There is no universal winner. An electric scooter usually uses less money per kilometre for energy, but the cheaper choice for you depends on your local petrol price, electricity tariff, real-world efficiency, annual distance and ownership costs. Compare both scooters over the same distance and time: divide petrol price per litre by realistic kilometres per litre, and multiply an electric scooter’s realistic kWh-per-kilometre consumption by your tariff per kWh. Then add purchase, financing, maintenance, battery and resale assumptions if you want a total-cost answer rather than an energy-only result.
What you are actually comparing
“Running cost” can mean two different things. Energy cost is what you spend on petrol or electricity to travel a given distance. Total cost of ownership (TCO) adds the costs of acquiring and keeping the scooter, such as purchase price, financing, maintenance, insurance where applicable, battery-related costs and eventual resale value.
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The International Energy Agency’s total-cost framework includes purchase costs, ongoing fuel or charging, maintenance and financing. Its TCO tool was last updated on December 13, 2022. A low charging bill does not by itself prove that an electric scooter is cheaper over the entire ownership period.
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For a fair comparison, use the same distance, period, geography and type of use for both scooters. A 750-kilometre monthly commute, for example, must be calculated with 750 kilometres for each vehicle.
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The two core formulas
Petrol scooter
Petrol cost per kilometre = petrol price per litre ÷ realistic kilometres per litre.
For a period, multiply that result by the distance travelled:
Period cost = petrol cost per kilometre × period distance.
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Electric scooter
Electric cost per kilometre = realistic electricity consumption in kWh per kilometre × electricity tariff per kWh.
If the specification is given in watt-hours per kilometre, divide by 1,000 first. For example, 39 Wh/km is 0.039 kWh/km.
Period cost = electric cost per kilometre × period distance.
These formulas estimate energy purchased. They do not include service, financing, tyres, insurance, parking, battery replacement or depreciation.
Step-by-step: calculate your own comparison
- Set one distance. Record your actual kilometres per day, month or year. Include the return journey and regular errands, not just the one-way commute.
- Use a current local petrol price. Enter the price you would pay in your area, in your currency per litre. Do not substitute a national average unless both scooters are being compared against that same stated average.
- Measure or obtain realistic petrol mileage. A manufacturer’s certified figure may differ from what you achieve in traffic. A fuel-log average over several refills is preferable.
- Find the electric scooter’s consumption. Use a model-specific Wh/km or kWh/km figure from a reliable specification. If you only have battery capacity and range, use the battery method below and label it as an estimate.
- Enter the electricity price that applies to charging. For home charging, use the tariff on your electricity bill, including the applicable consumption slab. State tariffs and slabs differ.
- Calculate each cost per kilometre. Keep all units consistent: litres, kilometres, kWh and your local currency.
- Multiply by the same period distance. Produce monthly, annual or ownership-period totals for both scooters.
- Add ownership costs. Compare purchase price, financing, maintenance, battery assumptions and resale value over an identical ownership horizon.
Worked petrol example: 750 kilometres per month
A June 12, 2026 Bajaj Chetak page illustrates the calculation with 45 km/litre, petrol at ₹105/litre and 750 km per month. These are that page’s illustrative assumptions, not a current national petrol price or an average scooter result.
| Item | Calculation | Result |
|---|---|---|
| Petrol used | 750 km ÷ 45 km/litre | Approximately 16.6 litres |
| Monthly energy cost | 16.6 litres × ₹105/litre | Approximately ₹1,743 |
| Cost per kilometre | ₹105 ÷ 45 | Approximately ₹2.33/km |
To update the example, replace both the petrol price and mileage with your own figures. A small change in either input changes the result directly.
Worked electric example: Wh/km method
Suzuki Motorcycle India’s e-ACCESS example states 39 Wh/km. At an electricity tariff of ₹7/kWh, the pre-loss calculation is:
0.039 kWh/km × ₹7/kWh = ₹0.273/km, or about ₹0.27 per kilometre before charging losses.
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1Repair Windows errors before they cause bigger problems2Scan for outdated or missing drivers - takes under a minute3Clear out junk files and repair common Windows errorsAt 750 km per month, that simple figure gives approximately ₹204.75 (750 × ₹0.273). It is an illustration, not a promise of a typical bill. The manufacturer says actual expense can be higher because charging losses occur and that tariffs vary locally.
| Input | Value in the illustration | Qualification |
|---|---|---|
| Consumption | 39 Wh/km (0.039 kWh/km) | Manufacturer-stated example |
| Electricity price | ₹7/kWh | Illustrative tariff; replace with your bill |
| Energy cost before losses | ₹0.273/km | Actual wall-to-wheel cost can be higher |
| 750-km monthly cost before losses | ₹204.75 | Illustrative only |
Putting the two energy examples side by side
Using the published assumptions above, the petrol estimate is about ₹2.33/km and the electric estimate is ₹0.273/km before charging losses. At 750 km, the rounded petrol example is about ₹1,743 and the electric example is ₹204.75, a difference of roughly ₹1,538 for that month before losses. The gap is an arithmetic result of those particular prices and efficiencies, not a forecast for every rider.
Rounding explains why multiplying the unrounded petrol rate (₹105 ÷ 45) by 750 can produce a slightly different total than multiplying the example’s rounded 16.6 litres. Keep extra decimal places in your worksheet and round only the displayed result.
When you only know battery capacity and range
You can make a simplified estimate with:
Cost per full charge = battery capacity in kWh × electricity tariff per kWh.
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The Bureau of Energy Efficiency (BEE) states: “The cost for a single charge (home charge) shall vary State to State as per notified State EV tariff and battery capacity of the vehicle. This can be estimated by the formula = Battery capacity (in kWh) X EV charging tariff (in INR/ kWh) (Refer State EV tariffs).”
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For the Suzuki e-ACCESS, the published figures are a 3.072 kWh battery and a 95 km certified range under AIS-040 test conditions. Using ₹7/kWh only as an illustration:
- Battery energy cost: 3.072 kWh × ₹7 = ₹21.50 per full charge, before charging losses.
- Certified-range estimate: ₹21.50 ÷ 95 km = about ₹0.23/km, before losses.
The same model also lists 39 Wh/km, which gives a different result because capacity-and-range arithmetic and consumption testing are not identical methods. Use measured wall energy and real distance when available. Do not treat the 95 km certified range as a typical real-world range.
Charging losses: why the electricity bill can be higher
Energy stored in the battery is not exactly the energy drawn from the wall. Losses occur in the charger, cables, battery-management system and battery. Suzuki estimates charging losses for the e-ACCESS at approximately 5–15%. That is a manufacturer estimate; measured vehicle-specific data should supersede it.
If you apply a 5–15% allowance to the ₹0.273/km illustration, the approximate wall-energy cost becomes:
| Assumed loss | Calculation | Approximate cost |
|---|---|---|
| 0% | ₹0.273 × 1.00 | ₹0.273/km |
| 5% | ₹0.273 × 1.05 | ₹0.287/km |
| 15% | ₹0.273 × 1.15 | ₹0.314/km |
These are sensitivity figures, not measured results for every scooter or charger. The most accurate method is to record electricity drawn at the wall over several complete charging cycles and divide by kilometres ridden in those cycles.
Home charging and public charging are different calculations
The BEE formula concerns a home charge using the notified electricity tariff and battery capacity. Public charging may use a provider’s per-kWh price, time fee, session fee, minimum charge, parking fee or other terms. Use the actual price and conditions available to you; do not apply your home tariff to a public session.
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Blended electricity cost = (home kWh × home price + public-charging cost) ÷ total kilometres.
Keep a separate record for each charging location. A scooter that is cheap at home may cost more when most charging is done at a public station.
Certified efficiency is not your daily efficiency
The e-ACCESS 95 km figure is certified under AIS-040 test conditions. Suzuki notes that actual range varies with riding style, traffic, terrain, weather and vehicle load. Battery condition and charging losses also affect the amount of electricity required per kilometre.
The same principle applies to petrol mileage. Stop-start traffic, high speeds, steep roads, under-inflated tyres, extra load and aggressive acceleration can reduce kilometres per litre. For both scooters:
- Use a repeated route or several weeks of normal riding.
- Record distance, energy added and unusual conditions.
- Separate heavy traffic, highway and mixed-use results if your riding is varied.
- Use the conservative, realistic figure for budgeting rather than the best-ever trip.
How to measure a better real-world figure
Start with a full petrol tank or a fully charged battery, record the odometer, and repeat the process over multiple refuelling or charging cycles. For an electric scooter, record the electricity drawn from the wall when possible, rather than only the percentage shown by the dashboard. Note whether charging was at home or public, the tariff applied, traffic, terrain, weather and load. Divide total litres or wall kWh by total kilometres. This approach captures charging losses and your actual riding pattern instead of relying only on a laboratory range or a single trip.
If your usage changes by season or route, keep separate scenarios rather than averaging away an important difference. A city commute and a hilly mixed-use route can reasonably have different efficiency inputs.
Monthly and annual comparison table
Once you have your own per-kilometre values, the period comparison is straightforward.
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|---|---|---|
| Energy cost per kilometre | Petrol price ÷ realistic km/litre | Realistic kWh/km × applicable ₹/kWh |
| Monthly energy cost | Petrol cost/km × monthly km | Electric cost/km × monthly km |
| Annual energy cost | Petrol cost/km × annual km | Electric cost/km × annual km |
| Charging or refuelling losses | Included through actual fuel purchased | Add measured or supported charging-loss allowance |
| Public-energy fees | Usually included in fuel price | Add provider fees and terms where applicable |
For an annual figure, multiply a representative month by 12 only if your distance and tariffs are reasonably stable. Otherwise calculate each month separately.
From energy cost to total cost of ownership
To decide which scooter is cheaper over, for example, five years, choose the same five-year period and distance for both. Build this worksheet:
| Cost category | Petrol scooter | Electric scooter |
|---|---|---|
| Purchase price and taxes | Enter the actual quote | Enter the actual quote, including any applicable incentive |
| Financing | Interest and fees over the period | Interest and fees over the period |
| Energy | Petrol cost/km × total km | Electric cost/km × total km |
| Routine maintenance | Scheduled service, lubricants, filters and wear items | Scheduled service and wear items |
| Battery-related cost | Not normally a traction-battery item | Warranty, replacement provision or other documented cost |
| Insurance and registration | Use local, model-specific quotes | Use local, model-specific quotes |
| Resale value | Subtract expected value at the end | Subtract expected value at the end, including battery condition |
TCO = purchase and financing + energy + maintenance + battery-related costs + other ownership costs − resale value.
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BEE notes that an EV can have a higher upfront procurement cost while charging, maintenance and operating costs may be lower in its example. Neither BEE nor the IEA establishes a universal scooter break-even point. Your break-even distance is:
Break-even kilometres = electric upfront premium ÷ petrol-versus-electric saving per kilometre
Use this only when the numerator includes the same ownership assumptions on both sides. If the electric scooter costs less upfront, there may be no positive break-even distance; it may start ahead before operating costs are considered.
Independent reader supportYour contribution helps us test, update, and keep practical guides available for everyone.What can change the result most
Local energy prices
Petrol prices can change frequently. Electricity rates can vary by state, utility, consumption slab, time of use and charging location. Recalculate when your bill or fuel price changes.
Annual distance
Higher mileage magnifies a per-kilometre advantage. A rider covering a few hundred kilometres a month may save less in absolute terms than a daily commuter, even if the electric scooter’s rate is much lower.
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Real-world efficiency
Traffic, terrain, weather, load, riding style, tyre pressure and battery condition affect both vehicle types. Use model-specific, observed figures wherever possible.
