AI’s lack of “internal embodiment”—a digital equivalent to physical feelings—is a major safety risk. The study suggests that for AI to be truly trustworthy, it needs internal regulators that mimic human physiological states.
AI Body Gap: Why Robots Need “Internal Feelings” to be Safe Read More »
AI’s lack of “internal embodiment”—a digital equivalent to physical feelings—is a major safety risk. The study suggests that for AI to be truly trustworthy, it needs internal regulators that mimic human physiological states. Read more at Cerebratech
AI Body Gap: Why Robots Need “Internal Feelings” to be Safe Read More »
Researchers have successfully trained living biological neurons to perform complex machine learning tasks. By using microfluidic devices and “FORCE learning,” the team demonstrated that rat brain cells can generate chaotic mathematical patterns, marking a breakthrough in bio-inspired computing.
Wetware AI: Living Brain Cells Trained to Run Chaos Math Read More »
Researchers have successfully trained living biological neurons to perform complex machine learning tasks. By using microfluidic devices and “FORCE learning,” the team demonstrated that rat brain cells can generate chaotic mathematical patterns, marking a breakthrough in bio-inspired computing. Read more at Cerebratech
Wetware AI: Living Brain Cells Trained to Run Chaos Math Read More »
New research reveals that time perception is a multi-stage process distributed across the brain. From raw visual encoding to subjective categorization, scientists have finally mapped how the brain builds its internal clock.
Mapping the Brain’s Internal Stopwatch Read More »
New research reveals that time perception is a multi-stage process distributed across the brain. From raw visual encoding to subjective categorization, scientists have finally mapped how the brain builds its internal clock. Read more at Cerebratech
Mapping the Brain’s Internal Stopwatch Read More »
Researchers have identified the retinal source of high-resolution vision, proving that the eye sends isolated signals from individual cone cells to the brain. The study confirms that human visual acuity is limited only by the physical spacing of cells in the retina.
Individual Cone Cells Create Our Sharpest Sight Read More »
A 34-country study reveals that the “exposome”—the combination of pollution, social inequality, and political context—is 15 times more predictive of brain aging than any single risk factor. The research calls for a shift from individual “lifestyle” advice to broad structural policy changes to protect global brain health.
How Your Neighborhood and Nation Shape Your Brain’s Age Read More »
The APOE4 gene triggers a protein called Nell2, which shrinks neurons and causes brain hyperactivity. Lowering Nell2 levels reversed these effects in mice, offering a new target for early Alzheimer’s intervention.
Alzheimer’s Risk Gene Shrinks Neurons Read More »
Neuroscientists have used personalized magnetic stimulation to successfully modulate the deep-seated hippocampus. By mapping individual brain connectivity, the team has created a noninvasive “remote control” for memory and emotion centers.
Noninvasive Stimulation “Talks” to the Brain’s Memory Center Read More »
