Multimodal Robotics // Aerospace Systems

Alvaro Lazaro

Embedded Systems & Flight Autonomy Engineer

UAV TRANSITION // PCB DESIGN // C++

Mercury: Transforming Ground-Air Drone

Founded a startup to engineer a multimodal delivery vehicle. Developed custom transition flight logic to manage the aerodynamic shift between street-driving and autonomous flight. Managed full-stack hardware: from airframe CAD to high-reliability PCB architecture.

CV Localization Algorithm
OPENCV // PYTHON // GPS-DENIED NAVIGATION

Computer Vision-Based UAV Localization

Engineered a robust CV algorithm allowing a UAV to infer global coordinates without GPS. Utilizing visual feature tracking and terrain matching, achieved 80% localization accuracy in simulated environments—critical for mission-resilient autonomous flight in GPS-denied zones.

NASA Student Launch Team
SYSTEMS LEAD // ACTIVE CONTROLS // DIGITAL TWIN

NASA Student Launch 2025

Led 20+ computer, electrical, and mechanical engineers. Developed a high-power rocket with active airbrakes. Spearheaded a Digital Twin software suite to validate airbrake control laws, earning the university's first NASA award in 8 years.

MONOCULAR SLAM // BAYESIAN STATS // THETA* PLANNING

Odyseus: Spatial Intelligence SDK

A hardware-agnostic API for advanced robot autonomy. Implemented state-of-the-art monocular depth estimation, Bayesian statistical filtering for sensor noise, and Theta* path planning. Enables cheap sensors to perform advanced SLAM and obstacle avoidance.

Rocket Deployable Drone Hardware
HIL TESTING // LORA // RECOVERY SYSTEMS

Rocket-Deployable UAV

Designed a drone system capable of surviving and deploying from a rocket payload at 400ft. Developed high-reliability embedded firmware for recovery and LoRa-based telemetry. Used Hardware-in-the-Loop (HIL) testing for mission validation.

VR Published Research
PUBLISHED RESEARCH // VR // SIMULATION

VR Training Simulation Research

Software Developer for a published research paper on roadside construction worker training. Built a high-fidelity VR simulation (VR4VR) to study safety behavior in high-risk environments, focusing on realistic physics and human-factors engineering.

BIOMETRICS // FIRMWARE // PCB DESIGN

Feynman Lock (Biometric Security)

A field-tested biometric lock system featuring custom-designed PCBs, SPI-based communication with fingerprint sensors, and low-power firmware. Developed as a high-security replacement for standard dorm locks, serving as a reliable entry system for 2 years.

FLIGHT TESTING // DUAL-MODE PROTOTYPE

Ratbird

An experimental flight testbed and dual-mode hybrid drone used for verifying custom flight control algorithms. Developed as a rapid prototyping platform to validate sensor fusion reliability and flight envelope expansion.

Technical Engineering Portfolio