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Research

Current Research

Active research projects in autonomous systems, multi-agent coordination, and robotic resilience.

Sandia Autonomous Vehicle
ROS 2 Autonomy Stack for Multi-Agent Systems

AutonomyNM | Sandia National Laboratories

Duration: May 2025 – Present | Role: Undergraduate Research Intern

Led development of RAM-Stack, an integrated ROS 2 software architecture for coordinated autonomous multi-agent systems in GPS-denied environments.

  • System Integration: Unified SLAM Toolbox, SwarmSLAM, Navigation2, and ROS 2 Control into a cohesive autonomy stack
  • Performance Optimization: Mastered behavior tree debugging for Navigation2 and implemented Zenoh-based interface filtering to improve multi-agent scalability and reduce communication overhead
  • Tools & Technologies: ROS 2 (Humble), Python, C++, Gazebo, SLAM Toolbox, Nav2, Zenoh DDS
  • Outcome: Poster presentation to Sandia technical leadership in August 2025 and a recorded three-hour technical presentation for future users of the RAM-Stack
Robot Workspace Visualization
Maximizing Robot Traversal Under Actuator Failure

Compliant Mechanisms and Robotics Group (CMR) | Brigham Young University

Duration: May 2025 – Present | Role: Undergraduate Researcher | Funding: Utah NASA Space Grant ($2,000)

Developing fault-tolerant algorithms to maximize workspace and maintain locomotion in multiply-redundant truss robots experiencing actuator failures.

  • Algorithm Development: Creating optimization routines to reconfigure robot geometry and maintain maximum reachable workspace under failure conditions
  • Validation: Simulating multiple failure scenarios and validating continued locomotion in both simulation and hardware platforms
  • Tools & Technologies: Python, discrete-time CBFs, kinematic modeling, embedded control systems
  • Outcome: Conference presentation scheduled for April 2026 at Utah NASA Space Grant Symposium. First-author paper in preparation for submission to IEEE Robotics and Automation Letters
MAGICC Lab Research
Multi-Agent Navigation in GPS-Denied Environments

Multi-Agent Intelligent Coordination and Control (MAGICC) Lab | Brigham Young University

Duration: August 2024 – Present | Role: Undergraduate Researcher

Investigating real-time Control Barrier Function (CBF) formulations for safe multi-agent navigation using LiDAR-based environmental perception.

  • Novel Approach: Formulating CBFs directly from LiDAR point clouds for dynamic obstacle avoidance without pre-mapping
  • Simulation & Hardware: Validating multi-agent coordination algorithms in Gazebo simulation and deploying on physical robot platforms
  • Tools & Technologies: ROS 2, Python, C++, Gazebo, LiDAR sensor processing, control theory

Past Research

Completed research projects demonstrating expertise in soft robotics, embedded systems, and microfluidics.

NASA Inflatable Robot
Inflatable Structures for Lunar Applications

Compliant Mechanisms and Robotics Group (CMR) | Brigham Young University

Duration: August 2023 – May 2025 | Role: Lead Undergraduate Researcher | Team: 25+ students | Funding: NASA BIG Idea Challenge ($147,000)

Led development of an untethered, modular inflatable truss robot for lunar surface operations as part of NASA's Breakthrough, Innovative, and Game-changing (BIG) Idea Challenge.

  • Team Leadership: Established research operations for a new lab, coordinating 25+ undergraduate researchers across mechanical, electrical, and software teams. Led grant writing and management efforts at a time with few to no graduate students
  • System Design: Led complete redesign of soft, inflatable octahedral robot incorporating novel parent-child radio networking with error-checking protocols
  • Achievement: Selected as 1 of 6 national finalists in the 2023-2024 NASA BIG Idea Challenge. Presented technical paper and poster at the BIG Idea Challenge symposium and the November 2025 Lunar Surface Innovation Consortium (LSIC) meeting
  • Publications: In preparation for resubmission to IEEE Transactions on Mechatronics
  • Tools & Technologies: SolidWorks, Arduino, embedded control, RF communications, inflatable actuator design
LIDSS Rafts
Remote Control System for Nuclear Diagnostics

LLNL Independent Diagnostic Scoring System (LIDSS) | Lawrence Livermore National Laboratory

Duration: May 2024 - May 2025 | Role: Undergraduate Research Intern

Engineered embedded control system for autonomous fleet of diagnostic rafts used in nuclear weapons testing applications.

  • Full-Stack Development: Delivered end-to-end mechanical, electrical, and software systems for fleet command and control
  • Real-Time Systems: Programmed STM32 microcontrollers with FreeRTOS, implementing task scheduling and inter-raft communication protocols
  • Tools & Technologies: STM32, FreeRTOS, C/C++, RF communication, embedded systems design
Nerf Gun Image
World's Smallest Nerf Gun

Mark Rober Collaboration & CMR | Brigham Young University

Duration: June 2023 – August 2023 | Role: Undergraduate Researcher | Impact: 72M+ YouTube views

Collaborated with YouTuber Mark Rober to engineer the world's smallest functional Nerf guns across five different scales, featured in a viral video with 72M+ views.

  • Iterative Design: Conducted 100+ design iterations and failure mode analysis to optimize mechanical performance at micro-scale
  • Technical Communication: Provided weekly technical reports documenting design decisions, test results, and optimization strategies
  • Tools & Technologies: SolidWorks, 3D printing, mechanical testing
Microfluidic Device Image
Quantum Dot Temperature Sensing in Microfluidic Devices

Thermal and Energy Management Processes (TEMP) Lab | Brigham Young University

Duration: March 2023 – August 2023 | Role: Undergraduate Researcher

Investigated quantum dots as novel temperature sensors for 3D-printed microfluidic "lab-on-a-chip" devices, enabling non-invasive thermal measurements.

  • Experimental Design: Calibrated quantum dot fluorescence output to temperature in custom microfluidic channels
  • Device Fabrication: Designed and fabricated 3D-printed microfluidic test devices for temperature measurement validation
  • Publication: Co-author on paper published in International Journal of Heat and Mass Transfer (2025)
  • Tools & Technologies: 3D printing, fluorescence microscopy, microfluidics, thermal analysis