
Hybrid electric vehicles use electricity at speeds below 25 km/h, with fuel consumption approximately around 4 liters. Here is some extended information: Function: Hybrid electric generally refers to the combination of fuel and electric power. The output characteristics of internal combustion engines and electric motors are opposite; electric motors can deliver strong torque at low speeds, providing ample power for vehicle acceleration from a standstill. In contrast, internal combustion engines increase their output power and torque as the speed rises, supplying power for mid-to-high-speed acceleration. Besides enhancing the vehicle's power performance, hybrid electric systems can also significantly improve fuel economy. Types of hybrid electric systems: There are various forms of hybrid electric systems, broadly categorized into hybrid electric vehicles (HEV) without external charging capability and plug-in hybrid electric vehicles (PHEV) that can be charged externally.

Driving a hybrid car is similar to how I usually drive, with the most electricity usage typically at low speeds. In city traffic, maintaining a speed below 60 kilometers per hour mostly keeps it in pure electric mode, which is quiet and fuel-efficient, powered by the battery. When driving on the highway and the speed exceeds 80 kilometers per hour, the gasoline engine automatically takes over or works in tandem, reducing electric usage. Each model is designed differently; for example, the Toyota Prius primarily uses electric power within the 40 to 70 kilometers per hour range, with the engine starting only when needed, but relies mainly on gasoline at higher speeds. I usually pay attention to gently pressing the accelerator and maintaining a steady speed when driving around the city, which prolongs electric usage and provides a smoother, more eco-friendly ride. If you spend more time driving on highways, electric usage decreases, but the system intelligently switches between modes, helping us save a lot on fuel costs. Don’t forget to check the battery status when parking.

I find driving a hybrid electric vehicle in the city very comfortable, with electric power most commonly used at speeds between 50 to 60 kilometers per hour. For example, during peak hours in the morning and evening when traffic is congested, the battery takes over when the car is coasting or accelerating gently, and the electric motor hums without any noise. Once on the highway and speeds exceed 100 kilometers per hour, electric power is used less, and the engine starts to take the main load, at which point fuel consumption becomes slightly higher. From my personal experience, maintaining a medium speed within 70 kilometers per hour uses more electric power, and deceleration can even recharge the battery. It's important to adjust according to road conditions, as the car's energy management system is well-optimized to maximize electric efficiency at low speeds. After developing this driving habit, I've saved a lot of money. Even on weekend trips, I often monitor my speed to avoid driving too fast and using more gasoline.

Hybrid vehicles primarily use electricity at speeds below 60 km/h. In urban stop-and-go traffic, the pure electric mode activates for energy savings. When accelerating above 80 km/h, the gasoline engine kicks in, reducing electricity usage. Different models may vary, but the most energy-efficient operation occurs at low speeds. Maintaining a steady speed while driving is optimal.

From a cost-saving perspective, hybrid vehicles use electricity most efficiently at low speeds between 50 to 70 kilometers per hour, significantly reducing fuel consumption and expenses. During urban driving, when speeds are low, electricity dominates, making costs much lower than gasoline. Once the speed exceeds 80 kilometers per hour, the engine becomes more involved, increasing fuel consumption. I often advise friends to maintain slower speeds in the city, utilizing electricity to save on monthly fuel costs, which also extends battery life. When driving fast on highways, electricity usage decreases, but the overall system optimization remains cost-effective, making it ideal for daily commutes. By controlling driving rhythm well, the economic efficiency is maximized.


