The Escaped Sapiens Podcast

In this conversation I speak with Will Harris, who is a fourth generation cattle farmer. Will originally ran a standard industrial farm, but increasingly became dissatisfied by the welfare of his animals. That started a journey to change the way his farm ran, and over the years he has converted his operation piece by piece into a regenerative farm. That means no more grain feed, no more confined feed lots, no more hormones, no more pesticides. The basic idea is to focus on improving the land in order to leave it better each year. Will has come up with a system that is not only better for the cattle and the consumer, but which also appears to be significantly better for the environment. Its quite common to hear about the environmental problems caused by Beef production, including chemical runoff, loss of top soils, and methane from belches. But these problems are usually associated with intensive farming, where cattle are densely packed, and fed on grain. What does the story look like for regenerative practices? The claim is that when cattle are optimally rotated through paddocks,  their impact on the land is dispersed, and it reduces the need for pesticides, herbicides, hormones, and other pharmaceuticals (both in feed production, and within the herd itself). Solar energy goes into growing the grass, which captures carbon as it grows. Carbon is then processed by the herd on the field, and without wormer, and insecticides and other chemicals being used, a living soil is able to develop, which increases in carbon content over the years, drawing down carbon and fixing it in the soil. But what about methane production? Methanotrophs that metabolize methane are also found within healthy soils - and it might be the case that these species account for the methane produced by cattle. Third party assessments appear to show that White Oak Pastures does significantly better than conventional intensive farming,  and within the margin of error of the study, there is a potential that the beef production is climate positive, storing more carbon in the soil than the pasture-raised cows emit during their lifetime: https://blog.whiteoakpastures.com/blog/carbon-negative-grassfed-beef   ►Watch On Youtube or subscribe on YouTube to see more: https://youtu.be/IYYq2LRe0ow https://www.youtube.com/c/EscapedSapiens?sub_confirmation=1 ►Find out more about White Oak Pastures Here: https://whiteoakpastures.com/ ►Follow White Oak Pastures on Twitter: @whiteoakpasture These conversations are supported by the Andrea von Braun foundation (http://www.avbstiftung.de/), as an exploration of the rich, exciting, connected, scientifically literate, and (most importantly) sustainable future of humanity. The Andrea von Braun Foundation has provided me with full creative freedom with their support. As such, the views expressed in these episodes are my own and/or those of my guests.

In quantum mechanics the state of a physical system is described by a wavefunction, which provides information about the probabilities of various outcomes, such as finding a particle at a particular location in space. This differs dramatically from classical physics, where a particle is described by a definite position and momentum. As a result, quantum mechanics inherently involves a certain level of uncertainty. A key question is whether this uncertainty reflects a fundamental indeterminacy in reality itself or merely our limited knowledge of the physical system. One possibility is that reality could be deterministic, and the wavefunction might simply describe statistical properties, much like temperature and pressure describe the collective behavior of gas molecules. In this view, the true state of the system would be governed by hidden variables—deterministic factors that remain unseen yet produce the probabilistic outcomes we observe in quantum experiments. The standard view, however, is that the universe itself is inherently probabilistic.  Furthermore, Bell’s theorem famously rules out “local hidden variable” models, suggesting to many that any such model must allow instantaneous causal influences between spatially separated objects. But is this standard picture as definitive as it seems? In this episode of the podcast, I speak with Rob Spekkens, one of the world’s leading experts on the foundations of quantum mechanics. His research explores the idea that a quantum state may represent a state of incomplete knowledge rather than an objective state of reality. Many of the phenomena commonly associated with quantum mechanics—noncommutativity, interference, entanglement, wave-particle duality, and discrete energy levels—can, as Rob demonstrates, be modeled with classical toy models wherein each system has a determinate physical state but where we have incomplete knowledge of this state.. Rob suggests that quantum mechanics may not be as fundamentally different from classical physics as it initially appears. If we truly want to understand quantum reality, we should focus on isolating and investigating the "thin film" of phenomena that distinguish a quantum from a classical world. That's what we discuss in this episode.  ►Watch on YouTube: https://youtu.be/J2ZIRkfrFlI ►Find out more about Rob's work: https://perimeterinstitute.ca/people/robert-spekkens ►Follow Rob on Twitter: @RobertSpekkens ►Subscribe And Turn On All Notifications To See More: https://www.youtube.com/c/EscapedSapiens?sub_confirmation=1 These conversations are supported by the Andrea von Braun foundation (http://www.avbstiftung.de/), as an exploration of the rich, exciting, connected, scientifically literate, and (most importantly) sustainable future of humanity. The Andrea von Braun Foundation has provided me with full creative freedom with their support. As such, the views expressed in these episodes are my own and those of my guests.

