Organoid Computing – Can Nature Save AI?
summary
FinalSpark claims living clusters of human neurons act as processors, using about 30-watt light bulb energy versus the “small town” draw of large AI; each organoid contains roughly 10,000 neurons, lives up to ~100 days in a controlled incubator, connects via eight electrodes, and training relies on bio-reward like dopamine uncaging rather than backpropagation. Demos already control a simulated butterfly and play Pong, nine universities access a remote Python neuro-platform, and main hurdles are contamination, scalable training methods, ethics, and a $50M scale-up target.
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chapters (11)
- 0:00Organoid intelligence intro
- 2:11What is a brain organoid
- 4:38Simulated to real neurons
- 7:12Organoid communication
- 9:18Organoid computing challenges
- 11:26Ethics of human neurons
- 13:12Organoid autonomy
- 15:02Organoid applications
- 17:36Open organoid platform
- 19:21Scaling bio computing
- 20:44Vision for organoid AI
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