- Building a 3D Digital Clock with ArduinoPosted 2 months ago
- Creating a controller for Minecraft with realistic body movements using ArduinoPosted 2 months ago
- Snowflake with ArduinoPosted 2 months ago
- Holographic Christmas TreePosted 3 months ago
- Segstick: Build Your Own Self-Balancing Vehicle in Just 2 Days with ArduinoPosted 3 months ago
- ZSWatch: An Open-Source Smartwatch Project Based on the Zephyr Operating SystemPosted 4 months ago
- What is IoT and which devices to usePosted 4 months ago
- Maker Faire Rome Unveils Thrilling “Padel Smash Future” Pavilion for Sports EnthusiastsPosted 5 months ago
- Make your curtains smartPosted 5 months ago
- Configuring an ESP8266 for Battery PowerPosted 5 months ago
The future of medical 3D printing: Devices with custom geometries and functionalities
One of the rightly touted breakthroughs of 3D printing in the medical space is the technology’s capability of producing custom orthopedic devices that precisely match specific patient anatomies. University of Minnesota mechanical engineering professor Michael McAlpine wants to take that a step further by integrating customized functionality into the 3D-printed device.
“The big value in 3D printing is customization not just of the geometry but also the functionality,” McAlpine told. “That means building in function from various materials that also may be specific to what the patient needs.” He and fellow researchers have taken a big step in that direction with a 3D-printed silicone guide embedded with proteins to enable nerve regeneration. The technique has been shown to be successful in regenerating the sciatic nerve in rats.
Nerve regeneration in and of itself is a complex process, and that is compounded by the y-shaped geometry of the sciatic nerve, which branches out as it travels down the leg. “A damaged sciatic nerve is difficult, if not impossible, to repair,” says McAlpine. Through the use of a 3D scanner and custom designed 3D printer that allows integration of multiple materials, including plastics, cells and functional materials such as electronic and semiconducting nanoparticles and hydrogels, on the same platform, McAlpine’s team was able to print custom nerve guides that promote both motor and sensory nerve regeneration.