In one of our previous articles, we discussed the importance of batteries and how microprocessors have made modern electric vehicles possible. A reader asked: “Is it really true that with electronics, your battery can last more than eight years?†The answer is yes. Battery life depends on many factors—like how often it’s charged, how fast you ride, and how much power is needed at any given moment. But it's not just the whole battery that's monitored; each individual cell is tracked. This data is checked constantly, processed in real-time, and used to choose the best performance mode for every situation—whether you're charging, accelerating from a stop, overtaking, or just taking a leisurely ride.
Imagine speeding up at a traffic light, suddenly braking at an intersection, then slowing down because a squirrel jumps onto the road. Every movement requires quick decisions. If your e-bike hesitated for a second before moving, it would be frustrating. These algorithms are programmed and executed in real time, which means handling massive amounts of data and variables. Controlling an electric motor is even more complex. Unlike traditional motors used for simple tasks like lifting loads, electric bikes require precise control over speed and torque, which demands another layer of intelligence—a motor controller.
So, in our e-bike, the smart battery communicates with a smart motor controller. The better they "understand" each other, the longer the battery lasts, and the smoother the ride. It's not just about power—it's about coordination. When you start moving, whether through a throttle or a PAS system, the bike must instantly respond. For example, if you hit a sudden obstacle, the battery and motor must react immediately to avoid damage. This makes the electric bike more than just a regular bike with an engine—it's a highly integrated smart system.
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We want to emphasize that the idea of an e-bike as just a regular bike with an added motor is outdated. Like the difference between a potter’s wheel and a 3D printer, both can create similar things, but one is far more advanced. An e-bike isn’t just about moving—it’s about smart integration. There are no pedals in the block diagram, because the bike is powered by a battery controlled by a processor. While you can still pedal, the motor supports you automatically, making the ride smooth and efficient. This is like having a smartphone on wheels—smart, connected, and full of possibilities.
With built-in sensors, GPS, anti-theft systems, and more, modern e-bikes can work as a single intelligent system. For instance, GPS can help plan routes and manage energy usage. Anti-theft systems can link with user identification, making your bike truly personal. Even cameras, communication modules, and environmental sensors can all work together. Tesla has shown what’s possible, and it’s only a matter of time before these features become standard on e-bikes too.
So why is Delfast a smart bike?
Because it’s designed with cutting-edge technology, smart control systems, and endless potential for innovation. It’s not just a vehicle—it’s a platform for future mobility. And that’s exactly why Delfast is ideal for professional use.
But that’s a topic for the next article.