Bridging The Gaps: A Portal For Curious Minds

Humans have fundamental ability and cognitive resources to learn new concepts and acquire new skills and knowledge, although this may not seem natural to most of us at first. The key is to understand how the brain works so we can harness its potential by developing and adopting learning techniques that are effective and more rewarding. In this episode of Bridging the Gaps, I speak with Dr Barbara Oakley about “Learning how to learn”. Dr. Oakley encourages learners to recognize that everyone learns differently. Recognizing the benefits and drawbacks of various learning approaches depending on a learner’s natural brain functioning, she argues, is the first step in learning how to handle new information. Dr Barbara Oakley is a professor of Engineering at Oakland University in Rochester, Michigan. She is an inaugural “Innovation Instructor” at Coursera, an online course provider, where she co-taught one of the world’s most popular massive open online course “Learning How to Learn”. Her work focuses on the compl

How does a network of individual neural cells become a brain? How does a neural network learn, hold information and exhibit intelligence? While neurobiologists study how nature achieves this feat, computer scientists interested in artificial intelligence attempt to achieve it through technology. Are there ideas that researchers in the field of artificial intelligence borrow from their counterparts in the field of neuroscience? Can a better understanding of the development and working of the biological brain lead to the development of improved AI? In his book “The Self-Assembling Brain: How Neural Networks Grow Smarter” professor Peter Robin Hiesinger explores stories of both fields exploring the historical and modern approaches. In this episode of Bridging the Gaps, I speak with professor Peter Robin Hiesinger about the relationship between what we know about the development and working of biological brains and the approaches used to design artificial intelligence systems. We start our conversation by revie

Quantum computers store data and perform computations by utilizing properties of quantum physics. Quantum computations are performed by these machines by utilizing quantum state features such as superposition and entanglement. Traditional computers store data in binary “bits,” which can be either 0s or 1s. A quantum bit, or qubit, is the fundamental memory unit in a quantum computer. Quantum states such as the spin of an electron or the direction of a photon, are used to create qubits. This could be very useful for specific problems where quantum computers could considerably outperform even the most powerful supercomputers. In this episode of Bridging the Gaps I speak with professor Andrea Morello and we discuss fascinating science & engineering of conceptualizing and building quantum computers. Professor Andrea Morello helps us to unpack and tackle questions such as what a quantum computer is and how we build a quantum computer. Andrea Morello is the professor of Quantum Engineering in the School of Electr

Nanotechnology allows scientists to better understand, interact with, and manipulate biology by creating and manufacturing artificial structures and even machines at the nanoscale out of DNA, proteins, and other biological molecules. From nanoscale machines that can target individual cancer cells and deliver drugs more effectively to nanoantibiotics that can fight resistant bacteria, to the engineering of tissues and organs for research, drug discovery, and transplantation, nanotechnology is revolutionizing medicine in ways that will have profound effects on our health and longevity. In this episode of Bridging the Gaps I speak with Professor Sonia Contera and we discuss fascinating research that she presents in her book “Nano Comes to Life: How Nanotechnology Is Transforming Medicine and the Future of Biology”. The book introduces readers to nanotechnologies, which are fast advancing and allowing us to influence the basic building components of life. Sonia Contera provides an insider's view of this new fro

The debate over whether or not free will exists is not new. The main points of contention in this discussion are whether or not we have control over our actions, and if so, what kind of control we have and to what extent. On the one hand, we have a strong sense of liberty, which causes us to trust in our own free will. An intuitive and instinctive sense of free will, on the other hand, could be misinterpreted. In this episode of Bridging the Gaps, I speak with Dr Aflred Mele and we discuss the concept of “Free Will” from the perspective of philosophy and from the perspective of neuroscience. Dr Alfred Mele is a Professor of Philosophy at Florida State University. His research interests include issues about human behavior located at the intersection of philosophy and science such as free will, personal autonomy, self-deception, self-control, intention, intentional action, motivation, and moral responsibility. He is also the past Director of the Philosophy and Science of Self-Control Project and the Big Quest

