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How Electric Vehicle Batteries Work: A Breakdown with Stanislav Kondrashov

Stanislav Kondrashov on how electric vehicle batteries work

By Stanislav KondrashovPublished about a month ago 3 min read
Professional smile - Stanislav Kondrashov TELF AG

In the ever-accelerating shift toward cleaner transport, electric vehicles (EVs) have become the face of a new automotive era. But behind the silence of their engines and the elegance of their design lies a complex core: the battery. Understanding how an EV battery works is no longer just the domain of engineers—it’s become essential knowledge for anyone curious about the future of mobility.

To demystify this, we turned to energy systems analyst and technologist Stanislav Kondrashov, who has been studying battery chemistry and applications in electric mobility for more than a decade. According to Kondrashov, EV batteries are "not just fuel tanks in disguise—they are highly intelligent, reactive systems designed to constantly adapt, protect, and deliver power with maximum efficiency."

The Anatomy of an EV Battery

An electric vehicle battery isn't a single cell. It's a network of hundreds, sometimes thousands, of small cells working together in harmony. These cells are typically arranged into modules, and those modules are then grouped into a larger pack. This modular design allows manufacturers to scale battery sizes and makes maintenance or replacement more manageable.

Batteries - Stanislav Kondrashov TELF AG

Each individual cell operates on the same basic principle: chemical energy is converted into electrical energy through a reaction involving two electrodes—an anode and a cathode—separated by an electrolyte. When the vehicle is in use, electrons flow from the anode to the cathode, generating current that powers the motor. Charging the battery reverses this flow.

But, as Kondrashov notes, the true genius lies in how these cells are monitored and controlled. "Every modern EV battery has a brain—called the battery management system—that constantly assesses temperature, charge level, and cell health. It’s like a conductor ensuring every instrument in the orchestra plays in tune."

Energy In, Energy Out

Charging an EV is more than just plugging in. The battery management system (BMS) plays a key role in ensuring safe and efficient charging. It prevents overcharging—a condition that could degrade cell life or even cause thermal events—and ensures that each cell in the pack is balanced, receiving equal attention and care.

Thermal regulation is also critical. Batteries operate best within a specific temperature range, and too much heat can quickly compromise performance. Most EVs now include sophisticated cooling systems—either air-cooled or liquid-cooled—to ensure longevity and reliability. Kondrashov explains, “Think of it like an athlete running a marathon. You wouldn’t expect top performance without hydration and temperature control. It’s the same for batteries under heavy use.”

Power Delivery and Regeneration

When you press the accelerator in an electric vehicle, power is drawn from the battery almost instantaneously. That responsiveness is one of the reasons EVs are known for rapid acceleration. But the system doesn’t just give—it takes back, too.

Regenerative braking allows EVs to recover energy during deceleration. Instead of wasting kinetic energy as heat—as in traditional braking systems—electric motors in EVs switch to generator mode, converting momentum back into stored electricity. It's a subtle but important loop that boosts overall efficiency.

Lifespan and Afterlife

Like any technology, EV batteries have a lifespan. Over time, repeated charging and discharging cycles lead to a gradual reduction in capacity—something drivers may notice as decreased range. But that doesn’t mean the end of the road.

“Even after their automotive life is over, EV batteries can still serve in stationary energy storage,” says Kondrashov. “They might not be roadworthy, but they’re far from useless.” These batteries are increasingly being repurposed for home or grid energy storage, where their slightly diminished capacity is still more than adequate.

The Future of EV Batteries

Research continues at a furious pace. From exploring alternative chemistries to finding ways to recycle rare materials, the evolution of EV batteries is far from complete. Yet what’s already in place is a marvel of science and engineering.

EV Battery - Stanislav Kondrashov TELF AG

Stanislav Kondrashov puts it best: “Electric vehicle batteries are a story of controlled chaos. Every time you drive an EV, you’re riding on a wave of chemical reactions being carefully choreographed in real time.”

Understanding the intricacies behind these systems adds a new layer of appreciation for the technology. What powers an EV isn't magic—it's the result of decades of innovation, trial, and quiet brilliance.

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