EEG brain-computer interface project

The Brain Computer Interface (BCI) capstone project is a system involving an Electroencephalograph (EEG) connected to a Digital Signal Processor (DSP) that sends a signal to a relay to power any simple electronic device (light bulbs, etc.). Our design involves using an EEG to sense electronic sign...

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Online Access:http://hdl.handle.net/2047/d20000828
id ndltd-NEU--neu-376550
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spelling ndltd-NEU--neu-3765502016-04-25T16:15:38ZEEG brain-computer interface projectThe Brain Computer Interface (BCI) capstone project is a system involving an Electroencephalograph (EEG) connected to a Digital Signal Processor (DSP) that sends a signal to a relay to power any simple electronic device (light bulbs, etc.). Our design involves using an EEG to sense electronic signals from differential electrode pairs on the frontal cortex (the forehead). An electrical signal from the brain will trigger a voltage spike which will be sent from the EEG channel to an ADC. The received voltage level is then checked by the DSP's flash memory program and, when a signal is detected, the DSP will output a signal to the relay, which in turn will power any electronic device we choose. The BCI we are designing is unique in size and cost. The production of our system was not costly, and the size of the combined hardware is relatively small. This would make our BCI design useful for portability purposes, as it can be transported with ease.http://hdl.handle.net/2047/d20000828
collection NDLTD
sources NDLTD
description The Brain Computer Interface (BCI) capstone project is a system involving an Electroencephalograph (EEG) connected to a Digital Signal Processor (DSP) that sends a signal to a relay to power any simple electronic device (light bulbs, etc.). Our design involves using an EEG to sense electronic signals from differential electrode pairs on the frontal cortex (the forehead). An electrical signal from the brain will trigger a voltage spike which will be sent from the EEG channel to an ADC. The received voltage level is then checked by the DSP's flash memory program and, when a signal is detected, the DSP will output a signal to the relay, which in turn will power any electronic device we choose. The BCI we are designing is unique in size and cost. The production of our system was not costly, and the size of the combined hardware is relatively small. This would make our BCI design useful for portability purposes, as it can be transported with ease.
title EEG brain-computer interface project
spellingShingle EEG brain-computer interface project
title_short EEG brain-computer interface project
title_full EEG brain-computer interface project
title_fullStr EEG brain-computer interface project
title_full_unstemmed EEG brain-computer interface project
title_sort eeg brain-computer interface project
publishDate
url http://hdl.handle.net/2047/d20000828
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