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Location: Mothership -> UFO -> Updates -> 1997 -> Jun -> Re: Corso's book

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Re: Corso's book

From: James Easton <pulsar@compuserve.com>
Date: Wed, 18 Jun 1997 19:39:46 -0400
Fwd Date: Thu, 19 Jun 1997 02:19:55 -0400
Subject: Re: Corso's book

Regarding...

>From: Greg Sandow <gsandow@prodigy.net>
>Subject: Corso's book
>Date: Tue, 17 Jun 1997 17:34:25 -0400

Greg wrote:

>The key to Corso's UFO information is the title of the book -- "The
>Day After Roswell." This refers to something initially quite limited,
>and fascinating -- what happened to the crash debris. Corso says that
>it initially got scattered scientific study, some of which led to the
>development of the transitor.


Greg,

The development of the transistor was completed during 1947, by
William Shockley, Walter Brattain and John Bardeen, working at Bell
Telephone Laboratories.

Briefly setting this in some perspective:

John V. Atanasoff, a professor at Iowa State College, and Clifford
Berry, a graduate student, conceived an all-electronic computer that
applied Boolean algebra to computer circuitry. In 1939, they designed
a prototype and in 1973, a judge declared it to be the first automatic
digital computer.

The code-breaking Colossus computer was designed and built in 1941 at
the University of Manchester, England and Colossus Mark II followed
in 1944.

The first information-processing digital computer actually built was
the Automatic Sequence Controlled Calculator, or Mark I computer.
Completed in 1944, this electromechanical device was designed by
American Howard H. Aiken, a Harvard engineer working with IBM.

Around half the length of a football field and containing some 500
miles of wiring, its purpose was to create ballistic charts for the
U.S. Navy.

February of 1946 saw an unveiling of the Electronic Numerical
Integrator and Computer (ENIAC), the result of a joint project between
the U.S. government and the University of Pennsylvania. Consisting of
17,468 vacuum tubes, some 70,000 resistors and 5 million soldered
joints, it weighed approximately 30 tons and required 1000 square feet
of floor space. Entirely electronic, it consumed up to 160 kilowatts
of power, sufficient to dim the lights in part of Philadelphia.


Vacuum tubes were required for electromechanical circuit switching and
the regulated conduction of electrical current - basically switching
and amplification - but they consumed too much power, gave off too
much heat, took up too much space, cost too much to produce, and they
burned out.

Shockley, Brattain and Bardeen's research addressed these problems and
in searching for a suitable alternative they decided to try
semiconductors, materials that were adequate, although not
exceptional, conductors of electricity.

Some time previously, while investigating the failure of radar diodes,
they had noticed a "transistor effect" and suspected that small
changes in current were taking place. They theorised that a suitable
medium would produce active electronic effects and when they passed
current through an N-type germanium crystal, they demonstrated the
principle of amplifying an electrical current using a solid
semiconducting material.

Their concept was based on the fact that it is possible to selectively
control the flow of electricity through silicon, designating some
areas as current conductors and adjacent areas as insulators.

The point-contact transistor amplifier became the building block for
all modern electronics and the foundation for microchip and computer
technology.


>But then it languished, until the early '60s when Corso went to work
>for a foreign technology unit of the army.

[...]

>If somebody's thinking is stimulated by a fragment of an alien TV
>set, they still have to theorize and experiment to imitate the thing
>-- and it's those theories and experiments that show up in published
>data, not the inspiration for them.


As for lasers and fibre (fiber) optics...

Einstein is credited as the "Father" of the laser. In 1917, he
theorised photons and stimulated emission and was awarded the Nobel
prize for his work.

The first microwave laser was with us in 1954 and projected a beam of
ammonia molecules through a system of focusing electrodes. The first
optical laser appeared in 1960, it's design based on a rod of ruby
crystal which produced pulses of red light.

In 1961, a laser based on a mixture of helium and neon gases was
constructed and produced continuous output of red light.

Shortly after the announcement of the first successful optical laser,
other laboratories around the world successfully lased different
substrates and as manufacturing techniques improved, lasers rapidly
made the transition from the laboratory to commercial applications.


The principle behind fibre optics dates back to antiquity and has been
used for centuries in prisms and illuminated fountains.

In 1870, Englishman John Tyndall demonstrated to the Royal Society
that light travelled along a curved stream of water and in 1880,
Scotsman Alexander Graham Bell took the concept further in his
photophone experiment, which transmitted voice signals on beams of
light. Bell shelved the idea, as there was too much interference with
the light beam and the signals couldn't travel any meaningful
distance.

In 1926, another Scotsman, John Logie Baird, patented an early form
of colour television which used glass rods to carry light. An idea
ahead of its time, little progress was made until the 1950's when the
first fibrescopes were developed.

Although scientists were aware that optical fibre could transmit
light, the transmission interference seemed to be an insurmountable
problem and it wasn't until 1970 that Corning Glass researchers, Drs
Robert Maurer, Donald Keck, and Peter Schultz designed and produced
the first optical fibre which met the specification for wide use in
telecommunications.

The discovery by the Corning group was soon recognised as a
breakthrough and led the way for the commercialisation of optical
fibre as a revolution in telecommunications.


These are all of course verifiable facts.



James.
E-mail: pulsar@compuserve.com



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