Previous ASME Award Winner

Capstone Design Projects

KangaMove Parental Skin-to-skin Contact Support

2024-2025 - Winter

Team: 7

Team Members

Reuven Reyman
Mayah Carlton
Parissa Teli
Jeffrey Keppler
Mike Zhang

Contact Team
The KangaMove is designed to support parents during skin-to-skin contact by providing stability for equipment and accessories while holding their child. The posable arm integrates seamlessly with vital NICU equipment, including Jet Ventilator auxiliary components, ventilator tubes, and IV lines. By securing these essential connections, the KangaMove alleviates concerns about tube displacement, allowing parents to focus on bonding with their infant.
Image of a posable arm with KangaMove written on the side

Unmanned Aerial Systems Hybrid Powertrain Testbed

2024-2025 - Winter

Team: 3

Team Members

Daniel Cruz-Espada
Jason Holtkamp
Joud Bukhari
Kenneth Su
Shivharsh Kand
Ziad Gari

Contact Team
A testbed designed to evaluate the thermal behavior of PCB stators and rotors for hybrid drone powertrains. Built for modularity, it allows controlled testing under various operating conditions, providing critical insights into heat dissipation and airflow dynamics. Its adaptable framework supports iterative testing of different rotor designs and stator configurations, enabling the refinement of cooling strategies for improved efficiency.
Testbed Assembly

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

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.

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

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

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

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

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

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).

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

Automated Graphene Transfer

2024-2025 - Winter

Team: 14

Team Members

Charles Bowman
Eric Foss
Joseph Lee
Lars Osterberg
Aditya Visvanath

Contact Team
This project, sponsored by Professor Oscar Vazquez-Mena of the NanoEngineering department, aimed to expedite the graphene transfer process by utilizing a fully autonomous tank system with feedback from a conductivity probe.
Tank system conaiting pump inlet, drain, conductivity probe, level switch, and graphen basket next to water resevior and electronics box.

Material Transfer Cleaning

2024-2025 - Winter

Team: 2

Team Members

Natalie Nguyen, Henry Thai, Kevin Nguyen, Nate Suzuki, Marvin Zhang

Contact Team
Genentech’s manual wipe-down process for disinfecting barrels is time-consuming and ergonomically challenging. This project automates this with a semi-autonomous system for easy loading and unloading. Barrels move via an omnidirectional ball conveyor, where a misting system loosens debris before top, side, and bottom brushes ensure thorough cleaning. Operators control each cleaning substation via a control panel, enhancing efficiency, consistency, and ergonomics within Genentech’s workflow.
Material Transfer Cleaning Prototype

Endoscopic Multiload Clip Applier

2024-2025 - Winter

Team: 5

Team Members

Benjamin Tarver
Divya Gangaramani
Kai Sims
Michelle Henien

Contact Team
This project developed a robotically-assisted multiload clip applier designed to close blood vessels during heart and lung surgeries. The device moves titanium clips from a cartridge into a pair of applier jaws which compress to close a clip, a process that can be repeated multiple times via an internally integrated reloading mechanism. The device fulfills the primary objective of enabling surgeons to apply multiple clips during endoscopic procedures without necessitating instrument extraction.
An image of a clip applier prototype being held up by da Vinci Xi Cadiere fenestrated forceps. The prototype is a translucent cylindrical shell with a set of jaws sticking out of the top, and cables hanging loosely from the bottom.

Flow Enabled Energy Generation Device

2024-2025 - Winter

Team: 4

Team Members

Ashley Campbell
Maime Grace Barnard
Gabrielle Scott
Markus Gokan
Justin Kwak

Contact Team
The flow of ions in salt water over a charged surface results in formation of an electrical double layer (EDL). Over long channel lengths, this results in a measurable electric potential difference. The objective for this project is to use this principle to develop a solid state transducer to generate electrical energy from ocean wave and flow dynamics.
Final Text Fixture Design

Automated Tracheal Cuff Pump

2024-2025 - Winter

Team: 6

Team Members

Nicholas Franzwa
Anurag Gajaria
Brian Kong
Agasthya Valluri
Andrew Vo

Contact Team
Procedures such as tracheostomies make use of tracheal tubes to apply oscillatory pressure onto stents. These tubes require long hours of manual syringe pumping which makes certain procedures difficult. The product consists of an automated pump system with advanced ASDR controls and a website UI to review and download system behavioral data.
Enclosure containing all essential components for this project

Syringe Pump for Tissue Expander

2023-2024 - Spring

Team: 23

Team Members

Alex Li
Sahar Shelton
Kyle Li
Riley Smith

Contact Team
A motorized syringe pump that uses a stepper motor with a lead screw to move the plunger of the syringe, all enclosed within a frame. The pump has the option to move forward, backward, and hold position per the user's will. To prevent unintended travel, the limit switch can effectively stop the movement during the procedure, giving the user ample time to change the moving direction. On top of everything, it is 39% less expensive than comparable syringe pumps on the market!
Syringe Pump for Tissue Expander

Automated Wire Feeding and Crimping Machine

2023-2024 - Spring

Team: 30

Team Members

Aaron Grandbouche
Jack Saade
Christian Brueggeman
Jonathan Lane
Daven Ng

UCSD Project Team 30 has been retained by Performant Advanced Manufacturing to develop an innovative and cost-effective solution to automate the manufacturing of custom wire harnesses for small-scale mechatronics.
CAD Assembly of Automated Wire Feeding and Crimping Machine

Wavetank

2023-2024 - Spring

Team: 17

Team Members

Frank Pham
Justin Le
Alexander Yeh
Ian Tom
Hans Millan

Professor Saha is collaborating with Professor Hao on a research focusing on the understanding of small-scale physical processes at the atmosphere–ocean interface. The sponsor’s goal is to obtain a device that produces effective deep water waves that allow for the study of wave-droplet interactions. The designed wave tank has the capacity to consistently generate custom 1-D deep water waves with wavelengths ranging from 5-105 mm, frequency from 4-63 Hz and amplitude from 0-5 mm.
CAD of Wavetank

Kinematic Design and Prototyping of Sealed Portal for Commercial Sterilization Machine

2023-2024 - Spring

Team: 12

Team Members

Joanna Anaya
Amaris Carrera
Sheena Dugao
Oscar Morales

Contact Team
The main goal of this project is to ensure a consistent and reliable machine design that will sterilize shopping carts to reduce the amount of viruses passed around in everyday life. For this quarter, the team focused on designing and testing the kinematics of a “tilt-up” door for the machine. The team created the support frame for the component and attached light fixtures, hinges, and arm supports to allow for proper movement when the door opens and closes.
The final prototype of the door component for the Sealed Portal for Commercial Sterilization Machine. The three main components shown are the door, the piano hinge, and the gas struts. The components are assembled onto a wooden frame.

Random Positioning Machine

2023-2024 - Spring

Team: 26

Team Members

Andrew Copeland
Manuel Figueroa
Nicholas Maekawa
Nicholas Ratto
Vladimir Rubtsov

Our sponsor desired a machine capable of reproducing microgravity conditions, necessitating the development of a Random Positioning Machine (RPM). Currently, conducting experiments on biological samples under microgravity requirements is extremely costly and time-consuming. A two-axis nested frame design was developed with fixtures to mount a variety of sample types and achieve an integrated acceleration of 0 m/s^2.
Final design solution of RPM. The design consists of a square nested frame design with an adjustable sample stage mounted in the center. The machine is powered by two stepper motors connected to a pulley system.

Oxygen Rescue Catheter

2023-2024 - Spring

Team: 10

Team Members

Kara DeGrood
Conor Norris
Damon Pun
Ella Schmidt

Contact Team
When the lungs are severely damaged due to physical trauma or from infection they cannot provide oxygen through the blood to the entire body, and medical intervention must occur to save the life of the patient. The oxygen rescue catheter is an inexpensive, not overly invasive method of transporting oxygen into the bloodstream, bypassing the lungs entirely and allowing the red blood cells to absorb oxygen via microbubbles within the veins themselves.
The Oxygen Rescue Catheter, alongside bubbles produced by the device

Sub Sea Sonics

2023-2024 - Winter

Team: 11

Team Members

Saimai Lau
Adam Ornelas
Zach Sutherland
Christopher Yakou

Contact Team
Sub Sea Sonics looked to tackle communication issues that come with deep sea fishing. Fishermen had no reliable and cost effective way of logging the dropped positions of their fishing gear. This not only made fishing difficult but allowed some to fish in endangered locations. Team 11 designed a system that can log the telemetry of fishing gear and that can operate under high sea pressures. This device consisted of a pressure vessel, tracking electronics, software, and a battery system.
Both devices that were made.

