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Previous ASME Award Winner

Capstone Design Projects

Automated EEG Headset Validation and Characterization Fixture

2025-2026 - Winter

Team: 5

Team Members

George Nakoud
Jesse Rupe
Justin Prupas
Max Martin
Winston Chou

Contact Team
Dry-electrode EEG headsets require consistent sensor-to-scalp force to deliver reliable brain monitoring without causing patient discomfort. This project developed a validation fixture to measure the force at each sensor node and verify that it falls within the 30 to 100 gram target range. The fixture used modular force sensing pods snapped into a 3D-printed mannequin head, with force measurements displayed on a PC to assess headset performance before patient use.
Test Validation Fixture with EEG Headset

Biodegradable Battery Solution

2025-2026 - Winter

Team: 4

Team Members

Alicia Baker
David Dalicandro
Devin Otero
Ezekiel Martin
Maia Peterson

Contact Team
Magvolts Energy aims to design a biodegradable battery in order to serve as an alternative to alkaline, lithium, and other precious metal batteries. The project's motivation is to develop the design and manufacturing method of their biodegradable battery design in order to demonstrate feasibility and implementation for commercial use.
Final Battery Casing Design and CAD Photos of Dispensing Mechanism

Maneuverable Intubating Stylet

2025-2026 - Winter

Team: 2

Team Members

Guoxi Wu
Kenneth Ho
Noah Reyes
Kayla Washington
Shivaan Sood

Contact Team
The primary objective of this project was to create a rigid intubating stylet capable of causing deflection at the tip of an endotracheal tube (ETT). The stylet will have a controllable, flexible tip that allows easier guidance of the ETT along the trachea in endotracheal intubation. This maneuverability allows practitioners to adjust the stylet's curvature during insertion, thereby improving patient safety and the success rates of endotracheal intubation in difficult airways.
Final Prototype of the Maneuverable Stylet, Red hand control at top connected to proximal section followed by distal tip.

Built Well Torsion Tool

2025-2026 - Winter

Team: 3

Team Members

Britney Rosas
Diego Murray
Michael Santoso
Sofia Vendituoli

The Built Well Torsion Tool is designed to be used in fitness and labor & delivery environments to provide strength training and aid during child birth. The device consists of a rotary module with two torsion springs and a damper to provide increasing resistance CW and CCW along with slow return to neutral using a rotary damper. There is a magnetic encoder sensor module attached with a LCD screen for data collection along with bedside & gym clamps, stationary & rotating handles for the device.
Built Well Torsion Tool consisting of rotary module, sensor module, stationary and rotating handles

3D Transmission Skull Setup

2025-2026 - Winter

Team: 7

Team Members

Abhinav Swarup
Darren Velasquez
David Quan
Kaz Veitas
Yuanyang Lu

Contact Team
Our project investigates how ultrasound waves propagate in environments relevant to non-invasive brain imaging, where the skull can significantly distort and attenuate acoustic signals. To study this, we perform acoustic mapping by moving a sensor with 3D translation stages, allowing measurements across a grid of positions. The collected data is visualized as a heatmap, revealing acoustic behavior and illustrating how structures like the skull can affect ultrasound transmission.
Completed Tank Setup

Tecture Creative Art Installation

2025-2026 - Winter

Team: 6

Team Members

Team Member 1: Abdulla Zidan
Team Member 2: Anthony Mark
Team Member 3: Darsh Pawani
Team Member 4: Youngyen Lin

Contact Team
The objective of this project was to design, build, test, and document mechanically operated artistic prototypes. These prototypes would be a proof of concept of a technical design that Tecture could implement into their art projects with clients. With the knowledge of how these prototypes functioned, Tecture could implement their design and fabrication techniques into large scale mechanical art pieces with kinetic and interactable features.
Final prototype of Tecture Creative Art Installation project.

Pericardiocentesis Model

2025-2026 - Winter

Team: 1

Team Members

Christian Daidone
Jake Honma
Yuxin Tang
Benjamin Nocera
Owethu Kheswa

Contact Team
This project presents a high-fidelity pericardiocentesis training simulator featuring a mechanically actuated, ultrasound-compatible beating heart. The system consists of a silicone heart model with a single continuous cavity and internal walls representing four-chamber anatomy, enclosed within a fluid-filled balloon that models the pericardial sac and housed in an operating box designed for repeated needle insertion.
Photo of team and sponsor standing around prototype pericardiocentesis trainer model.

