Past Projects

This project presents a small-scale vertical axis wind turbine designed for floating, off-shore, deep-water energy production. Developed for the U.S. Department of Energy Collegiate Wind Competition, the VAWT features aerodynamic blades optimized for wind speeds between 5–13 m/s, with a 4-bar linkage system that adjusts blade pitch for efficiency. The turbine includes an AC power generator, DC rectification system, and a software-controlled load side that optimizes torque and power output. The floating foundation is engineered to stabilize up to 15 lbs of load while maintaining rotor tilt under 15°, supporting reliable energy capture in open water environments.

The PEM Device is a handheld, waterproof, NFC-connected measuring tool for pediatric emergency dosing. It includes a retractable tape measure, frictionless AS5600 sensor, and an OLED screen that syncs with a mobile app. Designed to replace unreliable Broselow tapes, the device provides real-time drug dosage recommendations based on accurate body measurements, improving speed and accuracy in critical care scenarios.

This simulated fluoroscopy C-arm device offers a safe and affordable alternative for training medical personnel. It includes components to simulate X-ray image generation, laser alignment, and mechanical motion for bed height adjustment. Built to replicate real hospital conditions without radiation exposure, the device allows hands-on learning of radiological positioning techniques in a classroom or simulation lab setting.

This LED-based simulation device emulates the visual draining of fluids from a blood bag. It uses Bluetooth controls to vary fluid flow rate and includes features such as reset, pause, and play. Designed to mimic real-world IV bags, the system helps medical students practice procedures without requiring actual fluid, improving safety, repeatability, and instructional efficiency.

The simulator leg replicates a complete femur fracture, enabling emergency responders to practice the use of traction splints. It includes a retractable thigh mechanism that mimics muscle tension, swelling simulation using flexible linkages, and a pulse indicator to signal proper treatment. Fully compatible with SimMan systems, this training tool enhances realism and urgency during trauma simulation scenarios.

This project introduces a training arm for practicing vascular access procedures such as IV and arterial line insertions. The system includes a mechanically generated radial pulse, a realistic tactile skin layer, and a compact modular design. Designed to mimic real anatomical conditions, it offers enhanced realism for medical trainees, supporting safer and more effective clinical practice in vascular procedures.

This project focuses on reducing the complexity and cost of modular light sheet microscopes used for cancer and cellular imaging. By integrating a unified controller system (TG-1000 Tiger), the team consolidated analog and digital outputs for lasers, galvanometers, and cameras. The streamlined setup simplifies deployment, lowers maintenance needs, and enables broader adoption of advanced imaging tools in biomedical research.

This modular insert system transforms standard CO2 incubators into advanced experimental platforms. With up to eight independently controlled temperature zones for 96-well plates, researchers can perform multiple concurrent experiments. A touchscreen interface with Raspberry Pi integration enables real-time monitoring and control. The solution enhances lab efficiency, supports reproducibility, and enables precise environmental modulation without disrupting cell cultures.

The Slide Under Board assists caregivers in transferring adult cancer patients with mobility limitations. It includes a motorized belt with tension control, custom-fit patient grips, and rollers that allow smooth placement under seated individuals. The device is designed for minimal physical exertion while ensuring patient comfort and safety. By streamlining assisted transfers, it enhances independence and reduces physical strain on both patients and caregivers.

The Dislocation Mannequin Part 2 delivers a full-body simulator for medical training focused on joint dislocations. It features anatomically accurate mechanisms for posterior elbow and knee dislocations, as well as patellar subluxation. With adjustable resistance and modular joints, the mannequin mimics real anatomical motion to provide trainees with realistic hands-on experience in emergency scenarios, improving preparedness and clinical confidence.