Central Tower / Professional profile
Résumé
Adin Pezo · Aerospace engineering & robotics

ADIN PEZO Everett, MA 02149 | U.S Citizen | (857) 363-8517 ap.adinpezo@gmail.com | https://www.linkedin.com/in/adin-pezo-6a80b9336/ | https://github.com/Apezo10 EDUCATION Worcester Polytechnic Institute (WPI) | B.S. Aerospace Engineering | Minor in Robotics Engineering Expected May 2029 Languages: English, Bosnian/Serbian/Croatian GPA: 3.75 | WPI Men’s Varsity Soccer Relevant Coursework: Aerospace Control Systems, Aerospace Dynamics, Systems Programming in C, Algorithms
RESEARCH & ENGINEERING EXPERIENCE GNC Airbrake Lead Winter 2025 - Present WPI High-Power Rocketry Club (HPRC) Worcester, MA ● Developed a quaternion-based Multiplicative Extended Kalman Filter (MEKF) in C++ , integrating IMU, GPS, and magnetometer measurements for real-time rocket attitude and state estimation for IREC 2026 ● Leading development of an LQR-based active-airbrake controller in MATLAB/Simulink , integrating CFD-derived
aerodynamic
coefficients
into
flight
simulations
to
regulate
drag
and
target
a
30,000-ft
apogee
within
±1%.
● Placed 9th of 21 in 30K COTS and tied for 1st place in Build Quality score among 141 teams. Undergraduate Researcher Aug 2026 - Present Manipulation and Environmental Robotics (MER) Lab Worcester, MA
● Developed Python-based kinematic and visual-servoing models for a three-section, nine-tendon continuum robot, integrating piecewise constant-curvature (PCC) kinematics, Jacobians, and camera projection to model actuator-to-image-space motion. ● Designed and validated an actuation-aware velocity manipulability metric using singular value decomposition (SVD), directional image-space capability, and tendon actuation concentration; evaluated 500 configurations and conducted physical robot experiments using OpenCV tracking and a C++/ROS interface. ● Implemented a receding-horizon trajectory optimizer evaluating 45 candidate steering and null-space reconfiguration strategies, improving mean simulated time-to-target by 8.4% compared with baseline image-based visual servoing (IBVS) across 100 configurations. Student Intern May - August 2024 Mass Robotics Boston, MA ● Led a 5-person team in building an agricultural drone, integrating onboard cameras, sensors, and flight-control hardware to achieve 16 seconds of autonomous flight. ● Soldered and integrated camera electronics and sensor connections, troubleshooting electrical and communication issues during hardware assembly and flight testing.
TECHNICAL PROJECTS Autonomous BB8 Spherical Robot | Computer Vision, Robotics, Embedded Systems, Linux ● Designed and built a Star Wars-inspired BB-8-style spherical robot supporting toggleable Bluetooth teleoperation and
autonomous
vision-based
navigation
through
a
distributed
Raspberry
Pi/ESP32
control
architecture.
● Implemented a MobileNet-SSD + KCF perception pipeline on Raspberry Pi 3B+ , using neural-network detections to
initialize
and
periodically
correct
lightweight
tracking
for
real-time
person
following.
● Built Wi-Fi/UDP communication from the vision system to the ESP32 for normalized steering commands, motor mixing,
PWM
control,
IMU
feedback,
and
communication
failsafes.
Reaction Wheel Attitude Control | Controls, State estimation, Dynamics ● Designed and manufactured a single-axis reaction-wheel platform using an ESP32, MPU6050, motor driver, and brushed DC
motor
to
study
spacecraft
attitude
control
.
● Implemented a 200 Hz PID attitude-control loop using Kalman-filtered IMU feedback demonstrating control to ±0.7 rad.
TECHNICAL SKILLS Programming:
C++,
C,
Python,
MATLAB
Tools & Platforms:
Simulink,
ROS,
OpenCV,
Git/GitHub,
Linux,
PlatformIO,
Onshape,
OpenRocket,
LTspice
Controls & Robotics:
PID,
LQR,
Kalman
Filtering,
State
Estimation,
Embedded
Systems,
Computer
Vision
ACHIEVEMENTS & ACCOLADES Dean’s List (2025 - Present) | NEWMAC Men’s Soccer Rookie of the Year 2025-26 | Charles O. Thompson Scholar | Charles R.
McNulty
Award
2026