Animal Care Processing Project (ACCP)

2024-2025 - Spring

Team: 42

Team Members

Isaac Lin
Vicente Ibarra
Adrian Tong
Surejkrishna Melattinkara Sunil

Contact Team
The Animal Care Processing Project (ACCP) is sponsored by Dr. Keith Jenné, who has served as the Executive Director of the UC San Diego Animal Care Program and Campus Veterinarian since April 2023. The primary objective of this project is to automate the dumping procedure during the pre-sanitization process of animal care cages within the Centralized Research Service Facility at UC San Diego, using a grab-dump-load integrated automation machine to reduce health hazards for facility workers.
image of the full assembly, with the sponsors and team members

Autogyro UAV

2024-2025 - Spring

Team: 22

Team Members

Pranav Sakhuja
Aaditya Shivadey
Ruochen Li
Arham Nawaf

Contact Team
The project was aimed at developing a surveillance-capable autogyro UAV by modifying a hobbyist platform to support live video streaming, manual RC control, and basic autonomous compatibility using a flight controller, GPS, and telemetry system—laying the groundwork for future fully autonomous missions and advanced monitoring features like shark detection.
Autogyro UAV

Solar Wind Tunnel

2024-2025 - Spring

Team: 32

Team Members

Benjamin Marsden
David Bori
Max Gonsalves
Rachel Gillespie

Solar wind tunnel that demonstrates the bow shock effect produced by the solar winds colliding with Earth’s magnetic field. The project demonstrates a fluid dynamics phenomenon in space to inspire a future generation of engineers and scientists.
Setup of solar wind tunnel with fog machine, model Earth, laser mount and fans.

Jacobs Hall Clock Revival

2024-2025 - Spring

Team: 33

Team Members

Jonathan Dela Cruz
Irving Ding
Fatima Fazli
Fernando Gochicoa
Lacey Potter

Contact Team
We have proudly partnered with the student organization, Triton Restoration Initiative (TRI), Dr. Delson, and the UCSD MAE Department to repair and enhance the Jacobs Hall Clock. This includes the primary task of restoring complete and accurate functionality of the gearbox, as well as secondary tasks of improving aesthetics, creating a maintenance plan, proposing the enclosure's refurbishment, and proposing a self-correction system.
Jacobs Hall Clock

Random Positioning Machine 2.0

2024-2025 - Spring

Team: 31

Team Members

Kal Harris
Alec Hulvey
Inesh Patra
Dillan Selitsch
Rachel Su

Contact Team
The Random Positioning Machine (RPM) 2.0 is a microgravity simulation. It is a ground analog for studying manufacturing and other applications in space. Specifically, it was designed to study the process of sintering in space. To do this, a furnace was mounted to the center of the machine. The RPM 2.0 can also be used to test any other long term processes that fit inside its generous 100 pound and 30 cubic inch loading capacity.
Random Positioning Machine 2.0

Quantum Engineered Nano Device

2024-2025 - Spring

Team: 4

Team Members

Scott Ceklarz
Kalie Garcia
Satchin Narasimhan

Designing a procedure to fabricate 2D materials by mechanical exfoliation for the purpose of researching the quantum engineering subfield of Twistronics. Twistronics aims to study the photonic and electronic effects of stacked and twisted 2D materials. This research will aid the creation of quantum engineered nano-devices, devices which can improve current opto-electronic sensors and communication systems.
Senior Design Team Photo

MRI Stereo

2024-2025 - Spring

Team: 5

Team Members

Neha Jacob
Gina Arce
Cassie Pheiffer
Sohan Lele

Contact Team
Magnetic Resonance Imaging (MRI) procedures can be uncomfortable due to the long duration and loud volume during operation. The project objective was to redesign Sound Imaging’s MRI headphones to improve audibility and enhance passive noise dampening. Using pneumatic sound transmission, non-ferrous, FDA-approved materials, the final design reached 116.6 dB at max volume while meeting MRI safety standards, thus improving both patient experience and SoundImaging’s current product performance.
Image of pneumatic headphones

Antibiofouling System for Moored Marine Instruments

2024-2025 - Spring

Team: 23

Team Members

Matthew Argueta
Lindy Avila
Karla Covarrubias
Caden Milan
Lily Rieman

Contact Team
Biofouling, which is the accumulation of marine organisms on submerged surfaces, compromises the accuracy of oceanographic sensors like CTDs. To address this, our project developed a low-power, chemical-free antifouling system that combines mechanical vibration and a rotating brush within a protective guard to deter early-stage biofilm formation. This environmentally friendly solution enhances sensor reliability during extended ocean deployments.
Antibiofouling Design Photo

