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    Natural Sciences

    Brain Inspired

    Neuroscience and artificial intelligence work better together. Brain inspired is a celebration and exploration of the ideas driving our progress to understand intelligence. I interview experts about their work at the interface of neuroscience, artificial intelligence, cognitive science, philosophy, psychology, and more: the symbiosis of these overlapping fields, how they inform each other, where they differ, what the past brought us, and what the future brings. Topics include computational neuroscience, supervised machine learning, unsupervised learning, reinforcement learning, deep learning, convolutional and recurrent neural networks, decision-making science, AI agents, backpropagation, credit assignment, neuroengineering, neuromorphics, emergence, philosophy of mind, consciousness, general AI, spiking neural networks, data science, and a lot more. The podcast is not produced for a general audience. Instead, it aims to educate, challenge, inspire, and hopefully entertain those interested in learning more about neuroscience and AI.

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    Copyright: © 2019 Brain-Inspired

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    Latest Episodes:
    BI 226 Tatiana Engel: The High and Low Dimensional Brain Dec 03, 2025
    Show notes

    Support the show to get full episodes, full archive, and join the Discord community.

    The Transmitter is an online publication that aims to deliver useful information, insights and tools to build bridges across neuroscience and advance research. Visit thetransmitter.org to explore the latest neuroscience news and perspectives, written by journalists and scientists.

    Read more about our partnership.

    Sign up for Brain Inspired email alerts to be notified every time a new Brain Inspired episode is released.

    To explore more neuroscience news and perspectives, visit thetransmitter.org.

    Tatiana Engel runs the Engel lab at Princeton University in the Princeton Neuroscience Institute. She's also part of the International Brain Laboratory, a massive across-lab, across-world, collaboration which you'll hear more about. My main impetus for inviting Tatiana was to talk about two projects she's been working on. One of those is connecting the functional dynamics of cognition with the connectivity of the underlying neural networks on which those dynamics unfold. We know the brain is high-dimensional - it has lots of interacting connections, we know the activity of those networks can often be described by lower-dimensional entities called manifolds, and Tatiana and her lab work to connect those two processes with something they call latent circuits. So you'll hear about that, you'll also hear about how the timescales of neurons across the brain are different but the same, why this is cool and surprising, and we discuss many topics around those main topics.

    • Engel Lab.
    • @engeltatiana.bsky.social.
    • International Brain Laboratory.
    • Related papers:
      • Latent circuit inference from heterogeneous neural responses during cognitive tasks
      • The dynamics and geometry of choice in the premotor cortex.
      • A unifying perspective on neural manifolds and circuits for cognition
      • Brain-wide organization of intrinsic timescales at single-neuron resolution
      • Single-unit activations confer inductive biases for emergent circuit solutions to cognitive tasks.

    0:00 - Intro 3:03 - No central executive 5:01 - International brain lab 15:57 - Tatiana's background 24:49 - Dynamical systems 17:48 - Manifolds 33:10 - Latent task circuits 47:01 - Mixed selectivity 1:00:21 - Internal and external dynamics 1:03:47 - Modern vs classical modeling 1:14:30 - Intrinsic timescales 1:26:05 - Single trial dynamics 1:29:59 - Future of manifolds


    BI 225 Henk De Regt: Understanding in Machines and Humans Nov 19, 2025
    Show notes

    Support the show to get full episodes, full archive, and join the Discord community.

    The Transmitter is an online publication that aims to deliver useful information, insights and tools to build bridges across neuroscience and advance research. Visit thetransmitter.org to explore the latest neuroscience news and perspectives, written by journalists and scientists.

    Read more about our partnership.

    Sign up for Brain Inspired email alerts to be notified every time a new Brain Inspired episode is released.

    To explore more neuroscience news and perspectives, visit thetransmitter.org.

    Henk de Regt is a professor of Philosophy of Science and the director of the Institute for Science in Society at Radboud University. Henk wrote the book on Understanding. Literally, he wrote what has become a classic in philosophy of science, Understanding Scientific Understanding.

    Henks' account of understanding goes roughly like this, but you can learn more in his book and other writings. To claim you understand something in science requires that you can produce a theory-based explanation of whatever you claim to understand, and it depends on you having the right scientific skills to be able to work productively with that theory - for example, making qualitative predictions about it without performing calculations. So understanding is contextual and depends on the skills of the understander.

    There's more nuance to it, so like I said you should read the book, but this account of understanding distinguishes it from explanation itself, and distinguishes it from other accounts of understanding, which take understanding to be either a personal subjective sense - that feeling of something clicking in your mind - or simply the addition of more facts about something.

    In this conversation, we revisit Henk's work on understanding, and how it touches on many other topics, like realism, the use of metaphors, how public understanding differs from expert understanding, idealization and abstraction in science, and so on.

    And, because Henk's kind of understanding doesn't depend on subjective awareness or things being true, he and his cohorts have begun working on whether there could be a benchmark for degrees of understanding, to possibly asses whether AI demonstrates understanding, and to use as a common benchmark for humans and machines.

    • Google Scholar page
    • Social: @henkderegt.bsky.social;
    • Book:
      • Understanding Scientific Understanding.
    • Related papers
      • Towards a benchmark for scientific understanding in humans and machines
      • Metaphors as tools for understanding in science communication among experts and to the public
      • Two scientific perspectives on nerve signal propagation: how incompatible approaches jointly promote progress in explanatory understanding

    0:00 - Intro 10:13 - Philosophy of explanation vs understanding 14:32 - Different accounts of understanding 20:29 - Henk's account of understanding 26:47 - What counts as intelligible? 34:09 - Hodgkin and Huxley alternative 37:54 - Familiarity vs understanding 44:42 - Measuring understanding 1:02:53 - Machine understanding 1:16:39 - Non-factive understanding 1:23:34 - Abstraction vs understanding 1:31:07 - Public understanding of science 1:41:35 - Reflections on the book


    BI 224 Dan Nicholson: Schrödinger’s What is Life? Revisited Nov 05, 2025
    Show notes

    Support the show to get full episodes, full archive, and join the Discord community.

    The Transmitter is an online publication that aims to deliver useful information, insights and tools to build bridges across neuroscience and advance research. Visit thetransmitter.org to explore the latest neuroscience news and perspectives, written by journalists and scientists.

    Read more about our partnership.

    Sign up for Brain Inspired email alerts to be notified every time a new Brain Inspired episode is released.

    To explore more neuroscience news and perspectives, visit thetransmitter.org.

    My guest today is Dan Nicholson, Assistant Professor of Philosophy at George Mason University, here to talk about his little book, What Is Life? Revisited. Erwin Schrödinger's What Is Life is a famous book that people point to as having predicted DNA and influenced and inspired many well-known biologists ushering in the molecular biology revolution. But Schrödinger was a physicist, not a biologist, and he spent very little time and effort toward understanding biology.

    What was he up to, why did he write this "famous little book"? Schrödinger had an agenda, a physics agenda. He wanted to save the older deterministic version of quantum physics from the new indeterministic version. When Dan was on the podcast a few years ago, we talked about the machine view of biological systems, how everything has become a "mechanism", and how that view fails to capture what modern science is actually telling us, that organisms are unlike machines in important ways. That work of Dan's led him down this path to Schrödinger's What Is Life, which he argues was a major contributor to that machine metaphor so ubiquitous today in biology. One of the reasons I'm interested in this kind of work is because the cognitive sciences, including neuroscience and artificial intelligence, inherited this mechanistic perspective, and swallowed it so hard that if you don't include the word "mechanism" in your research paper, you're vastly decreasing your chances of getting your work published, when in fact the mechanistic perspective is one super useful perspective among many.

    • Dan’s website. Google Scholar.
    • Social: @NicholsonHPBio; @djnicholson.bsky.social
    • What Is Life? Revisited
    • Previous episode:
      • BI 150 Dan Nicholson: Machines, Organisms, Processes

    Read the transcript.

    0:00 - Intro 7:27 - Why Schrodinger wrote What is Life 15:13 - Aperiodic crystal and the meaning of code 21:39 - Order-from-order, order-from-disorder 28:32 - Appeal to authority 37:48 - Cell as machine 39:33 - Relation between DNA and organism (development) 44:44 - Negentropy 53:54 - Original contributions 58:54 - Mechanistic metaphor in neuroscience 1:16:05 - What's the lesson? 1:28:06 - Historical sleuthing 1:39:49 - Modern philosophy of biology


    BI 223 Vicente Raja: Ecological Psychology Motifs in Neuroscience Oct 22, 2025
    Show notes

    Support the show to get full episodes, full archive, and join the Discord community.

