Dr. Subir Sachdev (Perimeter Institute and Harvard University) delivers the kick-off lecture of the 2014/15 Perimeter Institute Public Lecture Series, in Waterloo, Ontario, Canada. Held at Perimeter Institute and webcast live worldwide on Oct. 1, 2014, Sachdev's lecture explores the fascinating and surprising connections between quantum mechanics, the phenomenon of superconductivity, and string theory.
Human deep space exploration missions require a thorough understanding of the prolonged environmental effects on life. The use of genomics and synthetic biology will transform such missions by reducing the overall risk and mass needed to sustain crew health in space. As the lead Center for space biology and synthetic biology, NASA Ames is in pursuit of these challenges.
Regarded as one of the leading scientists in genomic research of the 21st century, J. Craig Venter, Ph.D., will speak about the profound impacts these new tools will have on human¹s existence on Earth and beyond.
The Director's Colloquium Summer Series is presented by the Office of the Chief Scientist at NASA's Ames Research Center as part of the Center's 75th anniversary celebration.
The centuries-old quest for other worlds like our Earth has been rejuvenated by the intense excitement surrounding the discovery of hundreds of planets orbiting other stars. The challenge now is to find terrestrial planets, especially those in the habitable zone of their stars where liquid water might exist on the surface of the planet. The Kepler mission, which launched in March 2009, is specifically designed to survey our region of the Milky Way galaxy to discover Earth-size and smaller planets in or near the habitable zone and determine the fraction of the hundreds of billions of stars in our galaxy that might have such planets. To date, 61 Kepler planets have been confirmed and more than 2,300 planet candidates have been found. This talk will cover many of Kepler's discoveries, including several planets orbiting two stars, and will try to explain how Kepler's discoveries help define humanity's place in the universe.
In this 2013 video by Science Friday, researchers take advantage of the Leidenfrost effect to make droplets of water flow up an incline. The Leidenfrost effect occurs when a liquid is placed on a surface that is significantly hotter than the liquid’s boiling point. A layer of vapor prevents the liquid from touching the surface and thus boiling rapidly away—the vapor also allows the liquid to move across the surface with ease.
Machine learning algorithms find patterns in big data sets. This talk presents quantum machine learning algorithms that give exponential speed-ups over their best existing classical counterparts. The algorithms work by mapping the data set into a quantum state (big quantum data) that contains the data in quantum superposition. Quantum coherence is then used to reveal patterns in the data. The quantum algorithms scale as the logarithm of the size of the database.
Seth Lloyd visited the Quantum AI Lab at Google LA to give a tech talk on "Quantum Machine Learning." This talk took place on January 29, 2014.
Time. We waste it, save it, kill it, make it. The world runs on it. Yet ask physicists what time actually is, and the answer might shock you: They have no idea. Even more surprising, the deep sense we have of time passing from present to past may be nothing more than an illusion. How can our understanding of something so familiar be so wrong? In search of answers, Brian Greene takes us on the ultimate time-traveling adventure, hurtling 50 years into the future before stepping into a wormhole to travel back to the past. Along the way, he will reveal a new way of thinking about time in which moments past, present, and future—from the reign of T. rex to the birth of your great-great-grandchildren—exist all at once. This journey will bring us all the way back to the Big Bang, where physicists think the ultimate secrets of time may be hidden. You'll never look at your wristwatch the same way again.
Michio Kaku (born January 24, 1947) is an American theoretical physicist, the Henry Semat Professor of Theoretical Physics at the City College of New York, a futurist, and a communicator and popularizer of science. He has written several books about physics and related topics; he has made frequent appearances on radio, television, and film; and he writes extensive online blogs and articles. He has written two New York Times Best Sellers, Physics of the Impossible (2008) and Physics of the Future (2011).
Kaku has hosted several TV specials for the BBC, the Discovery Channel, the History Channel, and the Science Channel.
Kaku has appeared in many forms of media and on many programs and networks, including Good Morning America, The Screen Savers, Larry King Live, 60 Minutes, Imus In The Morning, Nightline, 20/20, Naked Science, CNN, ABC News, CBS News, NBC News, Al Jazeera English, Fox News Channel, The History Channel, Conan, The Science Channel, The Discovery Channel, TLC, Countdown with Keith Olbermann, The Colbert Report, The Art Bell Show and its successor, Coast To Coast AM, BBC World News America, The Covino & Rich Show, Head Rush, Late Show with David Letterman, and Real Time with Bill Maher. Kaku was interviewed for two PBS documentaries produced and directed by Rosemarie Reed, a former colleague of his at WBAI Radio, The Path to Nuclear Fission: The Story of Lise Meitner and Otto Hahn and Out from the Shadows: The Story of Irène Joliot-Curie and Frédéric Joliot-Curie. We Are the Guinea Pigs (1980) Borders (1989) Synthetic Pleasures (1995) Einstein Revealed (1996) Future Fantastic (1996) Stephen Hawking's Universe (1997) Bioperfection: Building a New Human Race (1998) Exodus Earth (1999) Me & Isaac Newton (1999) Space: The Final Junkyard (1999) Ghosts: Caught on Tape (2000) Big Questions (2001) Parallel Universes (2001) Horizon: "Time travel" (2003) Robo sapiens (2003) Brilliant Minds: Secret Of The Cosmos (2003) Nova: "The Elegant Universe" (2003) Hawking (2004) The Screen Savers (2004) Unscrewed with Martin Sargent (2004) Alien Planet (2005) ABC News "UFOs: Seeing Is Believing" (2005) HARDtalk Extra (2005) Last Days on Earth (2005) Obsessed & Scientific (2005) Horizon: "Einstein's Unfinished Symphony" (2005) Time (2006) 2057 (2007) The Universe (2007) Futurecar (2007) Attack of the Show! (2007) Visions of the Future (2008) Horizon: "The President's Guide to Science" (2008) Stephen Hawking: Master of the Universe (2008) Horizon: "Who's Afraid of a Big Black Hole" (2009--2010) Sci Fi Science: Physics of the Impossible (2009--2010) Horizon: "What Happened Before the Big Bang?" (2010) GameTrailers TV With Geoff Keighley: "The Science of Games" (2010) How the Universe Works (2010) Seeing Black Holes (2010) Prophets of Science Fiction (2011) Through the Wormhole (2011) Horizon: "What Happened Before the Big Bang?" (2011) The Science of Doctor Who (2012) World War Z: (2013)
Wolfram Research | Stephen Wolfram, PhD, introduces the Wolfram Language in this video and demonstrates how the symbolic programming language enables functional programming, querying of large databases, flexible interactivity, and easy deployment.
Wikipedia | Wolfram Language is a highly general, multi-paradigm programming language developed by Wolfram Research, that serves as the main interfacing language for Wolfram Mathematica.
It is designed with emphasis on symbolic computation, functional programming, and rule-based programming. It is built to represent arbitrary structures and data.
The language is very large, touching on numerous domains, often specialized. For example, it includes built-in functions for generating and running Turing machines, creating graphics and audio, analyzing 3D models, and solving differential equations.
It is planned to be bundled with the system software installed on every Raspberry Pi. Intel Edison also integrates the language, and it is planned to be integrated in the Unity game engine.
In this fascinating interview, physicist Tom Campbell, formerly with and now a consultant for NASA, discusses the current problems facing the scientific community's search for a Grand Unified Theory of Everything. String theory, holography, zero-point field theory, and other vogue models have failed to produce any significant results other than speculation, conjecture, and contradiction-hampered popular films such as 'What the Bleep Do We Know?' While Campbell doesn't merely criticize these theories, he offers a fresh interpretation of the root of the problem: the Double Slit Experiment.
Campbell also discusses information theory, virtual reality, process fractals, the quantum erasure experiments, video games, and the unavoidably primary role of conscious observers within our reality.
Through what he calls the data base, he also discusses accessing the Larger Consciousness System. Yes, His Big TOE derives a Supreme Being.
Tom has excelled as a working scientist, a professional physicist dedicated to pushing back the frontiers of cutting edge technology, large-system simulation, technology development and integration, and complex system vulnerability and risk analysis.
Michio Kaku discovers our sense of time passing and the clocks that drive our bodies. He reveals the forces of time that make and destroy us in a lifetime. He journeys to some of the Earth's most spectacular geological sites to look for clues to the extraordinary depths of time at a planetary level. Finally, he takes us on a cosmic journey in search of the beginning (and the end) of time itself.
Part 1: Daytime Time seems to drive every moment. It's the most inescapable force we feel. But do we experience time from within our minds and bodies or from the outside?
Part 2: Lifetime The most powerful effect of time on our lives is the way it limits us. Our knowledge of death is so embedded in our lives and spirituality that, were immortality possible, would we lose the sense that makes us human?
Part 3: Earthtime The most powerful effect of time on our lives is the way it limits us. Our knowledge of death is so embedded in our lives and spirituality that, were immortality possible, would we lose the sense that makes us human?
Part 4: Cosmic Time We've always structured our lives based on an unchanging past and a predictable and ordered future. But atomic and cosmic discoveries have changed all that. What is time itself? And will it ever end?
Documentaries have an incredible ability to educate and motivate people to care about the world around them. We need more people to be part of the solution by tackling the most critical issues facing the planet. Check out my list of favorite documentaries of 2013. Share your favorites documentaries in the comment area below.
Dr. Batalha (Mission Scientist for the Kepler Mission, searching for exoplanets) describes the techniques used by the Kepler team to identify planets orbiting other stars and updates us on the remarkable progress they are making in the search for Earth-sized worlds. She discusses the planets already found and shares what we know so far about the thousands of candidate planets that are in the Kepler data.
David A. Weintraub is professor of astronomy, director of the Communication of Science & Technology program, and director of Undergraduate Studies for Department of Physics & Astronomy at Vanderbilt University.
The title question about the age of our universe poses a deceptively simple question, and its answer carries profound implications for science, religion and philosophy. In this class, we will trace the centuries-old quest by astronomers to fathom the secrets of the nighttime sky. We will discover how they have used their knowledge of astrophysics and their observations of the heavens to determine that the universe is 13.7 billion years old.
By the end of the course, you will understand why astronomers know this is the answer to the title question. Individual classes will focus on
ancient answers for the age of the universe, Renaissance science's impact on that ancient wisdom, and Biblical Chronology as a reasonable seventeenth century response to the birth of modern science;
nineteenth-century discoveries that changed astronomy into astrophysics;
white dwarf stars as a chronometer for the age of the universe;
star clusters as another tool for measuring the age of the universe;
the expanding universe as a third method for dating the universe;
maps of the cosmic background radiation, dark matter and dark energy as a fourth method for determining the age of the universe.
No background in math, astronomy, or physics is required to understand this material.Watch video of Vanderbilt Professor David A. Weintraub speaking March 23 on "How Old is the Universe?" as part of the Osher Lifelong Learning Institute.
Dr. Michio Kaku is a theoretical physicist, bestselling author, acclaimed public speaker, renowned futurist, and popularizer of science. As co-founder of String Field Theory, Dr. Kaku carries on Einstein's quest to unite the four fundamental forces of nature into a single grand unified theory of everything. You will not be surprised to hear that Michio Kaku has been on my guest dream-list since I started Singularity 1 on 1, and I was beyond ecstatic to finally have an opportunity to speak to him.
During our 90 min conversation with Dr. Michio Kaku we cover a variety of interesting topics such as: why he shifted his focus from the universe to the human mind; his definition, classification and ranking of consciousness; his take on the Penrose-Hameroff Orch OR model; Newton, Einstein, determinism and free will; whether the brain is a classical computer or not; Norman Doidge's work on neuro-plasticity and The Brain That Changes Itself; the underlying reality of everything; his dream to finish what Einstein has started and know the mind of God; The Future of the Mind; mind-uploading and space travel at the speed of light; Moore's Law and D-Wave's quantum computer; the Human Brain Project and whole brain simulation; alternatives paths to AI and the Turing Test as a way of judging progress; cryonics and what is possible and impossible.
In this video lecture, Prof. Wei Shun from Tsinghua university talks about the various aspects of 3D bioprinting. What is 3D bioprinting and how it can be used for regenerative medicine and for the formation of 3D tissue models to study disease mechanisms in the lab.
The lecture was given in Tel-Aviv University 2014.
Can current theories of cosmology explain how the Universe evolved? One way to find out is to plug everything we think we know about the early Universe and how galaxies form into a supercomputer, and see what comes out. In a simulation presented today in Nature1, researchers did just that — and revealed a cosmos that looks rather like our own. The findings lend weight to the standard model of cosmology, but could also help physicists to probe where our models of galaxy formation fall down.
Scientists at MIT have traced 13 billion years of galaxy evolution, from shortly after the Big Bang to the present day. Their simulation, named Illustris, captures both the massive scale of the Universe and the intriguing variety of galaxies -- something previous modelers have struggled to do. It produces a Universe that looks remarkably similar to what we see through our telescopes, giving us greater confidence in our understanding of the Universe, from the laws of physics to our theories about galaxy formation.
The recent resurrection of multi-layer neural networks is generating a lot of interest currently, with deep learning appearing on the New York Times front page, and big companies like Google and Facebook hunting for the experts in this field. Jürgen Schmidhuber, Director of the Swiss AI Lab IDSIAs, will shed more light on how deep learning methods work, and why they work.
The behavior of an animal reflects computations across its entire nervous system, involving the coordinated activity of thousands of neurons within and across multiple brain areas. New technologies for imaging the nervous system allow us to monitor neural function at unprecedented scales. But the data sets are quickly outpacing the capabilities of ordinary analytical approaches. They are large (one terabyte or more per hour), complex, and high-dimensional, and we want to understand their structure as it evolves over both space and time.
How billions of interconnected cells in the brain can interpret and regulate all our bodily functions as well as mediate our experiences of interactions with and responses to the world around us is a huge and fascinating question that many different disciplines have attempted to tackle. This lecture considers what we have learned so far about the principles of neural encoding and how they may begin to explain our memories, emotions and conscious awareness.
Gresham College has been giving free public lectures since 1597. This tradition continues today with all of our five or so public lectures a week being made available for free download from our website. (http://www.gresham.ac.uk)