Building full-stack validation infrastructure for high-voltage EV systems — from bare-metal firmware to Android Automotive integration.
Vishal Bagade
Pilot · Builder
The Mindset Aviation demands strict procedural execution and absolute validation. You do not test new systems while in the air; you validate them in a simulator first. I bring this exact mindset to embedded systems and EV powertrain engineering. My ultimate goal is to engineer a 300V custom electric motorcycle equipped with CCS Type 2 fast charging from the ground up.
The Strategy Building a 76V physical powertrain taught me that debugging control logic on live, high-current hardware is tedious and dangerous. To build a 300V system safely, I realized I needed a way to test firmware without physical contactors. That is why I built the EVO vHIL framework: to simulate high-voltage EV control systems and validate firmware purely in software before it ever touches physical hardware.
Current Focus I am currently expanding the EVO vHIL simulation architecture while simultaneously engineering the physical hardware and bare-metal firmware for the custom 300V Battery Management System (BMS).
Engineering projects spanning embedded systems, virtual validation infrastructure, physical powertrain hardware, and automotive software integration.
Full-stack virtual Hardware-in-the-Loop framework for validating high-voltage EV powertrains. Spans production firmware, Android Automotive integration, and deterministic fault injection — without physical hardware.
A custom-compiled Linux kernel for WSL2 enabling native SocketCAN and vCAN interfaces — built to facilitate virtual EV firmware testing without physical Linux hardware or USB adapters.
A physical axial flux motor proof-of-concept built to explore fundamental electromagnetic principles, magnetic flux routing, and 3-phase triangular winding topologies.
Ground-up engineering of a 3kW hub motor, 76V electric bike with a custom-built 24S5P LiFePO4 pack (75Ah). The physical build that proved why virtual validation had to come first.
Deep-dive into the EVO Battery Management System: real-time fault handling, dual-pack energy coordination, and safety-critical state transitions across the traction pack.
A fully automated, live data pipeline tracking 3+ years of real-world financial telemetry for a 5.1kW rooftop solar plant and a two-EV fleet. Built to prove the true economic ROI of the ecosystem.