    Vicente Raja is a research fellow at University of Murcia in Spain, where he is also part of the Minimal Intelligence Lab run by Paco Cavo, where they study plant behavior, and he is external affiliate faculty of the Rotman Institute of Philosophy at Western University. He is a philosopher, and he is a cognitive scientist, and he specializes in applying concepts from ecological psychology to understand how brains, and organisms, including plants, get about in the world.

    We talk about many facets of his research, both philosophical and scientific, and maybe the best way to describe the conversation is a tour among many of the concepts in ecological psychology - like affordances, ecological information, direct perception, and resonance, and how those concepts do and don't, and should or shouldn’t, contribute to our understanding of brains and minds.

    We also discuss Vicente's use of the term motif to describe scientific concepts that allow different researches to study roughly the same things even though they have different definitions for those things, and toward the end we touch on his work studying plant behavior.

    • MINT Lab.
    • Book: Ecological psychology
    • Social: @diovicen.bsky.social
    • Related papers
      • In search for an alternative to the computer metaphor of the mind and brain
      • Embodiment and cognitive neuroscience: the forgotten tales.
      • The motifs of radical embodied neuroscience
      • The Dynamics of Plant Nutation
      • Ecological Resonance Is Reflected in Human Brain Activity
      • Affordances are for life (and not just for maximizing reproductive fitness)
      • Two species of realism
    • Lots of previous guests and topics mentioned:
      • BI 152 Michael L. Anderson: After Phrenology: Neural Reuse
      • BI 190 Luis Favela: The Ecological Brain
      • BI 191 Damian Kelty-Stephen: Fractal Turbulent Cascading Intelligence

    Read the transcript.

    0:00 - Intro 4:55 - Affordances and neuroscience 13:46 - Motifs 39:41- Reconciling neuroscience and ecological psychology 1:07:55 - Predictive processing 1:15:32 - Resonance 1:23:00 - Biggest holes in ecological psychology 1:29:50 - Plant cognition


    BI 222 Nikolay Kukushkin: Minds and Meaning from Nature’s Ideas Oct 08, 2025
    Show notes

    Support the show to get full episodes, full archive, and join the Discord community.

    The Transmitter is an online publication that aims to deliver useful information, insights and tools to build bridges across neuroscience and advance research. Visit thetransmitter.org to explore the latest neuroscience news and perspectives, written by journalists and scientists.

    Read more about our partnership.

    Sign up for Brain Inspired email alerts to be notified every time a new Brain Inspired episode is released.

    To explore more neuroscience news and perspectives, visit thetransmitter.org.

    Nikolay Kukushkin is an associate professor at New York University, and a senior scientist at Thomas Carew’s laboratory at the Center for Neural Science. He describes himself as a "molecular philosopher", owing to his day job as a molecular biologist and his broad perspective on how it "hangs together", in the words of Wilfrid Sellers, who in 1962 wrote, “The aim of philosophy, abstractly formulated, is to understand how things in the broadest possible sense of the term hang together in the broadest possible sense of the term”.

    That is what Niko does in his book One Hand Clapping: Unraveling the Mystery of the Human Mind.

    This book is about essences across spatial scales in nature. More precisely, it's about giving names to what is fundamental, or essential, to how things and processes function in nature. Niko argues those essences are where meaning resides. That's very abstract, and we'll spell it out more during the discussion. But as an example at the small scale, the essences of carbon and oxygen, respectively, are creation and destruction, which allows metabolism to occur in biological organisms. Moving way up the scale, following this essence perspective leads Niko to the conclusion that there is no separation between our minds and the world, and that instead we should embrace the relational aspect of mind and world as a unifying principle. On the way, via evolution, we discuss many more examples, plus some of his own work studying how memory works in individual cells, not just neurons or populations of neurons in brains.

    • Niko's website.
    • Twitter: @niko_kukushkin.
    • Book:
      • One Hand Clapping: Unraveling the Mystery of the Human Mind

    Read the transcript.

    0:00 - Intro 9:28 - Studying memory in cells 10:14 - Who the book is for 17:57 - Studying memory in cells 21:53 - What is memory? 29:49 - Book 29:52 - How the book came about 37:56 - Central message of the book 44:07 - Meaning in nature 49:09 - Meaning and essence 51:55 - Multicellularity and ant colonies 57:43 - Eukaryotes and complexification 1:03:38 - Why do we have brains? 1:06:17 - Emergence 1:10:58 - Language 1:12:41 - Human evolution 1:14:41 - Artificial intelligence, meaning and essences 1:25:49 - Consciousness


    BI 221 Ann Kennedy: Theory Beneath the Cortical Surface Sep 24, 2025
    Show notes

    Support the show to get full episodes, full archive, and join the Discord community.

    Ann Kennedy is Associate Professor at Scripps Research Institute and runs the Laboratory for Theoretical Neuroscience and Behavior.

    Among other things, Ann has been studying how processes important in life, like survival, threat response, motivation, and pain, are mediated through subcortical brain areas like the hypothalamus. She also pays attention to the time course those life processes require, which has led her to consider how the expression of things like proteins help shape neural processes throughout the brain, so we can behave appropriately in those different contexts.

    You'll hear us talk about how this is still a pretty open field in theoretical neuroscience, unlike the historically heavy use of theory in popular brain areas throughout the cortex, and the historically narrow focus on spikes or action potentials as the only game in town when it comes to neural computation. We discuss that and I link in the show notes to a commentary piece Ann wrote, in which she argues for both top-down and bottom-up theoretical approaches.

    I also link to her papers about the early evolution of nervous systems, how heterogeneity or diversity of neurons is an advantage for neural computations, and we discuss a kaggle competition she developed to benchmark automated behavioral labels of behaving organisms, so that despite different researchers using different recording systems and setups, analyzing those data will produce consistent labels to better compare across labs and aggregated bigger and better data sets.

    • Laboratory for Theoretical Neuroscience and Behavior.
    • Social:
      • @antihebbiann.bsky.social
      • @Antihebbiann
    • The Kaggle competition Ann developed to generalize behavior categorization.
    • Related papers
      • Dynamics of neural activity in early nervous system evolution.
      • Theoretical neuroscience has room to grow.
      • Neural heterogeneity controls computations in spiking neural networks.
      • A parabrachial hub for the prioritization of survival behavior.
      • An approximate line attractor in the hypothalamus encodes an aggressive state.

    Read the transcript.

    0:00 - Intro 3:36 - Why study subcortical areas? 13:30 - Evolution 15:06 - Dynamical systems and time scales 21:32 - NeuroAI 28:37 - Before there were brains 33:11 - Endogenous spontaneous activity 40:09 - Natural vs artificial 43:09 - Different is more - heterogeneity 45:32 - Neuromodulators and neuropeptide functions 55:47 - Heterogeneity: manifolds, subspaces, and gain 1:02:43 - Control knobs 1:09:45 - Theoretical neuroscience has room to grow 1:19:59 - Hypothalamus 1:20:57 - Subcortical vs "higher" cognition 1:24:53 - 4E cognition 1:26:56 - Behavior benchmarking 1:37:26 - Current challenges 1:39:46 - Advice to young researchers


    BI 220 Michael Breakspear and Mac Shine: Dynamic Systems from Neurons to Brains Sep 10, 2025
    Show notes

    Support the show to get full episodes, full archive, and join the Discord community.

    The Transmitter is an online publication that aims to deliver useful information, insights and tools to build bridges across neuroscience and advance research. Visit thetransmitter.org to explore the latest neuroscience news and perspectives, written by journalists and scientists.

    Read more about our partnership: https://www.thetransmitter.org/partners/

    Sign up for the “Brain Inspired” email alerts to be notified every time a new “Brain Inspired” episode is released: https://www.thetransmitter.org/newsletters/

    To explore more neuroscience news and perspectives, visit thetransmitter.org.

    What changes and what stays the same as you scale from single neurons up to local populations of neurons up to whole brains? How tuning parameters like the gain in some neural populations affects the dynamical and computational properties of the rest of the system.

    Those are the main questions my guests today discuss. Michael Breakspear is a professor of Systems Neuroscience and runs the Systems Neuroscience Group at the University of Newcastle in Australia. Mac Shine is back, he was here a few years ago. Mac runs the Shine Lab at the University of Sidney in Australia.

