Muhammad Tanveer Baig-Embedded Systems | ADAS | RF Systems | Quantum Optics | R&D and Validation & Integration

Led the hardware development and validation of a safety-critical 400 V battery management system (BMS) for the TOGG SUV program; performed system architecture reviews, schematic validations, EMC and reliability tests, and root cause analyses in line with relevant automotive standards (ECE-R10, CISPR25, ISO-26262). Coordinated cross-border EU engineering teams, customer reviews, and technical documentation to deliver a production-ready, validated system.

Architected and integrated 22 state-of-the-art ADAS validation vehicles for BMW ADCAM and LIDAR programs at Magna Electronics; synchronized up to 26 heterogeneous sensors (LIDAR, RADAR, cameras, GNSS/INS) using PTP-based timing architectures. Defined the system architecture, HW/SW interfaces for hardware-in-the-loop (HIL) reprocessing, sensor integration strategies, and data acquisition frameworks. This enabled scalable vehicle-level validation, improved validation efficiency by 25%, and reduced project costs by €1.45 million.

End-to-end validation and integration of automotive radar platforms for a Daimler project at Continental. Developed automated open-loop hardware-in-the-loop (HIL) environments to accurately test target tracking KPIs, field of view limits, and thermal and voltage-related ECU state machines. Used a highly complex toolchain consisting of CANoe, Lauterbach Trace32, RADAR target simulators, and EMC shielding chambers for RF and system validation. Synchronized global, interdisciplinary teams to speed up troubleshooting and close critical technical gaps.

Reconstructed and validated the product architecture of an electromechanical e-bike by integrating and troubleshooting critical subsystems (BMS, motor control, sensors, HMI, electronic locking systems). Built a comprehensive system-level test bench for functional testing, fault reproduction, and performance analysis; coordinated suppliers and implemented corrective actions to improve reliability and traceability.

Defined the system architecture and validation strategy for a LIDAR platform developed in cooperation with Elmos Semiconductor; evaluated optical measurement concepts, SPAD detector integration, and system requirements, and created technical recommendations for product development and verification.

Developed LabVIEW-based automation and verification software for a high-precision hydraulic and electromechanical test system for FTE Automotive; integrated NI DAQ hardware for high-frequency real-time capture of physical measurement data. Developed automated test sequences, programmable endurance tests, troubleshooting routines, data logging, and analysis tools to improve test efficiency and traceability.

Successfully managed complete engineering life cycles for well-known industrial customers (Magna, Continental, Farasis, FTE Automotive, BMW, Daimler, TOGG) – from requirements engineering and proof of concept through system integration and validation to technical documentation, supplier coordination, and user training.

Responsible for the full development cycle, integration, and international deployment of a German-patented, low-noise multi-channel signal generator (arbitrary waveform generator). The scope included system architecture, mixed-signal PCB design, embedded firmware, LabVIEW automation, and verification testing in quantum technology laboratories in Germany, the UK, and Slovakia.

Designed, developed, and integrated complex embedded hardware, software, and laboratory automation systems for precision measurements and real-time control across the full engineering lifecycle.

Developed high-performance embedded electronic systems (microcontrollers, FPGA, CPLD, SRAM, EEPROM, digital isolators, DAC, operational amplifiers), mixed-signal circuit design, EMC-compliant multilayer PCB layout, and precise data acquisition hardware.

Created control systems and automation solutions in C/C++, LabVIEW, Python, and MATLAB for real-time laser control, laboratory instrumentation, automated measurements, and data analysis.

Developed and validated optomechanical, RF, and electronic subsystems, including low-noise signal generators, RF resonators, vacuum-compatible interfaces, and precision measurement technology.

Integrated and characterized advanced laser and optoelectronic systems for quantum applications (e.g. external cavity diode lasers at 399 nm, 369 nm, 638 nm, 935 nm, beam steering and telescope systems, wavelength meters, and optical modulators).

Performed precision alignment, laser stabilization, and system characterization for stable and reproducible laboratory operation.

Systematic troubleshooting and performance optimization of integrated optical, electronic, and software-based systems to ensure high measurement accuracy and operational stability.

Created technical documentation, validation reports, and scientific publications. Co-inventor of a granted German patent and co-author of 5 peer-reviewed publications within 4 EU-funded research projects.

German Patent: Signal Generator (DE102011013997)

EU Research Projects: Microtrap | iQIT | PICC | High-accuracy optical clocks with trapped ions

Journal Publications: Phys. Rev. A 91, 033406 | Appl. Phys. B 107, 935–943 | Rev. Sci. Ins. 84, 124701 | Phys. Rev. A 92, 043421 | Appl. Phys. B 114, 27–36

Operated and monitored high-pressure urea synthesis processes involving CO₂, ammonia, and ammonium carbamate systems to ensure safe, stable, and efficient continuous plant operation, including start-up, shutdown, and emergency restart.

Applied real-time process monitoring and optimization techniques by controlling critical operating parameters, analyzing process deviations, and supporting ISO 9001-compliant production quality.

Carried out plant inspections, fault detection, and basic troubleshooting on critical process equipment, including reactors, compressors, heat exchangers, pumps, and related utility systems, to improve operating safety and minimize downtime.

Worked with interdisciplinary teams from engineering, maintenance, and operations during maintenance work to support safe shutdowns, plant isolation, recommissioning, and safe restart procedures.

Led safety-critical operating procedures through strict implementation of QHSE processes, permit-to-work systems, lock-out/tag-out (LOTO), hazardous material handling measures, and risk control actions to ensure compliance with industrial safety standards.

Performed structured safety inspections and operational audits across all plant areas to identify unsafe conditions, support corrective actions, and maintain high standards in occupational safety and environmental protection.

Trained and supported junior staff and apprentices in process operation, safety procedures, fire prevention and firefighting, plant handling, emergency response, and best operating practices to strengthen team skills and knowledge transfer.