how to make a computer program to replicate the brain

When recreated on a computer, this simple reflex pathway works the same way as its biological counterpart - not because it’s been programmed to do so, but because this behavior arises from the structure itself. This behavior is encoded in the worm’s nerve cells, and governed by the strength of the connections between these neurons. However, that’s enough gray matter to allow the worm to navigate its environment, catch bacteria for dinner, and react to certain external stimuli - such as a touch on its body, which triggers a reflexive squirming-away. elegans‘ neural systems precisely because it’s quite dumb - it can only draw on 300 neurons worth of processing power.

So are your brains at risk of spontaneous copyfication? No. Researchers have been able to map C. The researchers are now hard at work training this digi-worm to perform simple tasks, and it has already mastered the standard computer science trial of balancing a pole. This has allowed researchers at the VUT to ‘copy-paste’ its brain into a computer, creating a virtual copy of the organism that reacts to stimuli the same way as the real thing. In other words, its brain can be recreated as a circuit - either onto a circuit board or one simulated with software - without losing any of its function. But in one respect, this little nematode is unique and uniquely valuable for science - it’s the only living being whose neural system has been fully analyzed and mapped. Growing to just under one millimeter in length, it’s not just tiny, it’s also a very, very simple organism. Image credits PROZEISS Microscopy / Flickr.Ĭ.

They are now training it to perform tasks without a single line of human-written code.

Researchers from the Vienna University of Technology (VUT) have put a brain on a circuit board - specifically, the brain of the nematode C.

How to make a computer program to replicate the brain