Wheat, soy, corn, potatoes—did we really domesticate the best crops nature had to offer? In this episode of the podcast, I speak with geneticist Padraic J. Flood, who specializes in population and quantitative genetics. Padraic left academia and a position in vertical farming to pursue a dream: the domestication of the Aardaker. The Aardaker is a small, unassuming plant native to moist temperate regions of Europe and Western Asia. It produces edible tubers similar to potatoes, but unlike potatoes, these tubers are rich in protein. This unique combination could yield several times more protein per hectare than soy. Not only that, but the Aardaker is delicious, versatile (much like a potato), and improves soil quality by fixing nitrogen. If Padraic succeeds in domesticating the Aardaker—improving its size, uniformity, and other key traits—he could create a super crop that requires less land, enriches the soil, and potentially returns vast areas of farming land to nature. ►Find out more about Padraic's work: www.aardaia.com These conversations are supported by the Andrea von Braun foundation (http://www.avbstiftung.de/), as an exploration of the rich, exciting, connected, scientifically literate, and (most importantly) sustainable future of humanity. The Andrea von Braun Foundation has provided me with full creative freedom with their support. As such, the views expressed in these episodes are my own and those of my guests.  

In this conversation, Professor Thomas Metzinger, a pioneer in consciousness studies, challenges the notion of the 'self' as an illusion crafted by our brains for survival. He reveals how personal identity evolves, influenced by experience and culture, and questions the impact of technology on self-perception. Fascinatingly, he discusses the rubber hand experiment, illustrating how perception can be altered. Additionally, Metzinger delves into the ethical implications of consciousness, especially concerning AI and suffering, prompting listeners to reconsider what it means to truly 'be'.

Why is alcohol use so widespread? The usual thinking is that despite its negative effects, alcohol is pleasurable and that is why we drink it. But this can't be the whole story because if alcohol is really so bad then cultures that prohibit drinking should dominate over those that like to drink, or you might think that a genetic mutation that makes drinking less pleasurable would spread rapidly through the population. In this conversation I discuss this mystery with sinologist and philosopher Edward Slingerland, who is a Professor of Philosophy at the University of British Columbia, where he also holds appointments in the Departments of Psychology and Asian Studies. Our conversation ranges from the history of alcohol, to its biochemistry and impact on creativity and social life, to a discussion of whether alcohol was necessary for the development of civilization. ► Watch on YouTube: https://youtu.be/j36sKDsvZUg ► For more information about Edward's work see: https://www.edwardslingerland.com/ https://philosophy.ubc.ca/profile/edward-slingerland-iii/ ►Follow Stephen on X: @slingerland20 These conversations are supported by the Andrea von Braun foundation (http://www.avbstiftung.de/), as an exploration of the rich, exciting, connected, scientifically literate, and (most importantly) sustainable future of humanity. The Andrea von Braun Foundation has provided me with full creative freedom with their support. As such, the views expressed in these episodes are my own and those of my guests.  

This is a conversation with Stephen Wolfram about his proposed theory of everything. Stephen is a British-American computer scientist, mathematician, physicist, and CEO of Wolfram Research. He also created Mathematica, and Wolfram|Alpha & Wolfram Language, and is the Author of 'A New Kind of Science' as well as a number of other books. Stephen's attempt to derive all of the laws of nature (including gravitation, statistical mechanics, and general relativity) rests on two key ideas:  1. The idea of computational irreducibility. In physics we usually deal with systems for which we are able to predict the state of the system at a later time as long as the initial conditions are known. For example, the trajectory of a bullet can be calculated at any point along its path. There are, however, complicated systems like cellular automata where there isn't a closed formula that lets you calculate the state of the system at some arbitrary later point. Instead you are forced to compute the development of the system one step at a time if you want to know how it evolves. Such systems are 'computationally irreducible'. 2. The idea of computational boundedness. This is the idea that we have finite computing power in our brains. There are many complex systems that scale so fast that our bounded computing power isn't enough follow every element of the system (e.g. we can't visualize the motion of the billions of cells in our own bodies, and so instead we develop an aggregated model of ourselves). Starting with these two ideas, Stephen asks what a world with computational irreducibility would look like to a computationally bounded creature living in that world. He then builds a computational model based on hypergraphs (which you can think of as a kind of cellular automata), and from there attempts to re-derive all the laws of nature. This is an extraordinarily ambitious project, that lies somewhat outside of mainstream approaches to physics. The claim is, however, that significant progress has been made, and that this approach really is able to derive interesting aspects of the physical world. This conversation explores the key ideas behind the program. ►Watch on YouTube: https://youtu.be/T0s_H9c2O28 ► For more information about Stephen's work see: www.stephenwolfram.com www.wolframphysics.org ►Thumbnail source images can be found here: https://company.wolfram.com/press-center/stephen-wolfram/ https://www.wolframphysics.org/visual-gallery/  ►Follow Stephen on X: @stephen_wolfram These conversations are supported by the Andrea von Braun foundation (http://www.avbstiftung.de/), as an exploration of the rich, exciting, connected, scientifically literate, and (most importantly) sustainable future of humanity. This interview is one of a series of interviews that explores the impact of economics on sustainability and the environment. The Andrea von Braun Foundation has provided me with full creative freedom with their support. As such, the views expressed in these episodes are my own and those of my guests.   A big thank you to anonymous for letting me use their space as a temporary studio.

