Brain-Computer-Brain Interface or taking CHEIMBA to another level...
The goal is to make the interface as transparent and well integrated to all aspects of life of the user; in order to do that the user must be able to access the functions in the easiest way possible. And what best integration is possible than being able to control his applications and operate his life with but a thought?
Taking this a step further is the possibility to receive feedback from the sensors and "reprogramming" from the system's algorithm hoping to, in a future, being able to adjust thought patterns and eliminate bad or harmful behavior with the goal of improving efficacy, efficiency and optimize performance.
All that was thought impossible in the earliest times of the computers but thanks to recent developments in computing technology and a greater understanding in the mappings of the brain, it has become a possibility to transmit and receive signals and codified commands to and from the human brain.
I've researched in the following papers for the best way to get and transmit signals to create BCI (Brain-Computer Interfaces) and CBI (Computer-Brain Interfaces).
Taking this a step further is the possibility to receive feedback from the sensors and "reprogramming" from the system's algorithm hoping to, in a future, being able to adjust thought patterns and eliminate bad or harmful behavior with the goal of improving efficacy, efficiency and optimize performance.
All that was thought impossible in the earliest times of the computers but thanks to recent developments in computing technology and a greater understanding in the mappings of the brain, it has become a possibility to transmit and receive signals and codified commands to and from the human brain.
I've researched in the following papers for the best way to get and transmit signals to create BCI (Brain-Computer Interfaces) and CBI (Computer-Brain Interfaces).
Research Papers:
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NON-INVASIVE BRAIN TO BRAIN INTERFACE.
This research paper proposes the use of electroencephalogram (EEG) along with transcranial sonication of focused ultrasound (FUS) to retrieve signals from a human brain and send them to a rodent connected to a function generator which upon receiving the impulses across a determined frequency is controlled to move its tail. The process distinguishes itself in the fact that its non-invasive to both the transmissor (human wielding electroencephalogram electrodes) and receptor (rat wears a transcranial ultrasound device connected to a function generator). |