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The entry of artificial intelligence into mainstream life gives us a chance to think about the meaning of intelligence – human and machine – and how both will develop in the future.
While AI models can solve problems far beyond human capabilities – from image recognition to the prediction of protein folding – they can fail at seemingly simple tasks. While humans have generalized intelligence, we fail at navigating complex option spaces and quickly reach the limits of our computational power.
So what does it actually mean to be intelligent? And how does artificial intelligence compare to the biological intelligence of our own brains? The relationship between artificial and biological intelligence goes back to the beginnings of AI research, when scientists first attempted to recreate aspects of the human brain using artificial neural networks. Today, AI has evolved into something very different from its biological inspiration.
In episode 53 of the BioRevolution podcast, Andreas Horchler and Louise von Stechow explore the relationship between human and artificial intelligence, how AI and neuroscience can converge to provide a better understanding of intelligence and consciousness, and what role psychedelics might play in all this.Disclaimer:
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Image: Mike Kononov via Unsplash
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For centuries, scientists have relied on visual representations to make sense of the world, from anatomical drawings and microscopy images to increasingly complex computational visualizations. Yet most scientific data still ends up on a flat screen. Extended reality (XR), including virtual and augmented reality (VR, AR), offers new ways of interacting with information. Researchers can step inside a dataset, such as the Human Reference Atlas (HRA) and move around structures, manipulate them with their hands, change scale, and explore the same virtual space together.
Find Andreas’s website here: https://andreas-bueckle.com/
Image: Lucrezia Carnelos via Unsplash
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Artificial intelligence is increasingly becoming part of the scientific process itself. Beyond analyzing data or predicting molecular structures, emerging AI co-scientists can generate hypotheses, critique ideas, search the literature, propose experiments, and interpret results. In lab-in-the-loop approaches, these computational systems are connected with wet-lab experimentation and automation, creating iterative cycles in which models learn from experimental data and suggest what to test next.
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The BioRevolution podcast has now reached 50 episodes.
One topic, however, has come up again and again: artificial intelligence.
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DNA nanotechnology treats DNA not primarily as a carrier of genetic information, but as a programmable material. Based on the predictability of Watson–Crick base pairing, DNA nanotechnology allows researchers to encode specific structural information. DNA origami, in particular, is an interesting approach for reproducibly folding complex two- and three-dimensional DNA nano-objects.
From Biohacking to Healthcare- the growing pain of the Longevity Industry
In episode 48 of the BioRevolution podcast, we talk to Niko Hems, Growth Lead of Berlin-based longevity company YEARS and longevity writer and podcaster.
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Nature has “gifted” us proteins that carry out a vast array of functions in cells, shaping the lives of all organisms, ecosystems, and ultimately the planet. In the age of synthetic biology, researchers are pushing beyond the catalogue of naturally evolved proteins by redesigning or even de novo designing proteins to make them more suitable for human goals—improving function, stability, specificity, manufacturability, or even creating entirely new capabilities. Artificial intelligence is becoming an important ally in transforming protein engineering from a trial-and-error process into a more predictive discipline, where deep learning models help predict the structure and function of a novel protein directly from its sequence. This enables faster generation and optimization of sequences for desired functions and reduces expensive and time-consuming wet-lab cycles.
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Animal models have been the mainstay for testing hypotheses about human diseases and their treatment in academic research and drug development.
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From Bench to Mic – Demystifying Science
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For decades, biology treated the human genome as a tidy instruction manual—genes neatly encoding proteins, surrounded by vast stretches of supposedly irrelevant DNA. As sequencing and molecular tools advanced, that picture fractured: scientists uncovered transposable elements, viral remnants, regulatory RNAs—and even unexpected, tiny non-canonical proteins, often called the “dark proteome.”
Find Dr. Sudhakaran Prabakaran https://www.linkedin.com/in/sudhakaranprabakaran/
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Further Reading on the dark genome, proteome and beyond
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