Vinyasi
Junior Member level 1
The following circuit simulation of a power supply lends credence to the possibility that Tesla's electric car experiment of 1931 may have involved a bank of high voltage capacitors, spark gaps or vacuum tubes acting as such, timing elements, and the inductive load of the AC motor coils contributing to the circuit's ability to provide its own power amplification from two small batteries. These two batteries do not provide any amperage, and thus do not provide any wattage. They merely provide a little voltage and are configured with the help of diodes and resistors to always be in a state of charging from the circuit rather than discharging to it. So, this design of mine undergoes no power supplied from batteries. It merely uses batteries as anchor weights, so to speak, to thwart this circuit's tendency to self-excite at an alarming rate if there were no batteries flanking two capacitors on either side of this circuit and their polarity positioned in the direction of current flow involving the inductive load and parallel to the discharging spark gaps (at the bottom of the schematic) configured to emulate neon bulbs. To preserve the batteries charged condition, I prevent their discharge into the circuit by placing diodes in reverse direction of the battery's current flow along with a 100 MΩ resistor to prevent rapid charging of each battery and merely top them off. Rotation of battery modules would probably have to be exercised to prevent their over-charging. A relay is provided to prohibit excessive growth of self-excitation lest this power supply fry itself. I've arbitrarily set its limit at 1.2 mA on the relay's coil which corresponds to around 350 kA on the motor coil.
The small binary text file, attached below, is designed to be imported into any one of these three JavaScript-based, electronic simulators...
http://vinyasi.info/ne
http://lushprojects.com/circuitjs/
http://falstad.com/circuit/
Or else, can be preloaded with the help of these two equivalent URLs...
http://is.gd/teslasbattery
http://vinyasi.info/ne?startCircuit=teslas-battery.txt
This simulation requires the user to regulate its activity by toggling any one of its switches into three possible states.
The first state, by default, discharges the motor coil whose oscilloscope readout of amps and volts are displayed below the circuit operating in a simulated time frame of 10 pico seconds. Since the text file's components have no precharged condition, then nothing will happen at first unless you click one of the toggle switches to step to its next state.
The second state runs the power supply in gain mode. It will slowly rise upwards until the third state is toggled, or until the relay disengages gain but without automatically self-toggling into the next state. The user must still do this on their own.
The third state discharges excess voltage that was required to self-excite toward whatever reasonable level of achievement is desired. The average units of volts per units of amps in this third state reduces to a less drastic condition of 40 to one. So, if the amps on the inductor reads one amp, the voltage on this same inductor would read around forty volts.
The third oscilloscope readout in the lower right is a wire adjacent to the relay coil since the simulator won't allow displaying this coil, directly. The purpose of viewing the activity of the relay coil is to insure that manual operation of this simulation satisfactorily allows adequate duration for the relay coil to discharge all of its voltage before the user decides to restart a new surge in step two, above. Failure to totally discharge the relay coil during stage one or three, or both, may inhibit surging this circuit's excitation to equally high levels as before if those levels are very high and near the default limit associated with this circuit when it was first loaded.
We'll probably never know what actually happened, or if it happened at all, between Nikola Tesla and his conjectured nephew, by the name of: Scarvo. But blending the two versions of this mysterious story lends more credibility to a high voltage bank of capacitors mistakenly thought to be batteries combined with Tesla's mysterious circuit put together in his hotel room immediately prior to his demonstration and then positioned in the dashboard slot where the glove compartment used to be.
I call this circuit design a House of Mirrors since the capacitors may be bouncing the information around endlessly in a closed loop with nowhere to go to dissipate itself since many of the instances of positive resistance also incorporate sufficient negative resistance at the same time to dominate the positive resistance and thus render an overall net result of self-excited gain. The spark gaps and motor coil (inductive load) provide acceleration driving self-excitation toward dangerous levels of self-destruction.
Notice, I did not say: bouncing energy around endlessly in a closed loop with nowhere else to go. It would be erroneous of me to think that energy is the only significant factor in electrodynamic behavior. Information is the other, just as relevant, factor. But unlike energy, information is not tied to matter and does not require energy for its transference from one atom of copper (in a wire) to the next. Mutual resonance, alone, among neighboring copper atoms (for instance) is enough for the successive rise and fall of energetic states of a copper atom's electrons in rapid succession giving the appearance of a ripple moving down a wire without any energy, or matter, actually doing the moving. We're pattern-recognition organisms and we fall for this misconception more times than we wish to embarrassingly want to admit.
