Literature Study on the Technical Development of Invasive Recording Brain Computer Interfaces
(2024) In Proceedings of Clinical Innovations EEML05 20241Department of Biomedical Engineering
- Abstract
- Brain Computer Interfacing is a sprawling scientific field, with many competing designs in use or being tested. The goal of this project was to compile information about Utah Arrays, Michigan Probes, Neural Lace (also known as Mesh Electronics), Neuralink and Stentrode, and compare the positives and negatives of each design. Of especial interest were the parameters of material, number of electrodes, severity of foreign body response, heat generation, electrode depth, average size of measured action potentials and signal to noise ratio. The results of this comparison was as follows: Mesh Electronics and Stentrode are highly promising due to the complete avoidance of traditional foreign body response and cell death issues, however the latter... (More)
- Brain Computer Interfacing is a sprawling scientific field, with many competing designs in use or being tested. The goal of this project was to compile information about Utah Arrays, Michigan Probes, Neural Lace (also known as Mesh Electronics), Neuralink and Stentrode, and compare the positives and negatives of each design. Of especial interest were the parameters of material, number of electrodes, severity of foreign body response, heat generation, electrode depth, average size of measured action potentials and signal to noise ratio. The results of this comparison was as follows: Mesh Electronics and Stentrode are highly promising due to the complete avoidance of traditional foreign body response and cell death issues, however the latter trades these for the risks of long term usage of anti-coagulants. Utah Arrays have more problems than any of the other investigated designs in all parameters, including the contemporary Michigan Probe, although they both use the same primary material, silicon. There was found to be a severe lack of experimental studies rigorously comparing these two designs to each other, a lack that may become even more glaring once more of these designs become available for further medical studies. (Less)
Please use this url to cite or link to this publication:
http://lup.lub.lu.se/student-papers/record/9158403
- author
- Magnusson Fredlund, Joakim LU
- supervisor
- organization
- alternative title
- Litteraturstudie på den tekniska utvecklingen av invasiva icke-stimulerande Brain Computer Interfaces
- course
- EEML05 20241
- year
- 2024
- type
- M2 - Bachelor Degree
- subject
- keywords
- brain–computer interfaces, neuroimplantable devices, neural tissue response, microelectrodes, neural probes, Stentrode, Neuralink, Utah Array, Michigan Probe, mesh electronics, neural lace
- publication/series
- Proceedings of Clinical Innovations
- language
- English
- id
- 9158403
- date added to LUP
- 2024-06-20 12:56:12
- date last changed
- 2024-06-20 12:56:12
@misc{9158403, abstract = {{Brain Computer Interfacing is a sprawling scientific field, with many competing designs in use or being tested. The goal of this project was to compile information about Utah Arrays, Michigan Probes, Neural Lace (also known as Mesh Electronics), Neuralink and Stentrode, and compare the positives and negatives of each design. Of especial interest were the parameters of material, number of electrodes, severity of foreign body response, heat generation, electrode depth, average size of measured action potentials and signal to noise ratio. The results of this comparison was as follows: Mesh Electronics and Stentrode are highly promising due to the complete avoidance of traditional foreign body response and cell death issues, however the latter trades these for the risks of long term usage of anti-coagulants. Utah Arrays have more problems than any of the other investigated designs in all parameters, including the contemporary Michigan Probe, although they both use the same primary material, silicon. There was found to be a severe lack of experimental studies rigorously comparing these two designs to each other, a lack that may become even more glaring once more of these designs become available for further medical studies.}}, author = {{Magnusson Fredlund, Joakim}}, language = {{eng}}, note = {{Student Paper}}, series = {{Proceedings of Clinical Innovations}}, title = {{Literature Study on the Technical Development of Invasive Recording Brain Computer Interfaces}}, year = {{2024}}, }