Brain-Machine Interfacing Projects

VR Demonstration of Neuroprosthesis Vision

Last Update: 02.10.2024

Status: OPEN

Type: bachelors/masters (short/long)

Contact: Niklas Hahn (niklas@ini.uzh.ch), Prof. Shih-Chii Liu (shih@ini.uzh.ch)

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We are interested in building a VR based tool for demonstrating the visual neuroprosthesis output as part of the NeuraViPeR project. As part of demonstration the VR Headset will simulate a limited phosphene based output for a patient for the non-visually impaired participant. These outputs will be generated by a deep neural network or a spiking neural network that will be used for patients.


The participant will be asked to take part in a basic task using the simulated output, an example of a task vs simulated view can be seen below. We are interested in developing such a system that functions on a standard VR headset (Meta or homemade) and running some basic user studies.


Possible topics are/include:  

Cortical Feedback-loop in Visual Neuroprosthetics

Last Update: 02.10.2024

Status: OPEN

Type: bachelors/masters (short/long)

Contact: Niklas Hahn (niklas@ini.uzh.ch), Prof. Shih-Chii Liu (shih@ini.uzh.ch)

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As part of the NeuraViPeR project, we aim to explore potential applications of neural recordings in a closed-loop system for visual prostheses. The primary goal is to optimize electrically stimulated visual perceptions, or phosphenes. To achieve this, we employ novel flexible electrodes and have conducted neural recordings during brain stimulation experiments in rats.


Possible topics are/include:  


Spiking Neural Network for Controlling Prosthetic Vision

Last Update: 07.11.2024

Status: OPEN

Type: bachelors/masters (short/long)

Contact: Pehuen Moure (pehuen@ini.ethz.ch), Prof. Shih-Chii Liu (shih@ini.uzh.ch)

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We are exploring using spiking neural networks (SNN) to optimize the prosthetic vision. The primary goal is to optimize electrically stimulated visual perceptions, or phosphenes. We utilize a phosphen stimulator to train a simulator to invert the perception using an autoencoder structure.


Possible topics are/include: