This study proposes a transferable encoding strategy that maps tactile sensor data to electrical stimulation patterns, enabling neural organoids to perform a...

Ever wondered if your next computer might actually be alive? 🧠✨ Welcome to the frontier where biological computers meet the digital age. In this episode, we dive into the mind-bending world of organoid intelligence, where scientists are growing human brain organoids from stem cells to create, literally, a thinking machine. Forget silicon chips—we are talking about wetware: systems that can play video games, self-repair, and process data with a fraction of the energy of traditional AI. But as we blur the line between flesh and machine, we have to ask the uncomfortable questions: If it thinks, is it sentient? What You Will Discover: - The Rise of Organoid Intelligence: How lab-grown minds are revolutionizing medical research. - Wetware vs. Silicon: Why biological hardware outperforms artificial neural networks. - The Ethics of Consciousness: Are we crossing a line into creating life? - A New Era of Computing: How this technology could change everything from Alzheimer’s research to the future of AI. This isn't just science fiction; it is the raw, biological reality of our future. Whether you are a tech enthusiast or just curious about what keeps humanity 'human,' you cannot afford to miss this deep dive. 🚀 Hit that subscribe button and join the conversation—the future is being grown in a lab!  

Lässt sich natürliches oder künstliches Bewusstsein testen? Reflexionen zum C-Test-Workshop in Bamberg mit einer Reihe spannender Vorträge

Lab-grown networks of human neurons may possess a primitive capacity for feeling.

The PMD Foundation is excited to share a new grant that will support brain organoid research at Case Western Reserve University School of Medicine, led by Dr. Paul Tesar and Dr. Mayur Madhavan.

Uncovering the molecular logic of neurodevelopment through Post-Translational Modifications.

Multi-Region Brain Organoids combine cerebral, mid/hindbrain, and endothelial components into an advanced 3D model capturing 80% of fetal brain cellular diversity. This platform reveals essential end...

UC Santa Cruz researchers coached brain organoids to solve a standard AI benchmark, in what they call the first rigorous proof of goal-directed learning in lab-grown tissue.