Our verdict

Tested here is the electric version of the Suzuki Vitara. It comes with a battery of 60 kWh nominal capacity and weighs 1.8 tonnes. The vehicle's balanced design and adequate consumption values lead to an average score of 87% and 4½ Green stars.

  • The e Vitara has no tailpipe emissions and performs well in tyre and brake abrasion.
  • Energy consumption figures are creditable, varying between 15.2 and 27.4 kWh/100 km in the laboratory tests and recording 14.9 kWh/100 km on-road.
  • A balanced mass, battery size, and consumption, combined with the relatively clean European electricity mix, result in calculated total life cycle emissions of 138 g CO2‑eq./km, considering manufacturing in India.
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9.0 10 Clean Air

The e Vitara naturally doesn't have any tailpipe emissions and it scores well in the assessment of tyre and brake abrasion. The pollutant emissions of the vehicle production and energy supply have a moderately negative impact on the good performance in this part of the assessment.

Exhaust emissions

good

10.0 10

good

10.010
NMHC NOX NH3 CO PN PM Score
Legal test (WLTP) 8.08
Warm weather 10.010
Highway 10.010
Winter cold start 10.010
Winter warm start 10.010

good

10.010
NMHC NOX NH3 CO PN PM Score
Real-world mixed drive 10.010
Short city trip 10.010
Congestion 2.02
  • good
  • adequate
  • marginal
  • weak
  • poor
  • n.a.
Non-exhaust emissions

adequate

7.3 10

marginal

3.56
Result Score
Influence of mass 1.53
Wheel alignment 1.01
Accelerator response 1.02

adequate

5.36
Result Score
Brake dust mitigation 0.04
Brake dust containment 0.06
Recuperative braking - warm test 5.36
  • good
  • adequate
  • marginal
  • weak
  • poor
  • n.a.
Additional Life Cycle Assessment information

adequate

7.5 10
Pollutants
*Exhaust emissions are not contributing to the score in Additional Life Cycle Assessment information because they are scored in the Exhaust emissions section above.
8.9 10 Energy Efficiency

The consumption values are creditable, despite the SUV character. Heating up the cabin quickly in cold winter conditions is efficient and increases the electricity demand to about 25.5 kWh/100 km, while the aggressive highway driving needs relatively little 27.4 kWh/100 km. The real-world test and the short urban trips were performed at 25°C on dry roads and recorded 14.9 and 13.2 kWh/100 km, respectively.

Energy demand

good

9.0 10

good

9.810
Legal test (WLTP)
15.1 kWh/100 km
Warm weather
15.2 kWh/100 km
Highway
27.4 kWh/100 km
Winter cold start
25.5 kWh/100 km
Winter warm start
21.6 kWh/100 km

adequate

9.010
Total LCA energy consumption
*Direct propulsion energy share is not shown, it is included in ‘Fuel/energy supply’
Energy source share in total LCA consumption
Rolling resistance

adequate

6.7 10
  • good
  • adequate
  • marginal
  • weak
  • poor
  • n.a.
8.5 10 Greenhouse Gases

The operation phase of the car benefits from the relatively green European average electricity mix. The good balance between mass, battery size and consumption would lead to an even higher score in this index, but the generic LCA assumptions about vehicle manufacturing in India limit the score. The total life cycle emissions are calculated to 138 g CO2‑eq./km.

Exhaust GHG emissions

good

10.0 10
In laboratory
Legal test (WLTP)
0 g CO₂-eq./km
Warm weather
0 g CO₂-eq./km
Highway
0 g CO₂-eq./km
Winter cold start
0 g CO₂-eq./km
Winter warm start
0 g CO₂-eq./km
Additional Life Cycle Assessment information

marginal

4.8 10
Total LCA GHG Emissions
*The scoring does not consider the direct exhaust GHG emissions at the tailpipe, because they are scored separately in ‘Exhaust GHG emissions’ above.

Vehicle Life Cycle Average Emissions 33 (+/-)
(Best 30 | Worst 36)

  • good
  • adequate
  • marginal
  • weak
  • poor
  • n.a.

