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How do you trust a robot you’ve never met?

Many of the environments where human-facing universal robots can provide benefits — homes, hospitals, schools — are sensitive and personal. A tutoring robot helping your kids with math should have a track record of safe and productive sessions. An elder-care assistant needs a verifiable history of respectful, competent service. A delivery robot approaching your front door should be as predictable and trustworthy as your favorite mail carrier. Without trust, adoption will never take place, or quickly stall.

Trust is built gradually and also reflects common understanding. We design our systems to be explainable: multiple AI modules talk to each other in plain language, and we log their thinking so humans can audit decisions. If a robot makes a mistake — drops the tomato instead of placing it on the counter — you should be able to ask why and get an answer you can understand.

Over time, as more robots connect and share skills, trust will depend on the network too. We learn from peers, and machines will learn from us and from other machines. That’s powerful but just like parents are concerned about what their kids learn on the web, we need good ways to audit and align skill exchange for robots… Governance for human–machine societies isn’t optional; it’s fundamental infrastructure.

Why our brain agrees on what we see: New study reveals shared neural structure behind common perceptions

How is it that we all see the world in a similar way? Imagine sitting with a friend in a café, both of you looking at a phone screen displaying a dog running along the beach. Although each of our brains is a world unto itself, made up of billions of neurons with completely different connections and unique activity patterns, you would both describe it as: “A dog on the beach.” How can two such different brains lead to the same perception of the world?

A joint research team from Reichman University and the Weizmann Institute of Science investigated how people with differently wired brains can still perceive the world in strikingly similar ways. Every image we see and every sound we hear is encoded in the brain through the activation of tiny processing units called that are ten times smaller than a human hair. The human brain contains 85 billion interconnecting neurons that enable us to experience the world, think, and respond to it.

The question that has intrigued brain researchers for years is how this encoding is performed, and how it is possible for two people to have completely different neural codes, yet, end up with similar perceptions?

SCP-239: The Child Who Can Rewrite Reality | The Science and Ethics of a Sleeping God

Can a child’s imagination alter the laws of physics? In this speculative science essay, we explore SCP-239, “The Witch Child” — a sleeping eight-year-old whose mind can reshape matter, rewrite probability, and collapse reality itself.

We examine how the SCP Foundation’s containment procedures—from telekill alloys to induced comas—reflect humanity’s struggle to contain a consciousness powerful enough to bend the universe. Through philosophy, ethics, and quantum speculation, this essay asks:
What happens when belief becomes a force of nature?

🎓 About the Series.
This video is part of our Speculative Science series, where we analyze anomalous phenomena through physics, cognitive science, and ethics.

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Should SCP-239 remain asleep forever, or does humanity have a moral duty to understand her?

#SCP239 #SpeculativeScience #TheWitchChild #SCPFoundation #ScienceFiction #Philosophy #AIExplained #Ethics #SciFiEssay #LoreExplained

Nvidia to invest in Elon Musk’s xAI as part of $20 billion fundraising: Report

Elon Musk’s AI firm xAI is planning a massive fundraising effort. The company aims to secure around $20 billion. This includes a significant equity investment from chip giant Nvidia. The deal structure involves Nvidia processors being rented out for five years. This innovative approach could set a new trend for tech financing.

Why AI Companies Are Racing to Build a Virtual Human Cell

Virtual cells could make it faster and easier to discover new drugs. They could also give insight into how cancer cells evade the immune system, or how an individual patient might respond to a given therapy. They might even help basic scientists come up with hypotheses about how cells work that can steer them toward what experiments to do with real cells. “The overall goal here,” Quake says, “is to try to turn cell biology from a field that’s 90% experimental and 10% computational to the other way around.”

Some scientists question how useful predictions made by AI will be, if the AI can’t provide an explanation for them. “The AI models, normally, are a black box,” says Erick Armingol, a systems biologist and post-doctoral researcher at the Wellcome Sanger Institute in the U.K. In other words, they give you an answer, but they can’t tell you why they gave you that answer.

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