Luca Turin See book keywords and concepts | Surface science had proved to be the key to solid-state electronics, because all the phenomena that make devices like transistors and diodes work happen at the interfaces between different kinds of semiconductor materials. Surface scientists had created a whole technology to keep things clean and deposit thin, controlled layers of stuff on them, which continues today in the giant chip-manufacturing factories that make the electronics our lives depend on. | Mike Adams, the Health Ranger See article keywords and concepts | They think that if computers keep getting more and more advanced, at the pace that it's going today, if Moore's law holds up, and they can keep cramming more transistors onto computer chips at ever increasing rates -- they figure sooner or later, these computers will achieve consciousness.
I completely disagree. I think that computers could someday be able to emulate intelligence. There is no question in my mind that there will be artificial intelligence. But consciousness? That's another matter completely. We don't even really know what the nature of consciousness is. | Win Wenger, Ph.D. and Richard Poe See book keywords and concepts | Today's state-of-the-art Pentium chip contains 3 million transistors crammed into a 1-inch square.5 The rate of technological change continues to accelerate. Whole industries are being wiped out in the blink of an eye. Compact disks obliterated the multibillion-dollar vinyl record industry in less than ten years. Fuel injection and other digital systems made conventional car repair obsolete. The same story is being repeated in every industry. Success in today's turbulent new economy is won not by those who have learned a particular skill but by those who can learn new skills quickly. | Brian O'Leary See book keywords and concepts | This discovery would then become as historically significant as the invention of the steam engine, internal combustion engine, electric light, alternating current, solar photovoltaics, transistors, lasers, computers, jet engines, and fuel cells. If produced in the billions of units, the unorthodox Mills cells could provide abundant, clean and cheap electricity to suit whatever scale of end use is needed, whether it be used in cars, buildings or utilities. I give more details in Appendix I. | Alexander Hellemans and Brian Bunch See book keywords and concepts | Technology. transistors are the tiny electronic devices that provide the brains and the memory in computers. Around 1965 Gordon Moore and Robert Noyce, cofound-ers of the Intel Corporation and pioneers in integrated circuits ("chips"), predicted that the number of transistors that could be placed on a chip would double every year and a half. If anything, that prediction has turned out to be too conservative. | Robert Becker, M.D., and Gary Selden See book keywords and concepts | This was before transistors had entirely replaced vacuum tubes. A tube's characteristics depended on the structure of the electric field inside it, but to calculate the field parameters in advance without computers was a laborious task, so radio engineers often made an analog model. They built a large mock-up of the tube, filled with a conducting solution. When current was applied to the model, the field could be mapped by measuring the voltage at various points in the solution. I decided to build a model salamander.
I made an analog of the creature's nervous system out of copper wires. | James A. Howenstine, MD See book keywords and concepts | The layering of the skin is similar to the layering of the different elements that are used to make capacitors, condensers, transistors, and flashlight batteries. The langerhans cells are located between basal cells and prickel cells. They have dendrites which give them the potential to transmit and are our bodies' biologic solar energy cells. We, just like a pot of geraniums, need direct sunlight for good health.
An interesting and controversial study was carried out in a Sarasota, Florida grade school at Ott's suggestion. | Alexander Hellemans and Brian Bunch See book keywords and concepts | In the first half of the twentieth century, vacuum tubes powered radio and television, computers, and other electronic devices until they were largely displaced by solid-state devices, such as transistors and chips. | | The physicists called their new crystals transistors.
The transistor had none of the problems of the tube. It was small, needed no vacuum, did not wear out easily, and produced little or no heat. Soon transistor radios were the rage. The scientists won the 1956 Nobel Prize for Physics. Large commercial computers, starting with Remington-Rand's UNIVAC, could be built.
What people did not fully realize—except for a few penetrating thinkers like Richard Feynman—was that the transistor was just the beginning. | | The main hardware improvements were the introduction of the transistor to replace the vacuum tube and the introduction of integrated circuits to replace the circuits made up of discrete components such as transistors, resistors, and capacitors. The memories of computers also evolved from bulky cathode-ray tubes and delay lines via magnetic core memories to solid-state memories. Punch cards, like those planned for the Analytical Engine, and punch paper tape were first used for input and output and mass storage. These were eventually replaced by magnetic tape and magnetic disks. | | They expect to be producing a chip that contains 100 million transistors. By using an internal clock that would be more than six times as fast as the 1990 chips, and by programming the chip to process four different sets of instructions at a time, the new chip could handle as many as two billion instructions per second.
The technology behind computers of the 1990s could easily be quite different from the silicon-based technology predicted by Intel. A major development of the 1980s was the vast improvement in artificial diamonds over the first such diamond (produced in 1959). | | Beginning in the 1960s, ways were found to pack more and more transistors onto a given piece of crystal. Such a piece came to be called a chip. A chip is usually a fingernail-sized sliver of silicon, "doped" with impurities in a pattern that enables it to serve as a computer memory or a central processing system or a controller of fuel injection in an automobile. The chip has made possible the incredible increase in power and availability of the personal computer. It has also invaded almost all aspects of daily life, controlling everything from your microwave oven to your car. | James Trefil, Joseph F. Kett, and E. D. Hirsch See book keywords and concepts | In this way complex layers of materials such as those found in transistors can be built up in a very small area. microfilm A film on which miniature copies of documents are reproduced. Microfilm allows for very compact storage of books and documents. microscope A device that produces a magnified image of objects too small to be seen with the naked eye. Such objects are thus called "microscopic." The microscope is widely used in medicine and biology. | Annemarie Colbin See book keywords and concepts | Without crystals, the field of electronics, semiconductors, and transistors could not exist.
How do crystals grow? They emerge, as Aphrodite from the sea, out of a highly saturated solution. As the liquid cools or evaporates, the substance dissolved in it precipitates into a solid form of smooth surfaces. If the crystallization process in nature is slow and steady, the resulting crystals will be large and beautiful—gem-stones, diamonds, quartz. | Robert Becker, M.D., and Gary Selden See book keywords and concepts | Thus they are the basic materials of the transistors and integrated circuits used in most electronic devices today.
Superconduction: The conduction of an electrical current by a specific material that under certain circumstances (generally very low temperatures) offers no resistance to the flow. Such a current will continue undiminished as long as the necessary circumstances are maintained.
Synapse: The junction between one nerve cell and another, or between a nerve cell and some other cell. See also Neurotransmitter. | James Trefil See book keywords and concepts | If you make reasonable assumptions about this relation and then extrapolate into the future, you find that sometime between 2020 and 2030, we will reach the point where we can put at least 100 billion transistors onto a structure the size of a bouillon cube. This is about the same as the number of neurons in the human brain. | | In order to put more circuits on a chip, scientists will have to start making transistors and circuit elements that are comparable in size to a few atoms (today's circuit elements are several thousand atoms across).
The standard miniaturization techniques in use today are simple to describe. In one common process, a silicon substrate is coated with a varnish-like material called a "resist," and a pattern is etched into it. | | Today, choosing from a variety of standardized techniques, engineers can easily put millions of transistors on a single microchip no bigger than a postage stamp. By the beginning of the next century, that number will surely be higher.
Every time the number rises, the size of electronic devices shrinks and we take another big step in the information revolution. When I was a graduate student in the late 1960s, I did calculations on what was then a state-of-the-art computer at Stanford University, in the middle of the nascent Silicon Valley. | | The digital computer, after all, isn't all that different from an abacus or an adding machine, except that instead of shuffling beads or wheels, the computer turns transistors on and off by shuffling electrons. Even experimental technologies like the optical computers discussed earlier operate in essentially the same way, by turning switches on and off.
There are, however, some new schemes on the horizon that could produce "computers" that few of us would recognize ?vats of chemicals, for example, or cubes of perfect crystals held at temperatures near absolute zero. | Rupert Sheldrake See book keywords and concepts | The music can of course be affected by changes in the wiring, transistors, condensers, etc., and it ceases when the battery is removed. Someone who knew nothing about the transmission of invisible, intangible and inaudible vibrations through the electromagnetic field might therefore conclude that it could be explained entirely in terms of the components of the radio, the way in which they were arranged, and the energy on which their functioning depended. |
The Search for Other WorldsFred Alan Wolf See book keywords and concepts | | Yet, despite its enormous practical successes (quantum theory correctly predicts the behavior of such things as lasers, microchips, photocells, nuclear reactors, long-range deep-space communication devices, many types of solid-state inventions, transistors, and materials at very low temperatures, to mention just a few), quantum theory is still so contrary to intuition that, even after eighty years since its inception, most experts do not agree what to make of it.
The Wave Was Not Real
At first physicists believed that the wave was not real, in spite of its having a real effect in the world. | Gary Zukav See book keywords and concepts | It has explained everything from subatomic particles to transistors to stellar energy. It never has failed. It has no competition.
Quantum physicists realized in the 1920's that our commonsense ideas were inadequate for describing subatomic phenomena (pages 46, 275). Bell's theorem shows that commonsense ideas are inadequate even to describe macroscopic events, events of the everyday world!
As Henry Stapp wrote:
The important thing about Bell's theorem is that it puts the dilemma posed by quantum phenomena clearly into the realm of macroscopic phenomena . . . | Thomas J. Moore See book keywords and concepts | It is as though researchers have learned the function of some of the transistors in a radio but still don't understand why it is playing soft rock music instead of the baseball game. Change the transistor in an unmapped behavioral circuit, and it is not surprising to observe unexpected and unwanted results at least some of the time. In addition to prescripdon drugs "that are intended to alter feeling and behavior, there are hundreds more that produce unintended and unwanted adverse effects on behavior. |
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