Originally posted by Aaron Murakami
View Post
Patrick,
I'm not brushing you off - I've supported your work and ideas for years and am shocked at your response.
If I were to brush off your experiments, I'd tell you that you are not getting the effects you are reporting - that is different from someone giving you their opinion on your experiment.
There are 2 tangibles and one theoretical intangible thing moving in a basic circuit.
One is the Heaviside flow moving from positive terminal of the battery towards the negative. That Heaviside flow is the organized and condensed positive charge of the aether or "positive virtual photons" that gathers at the positive terminal of the dipole. When that flows over the wire, it is condensed and ordered. That Heaviside Flow is what Electromotive Force is. The pressure of that gas sitting at the dipole has a voltage reading - that is the voltage potential, that is the first kind of voltage. The second kind of voltage is when it actually flows over the surface of the wave guide (conductor) towards ground or lower potential - that is what the EMF is.
The second thing moving over the wire is the theoretical anti-photon or negative charge of the aether moving to the negative terminal of the battery and then flowing towards the higher potential. Bearden will quote ET Wittaker's paper on the partial differential equations of mathematical physics dealing with bi-directional em flows and other references to support his belief in that. We know the EMF is there but the anti-flow is theoretical.
The third thing that moves over the wire is the electrons ripped from the copper atoms themselves. They are electrically attracted to the positively charged EMF flowing from the positive dipole terminal towards the negative terminal. While the EMF is moving almost at light speed, these electrons are jiggling slowly down the wire towards the positive terminal at a couple inches per hour - very slow and sluggish.
Bearden explaining those features of the electrons of how they're "pinned", and "trying to get started down the wire," is exactly what the Drude Electron Gas Model is about - so how is that brushing anything off? I'm just calling that effect by its name - it is useful to know what something is called. We also don't "hold back current" we can only try to pulse the EMF fast enough so current doesn't flow. "holding back" implies we're actively doing something with the current and we're not. Preventing it's flow with switching mechanisms is what its about.
I'm not saying the transistor is holding anything, I said it is a bottleneck. Whether you switch on the negative or positive, it is still the positive potential whether directly from the battery or from the coil being an extension of the + part of the dipole that is moving to ground. The difference being that if switched on the negative side of the coil, the coil already contains the positive potential and if switching on positive, the positive potential still has to make it to the coil through the transistor or any other switch. Anywhere there is a bottleneck to the EMF withe instantaneous application of EMF will force the voltage up just like putting a banana in a tailpipe will force the pressure up until it is so high the engine can't overcome it. If the banana shoots out, then the engine can continue to run and the pressure voltage drops back down.
You and Bearden both are taking about EMF over a circuit where it is switched on and cut off fast enough before the electrons can start moving (not killing the dipole). It is EMF whether electrons are moving or not. If current is there, then you have transverse propagation with losses and if there is no current, you can have a longitudinal extraluminal propagation since there is no current to drag it down. You may not think you are talking about or are after pure EMF, but you are.
That EMF (Heaviside flow) is what potentializes the circuit, but it is a misuse of the term potentialized if you don't want current. That is because what gets potentialized to move into action is current. If you don't want current, you are not potentializing anything. You are then moving the EMF (without current) as pure potential over the circuit. That means you're not dissipating energy since energy is only happening if work is done and if no current moves, no work is done. If the electron current doesn't move, then the EMF is no longer limited to light speed since current it is not dragging the EMF down, it can then move at extraluminal speeds from the positive terminal of the dipole to its destination.
You are mentioning that once current moves the game is over - meaning you're killing the dipole. Yes, that is Bearden-Bedini 101. But then you say if current moves the best you can do is recuperating losses with the back spike. The two concepts are incompatible - voltage without current and then recovering the spike from a coil. You can have EMF-radiant potential-whatever you want to call it move through the coil without current moving and you will not have a magnetic field to capture a back spike from.
With that being the case, on experiments where you want to see if you're successfully transmitting EMF without getting current to move, then put a coil there. If no magnetic field is created, then that would be a successful experiment. I've done that with low capacitance high voltage capacitors discharging into inductors - I can't say no current, but very little since mostly voltage. Magnetic field I'm sure was created, but so small I couldn't detect it because I'm sure a small bit of current was there from the cap dump.
You can only work to charge the coil with minimum losses (if you want magnetism) for as short as necessary and it will take current to do that. The EMF flow without current does not apply to charging coils in any of these circuits or experiments or Bedini's energizers, etc... if there is no current, they won't even work. The closest thing to the transmission of the "radiant" potential, EMF without current, etc... in the Bedini circuit is after the fact - it is the recovery from the coil where that spike can theoretically be applied as pure potential with no current to a battery to charge the battery with potential and no current from the circuit - but the battery still charges with current, current that is developed internally in the battery. But even then, the spike still has current, a little, but it is still there.
