An EV does not need:

• engine oil changes

• spark plugs

• exhaust-system maintenance

• timing belts

• many traditional engine components

The U.S. Department of Energy notes that EVs generally require less routine maintenance because their electric motors and battery systems have fewer moving components and regenerative braking can reduce brake wear.

That does not mean maintenance is zero.

EVs still have:

• tyres

• suspension

• brakes

• air conditioning

• cooling systems

• 12V batteries

• electronics

But the drivetrain itself is mechanically simpler.

Excellent city efficiency

Internal-combustion engines waste significant energy in urban stop-start traffic.

EVs perform particularly well in cities.

Regenerative braking can recover some energy when slowing down.

Instant torque

Electric motors produce torque immediately.

Even relatively ordinary electric cars can therefore feel responsive and smooth.

Quiet driving

There is almost no engine vibration and significantly less drivetrain noise.

Home charging

For owners with private charging, never visiting a petrol station can be one of the biggest lifestyle improvements.

There are disadvantages too, and buyers should understand them before purchasing.

Long trips require more planning

A petrol car can usually refuel in minutes almost anywhere.

EV road trips depend more heavily on charging infrastructure and charging speed.

Winter reduces range

Cold batteries, cabin heating and adverse weather increase electricity consumption.

High-speed motorway driving reduces range

Aerodynamic drag rises sharply at higher speeds.

An EV that performs brilliantly around town may consume much more energy at 120–130 km/h.

Public charging can be expensive

Home charging and highway fast charging are financially very different.

If most of your electricity comes from expensive public DC chargers, the running-cost advantage over an efficient combustion vehicle can shrink considerably.

Weight

Batteries are heavy.

EVs can therefore weigh significantly more than equivalent combustion vehicles.

Tyres

Weight and instant torque can contribute to tyre wear, particularly when driven aggressively. ADAC notes that EV weight places higher loads on tyres and driving style has a significant influence on wear.

Battery repairs can be expensive

Battery failures are not something every EV owner should expect, but the high-voltage battery remains one of the vehicle's most expensive components.

This makes battery warranty and accident history particularly important.

Depreciation can be unpredictable

EV technology is developing quickly.

New cars may suddenly arrive with:

• longer range

• faster charging

• lower prices

• better software

That can place pressure on the resale value of older models.

Buy the car based on its value today, rather than assuming a particular future resale price.

Do not believe outdated statements claiming:

“Electric cars don't pay road tax in Belgium.”

Vehicle taxation is regional.

For example, in Flanders, the previous general tax exemption for newly registered zero-emission cars ended for vehicles first registered from 1 January 2026.

As of September 2026, a newly registered zero-emission passenger vehicle in Flanders is generally subject to a fixed registration tax of €61.50 and an annual road tax of approximately €107.16, subject to the applicable rules and future indexation. Vehicles registered before 2026 can fall under the earlier exemption system.

Wallonia uses a different system, and Brussels has its own regional taxation.

Always calculate the applicable tax based on:

• where you live

• when the vehicle is registered

• vehicle specifications

• whether it is new or already registered

Tax rules can change, so check them at the time of purchase.

Importing EVs can create excellent opportunities because prices vary significantly between markets.

But EVs introduce several checks that do not exist  or matter less  with traditional cars.

Before importing an electric vehicle, verify:

Charging connector compatibility

European EVs generally use Type 2 for AC and CCS2 for DC fast charging.

Vehicles built for other markets can use different hardware.

Do not assume an adapter solves every problem.

Manufacturer warranty

Confirm whether the warranty remains valid after exporting the vehicle.

Battery warranty

Check this separately from the standard vehicle warranty.

Software and connectivity

Imported cars may rely on:

• mobile networks

• connected services

• manufacturer apps

• regional accounts

• navigation databases

Verify that everything functions in Europe.

Homologation

A non-European-specification vehicle may require modifications or additional approval before it can be registered.

Parts and service

Make sure European dealerships can service the exact vehicle configuration.

Fast-charging network compatibility

This is essential.

A cheap EV becomes significantly less attractive if using European public fast charging becomes difficult.

The answer increasingly depends on value.

Buying new

Advantages:

• full warranty

• latest battery technology

• faster charging

• better efficiency

• newest software

• potentially improved safety technology

Disadvantages:

• higher purchase price

• biggest initial depreciation

Buying used

Advantages:

• significantly lower purchase price on some models

• depreciation has already occurred

• potentially excellent value

Disadvantages:

• battery condition must be checked

• less warranty remaining

• older models may charge slowly

• older software/hardware

• sometimes smaller real-world range

The used-EV market can contain some of the strongest value opportunities in the automotive market — provided the battery and charging system are properly checked.

An electric car can be an excellent choice if:

• you can charge at home or work

• you drive predictable distances

• you mainly drive city and regional routes

• you want lower mechanical maintenance

• you value smooth and quiet driving

• you have solar panels

• you regularly drive enough kilometres to benefit from lower energy costs

• your chosen vehicle has enough real-world range for your lifestyle

For these drivers, EV ownership can be extremely convenient.

Think carefully before buying an EV if:

• you have no reliable charging near home or work

• almost all your driving consists of very long motorway journeys

• you regularly tow heavy trailers over long distances

• charging stops would seriously interfere with your work

• your local public charging prices are extremely high

• you are considering an imported vehicle without first confirming charging compatibility

This does not mean an EV cannot work.

It means the purchase requires more careful calculation.

Before buying any electric vehicle, answer these questions.

Driving

☐ What is my average daily mileage?

☐ How often do I drive more than 300 km in one day?

☐ How much motorway driving do I do?

Range

☐ What is the WLTP range?

☐ What is the tested real-world range?

☐ What is the winter range?

☐ What is the motorway range?

Battery

☐ What is the usable battery capacity?

☐ What is the battery chemistry?

☐ What battery warranty remains?

☐ If used, what is the battery SOH?

Charging

☐ What is the AC charging speed?

☐ What is the maximum DC speed?

☐ What is the average 10–80% charging speed?

☐ How long does 10–80% actually take?

☐ Does it have battery preconditioning?

☐ Does it use CCS2?

Ownership

☐ Can I charge at home?

☐ What will home electricity cost?

☐ What does public charging cost?

☐ What will insurance cost?

☐ What road and registration taxes apply?

Used vehicle

☐ Has the battery been independently tested?

☐ Has the vehicle had an accident?

☐ Is there battery-pack or underbody damage?

☐ Does DC fast charging work?

☐ Are charging cables included?

☐ Can the manufacturer app/account be transferred?

Imported vehicle

☐ Is the charging system compatible with Europe?

☐ Is the COC/type approval correct?

☐ Does the manufacturer warranty remain valid?

☐ Does the battery warranty remain valid?

☐ Will connected services work in Belgium?

☐ Can European dealers service it?

If several of these questions cannot be answered, do more research before buying.

Most bad EV purchases come from a surprisingly small number of mistakes.

Buying based only on WLTP range.

Ignoring charging speed.

Looking only at maximum kW instead of the charging curve.

Buying a used EV without checking battery health.

Assuming every EV can fast-charge equally well.

Buying far more battery than necessary.

Ignoring winter and motorway consumption.

Assuming public charging will always be cheap.

Importing a non-European EV without checking charging compatibility and warranty.

Avoid those mistakes and choosing an EV becomes considerably easier.

For the right driver, absolutely.

Electric cars have improved dramatically.

Range has increased.

Charging has become faster.

European charging infrastructure continues to expand.

Battery longevity is proving stronger than many early buyers feared.

And the selection of affordable models is increasing. The IEA reports that EV prices in Europe began moving downward in 2025 as more affordable vehicles entered the market.

But an EV should still be chosen based on how you actually drive, not simply because electric cars are becoming popular.

A good electric car for one person can be completely wrong for another.

Someone driving 40 km per day with a home charger has very different requirements from someone covering 50,000 motorway kilometres per year.

The best EV is therefore not necessarily:

the car with the largest battery,

or

the car with the longest advertised range.

It is the vehicle that combines the right:

real-world range + efficiency + charging performance + battery health + purchase price + ownership costs

for your personal situation.

And that is exactly how an electric vehicle should be evaluated.

Looking for an Electric Car Across Europe?

The European EV market is developing quickly, and the same vehicle can have very different prices depending on the country.

At AutoLink M.A.T, we help clients compare and source vehicles across borders rather than limiting the search to one local market.

Whether you are considering an EV from Belgium, the Netherlands, Germany or another market, we can help evaluate the vehicle, its specifications, documentation and import requirements before purchase.

We link you with your car.