What is time? Is time real or just an illusion? Time is an enigma, a mystery that never ceases to perplex us. Philosophers, poets, painters and thinkers have long debated its significance, while scientists have discovered that its structure differs from our intuitive understanding of it. Our view of time has changed dramatically throughout the years, from Boltzmann to quantum theory, and from Einstein to loop quantum gravity. In the huge cosmos, time moves at various speeds in different places, the past and future differ considerably less than we might assume, and the whole concept of the present vanishes. In this episode of Bridging the Gaps I discuss with Dr Carlo Rovelli the nature of time, the nature of space, and the fundamental nature of reality through the lens of quantum mechanics. Carlo Rovelli is professor of physics at Aix-Marseille University, where he is director of the quantum gravity group at the Center for Theoretical Physics. He is one of the founders of loop quantum gravity theory and is o

Neurons are the fundamental building blocks of the brain. In the human brain, billions of these neurons communicate and liaise with one another using spikes, blips of electric voltages. Studying and understanding how these spikes emerge in the brain, how they travel through the brain and how this communication leads to meaningful actions are part of the cutting edge research in the field of neuroscience. In this episode of Bridging the Gaps I speak with professor Mark Humphries and discuss the research that he presents in his new book “The Spike: An Epic Journey Through The Brain in 2.1 Seconds”. This is a deeply informative account of the journey that these electrical signals take as they move from one neuron to another and eventually lead us to act. The tackles previously unanswered mysteries: Why are most neurons silent? What causes neurons to fire spikes spontaneously, without input from other neurons or the outside world? Why do most spikes fail to reach any destination? In this thorough discussion with

Over centuries “information has shaped and been shaped by human society”, writes professor Paul Duguid at the start of the book “Information: A Historical Companion”. Duguid is one of the editors of this book that reconstructs the rise of human approaches to creating, managing, and sharing facts and knowledge. The book is organised as thirteen long form chapters and more than hundred short form entries in a list of thematic objects, tools and concepts that are critical for our understanding of information. Each long-form chapter discusses the role of information at an important point in time in the history, at a particular geographical setting. Written by an international team of experts, “Information: A Historical Companion” is a wide-ranging, deeply immersive and a large publication. In this episode of Bridging the Gaps I speak with Paul Duguid, a professor in the School of Information at the University of California, Berkeley and one of the editors of this book. We start our discussion by exploring the c

Neural mechanisms in the human brain that are responsible for generating and keeping track of plans, and influencing a cascade of brain states that can link our goals with the correct actions are known as Cognitive Control. These mechanisms and processes enable us to transform plans and goals into actions. Cognitive Control, also known as Executive Control inhibits automatic responses and supports flexible, adaptive responses and enables sophisticated actions to achieve desired goals. From making a cup of coffee to buying a house, from planning a trip to a shopping mall to outlining a career path, humans are uniquely able to execute necessary actions. How do we do it? In his book “On Task: How Our Brain Gets Things Done”, cognitive neuroscientist David Badre presents the first authoritative introduction to the neuroscience of Cognitive Control. In this episode of Bridging the Gaps I speak with Professor David Badre to discuss this astonishing phenomenon, these fascinating mechanisms that have profound impact

Philosophical reflection on technology is not new, it is about as old as philosophy itself. However, as the impact of technology on everyday human life and on society keeps increasing, and new and emerging technologies permeate nearly every aspect of our daily lives, it is crucial that human-technology relationships are studied extensively and understood thoroughly. In this episode of Bridging the Gaps, I speak with philosopher Professor Peter-Paul Verbeek who suggests that human-technology relationships should be studied by focusing on how technologies mediate our actions and our perceptions of the world. Peter-Paul Verbeek is Distinguished Professor of Philosophy of Technology at the Department of Philosophy of the University of Twente. He is chair of the Philosophy of Human-Technology Relations research group and co-director of the DesignLab of the University of Twente. He is also honorary professor of Techno-Anthropology at Aalborg University, Denmark and is chairperson of the UNESCO World Commission on

