• Collaborated with the Product Quality Testing team to conduct comprehensive manual testing of software, deployed on SDR receivers, transmitters, and transceivers. This involved validating functionalities such as identification, logging, interception, interrogation, jamming, and collection of audio and signal information across various waveforms and formats via web and PC-based interfaces.• Developed Python scripts to perform extensive statistical analysis of large datasets for geolocation direction-finding system performance using Time Difference of Arrival (TDOA) for each node, comprising an SDR and DF antenna, and supported the statistical analysis of GPS data to ensure accuracy.• Led system-level development and integration of a compact platform combining an SDR, server, down converter, and DF antenna into a single product. This platform was designed to detect Frequency Hopped Spread Spectrum signals, identify hop clusters, and employ a wide array of digital signal processing tools, including state monitoring, and scanning of operator-specific frequencies.• Supported Compute Environment team through the development of network engineering solutions using Ansible for Linux-based operating systems. Additionally, engaged in hands-on development and troubleshooting to facilitate the integration of new hardware into existing systems.• Authored an Electrostatic Discharge (ESD) Workmanship Manual for all Engineering Labs to ensure adherence to safe ESD practices. Developed an accompanying audit system to align with Boeing audit requirements, thereby enhancing compliance and safety standards.

• Piloted the development of new logic for Triconex Trident PLCs and design for Siemens SIMATIC HMIs to support alarm rationalization for all existing refinery furnace safety systems, resulting in higher utilization of PLC safety alarm notifications and preventing future expenditures related to this safety issue.• Spearheaded the upgrade of a current bad actor displacer level instrument for a running water drum. • Guided the virtualization project for outdated APC software employed to track real-time process data.

• Authored new and improved existing LabVIEW code for testing—i.e. ignition testing and handshakes between modules—of the 2021 Jeep Grand Cherokee.• Devised an ignition bench for the handshake between the BCM and other modules to facilitate ignition state changes.• Executed detailed root cause analyses of 2021 Grand Cherokee’s physical modes with BCM through ignition bench

Developed methods for better understanding opponent strategies from game play data and identifying strategies that are already categorized as well as identifying and categorizing new strategies

- Diagnose, integrate, and validate various advanced electronic vehicle systems and ECUs as well as CAN, LIN and Ethernet communication on future products- Extensive use of CAN detecting tools and traditional electrical equipment in an electrical lab atmosphere to analyze and troubleshoot vehicle systems - Collaborate with Vehicle Program, Component Release, Calibration/Testing, Integration, Software, and Specification teams- Tasked to perform vehicle level networking testing, analyze the data and validate the integrity of the vehicle system of a next-gen Jeep vehicle model

- Analyzed SLOSH simulations on storm tides to build a model for a closed flap gate, through AutoCAD, that could be implemented into the Rockaway beach in NYC for storm surge protection- Analyzed waves and particle movement in waves, to build gabions, to protect homes in endangerment of water

- Designed and built a multi-functioning clock, with a carbon monoxide monitor- Created through utilizing digital logic design concepts, coding through an Arduino and soldering- Developed a familiarity to open-source microcontrollers & a foundation in troubleshooting circuits