Kidney Transplant Pump

2023-2024 - Spring

Team: 16

Team Members

Manuel Abitia
Victor Leung
Ethan Kozberg
Joseph Elhardt
Vivi Nguyen

Contact Team
The kidney is placed in a sealed transparent chamber with tubing and blood drainage openings, on a perforated stainless-steel platform for monitoring. Perfusate flows to an external reservoir, recirculating nutrient-rich blood cells via a peristaltic pump, simulating natural blood circulation. An oxygenator mimics lung function, while a heating system maintains temperature. Integrated sensors monitor flow rate and pressure, ensuring conditions meet specifications.
Kidney Transplant Pump Layout

Neuroscience Accessory for Mice Brain Transverse Hippocampus Section

2023-2024 - Spring

Team: 11

Team Members

Diego Gonzalez
Elise Rehder
Griffith Nguyen
Sandra Naranjo-Heredia
Sydney Tom

Contact Team
Our design is based on the existing buffer tray for the Leica VT1000S Vibratome along with the addition of a rotating stage with various angles for sectioning up to 45 degrees, which was done to simplify the sectioning process.
Buffer Tray Stage

KickEase Pediatric Swim Trainer

2023-2024 - Winter

Team: 7

Team Members

Lucas Grinius
Andy McDaniel
Malachi Sanders
Hong Suk Suh

Contact Team
The KickEase is a pediatric swim trainer that is worn around the knee, and limits excessive knee flexion in order to promote the development of proper muscle memory for flutter kicking. The final design of the KickEase consists of four major components: a fabric body, restraining hinges, attachment straps and internal grip pads. These components are layered on top one of another and fastened using Chicago screw and snap fasteners.
Front and Rear Views of the KickEase Laid Flat

Single-Cell Microfluidic Chip Design and Fabrication

2023-2024 - Spring

Team: 8

Team Members

Conor Archdeacon
Theo Emery
Wesley Huszarik
Spencer Martin
Trevor Matthews

Contact Team
Microfluidics devices were designed and fabricated to study single cell interactions between coccidioidomycosis and neutrophil at large scales. High efficiency rates were reported, providing valuable data driven insight towards developing cost effective research tools and treatments for Valley Fever. Cell immobilization techniques were considered for extended time scale imaging.
A microfluidic chip shown as visible to the naked eye, and as seen with fluorescent microscopy imaging.

Solar Cell Lamination Automation

2023-2024 - Spring

Team: 7

Team Members

Jenna May Ingal
Erin Muldoon
Derrick Tan
Ayla Teittinen
Emma Wilby

Contact Team
Perovskite solar cells can revolutionize solar energy technologies but their instability and degradation under environmental conditions pose obstacles for commercialization. An in-line system increases production via constant output and less human labor. Components include a heating system, motorized roller machine, and elastomers for each cell. It maintains a perovskite cell at 150°C and 4 MPa of pressure while passing through the system.
Roller System Final Design

Precision Jacket for Photoacoustic Imaging

2023-2024 - Winter

Team: 10

Team Members

Hannes Du
Andrew Enmark
Alexander La
Jason Mania

Contact Team
Precision Jacket for Photoacoustic Imaging

Genetically Modified Mosquito Incubation Box

2023-2024 - Spring

Team: 13

Team Members

Emily Inthavong
Emily Weiner
Keileina Honda
Matthew Amankonah
Samantha Stampfl

Contact Team
The goal of this project is to create a mosquito suppression box that allows for the development of genetically modified mosquito eggs so that the sterile male mosquitoes can easily exit the box while the flightless female mosquitoes are contained.
Black square plastic container with green lid