Method for gas synthesis

Claim 2

A process involving a. a fluid-tight tank, b. an insulative mixture that includes an electrically nonconductive liquid compound within the tank, and c. an electrode disposed within the insulative mixture; wherein a process for chemically reforming compounds within the tank comprises the steps of: d. insulating the electrode from an electric conductor with the insulative mixture, e. connecting alternating electrical current, having a voltage waveform and a current waveform, across the electrode and the conductor, f. repetitively producing an arc between the electrode and the conductor with the alternating electrical current, until g. establishing a stable plasma of partially ionized gases between the electrode and the conductor with the alternating electrical current, h. placing a capacitor in electrical circuits connected to the electrode which modifies a phase difference between the voltage and current waveforms of the alternating electrical current connected across the electrode and conductor producing the plasma so that the power factor of the alternating electrical current approaches unity.

Claim 3

The process as claimed in claim 1 wherein the electrical conductor is a conductive mixture within the tank that includes an electrically conductive liquid compound that is substantially immiscible with the electrically nonconductive liquid compound of the insulative mixture.

Claim 4

The process as claimed in claim 1 wherein the electrical conductor is an other electrode having an electrode tip disposed within the insulative mixture, with the electrode tips spaced apart.

Claim 5

The invention as defined in claim 2 including all of the limitations a. through h. with the addition of the following limitations: i. maintaining an interface between the mixtures at a fixed gap from the electrode by j. flowing the conductive mixture into a tray having an open top disposed within the insulative mixture opposite the electrode, k. overflowing conductive mixture from the tray, and l. maintaining a constant level of the conductive mixture within the tray.

Claim 6

A process involving a. a fluid-tight tank, b. an insulative mixture that includes an electrically nonconductive liquid compound within the tank, and c. an electrode disposed within the insulative mixture; wherein a process for chemically reforming compounds within the tank comprises the steps of: d. connecting alternating electrical current having a voltage waveform and a current waveform across the electrode and the conductor, an electrical conductor insulated from the electrode by the insulative mixture, e. repetitively producing an arc between the conductor and the electrode with the alternating electrical current, f. establishing a stable plasma of partially ionized gases between the electrode and the conductor with the alternating electrical current, g. collecting product gases escaping from the stable plasma, within a chamber having an open bottom positioned within the nonconductive mixture above the plasma, h. pressurizing a product gas mixture, formed from the collected gases, within the chamber sufficiently to exclude liquids from the chamber through the open bottom to a desired extent, and i. flowing the product gas mixture within the chamber to a gas outlet from the chamber, thereby j. reducing contact of the product gas mixture with liquids within the tank, and k. maintaining gases of the product gas mixture in contact in a substantially gaseous phase for a finite residence time within said chamber.

Claim 7

A process involving a. a fluid-tight tank, b. an insulative mixture that includes an electrically nonconductive liquid compound within the tank, and c. an electrode disposed within the insulative mixture; wherein a process for chemically reforming compounds within the tank comprises the steps of: d. connecting alternating electrical current having a voltage waveform and a current waveform across the electrode and the conductor, an electrical conductor insulated from the electrode by the insulative mixture, e. repetitively producing an arc between the conductor and the electrode with the alternating electrical current, f. establishing a stable plasma of partially ionized gases between the electrode and the conductor with the alternating electrical current, g. collecting product gases escaping from the stable plasma, within a chamber having an open bottom positioned within the nonconductive mixture above the plasma, h. pressurizing a product gas mixture, formed from the collected gases, within the chamber sufficiently to exclude liquids from the chamber through the open bottom to a desired extent, and i. flowing the product gas mixture within the chamber to a gas outlet from the chamber, thereby j. reducing contact of the product gas mixture with liquids within the tank, and k. maintaining gases of the product gas mixture in contact in a substantially gaseous phase for a finite residence time within said chamber.

Claim 8

The invention as defined in claim 5 including all of the limitations a. through m. with the addition of the following limitation: n. modifying the phase difference between the voltage and current waveforms of the alternating electrical current connected across the electrode and the conductor so that the power factor thereof approaches unity.

Claim 9

The process as claimed in claim 5 wherein the electrical conductor is a conductive mixture within the tank that includes an electrically conductive liquid compound that is substantially immiscible with the electrically nonconductive liquid compound of the insulative mixture.

Claim 10

The process as claimed in claim 5 wherein the electrical conductor is an other electrode having an electrode tip disposed within the insulative mixture, with the electrode tips spaced apart.

Claim 11

The invention as defined in claim 7 including all of the limitations a. through k. with the addition of the following limitations: l. maintaining an interface between the mixtures at a fixed gap from the electrode by m. flowing the conductive mixture into a tray having an open top disposed within the insulative mixture opposite the electrode, n. overflowing conductive mixture from the tray, and o. maintaining a constant level of the conductive mixture within the tray.