Housing regulation is often put in place for good reasons, namely comfort, safety, environmental protection, availability of utilities and services, and more. With each additional regulation, however, restrictions are being placed on what you can build, where you can build, and how quickly you can build it. Professor Bryan Caplan argues that our current mess of regulations dramatically increases the price of housing, by limiting supply. This, he argues, has disastrous effects on fertility, and many social issues that we care about today, including social mobility and financial inequalities. Bryan argues further that inappropriate zoning and regulation creates widespread environmental damage through urban sprawl, congestion, and by limiting the number of people who are able to live in environmentally less damaging areas of the country (e.g. where heating and air condition is not required throughout the year, or where water is not scarce). Bryan's preference would be to lift many, if not all building regulations. My approach would be somewhat more conservative. We discuss the nuances of the debate in this conversation. ►Watch on YouTube: https://youtu.be/Rh1eFIveLfE ►For more information about Bryan's work: http://www.bcaplan.com/ ►For Bryans new book: https://www.cato.org/books/build-baby-build ►Follow Bryan on X: @bryan_caplan These conversations are supported by the Andrea von Braun foundation (http://www.avbstiftung.de/), as an exploration of the rich, exciting, connected, scientifically literate, and (most importantly) sustainable future of humanity. This interview is one of a series of interviews that explores the impact of economics on sustainability and the environment. The Andrea von Braun Foundation has provided me with full creative freedom with their support. The views expressed in these episodes are my own and those of my guests.  

Julia Berezutskaya is one of the worlds leading researchers working in the area of brain computer interfaces. She is part of the brain-computer interface group (dept. Neurology & Neurosurgery) at UMC Utrecht, where she works at the intersection of fundamental and clinical neuroscience research. A key goal of her work on the computational modeling of cognitive and neurobiological processes is to one day allow for the decoding of naturalistic human speech from the brain signals of patients who have lost all motor function. In this conversation we discuss the basics of her work: what do the implants look like? Where do they go in the brain? What does the signal look like? What is being decoded? How are brain signals decoded? Who is getting these implants, and what is the state of the art? ►Watch on YouTube: https://youtu.be/JrE-Ux7BnHA ►You can find out more about the EU project that Julia is a part of where she will implant individuals with an intracortical BCI here: https://intrecom.eu/ ►You can see one of the mockup implants she uses here:  https://wysscenter.ch/advances/ability/ ►Visit Julias website to find out more about her work: https://www.juliaberezutskaya.com/ These conversations are supported by the Andrea von Braun foundation (http://www.avbstiftung.de/), as an exploration of the rich, exciting, connected, scientifically literate, and (most importantly) sustainable future of humanity. The views expressed in these episodes are my own and those of my guests.

Carl Bender, an applied mathematician and physicist, discusses complex numbers, PT-symmetric quantum systems, and the link between mathematics and reality. He explores the history and practical applications of numbers, the evolution of quantum mechanics, PT symmetry, Lorentz transformations, and collaborative research with Feynman. The conversation also touches on beauty in mathematics, decision-making strategies, dating dilemmas, and partnerships in mathematics and physics.

What role should Nuclear Power play in energy production? This episode of the podcast explores the case for Nuclear Energy. I speak with Rachel Slaybaugh, who was an Associate Professor of Nuclear Engineering at the University of California, Berkeley, and a Division Director at the Lawrence Berkeley National Laboratory. She also served as a Program Director at the Department of Energy’s ARPA‑E, where she created the nuclear fission program. She is currently a partner at DCVC. We discuss three of the main problems that people have with nuclear power: (i) The risk of plant meltdowns, (ii) the storage of nuclear waste, and (iii) the expense of setting up new nuclear plants. We also cover the environmental benefits of nuclear as a low carbon energy source, as well as some of the exciting new advanced reactor designs that are coming online right now. ►Watch on YouTube: https://youtu.be/BIMj1-GAE4E ►You can find out more about Rachel Here: https://www.dcvc.com/team/rachel-slaybaugh/ ►Follow rachel on twitter: @RachelSlaybaugh These conversations are supported by the Andrea von Braun foundation (http://www.avbstiftung.de/), as an exploration of the rich, exciting, connected, scientifically literate, and (most importantly) sustainable future of humanity. The views expressed in these episodes are my own and those of my guests.