Purchase and finance costs
A large upfront premium can take years to recover through energy savings. Interest can widen that premium, while a cash purchase removes financing from the comparison.
Maintenance and battery assumptions
Do not assume either a zero-maintenance electric scooter or a guaranteed battery replacement. Enter documented service schedules, warranty terms and a clearly stated battery provision. If no reliable replacement price is available, mark that assumption as unknown and show a sensitivity range rather than inventing a number.
Common calculation mistakes
- Comparing different distances: multiply both scooters by the same kilometres.
- Using rated range as daily range: certified tests are not a guarantee of real-world distance.
- Ignoring charging losses: battery energy and wall energy are different.
- Using a national or outdated tariff: enter the rate on your current bill.
- Mixing home and public charging: apply each location’s actual price and fees.
- Comparing energy only when deciding ownership: include purchase, financing, maintenance, battery and resale assumptions.
- Presenting an illustration as a forecast: label the ₹105/litre, ₹7/kWh, 45 km/litre and 39 Wh/km examples with their source, date and assumptions.
A practical worksheet you can fill in
- Monthly kilometres: _____ km
- Petrol price: _____ per litre
- Petrol scooter realistic mileage: _____ km/litre
- Electric scooter realistic consumption: _____ kWh/km (or _____ Wh/km ÷ 1,000)
- Home electricity tariff: _____ per kWh
- Public charging share and fees, if any: _____
- Petrol cost per kilometre: petrol price ÷ km/litre = _____
- Electric cost per kilometre: kWh/km × tariff = _____
- Monthly petrol energy cost: _____ × monthly km = _____
- Monthly electric energy cost: _____ × monthly km = _____
- Ownership-period premium or saving after all non-energy costs: _____
Keep the assumptions beside every result. If you change the tariff, mileage, distance or loss allowance, retain the old scenario so you can see why the conclusion changed.
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1Fix the driver behind crashes, sound loss and screen glitches2Repair Windows errors before they cause bigger problems3Scan for outdated or missing drivers - takes under a minuteFrequently Asked Questions
How much does it cost to charge an electric scooter?
For a home charge, multiply battery capacity in kWh by the electricity tariff per kWh. Then allow for charging losses if your figure represents energy drawn from the wall. Your bill’s applicable tariff and the scooter’s actual battery capacity determine the result.
What does it cost to fully charge the Suzuki e-ACCESS at home?
Using its published 3.072 kWh battery and an illustrative ₹7/kWh tariff, 3.072 × ₹7 is about ₹21.50 before charging losses. The actual amount depends on the tariff, charging losses and whether the battery was completely empty.
Is an electric scooter always cheaper than a petrol scooter?
No. Electricity is often cheaper per kilometre in an example, but the answer can change with local tariffs, public-charging fees, real-world efficiency, purchase price, financing, maintenance, battery assumptions and resale value.
Should I use the scooter’s certified range in the calculation?
Use certified range only as a labelled estimate. The Suzuki e-ACCESS’s 95 km figure is under AIS-040 test conditions; riding style, traffic, terrain, weather, vehicle load, battery condition and charging losses can change real-world results.
How do I compare home and public charging?
Use your home electricity tariff for home energy and the provider’s actual per-kWh price, session or time fees, minimums and parking terms for public charging. If you use both, combine their costs and divide by the total kilometres travelled.
What if the manufacturer gives only battery capacity and range?
Estimate full-charge cost as battery kWh multiplied by tariff, then divide by a realistic distance per charge. Treat the result as a simplified estimate and replace it with measured wall energy and actual distance when those data are available.
The Bottom Line
Use your actual local petrol and electricity prices, realistic model-specific efficiency and the same distance for both scooters. Electric energy is often cheaper per kilometre, but the cheaper ownership choice is the one with the lower total of purchase, financing, energy, maintenance and battery-related costs over your chosen period.
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Product prices and availability are accurate as of the date/time indicated and are subject to change. Any price and availability information displayed on Amazon at the time of purchase will apply.
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