Claim 12

A process involving a. a fluid-tight tank, b. an insulative mixture that includes liquid hydrocarbons within the tank c. a conductive mixture that includes liquid water, within the tank, d. the insulative mixture being immiscible with the conductive mixture; wherein a chemical reforming process for synthesizing a product gas mixture, having a minimum BTU fuel rating of 500 BTU per standard cubic foot, comprises the steps of: e. mixing comminuted coal particles with the insulative mixture, and f. forming an emulsoid of the comminuted coal particles and the insulative mixture that is immiscible with the conductive mixture, g. developing an emulsoid stratum of the emulsoid, within the insulative mixture, that is supernatant to the conductive mixture, h. insulating an electrode disposed within the emulsoid stratum from the conductive mixture, i. maintaining an interface, between the emulsoid and the conductive mixture, a fixed gap from the electrode, j. connecting alternating electrical current across the electrode and the conductive mixture, k. repetitively producing an arc between the electrode and the interface with the alternating electrical current, l. establishing a stable plasma lens of partially ionized gases between the electrode and the interface with the alternating electrical current, m. forming an electrophoresis-induced vortex of fluids and charged particles from the conductive mixture and the emulsoid about the plasma lens, n. placing a capacitor in electrical circuits connected to the electrode which modifies the phase difference between voltage and current waveforms of the alternating electrical current connected across the electrode and interface so that the power factor of the alternating electrical current so connected approaches unity, o. collecting product gases escaping from the plasma lens within an open bottomed chamber positioned above the plasma lens, p. pressurizing a product gas mixture, formed from the collected product gases, within the chamber sufficiently to exclude liquids therefrom to a desired extent, q. flowing the product gas mixture from the chamber through an outlet pipe to a gas outlet, r. reducing contact of the product gas mixture with liquids within the tank, and s. maintaining gases of the product gas mixture in contact in a substantially gaseous phase for a finite residence time.

Claim 13

A process involving a. a fluid-tight tank, b. an insulative mixture that includes liquid hydrocarbons within the tank c. a conductive mixture that includes liquid water, within the tank, d. the insulative mixture being immiscible with the conductive mixture; wherein a chemical reforming process for synthesizing a product gas mixture, having a minimum BTU fuel rating of 500 BTU per standard cubic foot, comprises the steps of: e. mixing comminuted coal particles with the insulative mixture, and f. forming an emulsoid of the comminuted coal particles and the insulative mixture that is immiscible with the conductive mixture, g. developing an emulsoid stratum of the emulsoid, within the insulative mixture, that is supernatant to the conductive mixture, h. insulating an electrode disposed within the emulsoid stratum from the conductive mixture, i. maintaining an interface, between the emulsoid and the conductive mixture, a fixed gap from the electrode, j. connecting alternating electrical current across the electrode and the conductive mixture, k. repetitively producing an arc between the electrode and the interface with the alternating electrical current, l. establishing a stable plasma lens of partially ionized gases between the electrode and the interface with the alternating electrical current, m. forming an electrophoresis-induced vortex of fluids and charged particles from the conductive mixture and the emulsoid about the plasma lens, n. placing a capacitor in electrical circuits connected to the electrode which modifies the phase difference between voltage and current waveforms of the alternating electrical current connected across the electrode and interface so that the power factor of the alternating electrical current so connected approaches unity, o. collecting product gases escaping from the plasma lens within an open bottomed chamber positioned above the plasma lens, p. pressurizing a product gas mixture, formed from the collected product gases, within the chamber sufficiently to exclude liquids therefrom to a desired extent, q. flowing the product gas mixture from the chamber through an outlet pipe to a gas outlet, r. reducing contact of the product gas mixture with liquids within the tank, and s. maintaining gases of the product gas mixture in contact in a substantially gaseous phase for a finite residence time.

Claim 14

The invention as defined in claim 10 including all of the limitations a. through s. with the addition of the following limitations: t. performing the maintaining step "i." above by u. flowing the conductive mixture into a tray having an open top disposed within the insulative stratum, opposite the electrode, v. overflowing conductive mixture from the tray at an overflow lip thereof, w. maintaining a constant maximum level of the conductive mixture within the tray.

Claim 15

The invention as defined in claim 10 including all of the limitations a. through s. with the addition of the following limitation: t. catalytically reforming components of the product gas mixture in the presence of a catalyst located within the chamber.

Claim 16

The invention as defined in claim 10 including all of the limitations a. through s. with the addition of the following limitations: t. performing the "modifying" step "q." above by u. presetting an electrical circuit connecting a source of alternating electrical current across the electrode and the conductive mixture so that when a predetermined electrical resistance exists across the gap for a preselected voltage potential and gap spacing the power factor of the alternating electrical current connected across the gap approaches unity, v. varying the resistance across the gap to substantially maintain the predetermined electrical resistance responsive to changes in conductivity of matter between the electrode and the interface.

Claim 17

The invention as defined in claim 10 including all of the limitations a. through s. with the addition of the following limitations: w. performing the "varying" step "u." above by x. mixing selected compounds with at least one of the emulsoid and the conductive mixtures, the selected compounds having an appropriate electrical conductivity to change the resistance across the gap to the predetermined electrical resistance.