Magnetic field is from ampere turns and is not from voltage turns or any other manifestation of pure radiant potential - there is no way around it. If you can charge a coil without getting current to move, then you have a Trillion dollar invention. If that was actually proven and I verified it, I'd invest every expendable dime I had into it. The point is not kill the dipole, but for creating a magnetic field, current with no voltage is the route for that and not the other way around.
Not killing the dipole by preventing the movement of current on the input side is always talked about by Bearden and company but it is theoretical as the perfect situation. But it actually is not applied in any of the circuits. In practice, the best they can do is by not having a closed loop circuit like a flashlight that is on constantly or a normal DC motor attached to a battery. The only "not killing the dipole" application in these circuits is by using pulsed off/on circuits so the the dipole is not closed loop for any longer than it has to be but it is still closed while the switch is on. So by having it be a cyclic system, the dipole lasts longer. It won't prevent it from getting killed, it only delays the inevitable death of the dipole. But that is the practical application of the knowledge about not killing the dipole - they're not trying to prevent current from flowing.
Another way to "not kill the dipole" in an SG circuit for example is the radiant kickback to the front battery. That decreases the net draw from the battery and helps it run longer. You can scope the input battery and if you have enough turns and windings on the coil, you will see the little bumps that rise above the battery voltage on each cycle. If you start using diodes faster than what Bedini recommended, then you lose that effect and more radiant goes to the output battery so you can choose where you want it. Peter's last presentation has parts that are exactly related to that concept. But that is another application of extending the dipole's life and may not have even been intentional when Bedini designed his circuits. He used the diodes he used, it gave that kickback to the front battery, he knew it did that, but I don't necessarily believe he designed that ahead of time by intentionally using slow diodes.
In any case Patrick, please don't take someone else's interpretation of what you're saying or doing as brushing you off. That's the last thing I would want to do - the whole point to these forums is to share work and ideas - and counterviews are required to grow anything. If we all agree on everything, then we have no need for each other.
I'm not brushing you off - I've supported your work and ideas for years and am shocked at your response.
If I were to brush off your experiments, I'd tell you that you are not getting the effects you are reporting - that is different from someone giving you their opinion on your experiment.
There are 2 tangibles and one theoretical intangible thing moving in a basic circuit.
One is the Heaviside flow moving from positive terminal of the battery towards the negative. That Heaviside flow is the organized and condensed positive charge of the aether or "positive virtual photons" that gathers at the positive terminal of the dipole. When that flows over the wire, it is condensed and ordered. That Heaviside Flow is what Electromotive Force is. The pressure of that gas sitting at the dipole has a voltage reading - that is the voltage potential, that is the first kind of voltage. The second kind of voltage is when it actually flows over the surface of the wave guide (conductor) towards ground or lower potential - that is what the EMF is.
The second thing moving over the wire is the theoretical anti-photon or negative charge of the aether moving to the negative terminal of the battery and then flowing towards the higher potential. Bearden will quote ET Wittaker's paper on the partial differential equations of mathematical physics dealing with bi-directional em flows and other references to support his belief in that. We know the EMF is there but the anti-flow is theoretical.
The third thing that moves over the wire is the electrons ripped from the copper atoms themselves. They are electrically attracted to the positively charged EMF flowing from the positive dipole terminal towards the negative terminal. While the EMF is moving almost at light speed, these electrons are jiggling slowly down the wire towards the positive terminal at a couple inches per hour - very slow and sluggish.
Bearden explaining those features of the electrons of how they're "pinned", and "trying to get started down the wire," is exactly what the Drude Electron Gas Model is about - so how is that brushing anything off? I'm just calling that effect by its name - it is useful to know what something is called. We also don't "hold back current" we can only try to pulse the EMF fast enough so current doesn't flow. "holding back" implies we're actively doing something with the current and we're not. Preventing it's flow with switching mechanisms is what its about.
I'm not saying the transistor is holding anything, I said it is a bottleneck. Whether you switch on the negative or positive, it is still the positive potential whether directly from the battery or from the coil being an extension of the + part of the dipole that is moving to ground. The difference being that if switched on the negative side of the coil, the coil already contains the positive potential and if switching on positive, the positive potential still has to make it to the coil through the transistor or any other switch. Anywhere there is a bottleneck to the EMF withe instantaneous application of EMF will force the voltage up just like putting a banana in a tailpipe will force the pressure up until it is so high the engine can't overcome it. If the banana shoots out, then the engine can continue to run and the pressure voltage drops back down.
You and Bearden both are taking about EMF over a circuit where it is switched on and cut off fast enough before the electrons can start moving (not killing the dipole). It is EMF whether electrons are moving or not. If current is there, then you have transverse propagation with losses and if there is no current, you can have a longitudinal extraluminal propagation since there is no current to drag it down. You may not think you are talking about or are after pure EMF, but you are.
That EMF (Heaviside flow) is what potentializes the circuit, but it is a misuse of the term potentialized if you don't want current. That is because what gets potentialized to move into action is current. If you don't want current, you are not potentializing anything. You are then moving the EMF (without current) as pure potential over the circuit. That means you're not dissipating energy since energy is only happening if work is done and if no current moves, no work is done. If the electron current doesn't move, then the EMF is no longer limited to light speed since current it is not dragging the EMF down, it can then move at extraluminal speeds from the positive terminal of the dipole to its destination.
You are mentioning that once current moves the game is over - meaning you're killing the dipole. Yes, that is Bearden-Bedini 101. But then you say if current moves the best you can do is recuperating losses with the back spike. The two concepts are incompatible - voltage without current and then recovering the spike from a coil. You can have EMF-radiant potential-whatever you want to call it move through the coil without current moving and you will not have a magnetic field to capture a back spike from.
With that being the case, on experiments where you want to see if you're successfully transmitting EMF without getting current to move, then put a coil there. If no magnetic field is created, then that would be a successful experiment. I've done that with low capacitance high voltage capacitors discharging into inductors - I can't say no current, but very little since mostly voltage. Magnetic field I'm sure was created, but so small I couldn't detect it because I'm sure a small bit of current was there from the cap dump.
You can only work to charge the coil with minimum losses (if you want magnetism) for as short as necessary and it will take current to do that. The EMF flow without current does not apply to charging coils in any of these circuits or experiments or Bedini's energizers, etc... if there is no current, they won't even work. The closest thing to the transmission of the "radiant" potential, EMF without current, etc... in the Bedini circuit is after the fact - it is the recovery from the coil where that spike can theoretically be applied as pure potential with no current to a battery to charge the battery with potential and no current from the circuit - but the battery still charges with current, current that is developed internally in the battery. But even then, the spike still has current, a little, but it is still there.
Magnetic field is from ampere turns and is not from voltage turns or any other manifestation of pure radiant potential - there is no way around it. If you can charge a coil without getting current to move, then you have a Trillion dollar invention. If that was actually proven and I verified it, I'd invest every expendable dime I had into it. The point is not kill the dipole, but for creating a magnetic field, current with no voltage is the route for that and not the other way around.
Not killing the dipole by preventing the movement of current on the input side is always talked about by Bearden and company but it is theoretical as the perfect situation. But it actually is not applied in any of the circuits. In practice, the best they can do is by not having a closed loop circuit like a flashlight that is on constantly or a normal DC motor attached to a battery. The only "not killing the dipole" application in these circuits is by using pulsed off/on circuits so the the dipole is not closed loop for any longer than it has to be but it is still closed while the switch is on. So by having it be a cyclic system, the dipole lasts longer. It won't prevent it from getting killed, it only delays the inevitable death of the dipole. But that is the practical application of the knowledge about not killing the dipole - they're not trying to prevent current from flowing.
Another way to "not kill the dipole" in an SG circuit for example is the radiant kickback to the front battery. That decreases the net draw from the battery and helps it run longer. You can scope the input battery and if you have enough turns and windings on the coil, you will see the little bumps that rise above the battery voltage on each cycle. If you start using diodes faster than what Bedini recommended, then you lose that effect and more radiant goes to the output battery so you can choose where you want it. Peter's last presentation has parts that are exactly related to that concept. But that is another application of extending the dipole's life and may not have even been intentional when Bedini designed his circuits. He used the diodes he used, it gave that kickback to the front battery, he knew it did that, but I don't necessarily believe he designed that ahead of time by intentionally using slow diodes.
In any case Patrick, please don't take someone else's interpretation of what you're saying or doing as brushing you off. That's the last thing I would want to do - the whole point to these forums is to share work and ideas - and counterviews are required to grow anything. If we all agree on everything, then we have no need for each other.

BTW.. Current without Voltage happens in a seemingly 'non-electrical circuit' and this is nothing but a simple Bar Magnet Dipole and that is what we are after in the SSG machine ..what say??

Rgds,
Faraday88.

)..makes sense ...but as you increase the coil (number of turns) the DCR increases so also the Radiant Increases too! I feel The Radiant comes closer and closer to the Impedance of the conductor (copper) and becomes apart of it!! is the switching transistor under more stress of damage?? 
Leave a comment: