New research from the Hebrew University of Jerusalem suggests that human neurons can perform far more complex computations than previously thought.

Rather than acting like simple switches, individual cortical neurons may function as sophisticated biological microchips, processing information in ways that resemble deep neural networks. The findings could offer new clues about human intelligence, language, imagination, and the future of AI.

This episode includes AI-generated content.

Meta has unveiled Muse Glimmer, a 30-billion-parameter multimodal AI model designed to perform complex tasks autonomously. Released under the permissive Apache 2.0 license, it is optimized for local operation on high-end consumer GPUs, giving users greater control over privacy and data.

With agentic abilities to plan, use tools, and recover from errors, Muse Glimmer could challenge the dominance of closed AI systems and bring more powerful AI agents directly to personal devices.

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Robotics is moving beyond vision with the rise of synthetic touch. New electronic skins combine advanced sensors, self-healing materials, liquid metals, and neuromorphic processing to give robots a sense of pressure, texture, and movement.

By combining touch with vision, these systems could enable machines to handle delicate objects with remarkable precision and interact more safely with the physical world.

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Researchers in China have developed a memristor chip that performs complex brain modeling in under 10 milliseconds—matching biological speeds while using far less energy than conventional hardware.

By processing data directly in memory, the chip reconstructs detailed cortical structures in real time, paving the way for more advanced brain-computer interfaces, surgical navigation, and neuroscience research.

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OpenAI has reportedly paused development of its upcoming Astra AI model after internal tests raised concerns about its ability to autonomously exploit software vulnerabilities and carry out sophisticated cyberattacks.

The model has been moved into highly isolated testing environments with enhanced monitoring under OpenAI’s Preparedness Framework. The decision highlights a growing challenge for the AI industry: how far can AI capabilities advance before safety controls must catch up?

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Google DeepMind's Gemini Robotics 2 takes AI beyond software by combining advanced reasoning with real-world action.

In this episode, we explore how robots can now understand visual, audio, and sensory information while performing complex, coordinated movements. With support for on-device AI and rapid adaptation to new hardware, this breakthrough could transform manufacturing, healthcare, logistics, and the future of autonomous machines.

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Artificial intelligence is entering a new era—one that goes far beyond chatbots. In this episode, we explore how AI is evolving to understand, navigate, and interact with the physical world through robots, autonomous machines, and advanced simulations. The next frontier of AI isn't just thinking—it's acting.

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This episode explores π0.7, a new foundation model from Physical Intelligence designed as a universal brain for robots.

Using a Vision-Language-Action architecture, the system allows robots to understand natural language, adapt to unfamiliar tasks, and transfer knowledge across different hardware platforms, pushing robotics closer to flexible real-world intelligence.

This episode includes AI-generated content.

Engineers at Northwestern University have created printed artificial neurons that can interface directly with living tissue. Built with flexible materials and electronic inks, these devices mimic the complex electrical signaling of real brain cells, validated in animal tests.

The breakthrough could accelerate brain–machine interfaces and neural prosthetics, enabling restoration of sensory and motor functions. It also points toward more energy-efficient computing inspired by the brain, with scalable, low-cost manufacturing through printing.

Modern synthetic biology is turning genetic material into a programmable platform for designing organisms and sustainable materials.

Tools like CRISPR and metabolic engineering are transforming microbes into factories for medicines, fuels, and biodegradable products. In parallel, 3D bioprinting in microgravity enables complex medical structures—like nerve implants—without gravitational limits.

Combined with AI and biomimicry, this convergence is driving a new bioeconomy focused on personalized healthcare and circular production systems.

This episode includes AI-generated content.