Break Even Point electric cars: TCO online calculator

How much can you save each year with an electric car compared to a petrol or diesel car? This is one of the most common questions when considering switching from an internal combustion engine vehicle to an electric one. To calculate the annual savings of an electric car and determine its break-even point, we consider several key economic parameters. These include the purchase price of the electric car, the cost and lifespan of the battery pack, the purchase price of a diesel or petrol vehicle, electricity and fuel costs, and the annual hours of vehicle use. Generally, electric cars have a higher initial purchase price than equivalent petrol or diesel models. However, charging costs can be significantly lower than fuel expenses. This helps reduce running costs in the long term. For simplicity, this electric car break-even point calculation does not include other factors affecting the total cost of ownership. These include maintenance expenses, insurance costs, vehicle depreciation, and any available incentives or eco-bonuses.
Therefore, the comparison between electric, petrol, and diesel cars should be seen as an estimate of savings related to key purchase and energy costs. It helps understand how quickly you can recover the initial investment.
Finally, choosing an electric car is not just a financial decision. For many drivers, switching to electric mobility is also a choice to reduce environmental impact and emissions.

High efficiency of electric motors: the separately excited electric motors used on Alkè electric vehicles reach a theoretical energy efficiency of around 85%. This high motor efficiency is one of the main factors contributing to reduced energy consumption and improved overall performance of the electric vehicle.
Regenerative braking: another advantage of Alkè ATX electric vehicles is energy recovery during braking. During deceleration, the three-phase electric motors can act as generators, converting the vehicle's kinetic energy into electrical energy. In traditional vehicles, this energy is largely dissipated as heat through the braking system. In Alkè vehicles, however, it is recovered and transferred to the traction batteries. The system thus helps reduce energy consumption, increasing the overall efficiency and range of the electric vehicle.
Low running and maintenance costs: running and maintenance costs for electric vehicles can be lower than those of an equivalent diesel or petrol vehicle. The main reason is the simpler mechanics of electric vehicles. They require fewer components subject to wear and maintenance. The absence of many components typical of internal combustion engines can therefore help reduce routine maintenance and, consequently, the overall running costs of the vehicle over its useful life.

In the case of Alkè ATX electric vehicles, the Break-Even Point graph shows how running costs can grow more slowly compared to those of an internal combustion engine vehicle. Indeed, the cost of the energy required for charging can be particularly low compared to fuel expenses. The efficiency of the electric drive system, combined with regenerative braking, helps optimize consumption. This allows for a more effective use of the energy available in the batteries. A particularly interesting aspect of Alkè ATX vehicles is the ratio between energy used, range, and load capacity. Depending on the configuration, these vehicles are ideal for professional and transport activities. They are perfect for daily travel where low consumption and reduced running costs are required. The Break-Even Point analysis of Alkè ATX vehicles therefore allows for evaluating not only the purchase price of the vehicle but also the overall cost of use over time. Comparing electricity and fuel makes it possible to estimate after how much time and how many kilometres the investment in an electric vehicle can be offset by lower operating costs.