Glossary

Battery Electric Vehicle

Definition
A Battery Electric Vehicle (BEV) is a type of electric vehicle (EV) that solely uses chemical energy stored in rechargeable battery packs for propulsion. Unlike hybrid vehicles that combine electric and internal combustion engine power, BEVs contain only electric motors, motor controllers, and battery packs. They do not have conventional liquid fuel components, such as fuel pumps, fuel lines, or fuel tanks. Because of this, BEVs produce no tailpipe emissions, making them a zero-emission vehicle (ZEV). BEVs are typically charged by plugging into an electric power source, which replenishes the battery packs. Charging times can vary based on the power capacity of the charger and the size of the vehicle’s battery. Once charged, the energy stored in the batteries is used to power an electric motor (or motors) that propels the vehicle. Modern BEVs often come with a range of additional features, such as regenerative braking, which recovers and stores kinetic energy from braking, and sophisticated management systems to maximize range and battery life. Advanced Fuels are gaining traction because they can offer higher environmental benefits compared to conventional biofuels. They aim to address some of the concerns associated with first-generation biofuels, such as the use of food crops for fuel production or land use implications.
— sennder Team

FAQ

The lifespan of BEV batteries can vary significantly, but they are typically designed to last between 10 to 20 years. Factors such as the vehicle's make and model, the climate, and how the vehicle is used can affect battery life. Recent data supports this range, with some sources mentioning that with proper maintenance and depending on usage, the batteries could last up to 15 years or more​1​​2​​3​.
Yes, BEV batteries can be recycled, and the majority of their components are recyclable. There's a growing concern, especially in the European Union, about the metals required for battery production, and recycling dead lithium-ion batteries is seen as a potential solution. The EU has adopted comprehensive battery regulations to spur battery recycling on a large scale. This regulation requires manufacturers to collect waste lithium-ion batteries for recycling and, in the case of EV, e-bike, and energy storage batteries, incorporate recycled materials into new ones​4​. There are also various methods and technologies being developed or used to recycle BEV batteries, such as pyrometallurgical, hydrometallurgical, and mechanical processes​5​​6​​7​.
BEVs generally have fewer moving parts than conventional petrol/diesel cars, which can lead to potentially lower maintenance costs. They require less regular maintenance as they have fewer fluids like engine oil that need regular replacement. The estimated scheduled maintenance cost for a light-duty BEV is lower per mile compared to a conventional internal combustion engine vehicle​8​. Several studies and reports corroborate that the maintenance costs of BEVs are lower, with one study finding them to be 40% lower than ICE vehicles​9​.

Example or usage in road freight logistics:

Your explanation provides a sound rationale for the application of BEVs in road freight logistics, particularly for last-mile delivery services. The benefits you listed such as quieter operation, lower running costs, zero tailpipe emissions, and efficiency in stop-and-start city driving are pertinent and well-grounded. The point about investing in charging infrastructure or utilizing public charging stations is also valid and crucial for the effective operation of BEVs in a logistics setup.

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