Jazmín Rentería González

Hello!

I am Jazmín Rentería González, a Bachelor of Science student in Electrical Engineering and Physics at the University of Missouri-Columbia (Mizzou). I am currently researching biomedical engineering electrical design, wearable electronics, and sensors, under the supervision of Dr. Syed Kamrul Islam in the Analog/Mixed Signal VLSI and Devices Laboratory (AVDL), in the Department of Electrical Engineering & Computer Science. I am passionate about leveraging my engineering background to solve real-world problems and cultivate an inclusive environment.

email: jr7rt [at] mail.missouri.edu

personal: jazmin.renteria.g [at] gmail.com

Research Projects

Vertically Aligned Carbon Nanotubes for Sensor Technologies

University of Missouri - Columbia

Analog/Mixed Signal VLSI & Devices Laboratory

VACNT forests, or Vertically Aligned Carbon Nanotube forests, are structured arrays of carbon nanotubes (CNTs) grown perpendicular to a substrate by means of chemical vapor deposition (CVD). Due to their exceptional mechanical, electrical, and thermal properties, our current research focuses on their potential for biosensing purposes. At the AVDL Laboratory, we are specifically exploring how substrate circuit design influences transduction efficiency, with the broader goal of integrating VACNTs into a System-on-Chip (SoC) platform for advanced, miniaturized biosensors. Stay tuned...

[Publication coming soon...]

PCB Design for Electrohydraulic Soft Actuators in Cardiac Assistance

Stanford University

Biomimetics & Dexterous Manipulation Laboratory

This project aims to enhance the design and functionality of electrohydraulic soft actuators for cardiac assistance applications. Leveraging advancements in hydraulically amplified self-healing electrostatic (HASEL) actuators, the research focuses on creating an efficient and and robust PCB design to control these actuators. The goal is to achieve precise and reliable actuation for soft robotic systems that can mimic the natural contractions of heart muscles.

[SURF 2024 Final Poster]

Energy Harvesting and Power Optimization for Wearable Electronics and Smart Textiles

University of Missouri - Columbia

Analog/Mixed Signal VLSI & Devices Laboratory

This research focuses on innovative energy harvesting methods tailored for wearable electronics, aiming to improve device autonomy and efficiency. By integrating piezoelectric and thermoelectric materials, the study explores the conversion of mechanical and thermal energy into electrical power. Our approach leverages the unique properties of flexible substrates to maintain user comfort while maximizing energy output. The findings highlight significant advancements in sustainable power solutions, potentially revolutionizing the future of wearable technology by reducing dependency on conventional batteries.

[Fall 2023 - Research Paper]

[Fall 2024 - Research Poster]

Industry Experience

Electronics Engineering Intern

NASA Langley Research Center

Aeronautics Systems Engineering Branch

In my second summer at NASA Langley, I worked closely with engineers in the Aeronautics Systems Engineering Branch on projects advancing Advanced Air Mobility (AAM). I contributed to the RAVEN SWFT platform by designing the data acquisition system in PCB form, ensuring reliable integration for eVTOL testing. Much of my work was hands-on, from programming RF radio modems and sensors with RFDesign to supporting field flight tests through instrumentation setup and troubleshooting. This experience gave me practical insight into the challenges of bringing experimental aeronautics systems from concept to hardware implementation.

Electronics Engineering Intern

NASA Langley Research Center

Electronic Systems Branch

My first internship at NASA focused on designing energy-harvesting circuits capable of sensing and visually signaling elevated electromagnetic fields. I explored multiple circuit topologies across different frequency bands, optimizing for sensitivity and efficiency while proposing improvements in layout techniques like impedance matching, ground layering, and via separation. Beyond the design phase, I documented findings, maintained the bill of materials, and communicated technical updates to senior leadership. This project introduced me to the process of developing an idea into a functional prototype, balancing theory with practical engineering constraints.

Distributed Energy Resources Intern

Evergy, Inc.

Transmission & Distribution

At Evergy, I supported the Transmission & Distribution division in evaluating how renewable and distributed energy resources could be integrated into the utility grid for 1.6 million residential and commercial customers. My work included load flow and distribution analyses that helped demonstrate cost-saving benefits of residential renewable adoption, averaging about 15% savings per household year-over-year. The experience gave me a deeper understanding of how large-scale power systems adapt to new technologies, as well as the engineering challenges of modernizing the electrical grid.

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