Our objective was to create a rocking motion device for a rocking chair, automating its movement. We developed the device to help people with autism, including kids, who need a constant motion to relax and fall asleep without supervision.

While the prevalence of shock refractory ventricular fibrillation is low, survival remains incredibly rare. Different defibrillation methods have been proposed to improve outcomes, but the double sequential external defibrillation (DSED) technique is the most promising. We aimed to produce a device, that can deliver the same functions as a manual defibrillator and employ the DSED technique without the need for an extra defibrillator. 

Our goal was to create a safe and long-lasting total stemless reverse shoulder arthroplasty implant that can be approved by the FDA for consumer use. This type of arthroplasty would allow for a large range of motion compared to current models. However, the humeral component is more easily dislodged from the bone. We created a testing rig to apply force at various angles to mimic stresses from moving the arm. 

Dental anxiety affects a large portion of the population, leading to dental care avoidance, resulting in compromised oral health. We addressed this concern by developing a motorized bite block aimed at alleviating anxiety induced by dental drilling noises. Utilizing bone conduction technology, the device emits vibrational frequencies through the jaw bones, reducing patient anxiety and enhancing the overall dental experience. 

The project is significant in improving patient attendance, making procedures safer and reducing treatment costs. 

Our goal was to assess and suggest improvements for cervical implant technology. We aimed to develop a surface treatment to improve VySpine’s PEKK-based spinal implants’ osseointegration and osteoinduction to reduce patient recovery time, improve implant bone encapsulation, reduce recurrence of degenerative disc disease (DDD) and vertebral fracture symptoms. 

We created a device for Biosense Webster to establish a normalized relationship between the proximal and distal ends of cardiac catheters, in order to control the quality. Our primary focus was to improve Biosense Webster’s current testing arena for catheters and create controlled testing conditions replicating the human body, with limited storage space. Key user design needs included uniform dial movement, repeatability, recording catheter tip movement and data storage. Design inputs translate these needs into specific requirements, emphasizing precise dial movement