Sri Vyshnavi Kampelli

• Developed embedded logic for partition state handling and zone specification in security systems, supporting up to 8 partitions and multiple zone types (wireless, output, IB2).
• Integrated HX module support into existing H3-based firmware while maintaining backward compatibility and meeting real-time performance constraints.
• Designed and executed unit tests using Lua and Busted, validating legacy message encoding for partitions and zones, with precise control over byte-level representations.
• Rewrote startup logic for the wired touchscreen module to detect IB2 disconnection and prevent enrollment when the battery is inserted, enhancing device safety and UX.
• Streamlined MQTT-based communication for status queries and device supervision, replacing legacy message handlers with topic-specific subscriptions and cleaner async flows.
• Applied methodical debugging using log analysis and real-time simulation to trace partition/zone behavior and system events, ensuring consistent CAL vector generation.
• Maintained and refactored Lua scripts to align with updated business rules and simplify test-driven development.

• Engineered real-time embedded software for aerospace applications, including hybrid electric propulsion systems and avionics safety modules.
• Designed and implemented firmware in C/C++ with a focus on high-reliability and deterministic behavior under safety-critical conditions.
• Integrated and validated CAN protocol communication between control units, sensors, and actuators.
• Utilized tools such as oscilloscopes, JTAG, and real-time debuggers to resolve timing and communication issues at the hardware interface layer.
• Led efforts in functional and regression testing in accordance with aerospace safety standards (DO-178C, DO-254), ensuring full traceability and audit-readiness.
• Contributed to interdisciplinary system integration alongside electrical, systems, and test engineers, focusing on seamless hardware-software coordination.
• Authored technical documentation, interface specifications, and verification reports for compliance and knowledge transfer.
• Engaged in peer code reviews and continuous learning to adopt evolving technologies and improve development workflows.

• Designed and simulated a robust powertrain system for an electric two-wheeler, emphasizing improved reliability and performance from the load (motor) side.
• Developed a detailed MATLAB Simulink model utilizing an Impedance Source Inverter (ZSI) to overcome limitations of traditional inverters in electric mobility applications.
• Focused on real-time system behavior and optimized the inverter's response to dynamic load changes, enhancing voltage stability and fault tolerance.
• Successfully implemented and validated theoretical concepts through real-time simulation, demonstrating practical feasibility and efficiency improvements.
• Contributed to model validation, parameter tuning, and result analysis, showcasing the converter's adaptability to EV load profiles.

Developed a wireless distance measurement system using Arduino UNO, HC-05 Bluetooth module, and an ultrasonic sensor (HC-SR04) to detect and relay obstacle distance.

• Programmed the microcontroller using Arduino IDE, implementing real-time distance calculation based on ultrasonic wave reflection and time-of-flight principles.
• Enabled wireless transmission of sensor data to external devices (e.g., smartphones, laptops) via Bluetooth for user-friendly, remote monitoring.
• Applied serial communication protocols and integrated sensor calibration for improved accuracy and response consistency.
• Demonstrated a practical and cost-effective solution for applications in automation, robotics, and smart sensing systems.

• Developed and maintained effective professional relationships with internal teams and operational staff to understand large-scale industrial workflows.
• Gained hands-on exposure to switchyard operations, observing the functionality of protective equipment and control mechanisms during fault conditions and routine maintenance.
• Studied the steel manufacturing process, including the working of furnaces converting iron ore and scrap into molten steel and subsequent rolling operations for steel sheathing.
• Observed preventive and corrective maintenance procedures for high-power electrical equipment such as motors, transformers, and switchgear in both mechanical and electrical workshops.
• Acquired foundational knowledge of heavy industrial safety protocols, equipment diagnostics, and repair strategies critical to uninterrupted plant operation