Team 1: YCrutch
The aim of this project is to develop an ergonomic crutch suitable for prolonged uses (more than three months) that also minimizes trip and slip over a variety of common surface conditions.
Team 3: Octivus
We are designing and optimizing a platform combining intravascular ultrasound and optical coherence tomography imaging techniques for high resolution and deep penetration imaging on tissues.
Team 4: Lazrostics
This project aims at developing a new endoscope that is capable of providing the end user with a standard white-light view and a novel blood-flow sensing view that provides real-time images of blood flow patterns beneath the tissue surface.
Team 5: Eyecon
This project aims at developing a point-of-care device to objectively diagnose dry eye by quantifying tear film thickness.
Team 6: BrainCheck
We are developing a wearable interface to record brain signals for controlling functional electrical stimulation devices to restore movement in paralyzed limbs.
Team 7: Salux Diagnostics
Develop a low-cost and handheld version of an optical imaging platform to quantitatively assess burn wounds.
Team 8: Helix-8
This project aims to develop a device that assists the heart in a circulatory-isolated scheme without the need to surgically modify or remove the heart chambers
Team 9: Selva
Develop a wearable device that monitors several crucial parameters of movements and physiological status to predict the onset of asthma attacks.
Team 10: BubMed
Develop a platform to generate micro-nanobubbles to enrich the oxygen content of solution delivered to wound site to promote healing.
Team 11: Sensenium Medical
Develop a device for detecting an intracranial hemorrhage for the use in an acute primary care situation.
Team 12: Regenerat3D
Our goal is to produce a human ear model containing vascular channels capable of delivering nutrients to hosted cells in the hydrogel matrix.This project aims to develop a method of creating vascularization in 3D-printed tissues. This will be achieved with the use of a dissolvable, sacrificial material and molding technique.
Team 13: Lacoustic
Develop a low-cost microfluidic platform to sort and characterize cells for diagnostic purposes.
Team 14: Amplified
We are developing a thermocycling-enabled pneumatic control system to perform PCR on customized microfluidic cartridges in order to provide efficient and individualized diagnostics.
Team 15: Neurogami
We are developing a microfluidic platform that provides a controlled environment for nerve tissue cultures and electrophysiological examination of neuronal interactions.
Team 16: Voxel
We are developing a system to provide 3D visual representation of the brain of a patient to aid in surgical planning to treat epilepsy, and 3D print the brain from acquired images.
Team 17: 3D ImaGene
This project aims to develop integrated microfluidic and biosensor technologies that can sensitively detect drug-resistant bacteria from biological samples in a culture-free process.
Team 18: BioDrop
This project aims to develop next generation single cell based screening microtechnologies for B cells
Team 19: ReFeel
Develop a sensor module that acquires crucial information such as tactile sensation to feedback to the prosthetic users.
We are celebrating the culmination of the Biomedical Device Design capstone course at UC Irvine. Join us over food and drinks as the senior design teams showcase their prototypes and compete for a chance to win BioENGINE Fellowships and Capstone Design Awards.
*Note: BioENGINE Fellowship candidates are also eligible for Capstone Design Awards
This event happened on June 8, 2017. Sorry you missed it, but check out the photos!
View our photos on Instagram
Dr. Bill Tang poses with BME graduates at The Henry Samueli School of Engineering Commencement Celebration, held June 16, 2017 at the Engineering Gateway Plaza.
UCI Applied Innovation (The Cove)
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