Specifications

  • Vehicle class Small SUV
  • System power/torque 128 kW/193 Nm
  • Engine size n.a.
  • Declared consumption 15.1 kWh/100 km
  • Declared driving range Overall 426 km City 581 km
  • Declared CO2 n.a.
  • Declared battery capacity Usable (net) 59.8 kWh Installed (gross) 61.1 kWh
  • Mass 1,799 kg
  • Heating concept Waste heat & high voltage heater & heat pump
  • Tyres 225/50R19
  • Emissions class AX
  • Tested car MBHPA2AS90010XXXX
  • Publication date 10 2026
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Driving Experience

Consumption & Range

good

Estimated actual consumption What consumption can be expected in real world conditions?

good

Conditions Urban Rural Highway Mixed
Warm weather
14.0
15.7
19.6
16.2
kWh/100 km
Cold winter
24.5
20.4
25.2
23.5
kWh/100 km
Driving range What driving range can be expected in real world conditions?

adequate

Conditions Urban Rural Highway Mixed
Warm weather 449 399 321 386
km
Cold winter 256 307 249 267
km
Accuracy of display Is the consumption figure on the display correct?

not applicable

  • good
  • adequate
  • poor
  • n.a.
Cold Winter Performance

adequate

Driving range benefit of pre-warming How much further can you drive in winter, if the car is pre-warmed?

adequate

Type Driving Range Benefit Result
Urban trip + 93km
Mixed trip + 45km
Cabin heating Does the vehicle get warm quickly in winter?

adequate

Type Front Rear
Head area
1,798s
1,654s
Footwell
251s
The rear footwell area right reached the temperature in 650 seconds. The rear left sensor malfunctioned.
  • good
  • adequate
  • poor
  • n.a.
Additional heating functions What functions can be used to improve heating comfort?
Y/N Fitment
Heat pump Standard
Seat heating front Regionally Dependent
Seat heating rear
Steering wheel heating Regionally Dependent
Scheduled pre-heating of seats Optional
Scheduled steering wheel pre-heating Optional
Scheduled cabin air pre-heating Optional
Smart cabin heating management
Cabin thermal insulation How well does the cabin maintain its temperature?

adequate

Good Adequate Poor
Charging Capability

adequate

Battery pre-conditioning Does the vehicle have the ability to optimize the battery temperature for fast charging?
Manual Automatic
Battery pre-conditioning
Fast charging

poor

Charging time How quickly can the battery charge?
Recharged range gain per charging time How long do you need to fast charge to drive a certain distance?
Charging power How quickly does energy flow into the battery, depending on its charge level?
Home charging efficiency Is charging at home efficiently utilizing the energy withdrawn from the grid?

good

Home charging efficiency
91%
Maximum home charging power 11 kW
Bidirectional charging How capable is the vehicle of supplying energy from its battery to other devices or systems?

poor

Power output
Not available
Compatibility
Vehicle-to-Load (V2L) The inlet or the interior socket can provide AC power through an electrical domestic socket.
Vehicle-to-Household (V2H) The vehicle can provide power to a household through a charger.
Vehicle-to-Grid (V2G) The vehicle can return power to the grid.
Grid Integration
Basic No integration (just a socket for a stand-alone load). No scheduling option. Very basic visualisation.
Limited Energy management system through the vehicle app (timers availability and power monitoring). Dedicated interface in the car, with mobile app monitoring.
Advanced Advanced: Advanced settings available such as tariff and consumption control, linked to distributor energy prices. Advanced real time energy flow visualization. AI powered suggestions for optimal usage.

Green NCAP comments

The e Vitara's estimated real-world consumption values are largely seen as 'good'. The combination with a 60 kWh battery lets the expected driving ranges be evaluated as adequate for most consumer's needs. The consumption readings of the board computer display couldn't be determined correctly due to a software error, which was later addressed by a service campaign by Suzuki. Therefore, they are ignored in this part of the assessment.

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Also covered by this rating

Variants

Suzuki e VITARA

61 kWh Comfort+ electric FWD automatic

Suzuki e VITARA

61 kWh Comfort electric FWD automatic