Research
Ariadna
Bioengineering
Brain Machine Interfaces
ESA 44th PFC

Brain Machine Interfaces

Operating machines to perform complex tasks is a common approach in everyday's life. In zero gravity conditions usually even simple tasks can become quite difficult. A machine that reads astronauts' thoughts and puts them into practice would facilitates complex operations in space.

Motivation

The space environment is inherently hostile and dangerous for astronauts. For this reason, extra-vehicular activity (EVA) should be limited and replaced by robotic systems as much as possible. In addition, it would be desirable to optimize the interface between astronauts and external semi-automatic manipulators and devices. Both the rather rigid space suit and the zero-g environment considerably limit the mobility of the astronaut and hence a reliable hand-free interface would augment both the astronaut's performance and safety.

Status

Currently the application of BMIs are under consideration in diverse fields such as entertainment (computer games) and medicine (prosthetic devices). It is to be expected that BMI technology will experience great progress in the near future.
As human physiology is greatly influenced during space travel our current aim is to examine the applicability of BMIs in micro gravity condition.

In order to assess the effects of microgravity on current BMIs, two members of the ACT and two members of the EPFL institute on Brain Machine Interfaces (IDIAP) performed the first experiment in microgravity, on the Novespace A300-G aircraft. In 31 parabolas with 22 seconds of weighlessness each we examined how Brain Machine Interfaces work under these very particular conditions. Read more

Literature

So far three studies have been conducted on the feasibility of non invasive brain-machine interfaces in space applications:

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