Advanced electrical and mechanical engineering design and fabrication
Innovative concepts move from initial idea to realistic technology in our prototyping laboratories.
Our state-of-the-art prototyping capabilities enable the design, fabrication and optimization of novel devices and technologies.
Our engineers quickly fabricate scale models of our technologies using 3D computer aided design. This allows early testing and evaluation of concepts, assessment of feasibility and translation readiness levels, rapid feedback and iterations to accelerate product development.
Many of the technologies we develop require the creation of micro-scale components. Microfabrication is needed for miniaturized medical implants or for components that interface directly with cells for research applications. These include sensors to measure neural activity, probes to modulate neural systems and components to support advanced cell imaging. Early integration of medical certification is included in the design and prototype development process. Our laboratories include computer-aided design and simulation, as well as workshops for fabrication, system integration and testing.
The Wyss Center's capabilities in this area include:
Micro-fabrication including laser welding for high precision prototype development, miniaturization, micro-assembly of mechanical parts, sealing of device housing and multi-material connections.
Mechanical testing such as tensile, compression and bending tests. Impact testing is also available and structural integrity examined with microscopy.
Micro-laser cutting for precise sectioning of materials. Laser ablation of one micron-thick layers of metal or glass is also available.
Thermal imaging for assessing temperature and energy dissipation characteristics under different conditions.
Rapid prototyping with 3D printing towards design and workflow optimization, to reduce the number of processing steps and system components.
Medical electronics test bench equipped for the development and implementation of data processing devices for human clinical applications.
Prototyping of real-time wireless communication systems for data transfer from an implant to an external computer using radio frequency or optical signal transmission.
Our custom-built accelerated ageing system simulates the long-term aging of devices in the human body and helps us understand what will happen when they are implanted for long periods of time.
Accelerated aging tests are particularly useful for assessing novel encapsulation technologies. One of the major challenges of developing implantable devices is protecting the delicate internal electronics from the warm, wet and salty environment of the human body. Hermetic encapsulation of the device housing is necessary to ensure devices are leak-proof and can survive in the body for years. We evaluate hermetic and near-hermetic encapsulation solutions and integrate them into implantable medical devices then test their capacity to withstand moisture and mechanical damage.
Our system subjects the prototype device to an environment in which high temperatures and humidity accelerates aging. An electronic tag built into the device wirelessly sends updates on temperature and performance. This process gives valuable information on the ageing of electronics and the encapsulation performance.
Latest neural signals recorded with ABILITY brain-computer interface and new details of the system presented at Society for Neuroscience meeting
Wyss Center’s ABILITY system, designed to improve quality of life and independence for people with severe paralysis, demonstrates safety and efficacy in pre-clinical trials.Technology
New horizons in neural recording systems
New Wyss Center whitepaper reveals first neural signals recorded by the ABILITY brain-computer interface system and the next steps to human clinical trials to restore communication and independence for people with severe paralysis.Technology
Consortium to develop fully implantable brain-computer interface to enable communication for people with paralysis
Project will push the boundaries of real-time brain-to-speech decoding with artificial intelligence algorithms and a miniaturized, wireless device.Collaboration