Practical Guige to Free Energy Devices

The Gas Processor normally has a coil mounted at each end and it may be convenient to use coils in those
positions as accelerator coils. It may also be an advantage to apply a pulsed high-voltage between the inner and
outer tubes of the Gas Processor. As it stands, this looks as if it has a high possibility of being a COP>1 electrical
device.
The E-Stress Power Generation System
On the seventh of September 2013 a man with the ID of ‘harisingh’ published the following information. I have
tried to contact him to ask his permission to publish his work, but without any success. I have no information on it
other than what is shown here. What he says is:
The E-Stress Power Generating System is a most intriguing over-unity power generating project. It is extremely
versatile while being relatively easy to construct and it is readily upgradable.
The Golden Key or Golden Mean is the principle which allows this device to draw power directly from the e-field’s
relative vacuum energy density using induction-less coils. What makes this design so unique can be seen from
the following illustrations. What makes this dual induction-less coil so special is that it nullifies the effects of
electrostatic induction using only a fraction of the power required to sustain the charge-displacement which
creates the affecting E-field. In conventional electronic circuits, coils and capacitors are generally kept away from
each other, but in this circuit, their interaction is the key to success !
The E-Stress Amplifier consists of three cylindrical capacitors and two induction-less coils with external circuitry
designed to start-up and maintain the entire system and load. The interior and exterior capacitors, CDI and CDE,
are charged up and kept charged by a voltage source Vc which is in the range of 50 to 90 volts DC. The charge
on these capacitors remains for a long time, governed by the resistance of the dielectric, (provided that there are
no accidental short circuits) so, the energy required to maintain the charge on these capacitors is minimal.
The third capacitor Cr, is sandwiched between the interior and exterior capacitors and is independent of Vc.
When the other two capacitors, CDI and CDE, become charged, capacitor Cr becomes charged as well but at a
slightly lower voltage due to dielectric voltage drop. This charging effect is a result of electrostatic induction.
Separating the concentric capacitors are two special induction-less coils. When current passes through these
coils, the electrostatic induction forces are temporarily neutralised, allowing the charged capacitor Cr to discharge
and oscillate with an exterior power coil or transformer as shown in Fig.7. The induction-less coils Lo are pulsed
with DC at the same rate as the natural resonant frequency of the tank circuit (Cr-Lr). Keeping the pulsing rate
within 10% of the tank circuit's resonant frequency will maintain maximum output power. Because of the flexibility
in the construction parameters, determining the resonant frequency and power capabilities will be difficult without
advanced analysing equipment. So to overcome these difficulties, a variable-frequency oscillator can be used as it
allows ready determination of the appropriate frequency range needed. A steady constant load will make this
determination easier as well. When the maximum output power is reached, you can measure the resistance of the
oscillator's variable resistor to aid in determining, and finally setting, oscillation at the natural resonant frequency
of the tank circuit. An additional 1K ohm variable resistor can be connected in series with the 100K variable
resistor shown, to allow easy "fine" tuning.
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