6. A Strategy for Exploiting Unconventional Gas Resources (May 20, 2009)
earth science, environmental biology, chemistry, physics, engineering, math, climate change, economy, energy, technology, oil, nuclear, electricity, chemical, renewable fuel, greenhouse gas, GHG, fossil fuel, atmosphere, carbon capture, supply, natural ga
6. Center for Advanced Molecular Photovoltaics (October 29, 2008)
science, physics, chemistry, energy, Saudi Arabia, King Abdullah University of Science and Technology (KAUST), materials science, solar cells, semiconductors, silicon, photovoltaics, nanotechnology, quantum chemistry, optics, polymer science, electrical e
9. Designing Nanomaterials for Energy Storage: Batteries and Supercapacitors (November 19, 2008)
science, alternative energy, batteries, capacitor, nanotechnology, materials science, fuel cells, energy density, circuit design, silicon, electric potential, chemical engineering, nanowires, power density, electrochemistry, physics, engineering, substrat
1. Self and Self: Whys and Wherefores (September 30, 2009)
science, technology, engineering, mathematics, statistics, economics, design, technical, computer, hi-tech, experience, leading, following, cognitive memory, programming, CPU, prototype, physics, self language, creativity,
6. Rethinking Time in Distributed Systems: How Can We Build Complex Systems Simply? (November 11, 20
science, technology, electrical engineering, physics, computer, time, distributed systems, programming, information storage, scale, transmission rate, spatial distribution, complexity, software, hardware, simultaneity, inertial system, concurrency, god's
5. Systems Architecture, Kabuki Capitalism, and the Economic Manhattan Project (April 29, 2009)
science, biology, physics, technology, engineering, mathematics, statistics, economics, design, architecture, computer science, financial crisis, linear algebra, diminishing return on investment, revealed preference, incentive structure, expert, tourism,
8. Enernet: Internet Lessons for Solving Energy (May 20, 2009)
science, biology, history, energy, physics, technology, engineering, mathematics, design, computer science, communication, Internet, network, equipment, data, FCC, computer, food, fuel, ethanol, collective intelligence, infrastructure, conservation, effic
9. The Rise and Fall of a Companion Robot: Lessons Learned from Pleo (May 27, 2009)
science, biology, history, energy, physics, technology, engineering, mathematics, design, computer science, robot, mechanics, electronics, psychology, humanities, life, Pleo, dinosaur, prototype, artist, actor, improv, voice, skin, expression, patent, mar
7. Spookytechnology and Society (May 21, 2008)
science, electrical, engineering, math, computer, technology, physics, quantum, mechanics, information, nanotechnology, spookytechnology, particle, scale, government, measurement, entanglement, society, superposition, decoherence, silicon, photon trap, at
9. The Role of Accelerated Computing in the Multi-Core Era (June 4, 2008)
science, computer, math, electrical, engineering, technology, physics, transistor, wire, delays, deep pipelining, multi-core, accelerated computing, Moore's Law, SMP, memory, bandwidth, data, movement, software stack, innovation, AMD, hardware, server, po
Ira Levin (1929–2007) 2.2 The clockwork Universe Introduction Acknowledgements 1.5.4 Functions and the function notation 1.6.1 Describing uniformly accelerated motion Modern Theoretical Physics: Quantum Entanglement Course Introduction Superconductivity James Clerk Maxwell 2.24 Ocean Wave Interaction with Ships and Offshore Energy Systems (13.022) (MIT)
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The restless Universe introduces you to major achievements and figures in the history of physics, from Copernicus to Einstein and beyond. The route from classical to quantum physics will be laid out for you without recourse to challenging mathematics but with the fundamental features of theories and discoveries described in sufficient detail to whet your appetite for further physics study.
The restless Universe introduces you to major achievements and figures in the history of physics, from Copernicus to Einstein and beyond. The route from classical to quantum physics will be laid out for you without recourse to challenging mathematics but with the fundamental features of theories and discoveries described in sufficient detail to whet your appetite for further physics study.
The restless Universe introduces you to major achievements and figures in the history of physics, from Copernicus to Einstein and beyond. The route from classical to quantum physics will be laid out for you without recourse to challenging mathematics but with the fundamental features of theories and discoveries described in sufficient detail to whet your appetite for further physics study.
Motion is vital to life, and to science. This unit will help you to understand why classical motion is probably the most fundamental part of physics. You will examine motion along a line and the ways in which such motion can be represented, through the use of graphs, equations and differential calculus.
Motion is vital to life, and to science. This unit will help you to understand why classical motion is probably the most fundamental part of physics. You will examine motion along a line and the ways in which such motion can be represented, through the use of graphs, equations and differential calculus.
Course - Group - Modern Theoretical Physics: Quantum Entanglement Course Introduction - Stanford > Modern Theoretical Physics (Fall 2006) > Modern Theoretical Physics: Quantum Entanglement Course Introduction
The fascinating phenomenon of superconductivity and its potential applications have attracted the attention of scientists, engineers and businessmen. Intense research has taken place to discover new superconductors, to understand the physics that underlies the properties of superconductors, and to develop new applications for these materials. In this unit you will read about the history of superconductors, taking a brief look at their properties. You will also learn about modelling the propertie
James Clerk Maxwell (1831-1879) is arguably the father of electromagnetism, and unarguably one of the greatest physicists ever. Einstein called Maxwell's equations 'the most important event in physics since Newton's time, not only because of their wealth of content, but also because they form a pattern for a new type of law'. This unit will examine Maxwell's greatest triumph, the prediction that electromagnetic waves can propagate vast distances through empty space and the realisation that light
The subject introduces the principles of ocean surface waves and their interactions with ships, offshore platforms and advanced marine vehicles. Surface wave theory is developed for linear and nonlinear deterministic and random waves excited by the environment, ships, or floating structures.
Following the development of the physics and mathematics of surface waves, several applications from the field of naval architecture and offshore engineering are addressed. They include the ship Kelvin wave
