BEV thermal management
Coordinating battery, cabin, and powertrain thermal demands under real-world constraints.
Vehicle intelligence · Electrification
I’m Prashant Lokur—an automotive controls engineer and Industrial PhD researcher focused on BEV thermal management, energy optimization, model predictive control, and embedded vehicle systems.

About
My work sits at the intersection of system modeling, optimization, controls, embedded implementation, and vehicle integration.
I focus on converting complex physical and operational constraints into control strategies that improve efficiency, robustness, comfort, performance, and component protection.
The objective is not only to develop a clever algorithm—it is to make the complete system work.
Coordinating battery, cabin, and powertrain thermal demands under real-world constraints.
Using prediction and optimization to make energy-aware decisions over a future horizon.
Balancing efficiency, performance, comfort, component protection, and range.
Turning algorithms into robust, testable, production-oriented vehicle software.
Experience
A multidisciplinary career connecting automotive product development with research in intelligent electrified-vehicle systems.
01
Chalmers University of Technology × ZEEKR
Researching intelligent thermal and energy management for battery-electric vehicles, connecting advanced control theory with production-focused engineering.
02
Volvo Cars
Developed and integrated automotive control functions across modeling, software implementation, calibration, verification, and vehicle-level validation.
03
Controls · Electrification · Embedded Systems
A career spanning control algorithm development, system modeling, embedded implementation, and multidisciplinary vehicle integration.
Research & intellectual property
Industrial PhD
Researching methods that coordinate thermal systems and vehicle energy flows using prediction, optimization, and system-level intelligence.
Published patent application
Inventor on work related to intelligent EV charging-stop selection, route planning, battery considerations, availability, and dynamic journey adaptation.
Engineering playground
This illustrative demo shows how ambient conditions, charging power, and commanded cooling can affect an estimated battery temperature and efficiency window. It is educational—not a production vehicle model.
Estimated temperature
18.6°C
Cooling demand
0%
Estimated efficiency
95.4%
Simplified illustrative equations. No proprietary data or control logic is represented.