Triton-Ai Racquet Ball Launcher Magazine and Control

2024-2025 - Spring

Team: 34

Team Members

Sanad Afieh
Nate Froah
Aarav Savla
Colin Szeto

Contact Team
Our team developed a system with three main components to launch racquet balls for the International Roboboat Competition: a launcher, electronics box, and camera. The launcher features over 40 unique 3D-printed parts. The electronics include a brushed DC motor, servo, hall effect sensor, encoder, H-bridge, and a servo power distribution board on a custom perf board. Software integrates with an existing Jetson Nano NX and an OAK-D LR camera for control and targeting.
Autonomous Surface Vessel engaging Black Target Vessel

Regenerative Trailer Braking System

2024-2025 - Spring

Team: 3

Team Members

Brett Angeles
Alex Diaz
Chloe Directo
Iker Garcia
Patrick Rantins

Contact Team
With the Regenerative Trailer Braking System, we are able to make use of braking energy and reduce the wear on a vehicle's brakes by activating regenerative braking on a trailer as it is being hauled. This allows for the driver to capture the otherwise lost braking energy to charge a portable battery mounted on the trailer for use in charging other devices, or propelling the trailer using the electric motor instead of gasoline.
Assembled Regenerative Braking Trailer

Manual In-Pipe Robot Surrogate for Autonomy Development

2024-2025 - Spring

Team: 18

Team Members

Seth Durbin
Edward Lee
Grace Liu
Huy Pham

Contact Team
Our PipeRider robot surrogate is a manually controlled in-pipe robot. The robot is pushed through a ten inch diameter pipe, and through elbows and t sections using a swappable four bar fixture design and motorized arm. Omni-wheels in combination with a linear slider mechanism allow for robot rotation in the pipe. This setup allows for controlled experimentation and data collection to support the development of autonomous navigation and corrosion detection algorithms for engineers at NIWC PAC.
Final CAD of Robot Design

SomnoStay - A Novel Oral Appliance for Obstructive Sleep Apnea

2024-2025 - Spring

Team: 7

Team Members

Paulina Arango
Rishi Carlton
Arya Naik
Cassandra Tamayo Moreno

Contact Team
Obstructive Sleep Apnea is when the collapse of the tongue blocks the upper airway during sleep. It can cause oxygen deprivation, disrupted sleep, and
This is suction device we created to distribute suction across the surface of the tongue so that it may be held to the roof of mouth during sleep. There are holes on the bottom surface of the device to do so.

ShockE Frame Stiffness Test Fixture

2024-2025 - Spring

Team: 19

Team Members

Benjamin Parker
Justin Smudz
Kasey Haman
Jose Moles
Meshal Alrwaished

Contact Team
Team 19 was tasked with building a test bed that was able to measure the torsional and bending stiffness of several existing bike frames. The objective of this test bed is to generate accurate stiffness data to serve as a benchmark for the design of the ShockE motorcycle frame. Having such data helps in further stages of the bike design where the company can have target stiffness and deflection values.
CAD model of final design of bend and twist stiffness test fixture

Carbon Blade Carbon Capture

2024-2025 - Spring

Team: 15

Team Members

Ian Cosgrove
Charlie Frank
Juncheng Li
Alexandra Rodriguez
Konrad Stromayer

Technologies aimed at reducing global atmospheric carbon dioxide concentrations have grown more popular in recent years, but high capital costs hinder implementation. Our project developed a passive carbon capture system compatible with Carbon Blade’s CAPTUS system, a compact carbon removal unit powered by onboard renewable energy. This Direct Air Contactor requires less energy and is more cost effective than large-scale facilities, while promising competitive capture rates.
Carbon Blade

Automated Cognitive Touchscreen Training System for Mice

2024-2025 - Winter

Team: 8

Team Members

Carlos Takeshita
Hyun Joe Jeong
Katrina Chung
Jacob Rossi

Contact Team
Mental illnesses are a rising problem that must be addressed through thorough studies. Researchers can draw parallels in behavior between mice and humans, making mice an appropriate medium of study. Training these mice is a rigorous and long process. To reduce the burden on researchers, we formulated an automated system, reducing the training time while improving data analysis and visualization. The system administers training tasks and rewards, collects data, and visualizes metrics.
Image of training system and mouse enclosure. The PCB and feeder pump live outside of the enclosure, the magazine bolts one side, and the screen lives inside the enclosure behind a shield with five holes to allow the mice access.

