MUHAMMAD ZEESHAN ARSHAD

• Design, implement, and integrate software features for the V93000
platform, improving throughput, reliability, and performance.
⋆ Provided technical leadership through mentorship, architectural guidance, and strategic
decision-making.
⋆ Collaborated with hardware, QA, and product management teams to ensure seamless
integration and high-quality deliveries.
⋆ Participated in design reviews and technical discussions to drive complex feature
development.
⋆ Improved the internal test framework to enhance efficiency, usability, and overall
developer productivity.
⋆ Contributed to design requirements and evaluation of soft IP cores for the
next-generation multicore SoC test processor.

• Developed and validated software components for the V93000 ATE
semiconductor test platform in agile workflows — C/C++, Bash,
Ruby, PHP.
⋆ Participated in release planning, feature refinement, and quality-assurance activities
across multiple product cycles.
⋆ Coordinated with customer, hardware, and test-engineering teams to ensure quality
aligned with requirements.
⋆ Contributed to CI/CD pipelines to streamline development, testing, and release
processes.
⋆ Developed internal tooling to improve developer productivity and workflow efficiency.
⋆ Delivered a key project involving software architecture for scalable, multithreaded,
low-latency data links across embedded and workstation environments.
⋆ Implemented interface drivers for OpenOCD and related debugging frameworks.
⋆ Provided engineering support by reproducing customer scenarios and performing
structured root-cause analysis.
⋆ Produced technical documentation, design notes, and test specifications to support
cross-team knowledge sharing.

• Prototyped, developed, and supported embedded systems for
Industry 4.0 — C/C++, Python, Bash/Ansible.
⋆ Designed ultra-low-power display modules with optimized hardware,
energy-harvesting features, and embedded-system constraints.
⋆ Implemented industrial sensing solutions using ToF LiDAR sensors, real-time data
acquisition, and advanced signal-processing techniques.
⋆ Extended support for integrating various connectivity options (NB-IoT, Wi-Fi) and
input interfaces (MES, I/O peripherals) into industrial IoT systems.
⋆ Prototyped e-mobility BMS platform featuring scalable lithium-ion hardware,
diagnostics, and remote telemetry capabilities.
⋆ Supported cross-functional teams through systematic debugging, field-issue replication,
and structured root-cause analysis.
⋆ Executed testing and quality-assurance activities while maintaining manual CI/CD
routines, OTA release workflows, and configuration management.

• Designed and implemented the next-generation SmartRack
Controller (embedded IIoT gateway) for Industry 4.0.
⋆ Designed embedded Linux-based hardware with custom module-level integrations.
⋆ Developed application software according to defined system and software requirements.
⋆ Enabled rapid peripheral connectivity through customized interface and driver support.
• Delivered firmware updates and enhancements for existing devices
(C/C++).
⋆ Developed an OTA-capable bootloader for distributed slave devices.
⋆ Implemented additional firmware improvements and maintenance updates.

• Enhanced and maintained firmware for Industry 4.0 devices (C/C++).
⋆ Investigated and resolved technical issues to improve software quality.
⋆ Implemented software improvements to enhance device reliability and performance.
⋆ Created technical documentation, including firmware flow and sequence diagrams for
existing codebases.

• Designed and prototyped embedded IoT devices for Industry 4.0
applications (C/C++, Python).
⋆ Engineered display devices, including hardware design and firmware development.
⋆ Prototyped and evaluated ultra-low-power IoT indoor positioning modules.
⋆ Implemented a lightweight diagnostic webserver for real-time monitoring and
visualization of device metrics.
⋆ Integrated support for new devices into existing infrastructure while ensuring full
backward compatibility.

• Supported research on bacterial spectroscopy through electronic
prototyping, PCB design, and laboratory automation at the Applied
Laser Spectroscopy Lab (C/C++, Python).
⋆ Designed and simulated lock-in amplifier for laser spectroscopy experiments.
⋆ Integrated and configured the amplifier for high-sensitivity measurements in LabVIEW.
⋆ Automated spectroscopic measurements to enhance repeatability .

• R&D for HFDF / Passive RADAR systems using C/C++, Python, and
open-source tools.
⋆ Implemented timing synchronization amoyng multi-channel SDRs.
⋆ Developed and validated signal-detection algorithms in MATLAB and GNU Radio.
⋆ Optimized C++ code for high-performance DSP modules.
⋆ Developed test modules to automate detection and calibration of RF subsystems.

• Hands-on reverse engineering of industrial control systems.
⋆ Reconstructed schematics of a feedback system for an AVR-based power generator.
⋆ Analyzed a digital control system built on a Z80 processor.