Deterministic gas-plasma-regulated auto polarity high-voltage electric-field transducing transformer
OwnerYehoshua HADSHANIinventor
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Abstract
The invention allows for transformation to DC of electric fields of unknown or variable strength and polarity, using conventional, easily obtainable components. The device employs plasma arrestors, high voltage capacitors, a step-down transformer, filter capacitors, a bridge rectifier, smoothing capacitors, field-effect rectifier diodes and an intermediate storage capacitor bank to accomplish this.
Claims14
A step-down transformer for transformation of electric fields having varied voltage and current potentials, comprising:
- a. at least one pulse capacitor bank, rated to at least twice of a voltage derived from said plurality of high-voltage plasma arrestors;
- b. a plurality of high-voltage plasma arrestors connected in series, to said at least one pulse capacitor bank;
- c. a high-voltage transformer connected to said plurality of high-voltage plasma arrestors;
- d. a plurality of high-voltage plasma arrestors connected in series, between primary terminals of said high-voltage transformer;
- e. at least one filter capacitor connected to each polarity of said high-voltage transformer's secondary side;
- f. a rectification element connected to said filter capacitors;
- g. at least one smoothing capacitor connected to said full wave bridge rectifier;
- h. at least one diode connected to each terminal of said smoothing capacitor, in a polarity opposite to polarity of said terminal of said smoothing capacitor;
- i. at least one capacitor for intermediate output storage;
- wherein, type of said high-voltage transformer is determined by at least some of the following considerations:
- said transformer is capable of handling energy and power produced by said at least one pulse capacitor bank and said plurality of high-voltage plasma arrestors, at various potential frequencies depending upon an E-field strength being processed, with appropriate primary/secondary step-down ratio, and be capable of various frequency-ranges as well as extremely fast pulse rise-time operation;
- further wherein, said plurality of high-voltage plasma arrestors in series, between primary terminals of said high-voltage transformer, is rated approximately thirty-percent higher than voltage rating of said plurality of high-voltage plasma arrestors in series connected to said pulse capacitor bank;
- further wherein, capacitance of said pulse capacitor bank is relative to the inductance of a primary side of said high-voltage transformer, to closely correlate to a resonant frequency of capacitance attached to a secondary side of said transformer for improvement in power transfer and preservation of optimal phase relationships between transformer primary and secondary;
- further wherein, said at least one diode(s) connected to each terminal of said smoothing capacitor, in polarity opposite to polarity of said terminal of said smoothing capacitor, are rated at least twice the voltage rating of said capacitor for intermediate storage.
A method for assembling a step-down transformer for transformation of electric fields having varied voltage and current potentials, comprising the steps of:
- a. providing at least one pulse capacitor bank, rated to at least twice of a voltage derived from said plurality of high-voltage plasma arrestors;
- b. connecting a plurality of high-voltage plasma arrestors in series, to said at least one pulse capacitor bank;
- c. connecting a high-voltage transformer to said plurality of high-voltage plasma arrestors;
- d. connecting a plurality of high-voltage plasma arrestors in series, between primary terminals of said high-voltage transformer;
- e. connecting at least one filter capacitor to each polarity of said high-voltage transformer's secondary side;
- f. connecting said filter capacitors to a rectification element;
- g. connecting at least one smoothing capacitor to said full wave bridge rectifier;
- h. connecting at least one diode to each terminal of said smoothing capacitor, in a polarity opposite to polarity of said terminal of said smoothing capacitor;
- i. connecting at least one capacitor for intermediate output storage;
- wherein, type of said high-voltage transformer is determined by at least some of the following considerations:
- said transformer is capable of handling energy and power produced by said at least one pulse capacitor bank and said plurality of high-voltage plasma arrestors, at various potential frequencies depending upon an E-field strength being processed, with appropriate primary/secondary step-down ratio, and be capable of various frequency-ranges as well as extremely fast pulse rise-time operation;
- further wherein, said plurality of high-voltage plasma arrestors in series, between primary terminals of said high-voltage transformer, is rated approximately thirty-percent higher than voltage rating of said plurality of high-voltage plasma arrestors in series connected to said pulse capacitor bank;
- further wherein, capacitance of said pulse capacitor bank is relative to the inductance of a primary side of said high-voltage transformer, to closely correlate to a resonant frequency of capacitance attached to a secondary side of said transformer for improvement in power transfer and preservation of optimal phase relationships between transformer primary and secondary;
- further wherein, said at least one diode(s) connected to each terminal of said smoothing capacitor, in polarity opposite to polarity of said terminal of said smoothing capacitor, are rated at least twice the voltage rating of said capacitor for intermediate storage.
Dependencies are inferred from the claim text.