C/C++
Experienced
Hello, I'm
Aspiring Embedded Systems Engineer | Hardware • IoT • Firmware
Designing efficient systems at the intersection of hardware and code
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2+ years
Software & Embedded Systems
B.Sc. ECE
M.Sc. ECE (in progress)
I'm a graduate student in Electrical and Computer Engineering at Illinois Tech with a passion for embedded systems, IoT, and hardware design. I've built real-world solutions like a steam trap monitoring system and smart energy meters, combining C++, Python, and PCB design. I enjoy building reliable systems from the ground up—designing, coding, testing, and deploying.
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The project involved converting a Kill-A-Watt plugloadmonitor into a Wi-Fi-enabled data logger using an ESP32-based Bee Data Logger. The system logs power consumption data and transmits it wirelessly, utilizing an integrated microSD card reader, RTC, and Wi-Fi capabilities. The design required reverse engineering the Kill-A-Watt to tap into current and voltage signals,using voltage dividers to safely stepdown 5V signals for the 3.3V ESP32. The system collects 500 samples per second, applying signal normalization and phase shift calculations to determine power factor and real power.
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As a Research Assistant at my university, I'm involved in diverse projects. One standout initiative focuses on automating temperature control in large buildings using a device called BORC. This device, attached to radiator valves, adjusts temperature based on user-set setpoints. It communicates with a central database (InfluxDB) via a 915Mhz transceiver and gateway. To streamline development, we use Python for logging, integrating C++ and C code. Additionally, I'm working on a user-friendly dashboard for global device monitoring. BORC is nearing completion and holds promise for optimizing building temperature control efficiently.
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The PCB is built around an ATmega328P microcontroller and integrates an RFM69 module for sub-GHz wireless communication. It supports two K-type thermocouples through MAX31855 converters, enabling accurate temperature monitoring. The board is optimized for compact size, low-power operation, and battery use, with FTDI and ICSP headers for programming. Testing confirmed correct functionality and very low power consumption: ~7 μA in low-power sleep mode and ~15 mA during active processing.
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This project stemmed from the success and inspiration of our previous multi-purpose bot,with a distinct focus on revolutionizing agricultural practices through automation. Designed to streamline tasks in the agricultural sector, our fully automated bot featured a front attachment for ploughing the soil and a rotating disc at the center for precise seeding or planting of saplings.
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Following the success of my initial robot project, I embarked on a journey to enhance its capabilities, resulting in thedevelopment of aversatilemulti-purpose bot.This advanced iteration featured a powerful Li-Po battery and utilized planetary gearbox motors with a remarkable speed of upto 600RPM. The bot's exceptional speed and agility proved invaluable, particularly in Robowar events hosted by various universities, where it garnered widespread acclaim andapplause. Leading a team of three dedicated individuals, we collaborated closely to optimize the bot's performance and ensure its success in competitive environments.
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During my internship at Vitvara Technologies, I played a pivotal role in crafting a system tailored for small-scale warehouses, leveraging the ESP-32 microcontroller. This innovative solution boasted a range of functionalities, including precise temperature and humidity regulation, conveyor belt oversight,intruderdetection,fire detection with immediate alerts, and power supply management for waterpumps.
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