    Michael and Mac have been collaborating on the questions I mentioned above, using a systems approach to studying brains and cognition. The short summary of what they discovered in their first collaboration is that turning up or down the gain across broad networks of neurons in the brain affects integration - working together - and segregation - working apart. They map this gain modulation on to the ascending arousal pathway, in which the locus coeruleus projects widely throughout the brain distributing noradrenaline. At a certain sweet spot of gain, integration and segregation are balanced near a bifurcation point, near criticality, which maximizes properties that are good for cognition.

    In their recent collaboration, they used a coarse graining procedure inspired by physics to study the collective dynamics of various sizes of neural populations, going from single neurons to large populations of neurons. Here they found that despite different coding properties at different scales, there are also scale-free properties that suggest neural populations of all sizes, from single neurons to brains, can do cognitive stuff useful for the organism. And they found this is a conserved property across many different species, suggesting it's a universal principle of brain dynamics in general.

    So we discuss all that, but to get there we talk about what a systems approach to neuroscience is, how systems neuroscience has changed over the years, and how it has inspired the questions Michael and Mac ask.

    • Breakspear: Systems Neuroscience Group.
      • @DrBreaky.
    • Shine: Shine Lab.
      • @jmacshine.
    • Related papers
      • Dynamic models of large-scale brain activity
      • Metastable brain waves
      • The modulation of neural gain facilitates a transition between functional segregation and integration in the brain
      • Multiscale Organization of Neuronal Activity Unifies Scale-Dependent Theories of Brain Function.
      • The brain that controls itself.
      • Metastability demystified — the foundational past, the pragmatic present and the promising future.
      • Generation of surrogate brain maps preserving spatial autocorrelation through random rotation of geometric eigenmodes.
    • Related episodes
      • BI 212 John Beggs: Why Brains Seek the Edge of Chaos
      • BI 216 Woodrow Shew and Keith Hengen: The Nature of Brain Criticality
      • BI 121 Mac Shine: Systems Neurobiology

    Read the transcript.

    0:00 - Intro 4:28 - Neuroscience vs neurobiology 8:01 - Systems approach 26:52 - Physics for neuroscience 33:15 - Gain and bifurcation: earliest collaboration 55:32 - Multiscale organization 1:17:54 - Roadblocks


    BI 219 Xaq Pitkow: Principles and Constraints of Cognition Aug 27, 2025
    Show notes

    Support the show to get full episodes, full archive, and join the Discord community.

    The Transmitter is an online publication that aims to deliver useful information, insights and tools to build bridges across neuroscience and advance research. Visit thetransmitter.org to explore the latest neuroscience news and perspectives, written by journalists and scientists.

    Read more about our partnership.

    Sign up for Brain Inspired email alerts to be notified every time a new Brain Inspired episode is released.

    To explore more neuroscience news and perspectives, visit thetransmitter.org.

    Xaq Pitkow runs the Lab for the Algorithmic Brain at Carnegie Mellon University. The main theme of our discussion is how Xaq approaches his research into cognition by way of principles, from which his questions and models and methods spring forth. We discuss those principles, and In that light, we discuss some of his specific lines of work and ideas on the theoretical side of trying understand and explain a slew of cognitive processes. A few of the specifics we discuss are:

    • How when we present tasks for organisms to solve, they use strategies that are suboptimal relative to the task, but nearly optimal relative to their beliefs about what they need to do - something Xaq calls inverse rational control.
    • Probabilistic graph networks.
    • How brains use probabilities to compute.
    • A new ecological neuroscience project Xaq has started with multiple collaborators.
    • LAB: Lab for the Algorithmic Brain.
    • Related papers
      • How does the brain compute with probabilities?
      • Rational thoughts in neural codes.
      • Control when confidence is costly
      • Generalization of graph network inferences in higher-order graphical models.
      • Attention when you need.

    Read the transcript.