Ignorance, denials and negations have always been part of human experience. In this post-truth, post-industrial world, we often feel overwhelmed by the information and misinformation overload. Although we claim to live in an information age, consciously or unconsciously, actively or passively more and more we are choosing to ignore, deny and negate facts and valid opinions. In this episode of Bridging the Gaps, I speak with philosopher and sociologist Professor Renata Salecl and we this discuss this “passion for ignorance”. In her recent book “A Passion for Ignorance: What We Choose Not to Know and Why” Renata Salecl explores how the passion for ignorance plays out in many different aspects of life today. Renata Salecl is professor at the School of Law at Birkbeck College, University of London and senior researcher at the Institute of Criminology at the Faculty of Law in Ljubljana, Slovenia. I open our discussion by asking Professor Salecl to unpack and explain various faces of ignorance that she outlines

Sense of smell is the process of creating the perception of smell. Animals use smell for a range of essential functions such as to find food or a mate, to sense danger and to send and receive signals and complex messages with other members of a species. Despite being so fundamental for all animals, including us, the sense of smell remains mysterious. We understand far less about this sense than we know about other senses. In this episode of Bridging the Gaps I speak with Professor Matthew Cobb and we explore this fascinating topic. In his recent book “Smell: Very Short Introduction”, Matthew Cobb describes the latest scientific research on sense of smell in humans, other mammals and in insects. Matthew Cobb is a professor in the School of Biological Sciences at the University of Manchester, where he studies sense of smell - or olfaction as it is technically known; he also studies insect behaviour, and the history of science. I open the discussion by posing the question that why did sense of smell emerge an

Scientists now have a good understanding of how our universe evolved over the past 13.8 billion years, but we know very little about what happened in the first few seconds after the Big Bang. Dr Dan Hooper, a senior scientist at Fermi National Accelerator Lab and a professor of astronomy and astrophysics at the University of Chicago, emphasises that understanding the earliest moments of the universe is vital to tackle, and to decipher mysteries such as dark matter and dark energy. In his book “At the Edge of Time: Exploring the Mysteries of Our Universe’s First Seconds” Hooper outlines four foundational questions as puzzles that we must solve and the key to solving these puzzles is in understanding what happened at the very beginning of our universe. In this episode of Bridging the Gaps I speak with Dr Dan Hooper. We discuss intriguing questions and fascinating research that he presents in the book “At the Edge of Time: Exploring the Mysteries of Our Universe’s First Seconds”. At the start of the book Hoop

Throughout history philosophers, poets and explorers have been pondering upon and debating the question that what the long term future of our universe would be. The focus has been on two intriguing perspectives: would the universe continue to exist forever or would it end at some point in time in future. Modern scientists seem to be in agreement that in the distant future the world will end; our universe will die. At that time, humanity might still exist in many unrecognizable spinoff forms, venturing out to distant space, finding new homes and building new civilizations. But the death of the universe if final. It is hard to contemplate that a time will come when, all that we care about, all that we have imagined and built, that all will end. It is equally hard to address the question that how our universe will end. In her latest book “The End of Everything (Astrophysically Speaking)”, Dr Katherine (Katie) Mack outlines five different ways the universe could end, and discusses in detail the mind-blowing lesso

Research and development in the field of Artificial Intelligence is progressing at an amazing pace. These developments are moving beyond simple applications such as machine vision, autonomous vehicles, natural language processing and medical diagnosis. Future AI systems will be able to use reasoning to make decisions; will employ innovative models of non-human intelligence; will augment human intelligence through human centric AI Systems. These systems will enable us to discover solutions to scientific and social problems, and will enable us to understand the physical world around us that has never been possible up-to this point in time. In this episode of Bridging the Gaps, I speak with Professor Bart Selman to discuss these fascinating opportunities as well as emerging challenges in the field of Artificial Intelligence. Bart Selman is a Professor of Computer Science at Cornell University. He is a Fellow of the American Association for Artificial Intelligence and a Fellow of the American Association for th

Information is a crucial concept. Its significance is evident by the fact that the present era is labelled as the information age. An intriguing question is: What is information? Although information is always around us, in the realm of digital artefacts and connectivity as well as in biological entities and processes, it is still an elusive concept. This is perhaps the hardest and most central problem that is the focus of a new area of research known as philosophy of information. This episode of Bridging the Gaps focuses on philosophy of information, and touches upon a number of relevant concepts. I speak with professor Luciano Floridi who explains what is philosophy of information, why it matters, and systematically unpacks and thoroughly explains a number of fascinating and relevant concepts for our listeners. Professor Luciano Floridi is a Professor of Philosophy and Ethics of Information at the University of Oxford. He is also the Director of the Digital Ethics Lab of the Oxford Internet Institute. He

Most history of science publications narrowly focus on specific periods in human history, or particular disciplines of scientific discovery, or small sets of scientists and philosophers. However there is a view that history of science can be better understood against the background of a history of knowledge including not only theoretical but also intuitive and practical knowledge. This can be further broadened by including cognitive, material and social dimensions of knowledge. Studying how knowledge structures are formed and evolve as knowledge spreads should further enrich our understanding of development and progress of science and technology. In his new book “ The Evolution of Knowledge: Rethinking Science for the Anthropocene” Jürgen Renn presents a new way of thinking about the history of science and technology, one that offers a grand narrative of human history in which knowledge serves as a critical factor of cultural evolution. Jürgen Renn is a director at the Max Planck Institute for the History

In the era of big data and super-fast information capturing and processing systems, it is easy to imagine that we have all the information that lead to actionable insights, that we need to make good decisions. However, according to David Hand, Emeritus Professor of Mathematics and Senior Research Investigator at Imperial College London, the data we have are never complete. Just as much of the universe is composed of dark matter, invisible to us but nonetheless present, the universe of information is full of dark data that we overlook at our peril. In his new book “Dark Data: Why What You Don’t Know Matters” Professor David Hand takes us on a fascinating and enlightening journey into the world of the data we don't see. As in his book “Brief Answers to the Big Questions” Stephen Hawking notes “No matter how powerful a computer you have, if you put lousy data in you will get lousy predictions out”, it is essential to understand anomalies and imperfections that a dataset may have. These imperfections may lead t

Mathematics is everywhere. We use numbers, quantities, values and measurements almost all the time. Counting and quantifying is part of almost everything that we do. An interesting question is how did it all start. When did humans start thinking mathematically and what is the origin of mathematical thinking. As we start tacking these questions, we stumble upon few more queries: how did our brain evolve to do mathematics; what are fundamental capacities that enable humans to do mathematical thinking; what are major milestones in the evolution of mathematical thinking and in the history of mathematical innovations; is mathematics discovered or is it invented. I invited Dr Keith Devlin to join me in this episode of Bridging the Gaps for a discussion that focuses on these questions. Dr Keith Devlin is the director of the Stanford Mathematics outreach project at Stanford University. His current research is focused on the use of different media to teach and communicate mathematics to diverse audiences. He has

Our planet’s history, from its initial formation to present day, spans over a long period of time. It is not easy to conceptually imagine such a large timescale and most of us adopt a narrow perspective of temporal proportion. This constricted view, according to professor Marcia Bjornerud underlies many of the environmental problems we are creating for ourselves. The lifespan of Earth can seem unfathomable compared to the brevity of human existence, but a narrow view of time makes it difficult for us to understand our roots in Earth’s history and the magnitude of our impact on the planet. Bjornerud, in her recent book “Timefulness: How Thinking Life a Geologist Can Help Save the World” stresses that an awareness of Earth’s temporal rhythms is critical to our planetary survival. I speak with Professor Marcia Bjornerud in this episode of Bridging the Gaps and we discuss fascinating research and intriguing ideas that she presents in this book. We explore in detail, one of the main points presented in this book,