Nanotechnology: The World Beyond Micro

Silicon Run Productions
Show More

Related videos

Silicon Run Deposition
Part of the Series: Silicon Run Series
Silicon Run Deposition uses 3D atomic animation and live manufacturing footage to provide a detailed close-up look at the process of thin film deposition in CMOS fabrication. It shows the chemical and physical reactions that create the dielectric and conductive layers of an integrated circuit. Silicon Run Deposition examines the…
The Geometry of Braids—Curious Applications
Episode 33 of Geometry
Wander through the crazy, counterintuitive world of rotations. Use a teacup and string to explore how the mathematics of geometry can describe an interesting result in quantum mechanics.
Quantum Mechanics
Episode 8 of Redefining Reality
Delve into the paradoxical subject of quantum mechanics, which was pioneered by scientists probing atomic structure in the early 20th century. Learn about Max Planck, Niels Bohr, Werner Heisenberg, and Erwin Schrodinger. Focus on the Heisenberg uncertainty principle and the strange behavior of the Schrodinger wave function.
Silicon Run Lithography
Part of the Series: Silicon Run Series
Silicon Run Lithography examines the role of photolithography in imaging and printing the many intricate layers of integrated circuits. Focusing on critical and non-critical mask levels of a CMOS transistor, this video takes a close look at the manufacturing materials, tools, and processes that have made more precise and complex…
Quantum Field Theory
Toss out the textbook image of electrons circling an atom's nucleus. This lecture explores the big twist of quantum field theory: The world isn't really made of particles. They're fascinating and necessary figments of quantum mechanics created by observing the fields that fill every inch of the universe, and grasping…
Quantum Mechanics
In 1926 Erwin Schrodinger developed an equation that underlies much of our modern quantum-mechanical description of physical reality. Solve a simple problem with the Schrodinger equation. Then learn how the merger of quantum mechanics and special relativity led to the discovery of antimatter.
Drawing on what you now know about quantum mechanics, analyze how atoms work, discovering that the electron is not a point particle but behaves like a probability cloud. Investigate the exclusion principle, and learn how quantum mechanics explains the periodic table of elements and the principle behind lasers.
What Time Is It?
Do we really know what time it is? CERN physicist Professor Brian Cox (and author of E=mc2) unlocks the secrets of time in this entertaining and informative program. His journey starts with the Sun, our historical dictator of time, but Brian discovers that the world doesn't always spin like clockwork…
The Science of Information - From Language to Black Holes
The science of information is the most influential, yet perhaps least appreciated field in science today. Never before in history have we been able to acquire, record, communicate, and use information in so many different forms. Never before have we had access to such vast quantities of data of every…
Silicon Run Lite
Part of the Series: Silicon Run Series
Silicon Run Lite combines key sequences and images from both Silicon Run I and Silicon Run II to show from the growth of silicon crystals through the assembly of a personal computer. Live industrial footage, microscopic filming, animation, graphics, and special effects give an up-close view of manufacturing. Silicon Run…
Silicon Run I
Part of the Series: Silicon Run Series
Silicon Run I uses live industrial footage to show the many processes necessary to manufacture microchips, including crystal growth, circuit design, and the wafer fabrication process for CMOS technology. Using close-ups of manufacturing processes and device animation, Silicon Run I provides a clear overview of front-end semiconductor manufacturing. It is…
A New Theory of Matter
Episode 3 of The Nature of Matter
Discover how the idea that light comes in discrete packets called "quanta" led to a startling new theory of matter: quantum mechanics. One prediction is that matter, like light, behaves as both a particle and a wave, a property observed in subatomic particles such as electrons.