Summary
Highly accomplished RF Engineer with 6 years of experience specializing in the design, simulation, and testing of high-frequency circuits and systems for wireless communication. Proven expertise in developing innovative RF solutions from concept to production, optimizing performance and reducing costs. Adept at leveraging advanced simulation tools and test equipment to validate designs and troubleshoot complex issues. Seeking to apply strong analytical and problem-solving skills to contribute to cutting-edge RF technology development.
Experience
- Led the design and integration of RF front-end modules for next-generation Wi-Fi 7 chipsets, achieving a 15% reduction in power consumption and 10% improvement in linearity.
- Developed and optimized power amplifier and LNA circuits, reducing noise figure by 0.5 dB and increasing output power by 2 dBm across the 5-7 GHz band.
- Designed and characterized RF transceivers for mobile communication devices (LTE/5G), contributing to a 20% reduction in BOM cost through component optimization.
- Executed rigorous RF testing and debugging using VNAs, spectrum analyzers, and oscilloscopes, resolving critical performance issues that impacted product launch schedules.
Projects
- Designed a 64-element phased array antenna operating at 28 GHz for 5G Customer Premises Equipment (CPE), achieving a gain of 25 dBi and beam steering capability over ±60 degrees.
- Developed a low-power, high-linearity RF transceiver for a new line of industrial IoT sensors, extending battery life by 25% and improving communication range by 18%.
Education
- Specialized in RF & Microwave Engineering with a 3.9 GPA
- Thesis on mmWave Phased Array Antennas for 5G Applications
- Awarded Graduate Research Fellowship for innovative RF circuit design.
- Graduated Summa Cum Laude with a 3.85 GPA
- Recipient of the Dean's Scholarship for Academic Excellence
- Completed capstone project on high-efficiency power amplifiers for IoT devices.