Information may incarnate in many forms, as a: thought, a schematic sketched on paper, or else implemented in a simulator or the real world. This information requires the participation of copper atoms to successively rise and fall within the limits of endurance tolerated by a copper wire lest it vaporize into atomic sized particles of dust -- as having been demonstrated by Tesla in his lab. He knew about the atomic limit to the materials of construction and a circuit's ability to self-excite and capitalized on this potential nature of circuits to self-excite (whenever encouraged to do so), but also knew that for all practical purposes these atomic limits are actually limited by the electro-chemical strengths of the valence bonds between neighboring copper atoms or any other material hosting electrical excitation, be it: magnetic or electric, etc.
Thus, the argument of: energy IN must equal energy OUT is a non-argument in view of the fact that we haven't assessed the situation accurately enough to define electricity as a manifestation of wave mechanics in an electrodynamic medium involving both materially dependent energy, but also equally important involving immaterial information transferred across empty space using no presumed massless photons to do so. Mutual resonance among neighboring atoms across any distance is sufficient to explain this non-traversal of empty space by a non-transverse wave of information.
BTW, the clincher to the non-existence of mass-free photons comes about whenever a high altitude balloonist ascends to 30 miles to witness a black sky void of stars. This is above the diffraction and refraction generated by the upper atmosphere giving us the manifestation of visible light below this altitude.
The flow of water through a pipe is not the best way to make analogy with electrodynamic waves rippling along a wire just as burning firewood does not make for an accurate analogy since no electricity is consumed whenever running a circuit. Only the materials of construction, hosting electrodynamic wave phenomena, are aged with the passage of time since they, too, are never consumed by the electricity and magnetism excited within their atoms.
A better analogy would be people participating in the formation of a wave of love traversing horizontally across a stadium grandstand during halftime of a soccer game, etc. Each person remains in the vicinity of their seat standing up and sitting down at the right moment timed to manifest the appearance of a physical, or energetic, wave when in fact no such physical nor energetic wave moves across the stadium at all.
Rubber insulation covering wires has its limits especially whenever subjected to heat. But any heat (whether from sun, or the amperage within an insulated wire) is an expression of resonance translated into an oxidative and/or mechanical vibration of kinetic motion of the rubber atoms. Heat does not have to travel as energized matter in order to land on a material. As a wave (composed of both energy and information), the manifestation of heat need merely have been shared by the geometry of excitation from neighboring matter without any energy being transferred between them.
Being an integration-oriented student of independent research, I cannot compartmentalize myself into narrow points of view without wanting to seek an explanation of why do my simulations manage to succeed at exciting themselves with very little help from a battery or aerial. So, although this ends up sounding like a post on a physics topic, it gets all of its validity from direct experience from the simulation of analog power supplies.opcorn:
- - - Updated - - -
Correction...
Energy in must equal energy out 'cuz both must equal zero!:!:
The small binary text file, attached below, is designed to be imported into any one of these three JavaScript-based, electronic simulators...
http://vinyasi.info/ne
http://lushprojects.com/circuitjs/
http://falstad.com/circuit/
Or else, can be preloaded with the help of these two equivalent URLs...
http://is.gd/teslasbattery
http://vinyasi.info/ne?startCircuit=teslas-battery.txt
This simulation requires the user to regulate its activity by toggling any one of its switches into three possible states.
The first state, by default, discharges the motor coil whose oscilloscope readout of amps and volts are displayed below the circuit operating in a simulated time frame of 10 pico seconds. Since the text file's components have no precharged condition, then nothing will happen at first unless you click one of the toggle switches to step to its next state.
The second state runs the power supply in gain mode. It will slowly rise upwards until the third state is toggled, or until the relay disengages gain but without automatically self-toggling into the next state. The user must still do this on their own.
The third state discharges excess voltage that was required to self-excite toward whatever reasonable level of achievement is desired. The average units of volts per units of amps in this third state reduces to a less drastic condition of 40 to one. So, if the amps on the inductor reads one amp, the voltage on this same inductor would read around forty volts.
The third oscilloscope readout in the lower right is a wire adjacent to the relay coil since the simulator won't allow displaying this coil, directly. The purpose of viewing the activity of the relay coil is to insure that manual operation of this simulation satisfactorily allows adequate duration for the relay coil to discharge all of its voltage before the user decides to restart a new surge in step two, above. Failure to totally discharge the relay coil during stage one or three, or both, may inhibit surging this circuit's excitation to equally high levels as before if those levels are very high and near the default limit associated with this circuit when it was first loaded.