GA - Foam Shell Culling Station

2024-2025 - Winter

Team: 1

Team Members

Tobin Boshaw
Matthew Pope
Collin Huang
Samuel Hasegawa
Kenny Ochoa
Brandon Lopez

Contact Team
This project designed, built, and tested an automated Foam Shell Flow Culling Station for inertial fusion energy (IFE) research at General Atomics. The system inspects and sorts delicate foam shells (3–6 mm) in a submerged fluid environment, using a converger, sensor-camera module, and diverter. It improves inspection speed, ensures safe handling, and enhances research efficiency, supporting the advancement of IFE as a clean, sustainable energy source.
Full System CAD

Acoustic Modem Integration onto Wave Glider USV

2024-2025 - Winter

Team: 16

Team Members

Thomas Dolby
Adem Evecek
Bryan Garcia
Omar Salas
Kai Saucedo

Contact Team
Our team was tasked with designing and manufacturing a pressure vessel (PV) to house ROAM electronics for enhanced communication on the NIWC Pacific Wave Glider USVs. This PV integrates with the existing (PUMS) sensor system. Key design elements include the internal mounting of electronics, a pressure vessel enclosure, a hydrodynamic dome, external mounting connections to attach the PV to the tow cable, and mounts for two transducer components for acoustic communication.
Pressure Vessel and Mock Tow Array with Transducer Mounted

Halo Helmet Platform

2024-2025 - Winter

Team: 9

Team Members

Cameron Fisher-Gomez
Ryan Mallon
Allesandra Martinez
Jimmy Nguyen

Contact Team
Protective helmets safeguard the head in high-impact sports but offer limited neck and spinal protection, increasing injury risk in high-speed crashes. As extreme sports grow, better safety solutions are needed.
This project introduces a helmet-integrated roll cage that redistributes impact forces away from the head and neck. Anchored to the upper body via a harness, the system disperses forces more effectively, reducing the risk of traumatic brain and spinal injuries.
Halo Helmet roll cage mounted on a test dummy (render).

LightLok - Burn Prevention

2024-2025 - Winter

Team: 13

Team Members

Daniel Baca
Thomas Gammie
Kayson Neduvakkattu
Cynthia Do
Harshit Goyal

Contact Team
In the operating room, a light cord sends light into a surgical instrument but its tip reaches dangerous temperatures and is a hazard. LightLok is a single-use attachment for lowering the surface temperature of the light cord tip that prevents burns from occurring. LightLok consists of a cap with a fused silica lens hinged to a base clamp that efficiently diverges light and automatically closes when the light cord is not in use.
LightLok Finalized CAD

Outdoor Low Power Measurement Equipment Enclosure (ENTS Enclosure)

2024-2025 - Winter

Team: 11

Team Members

Fayza Elshafie
David Fisher
Michael Gonzalez
Benny La
Elliot Snyder

UCSC and UCSD researchers developed the Environmentally NeTworked Sensor (ENTS) to make environmental research more versatile and cost-efficient. The need for a low-cost, waterproof, and reproducible enclosure to house the ENTS node during deployment prompted Ph.D student Steve Taylor to sponsor an MAE 156 project. A PVC and 3D printed enclosure were developed. With components to increase waterproofing, secure the node, and allow for ENTS functionality, both designs met the project requirements.
MAE156 Team 11 Representative Photo - ENTS Node and Enclosures

OceanWell Multistage Water Filtration System

2024-2025 - Winter

Team: 10

Team Members

Yutao Deng
Zongyu Gao
Zhaohong Li
Raymond Rodriguez
Zijian Wang

Contact Team
The purpose of this project is to create a device that can be used by engineers at OceanWell to test multiple unique combinations of filters ranging from 5 to 500 microns for different types of source water.
Prototype of the Multistage Water Filtration System

Sample Throughput Optimization for Thermal Desorption Spectroscopy

2024-2025 - Winter

Team: 15

Team Members

Ethan Greene
Jamie Lee
Saul Rios
Leo Serbinov
Vedanth Talla
Brayden Wong

The PISCES Lab, as part of UC San Diego's Center for Energy Research, performs Thermal Desorption Spectroscopy (TDS) on the wall materials of nuclear fusion reactors with the goal of improving the performance and longevity of these materials. The PISCES Lab's current TDS system has low sample throughput as the chamber must be opened to exchange samples. This project’s motivation was to develop a sample loading system that increases the number of samples that can be tested in a single day.
TDS Sample Loading System

Endovascular Device for Rapid Blood Clot Removal

2024-2025 - Winter

Team: 12

Team Members

Zachary Huang
Nathan Ng
Michael Ramirez
Colleen Wang
Tony Wang

Contact Team
Our project aimed to create a safer & more efficient endovascular thrombectomy device for dialysis patients, which are susceptible to blood clots. Unlike existing devices that risk tip breakage & require multiple procedures, our design incorporated a novel non-driven tip mechanism to enhance safety & reliability. The device features a three-speed drive unit and to evaluate its performance, we developed a vascular testbed with a camera-based clot quantification system to uphold safety standards.
Team Full CAD of the mechanical thrombectomy device