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HOW PHOTONIC TRANSISTORS WORK AND PRODUCE PRODUCTS
Information from the Rocky Mountain Research Center
Voice (406) 728-5951, BBS DATA (406) 273-4692
* ADVANTAGES OF LIGHT
Photons of light move faster than electrons, carry more information, and
experience fewer negative interactions. This inherent ability has motivated
the current transition from copper wire to optical fiber in telephone
communications.
* OPTICAL COMPUTING
The invention of the Photonic Transistor (U.S. Pat. 5,093,802) has made
optical computing practical. This light-speed device performs all of the
functions necessary for the production of completely optical supercomputers.
Like its electronic counterpart, it performs boolean logic, and signal power
amplification.
Whereas, electronic circuits are etched into silicon, photonic
transistors are made using computer-generated photographs called "synthetic
holograms."
* HOW PHOTONIC TRANSISTORS WORK
Computer-generated synthetic holograms are photographically reduced to
become miniature functioning holograms. All holograms, even the ones found
on credit cards, create their images using the wave-nature of light in a
process called "optical interference." The lighted portions of the image
result from "constructive interference," and the dark portions result from
"destructive interference."
The process of interference is the result of photons interacting with
each other, so that the photons that would have been projected onto a
location in the area of destructive interference are diverted into the areas
of constructive interference. The resulting image is called an "interference
fringe."
Two holograms of a two-input photonic transistor logic device form
images that blink on and off as binary digital signals. Thus the images
produced by each hologram also blink on and off as computation proceeds.
The two holograms are computed to produce different images for each of
the boolean logic states. The patented "fringe component separator mask"
blocks unwanted light from the images created, in order to cause the light
which passes to conform to the output requirements for the logic function to
be accomplished.
Thus, the output beam from a photonic transistor logic device blinks on
and off according to the boolean logic rules, as determined by the on-or-off
states of the beams entering the input holograms.
Since all digital computers operate using boolean logic, all types of
computer organizations may be duplicated in light-speed photonics.
Page 1
* PHOTONIC TRANSISTOR SIGNAL AMPLIFICATION
The two synthetic holograms may be calculated to produce real images
that are focused onto the plane of the fringe component separating mask, such
that, the composite image produced when both input beams are on is located
on a different part of the output plane than the image which is produced when
only one input beam is on.
This is accomplished by calculating the two holograms to produce the
same output images, but 180 degrees out of phase. Thus, when both holograms
are lit, destructive interference takes place at the position of the image
forcing the photons to relocate else where on the output plane.
By using a photographic negative of the calculated image, all output
will be blocked when only one beam is on, but the total of both beams will
exit through the clear portions of the mask when both input beams are on.
A signal amplifier is produce by keeping one of the beams on all of the
time, while the information-carrying beam is blinking on and of in the usual
digital fashion. The output beam also blinks on and off in lock step with
the modulated input beam. However, the output beam is twice the amplitude
of the original modulated input beam.
As with electronics, signals must be amplified from time to time so that
they are able to continue to carry their information continuously through the
computational process. Thus, the photonic transistor is able to provide both
the logic and amplification functions needed to produce fully functioning
photonic computers.
* CREATING PHOTONICS PRODUCTS
The input holograms along with the output fringe component separating
masks may be calculated and produced as computer-graphics. Each graphic image
represents the individual component-interconnecting light beams as they will
exist at each stage in computation, and for each binary state of one or more
input beams.
By tailoring each hologram in a multi-photonic transistor array to match
the characteristics of each beam as it leaves one transistor and enters
another, composite devices may be computed.
The graphic images thus produced, are then photographically reproduced
as transparencies able to produce the desired effects when lit with laser
light.
Thus, new photonics products of every conceivable type may be calculated
into existence using computers. The photonic hardware being designed, laid
out, and produced directly from software.
* IMPACT ON COMPUTING
In the same nanosecond it takes most electronic transistors to make a
single transition from off to on, light travels nearly a foot. Photons,
however, are very tiny and very swift. Single light pulses one millionth of
a nanosecond long complete their logic functions instantaneously. Unlike
electronics, photonic transistors process information far faster than the
travel time through the device. Although photonic transistors can be reduced
to atomic scale, it is not generally necessary. Even large size laboratory
demonstration photonic transistors are capable of performing logic in the
femtosecond range...thousands of times faster than any possible electronic
device. It is a fact of physics.
Page 2
The most notable impact on computing will be the creation of super-speed
computers capable of running acutely complex software such as weather
prediction, structural engineering, and global analysis of various kinds. The
impact on communications will be the replacement of the current electronic
bottleneck that connects all fiber optics. Thus allowing full optical
bandwidth, and instantaneous switching. This will vastly increase the amount
of information each fiber system can carry.
As photonic computers supplement and eventually replace electronic
systems, computer power will multiply for all users.
* ECONOMIC IMPACT
The strong economic impact is expected to result from five basic
factors:
1. Photographic manufacturing is a mature technology.
2. Computer science, and the computer hardware needed to create the
photonic hardware are also mature.
3. Development will be very rapid in comparison to electronic
development because of 1 an 2 above, and because of the large
number of people and organizations involved with our distributed
development system.
4. Photographic manufacturing is far less expensive than silicon
manufacturing, so larger profit margins will encourage greater
participation in development.
5. Photonics products work faster, last longer, and are easier to
produce than electronic products. Thus providing an immediate,
unbeatable competitive edge over all electronic competition.
* DEVELOPMENT METHOD
Photonic transistor products are being developed via a distributed
development and sales network. A large number of small developers are
coordinated through our network. Each one will learn photonics beginning at
the same level as the others because this is a brand new field. They will be
able to develop the products suited to their own talents and resources. By
cooperating and communicating with each other, duplication of effort will be
reduced, and products will come swiftly to market.
Developed products will be submitted to the network for acceptance. If
accepted, the product will be purchased from the developers and sold to
retailers through the network.
Photonics developers have several important advantages:
1. Legal protection from bootleggers, and action against bootleggers.
2. Protection for their individual products through the network.
3. Access to the latest development information.
4. Access to the latest development software.
5. Coordinated help so they can produce the most valuable, market suitable
products.
6. Ready help to provide manufacturing, supplies, and equipment.
7. Sales network, and retail outlets waiting for new products.
8. A growing public awareness of the network, and therefore, of their
products available through it.
The network was established to provide what ever is needed to effect the
most rapid transition from electrons to photons.
Page 3
* EARLY PROGRESSION OF PRODUCTS
The first products are expected to be synthetic hologram design software
that goes beyond, or enhances the basic development package. Then educational
photonic transistor demonstrators, and simple logic devices.
Next, high speed supplementary logic units to enhance electronic
computers and computer-controlled equipment. Soon, that will develop into
fully functioning subassemblies to enhance or replace existing equipment.
Many such products may be "wired" together using fiber optics so that basic
logic units can be built into more complex systems just as many computer
chips are used to build most computers.
Fully photonic equipment will follow. 3D photonic video displays, voice-
communicating computers, and completely photonic fiber optic communications
are but a few of the many possibilities that high speed, ease of development,
and low manufacturing cost will produce.
* HOW YOU CAN BENEFIT
There are several ways you can benefit:
1. By becoming a developer, you can use your own talents to produce
saleable products that produce real income.
2. You have the advantage to begin learning about photonic transistor
technology at the beginning, whereby you will become the future's
photonics experts.
3. You will be able to use the latest, fastest, and best photonic equipment
as our developers are able to provide it.
4. If you are into sales more so than developing, we will provide the
fastest, most advanced equipment on the market. Photonics is expected
to replace electronics in nearly every area. Thus, photonic transistor
products are expected to begin dominating each market as the equipment
becomes available.
All of these advantages will not come about because of the work of just
one person or company, but a network of many people and companies. Just as
the "electronics industry" is not just a few people producing products, but
many. So to, the photonics revolution will take place because of the efforts
of many; the economics of photonics development and manufacturing; and the
superiority of the photon over the electron.
* WHO IS BEST SUITED AS A DEVELOPER
The first requirement is a willingness to learn, and gain hands-on
experience using the tools available. The developer should be of the self-
motivating type...a person who will seek to determine how this new technology
can enhance his own abilities.
The entrepreneurial spirit will help as products (be they software or
hardware,) must be produced, packaged, and marketed. Not everyone has such
experience, so the network will try to fill in the gaps as needed. Yet, a
positive attitude is essential for success.
Page 4
One's background will affect the course of product selection, but anyone
can learn photonics. Those skilled in programming may wish to concentrate
on creating better, faster, and more versatile software tools for developing
synthetic holograms. Electronics people may wish to compile elementary logic
arrays that can be combined into more complex units by themselves or others.
Mathematicians may wish to investigate the complexities photonic transistor
dynamics as they relate to parallel image processing. Hackers may wish to
build high speed processors and components to make computing more exciting.
Educators may wish to create demonstration units for teaching others about
photonic transistor technology.
Thus, photonic development is not limited to one group, or to the so-
called guru's. Every-day people who have an interest becoming a part of an
exciting new field have an equal chance with all of the others...because the
field is wide open.
* HOW YOU CAN BE A PART OF THE PHOTONICS REVOLUTION
1. By learning about photonic transistor technology today.
2. By gaining hands-on experience in the production of synthetic
holograms, photonic component organization and operation.
3. By applying your talents to the task of creating saleable photonics
products whether they be software or hardware, simple or complex.
4. By keeping up with the latest technology through our network.
5. By using the development package to learn, advance, and produce.
6. By sharing in photonic transistor technology development.
7. Start early! Learn fast! Results come from effort. Procrastination
yields the rewards to others.
* HOW TO JOIN THE PHOTONICS DEVELOPMENT NETWORK
Individuals, and small companies join the network by simply obtaining
the Photonic Transistor Development Package. With it comes an R&D license
that permits you to legally construct and use photonic transistors.
Complete the R&D license application, available from the Rocky Mountain
Research Center, and send it in with the development package fee to:
Rocky Mountain Research Center
PO Box 4694
Missoula, Montana USA 59806
Join now. Learn fast. Be on the ground floor of photonics by building
it yourself...your way.
Page 5
The Rocky Mountain Research Center makes no guarantee as to the success of
any particular venture. The network provides the tools, and the opportunity.
It is up to the individual to build success for himself.
Information from the Rocky Mountain Research Center is available from our
Voice/FAX, and computer access BBS lines. Other information of photonic
transistor, and product development including R&D license applications are
also available.
To obtain information by FAX call our automated Voice/FAX line FROM YOUR FAX
MACHINE. Select the options the computer voice offers to you, and the
information can then be FAXed directly to you at that time.
To obtain information by computer modem, contact our information BBS, read
the information presented, and download the files, including synthetic
hologram producing demonstration programs.
To obtain computer and/or written information by mail, please send $5.00
shipping and handling along with a request for "Photonic Transistor
Development Information" the address listed above.
Rocky Mountain Research Center offices (406) 728-5951
(please retrieve the available information from our automated services before
calling the Center's offices. It saves time, and provides more through
information than can be accomplished by phone.
Call our automated information services:
Modem accessible BBS (406) 273-4692
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