We'll probably never know what actually happened, or if it happened at all, between Nikola Tesla and his conjectured nephew, by the name of: Scarvo. But blending the two versions of this mysterious story lends more credibility to a high voltage bank of capacitors mistakenly thought to be batteries combined with Tesla's mysterious circuit put together in his hotel room immediately prior to his demonstration and then positioned in the dashboard slot where the glove compartment used to be.
I call this circuit design a House of Mirrors since the capacitors may be bouncing the information around endlessly in a closed loop with nowhere to go to dissipate itself since many of the instances of positive resistance also incorporate sufficient negative resistance at the same time to dominate the positive resistance and thus render an overall net result of self-excited gain. The spark gaps and motor coil (inductive load) provide acceleration driving self-excitation toward dangerous levels of self-destruction.
Notice, I did not say: bouncing energy around endlessly in a closed loop with nowhere else to go. It would be erroneous of me to think that energy is the only significant factor in electrodynamic behavior. Information is the other, just as relevant, factor. But unlike energy, information is not tied to matter and does not require energy for its transference from one atom of copper (in a wire) to the next. Mutual resonance, alone, among neighboring copper atoms (for instance) is enough for the successive rise and fall of energetic states of a copper atom's electrons in rapid succession giving the appearance of a ripple moving down a wire without any energy, or matter, actually doing the moving. We're pattern-recognition organisms and we fall for this misconception more times than we wish to embarrassingly want to admit.
Information may incarnate in many forms, as a: thought, a schematic sketched on paper, or else implemented in a simulator or the real world. This information requires the participation of copper atoms to successively rise and fall within the limits of endurance tolerated by a copper wire lest it vaporize into atomic sized particles of dust -- as having been demonstrated by Tesla in his lab. He knew about the atomic limit to the materials of construction and a circuit's ability to self-excite and capitalized on this potential nature of circuits to self-excite (whenever encouraged to do so), but also knew that for all practical purposes these atomic limits are actually limited by the electro-chemical strengths of the valence bonds between neighboring copper atoms or any other material hosting electrical excitation, be it: magnetic or electric, etc.
Thus, the argument of: energy IN must equal energy OUT is a non-argument in view of the fact that we haven't assessed the situation accurately enough to define electricity as a manifestation of wave mechanics in an electrodynamic medium involving both materially dependent energy, but also equally important involving immaterial information transferred across empty space using no presumed massless photons to do so. Mutual resonance among neighboring atoms across any distance is sufficient to explain this non-traversal of empty space by a non-transverse wave of information.
BTW, the clincher to the non-existence of mass-free photons comes about whenever a high altitude balloonist ascends to 30 miles to witness a black sky void of stars. This is above the diffraction and refraction generated by the upper atmosphere giving us the manifestation of visible light below this altitude.
The flow of water through a pipe is not the best way to make analogy with electrodynamic waves rippling along a wire just as burning firewood does not make for an accurate analogy since no electricity is consumed whenever running a circuit. Only the materials of construction, hosting electrodynamic wave phenomena, are aged with the passage of time since they, too, are never consumed by the electricity and magnetism excited within their atoms.
A better analogy would be people participating in the formation of a wave of love traversing horizontally across a stadium grandstand during halftime of a soccer game, etc. Each person remains in the vicinity of their seat standing up and sitting down at the right moment timed to manifest the appearance of a physical, or energetic, wave when in fact no such physical nor energetic wave moves across the stadium at all.
Rubber insulation covering wires has its limits especially whenever subjected to heat. But any heat (whether from sun, or the amperage within an insulated wire) is an expression of resonance translated into an oxidative and/or mechanical vibration of kinetic motion of the rubber atoms. Heat does not have to travel as energized matter in order to land on a material. As a wave (composed of both energy and information), the manifestation of heat need merely have been shared by the geometry of excitation from neighboring matter without any energy being transferred between them.
Being an integration-oriented student of independent research, I cannot compartmentalize myself into narrow points of view without wanting to seek an explanation of why do my simulations manage to succeed at exciting themselves with very little help from a battery or aerial. So, although this ends up sounding like a post on a physics topic, it gets all of its validity from direct experience from the simulation of analog power supplies.opcorn:
- - - Updated - - -
Correction...
Energy in must equal energy out 'cuz both must equal zero!:!: