Several discussions highlight that brain-computer interfaces, especially for ALS patients, are not entirely new and have been explored previously, with comments like 'it’s nothing new and exciting.' The tone varies from skepticism to technical references, showing moderate but not deep engagement, and a shared understanding of the ongoing challenges in this field.
AgreementNeither agree nor disagree
The discussions reflect a recognition that this technology has been explored before, with some dismissing recent advances as not entirely novel.
InterestModerate interest
Many responses show curiosity about the topic, especially in relation to brain-computer interfaces and their history, but not deep enthusiasm.
EngagementNeutral engagement
Comments range from brief mentions to more detailed notes on challenges and methods, indicating moderate engagement.
ImpactModerate impact
The overall consensus suggests these discussions acknowledge the significance but also point out existing limitations and prior work.
Abstract in brief
This text discusses a method for helping patients with severe paralysis, specifically those with late-stage ALS, communicate using a fully implanted brain-computer interface (BCI) that records brain signals from the motor cortex.
The BCI system includes electrodes placed on the brain and a transmitter implanted in the chest, allowing the patient to control a computer by thinking about moving a hand; in this case, the patient was able to type at a rate of about two letters per minute, 28 weeks after implantation.
The device provided a new way for the patient to communicate independently, supplementing or even replacing their eye-tracking device, demonstrating its potential to improve quality of life for those with severe paralysis.]
To put this into context, motor cortex implant BCI is not new. It has been done in not just monkeys, but also humans before (e.g., https://t.co/kSUFuzAMoH)
The main challenge includes achievable information bandwidth given a fixed electrode array and long-term stability. https://t.co/INtvAoSMkE
Introduction to cognitive science and BCI techniques, including EEG signal analysis, frequency bands, event-related potentials, and invasive versus noninvasive methods, highlighting recent research and clinical…
This video discusses a method to assist patients with severe paralysis, like late-stage ALS, using a fully implanted brain-computer interface that records signals from the motor cortex, allowing independent…
LECTURA 15 BRIAN COMPUTER INTERFACE GOGSC1 1 |. BERKELEY
https://t.co/mO6rOXphzA
CUAL ES LA DIFERENCIA ENTRE BATERÍA AA Y AAA EN TERMINOS DE VOLTAJE AMPERAJE Y CAPACIDAD
https://t.co/p358B7IJd8 https://t.co/C2IZk0EwYO
To put this into context, motor cortex implant BCI is not new. It has been done in not just monkeys, but also humans before (e.g., https://t.co/kSUFuzAMoH)
The main challenge includes achievable information bandwidth given a fixed electrode array and long-term stability. https://t.co/INtvAoSMkE
RT @VicenteLozadaB: Nueva interfaz para la #EsclerosisLateralAmiotrófica!
https://t.co/Y17snzqJJK https://t.co/4qOCiag0Ej
Fuente @NEJM
@med…
Feb 10, 2019 · 14 shares · 13,579 followersView post →
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Permanent ID: Digital Object Identifier:10.1056/nejmoa1608085; PubMed ID:27959736; PubMed Central ID:PMC5326682; Microsoft Academic Graph Identifier:2549587034.