Technological advances such as neuromorphic computing, quantum computing, and flexible electronics intrigue me because they enable previously unimagined applications for electronic devices. From implantable devices like pacemakers to application-specific MEMS sensors, these technologies are transforming accessibility and the quality of healthcare across the globe. Intelligent embedded systems are now capable of sensing their environments and adapting their behavior accordingly, bringing engineering closer to human-like cognition. Yet these systems face persistent challenges—balancing computational efficiency, meeting strict timing constraints, minimizing power and memory usage, and ensuring reliability in dynamic conditions. I am deeply interested in addressing these challenges through research that bridges intelligent hardware design and sustainable development. My curiosity for electronics began at the age of twelve, when I started dismantling household gadgets to understand their inner workings. That curiosity evolved into a focused pursuit during my undergraduate studies in Electronics and Telecommunication Engineering at the College of Engineering, Pune, where I also completed a minor in Renewable Energy Systems. Among courses such as Control Systems, Digital Signal Processing, and Engineering Mathematics, I found myself drawn most to microcontrollers and microprocessors. My fascination with data transfer and communication protocols led to detailed work with Bluetooth and Wi-Fi in my final-year project. Throughout college, I worked on projects that strengthened my understanding of embedded design. During my sophomore year, I developed firmware for a “Bluetooth Controlled Wheelchair Ramp” to make older buildings more accessible for differently abled people. The system used an MSP430 controller and an HC-05 module to operate a foldable ramp. The difficulties we faced taught me the importance of precision and reliability in wireless systems—especially in healthcare, where communication errors can have serious consequences. My final-year project, “Design and Development of a Wireless Physiotherapy Aid,” combined engineering with human-centered design. In collaboration with Sancheti Hospital, we identified a lack of devices in India that could measure and record hand-grip strength during physiotherapy sessions. We built a Wi-Fi-enabled handheld device that allowed patients to perform exercises independently while recording their progress on a mobile application. I contributed to the firmware for the Wi-Fi module and the mathematical modeling of a custom piezoresistive pressure sensor. Our prototype placed in the top ten percent of the Cisco ThingQbator: Cohort 6 competition. In my junior year, I interned at Schneider Electric India, I worked on developing and simulating an MPPT algorithm using fuzzy logic control to reduce oscillations in solar drive efficiency. After graduation, I continued with Schneider Electric as a Graduate Engineer Trainee in the New Product Development Department. There, I contributed to projects involving 1–5 HP solar drives, motor starters, and MNX contactors. My work focused on developing a serial communication interface between two microcontrollers using a modified MODBUS RTU protocol while maintaining backward compatibility. I also helped refine fault detection and protection logic for solar drives, reducing the error rate by 12%. My dedication earned me a spot among the eight finalists of Intern Talent Triumph-2024. Beyond academics, I have always believed in the power of communication and advocacy. As a member of “Women as Allies” at Schneider Electric, I supported initiatives that encourage diversity and mentorship in engineering. My involvement in street plays and social awareness campaigns in college taught me leadership and empathy—qualities that guide my professional life today. Pursuing the master’s program in Electrical and Computer Engineering at North Carolina State University will allow me to deepen my understanding of embedded systems and pursue interdisciplinary research. With this scholarship, I would focus my efforts on developing sustainable embedded systems that can enhance healthcare accessibility worldwide and continue my journey toward building intelligent, energy-efficient devices that serve humanity.