199 lines
8.1 KiB
Plaintext
199 lines
8.1 KiB
Plaintext
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(word processor parameters LM=8, RM=75, TM=2, BM=2)
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Taken from KeelyNet BBS (214) 324-3501
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Sponsored by Vangard Sciences
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PO BOX 1031
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Mesquite, TX 75150
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There are ABSOLUTELY NO RESTRICTIONS
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on duplicating, publishing or distributing the
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files on KeelyNet except where noted!
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May 16, 1993
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RELAX1.ASC
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This EXCELLENT(!) file shared with KeelyNet
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courtesy of William Price.
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This file is a collection of observations and conclusions that I
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have made and come to after reading most of the files on the energy
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directory and Beardon's last collection of free energy papers.
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Beardon says that you have to charge a collector then discharge it.
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The trick however is to charge the collector without letting any
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current flow from the electron source, the negative terminal, to the
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sink, the positive terminal.
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Because of the speed of the electrons traveling in a copper wire,
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this is almost an impossibility. He claims that you have to use a
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conductor that has a relaxation time that is longer than the
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relaxation time of copper. His suggestion is that you have to use a
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xxx conductor.
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Here in lies the problem and I believe at the same time the answer.
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Consider for a minute the speed of electrons in a copper conductor.
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Right, about 1 nanosecond per foot. So, if we run the math on this
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basic number we find the following:
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Length Time
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1 ft 1 ns
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10 ft 10 ns
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100 ft 100 ns
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1,000 ft 1 us
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2,000 ft 2 us
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5,000 ft 5 us
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10,000 ft 10 us
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50,000 ft 50 us
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What we see here is that we can, with very long runs of copper
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conductor, increase the time delay that it will take the electron
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flow to reach the other end. With a spool of thin copper conductor,
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say 20 or 30 gage, the type used for wire wrapping, we can fairly
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easily come up with a device where we can turn on the current from a
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battery and turn it off again without any current ever flowing
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through the circuit.
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For example, using the above numbers, one could assemble a circuit
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(figure 1) that can switch the collector (the spool of wire) into
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the battery circuit for about 40uS then switch it to a resistive
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Page 1
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load for a time period longer than 40uS. We need a longer time
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period to dischare the collector than we needed to charge it. Using
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Beardon's logic that you can have as many collectors as you desire
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running off of the same source, we could have two or more collectors
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that are alternately switched between the source and the load.
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When you look at this, it seems obvious as hell. The problem Beardon
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points out is a problem only because of the switching speeds
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associated with relatively short conductors. A coil of copper (of
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any gage thickness) that is say a hundred feet long, will allow
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electrons to flow from the negative terminal to the positive
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terminal in about 100 nanoseconds.
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Most of us do not have the facilities or the resources to construct
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a switching device that can switch a coil quite that fast. Most of
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us however could, using basic Radio Shack parts, build a
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multivibrator (a single chip) that uses optically coupled
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transistors that could switch a 50,000 ft coil to and from a source
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and load at say a 40 microsecond rate.
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There may be a fatal flaw to this logic but I don't think so. Having
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spent 25 years in the computer business with 13 recent years as a
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consultant and now the director of engineering, I have observed that
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most successful solutions are actually quite simple. When the dust
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from our most recent reorganization settles, I'm going to be
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completing the switch and buying a few large rolls of wire wrap
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wire.
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+-----\ /------+------\ /-------+
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| \/ | \/ |
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| ---- | ---- |
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| | | | |
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| a | b |
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----- ----- -----
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--- | | | |
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----- | C | | L |
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--- | | | |
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----- ----- -----
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--- | |
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+-----\ /------+------\ /-------+
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\/ \/
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---- ----
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a b
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C = Collector (long length of copper)
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L = Load
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a & b are optical coupled transistors. Typically,
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these are low power devices but should be able
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Page 2
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to support a couple of hundred milliamps of
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current.
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The trigger for a and b would be the outputs from a free running
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unbalanced multivibrator. Unbalanced means that one side will stay
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on longer than the other. Matching sets of transistors are used
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because we do not want the electrons from the collector to return to
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the positive side of the battery after they pass through the coil.
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If the positive side of the collector remains connected to the
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positive side of the battery we may run the risk of having an analoy
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of a capacitor in the form of a coil.
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The beauty of the multivibrator is that when one side is conducting
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the other is off. The frequency that these devices run at is easily
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controlled and is within the engineering skill set of hobbists.
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--------------------------------------------------------------------
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If you have comments or other information relating to such topics
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as this paper covers, please upload to KeelyNet or send to the
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Vangard Sciences address as listed on the first page.
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Thank you for your consideration, interest and support.
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Jerry W. Decker.........Ron Barker...........Chuck Henderson
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Vangard Sciences/KeelyNet
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--------------------------------------------------------------------
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If we can be of service, you may contact
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Jerry at (214) 324-8741 or Ron at (214) 242-9346
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Page 3
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