    0:00 - Intro 3:57 - Xaq's approach 8:28 - Inverse rational control 19:19 - Space of input-output functions 24:48 - Cognition for cognition 27:35 - Theory vs. experiment 40:32 - How does the brain compute with probabilities? 1:03:57 - Normative vs kludge 1:07:44 - Ecological neuroscience 1:20:47 - Representations 1:29:34 - Current projects 1:36:04 - Need a synaptome 1:42:20 - Across scales


    BI 218 Chris Rozell: Brain Stimulation and AI for Mental Disorders Aug 13, 2025
    Show notes

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    We are in an exciting time in the cross-fertilization of the neurotech industry and the cognitive sciences. My guest today is Chris Rozell, who sits in that space that connects neurotech and brain research. Chris runs the Structured Information for Precision Neuroengineering Lab at Georgia Tech University, and he was just named the inaugural director of Georgia Tech’s Institute for Neuroscience, Neurotechnology, and Society. I think this is the first time on brain inspired we've discussed stimulating brains to treat mental disorders. I think. Today we talk about Chris's work establishing a biomarker from brain recordings of patients with treatment resistant depression, a specific form of depression. These are patients who have deep brain stimulation electrodes implanted in an effort to treat their depression. Chris and his team used that stimulation in conjunction with brain recordings and machine learning tools to predict how effective the treatment will be under what circumstances, and so on, to help psychiatrists better treat their patients. We'll get into the details and surrounding issues. Toward the end we also talk about Chris's unique background and path and approach, and why he thinks interdisciplinary research is so important. He's one of the most genuinely well intentioned people I've met, and I hope you're inspired by his research and his story.

    • Structured Information for Precision Neuroengineering Lab.
    • Twitter: @crozSciTech.
    • Related papers
      • Cingulate dynamics track depression recovery with deep brain stimulation.
    • Story Collider: Wired Lives

    0:00 - Intro 3:20 - Overview of the study 17:11 - Closed and open loop stimulation 19:34 - Predicting recovery 28:45 - Control knob for treatment 39:04 - Historical and modern brain stimulation 49:07 - Treatment resistant depression 53:44 - Control nodes complex systems 1:01:06 - Explainable generative AI for a biomarker 1:16:40 - Where are we and what are the obstacles? 1:21:32 - Interface Neuro 1:24:55 - Why Chris cares

    Read the transcript.


    BI 217 Jennifer Prendki: Consciousness, Life, AI, and Quantum Physics Jul 30, 2025
    Show notes

    Support the show to get full episodes, full archive, and join the Discord community.

    The Transmitter is an online publication that aims to deliver useful information, insights and tools to build bridges across neuroscience and advance research. Visit thetransmitter.org to explore the latest neuroscience news and perspectives, written by journalists and scientists.

    Read more about our partnership.

    Sign up for Brain Inspired email alerts to be notified every time a new Brain Inspired episode is released.

    To explore more neuroscience news and perspectives, visit thetransmitter.org.

    Do AI engineers need to emulate some processes and features found only in living organisms at the moment, like how brains are inextricably integrated with bodies? Is consciousness necessary for AI entities if we want them to play nice with us? Is quantum physics part of that story, or a key part, or the key part? Jennifer Prendki believes if we continue to scale AI, it will get us more of the same of what we have today, and that we should look to biology, life, and possibly consciousness to enhance AI. Jennifer is a former particle physicist turned entrepreneur and AI expert, focusing on curating the right kinds and forms of data to train AI, and in that vein she led those efforts at Deepmind on the foundation models ubiquitous in our lives now.

    I was curious why someone with that background would come to the conclusion that AI needs inspiration from life, biology, and consciousness to move forward gracefully, and that it would be useful to better understand those processes in ourselves before trying to build what some people call AGI, whatever that is. Her perspective is a rarity among her cohorts, which we also discuss. And get this: she's interested in these topics because she cares about what happens to the planet and to us as a species. Perhaps also a rarity among those charging ahead to dominate profits and win the race

    • Jennifer's website: Quantum of Data.
    • The blog posts we discuss:
      • The Myth of Emergence
      • Embodiment & Sentience: Why the Body still Matters
      • The Architecture of Synthetic Consciousness
      • On Time and Consciousness
      • Superalignment and the Question of AI Personhood.

    Read the transcript.

    0:00 - Intro 3:25 - Jennifer's background 13:10 - Consciousness 16:38 - Life and consciousness 23:16 - Superalignment 40:11 - Quantum 1:04:45 - Wetware and biological mimicry 1:15:03 - Neural interfaces 1:16:48 - AI ethics 1:2:35 - AI models are not models 1:27:13 - What scaling will get us 1:39:53 - Current roadblocks 1:43:19 - Philosophy


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