Claims Analysis
Total Claims: 18
Claim 1
Independent Claim
129 words
The method for generating a corona discharge comprising: providing a pair of parallel, adjacent, spaced-apart electrodes defining a corona discharge chamber between a facing internal surface of each electrode; providing at least one of said internal surfaces with a fired-on coating of porcelain enamel dielectric material; providng a total dielectric thickness for said at least one coating of less than 40 mils; applying an A.C. voltage having a frequency of between about 60 Hz and 40 KHz and a voltage of between the corona start voltage and 15,000 volts, across said pair of electrodes to generate a corona discharge; spacing said electrodes apart a distance of between about 5 and 100 mils; and feeding a reactant into said corona discharge chamber to be acted upon by said corona discharge.
Claim 2
Independent Claim
129 words
The method for generating a corona discharge comprising: providing a pair of parallel, adjacent, spaced-apart electrodes defining a corona discharge chamber between a facing internal surface of each electrode; providing at least one of said internal surfaces with a fired-on coating of porcelain enamel dielectric material; providng a total dielectric thickness for said at least one coating of less than 40 mils; applying an A.C. voltage having a frequency of between about 60 Hz and 40 KHz and a voltage of between the corona start voltage and 15,000 volts, across said pair of electrodes to generate a corona discharge; spacing said electrodes apart a distance of between about 5 and 100 mils; and feeding a reactant into said corona discharge chamber to be acted upon by said corona discharge.
Claim 3
Dependent Claim
24 words
The method according to claim 1, wherin said coating providing step comprises providing a fired-on porcelain enamel dielectric coating on each of said electrodes.
Claim 4
Dependent Claim
32 words
The method according to claim 2, including the steps of providing said coatings by separately firing a plurality of individual porcelain enamel layers onto said electrodes to form each of said coatings.
Claim 5
Dependent Claim
31 words
The method according to claim 3 wherein said steps of separately firing-on individual porcelain enamel layers includes firing each of said plurality of layers at a temperature of about 1480° F.
Claim 6
Dependent Claim
26 words
The method according to claim 1, including cooling said electrodes by feeding ambient air past and in contact with external surfaces of each of said electrodes.
Claim 7
Dependent Claim
19 words
The method according to claim 1, including the step of eliminating all voids from said porcelain enamel dielectric material.
Claim 8
Dependent Claim
75 words
The method according to claim 1 including the step of spacing said electrodes apart the optimum air gap distance Ta in accordance with the formula: ##EQU9## wherein P/A -- corona power in watts per square inch of dielectric area ε -- relative dielectric constant of coating Td -- dielectric thickness in mils Vo -- applied volts Vs -- sparking voltage in air measured in volts per mil Ta -- air gap between electrodes in mils
Claim 9
Dependent Claim
29 words
The method according to claim 7 including employing a total dielectric thickness Td in mils and a dielectric constant ε such that the value ε/Td is greater than 0.10.
Claim 10
Independent Claim
104 words
A method for generating ozone in an ozone generator including a pair of adjacent, parallel, spaced-apart electrodes defining a corona generating chamber therebetween comprising: providing a fired-on coating of porcelain enamel dielectric coating on the internal facing surface of at least one of said electrodes, employing a total dielectric thickness Td in mils and a dielectric constant ε such that the value ε/Td is greater than 0.10, feeding an oxygen-containing gas into said chamber, applying an A.C. voltage of between the corona start voltage and 15,000 volts and of between 40 Hz and 60 KHz across said electrodes, and, feeding ozone from said chamber.
Claim 11
Independent Claim
104 words
A method for generating ozone in an ozone generator including a pair of adjacent, parallel, spaced-apart electrodes defining a corona generating chamber therebetween comprising: providing a fired-on coating of porcelain enamel dielectric coating on the internal facing surface of at least one of said electrodes, employing a total dielectric thickness Td in mils and a dielectric constant ε such that the value ε/Td is greater than 0.10, feeding an oxygen-containing gas into said chamber, applying an A.C. voltage of between the corona start voltage and 15,000 volts and of between 40 Hz and 60 KHz across said electrodes, and, feeding ozone from said chamber.
Claim 12
Dependent Claim
31 words
The method according to claim 9 wherein said providing step comprises coating the facing internal surface of each of said electrodes with a plurality of separate, individually fired-on porcelain enamel layers.
Claim 13
Dependent Claim
20 words
The method according to claim 10 wherein said providing step further comprises removing substantially all voids from said porcelain enamel.
Claim 14
Dependent Claim
23 words
The method according to claim 11, including cooling said electrodes by feeding ambient air past the external surfaces of each of said electrodes.
Claim 15
Independent Claim
93 words
A method for producing ozone from an oxygen-containing gas passed through a corona generator employing a pair of parallel, spaced-apart electrodes defining an air gap of uniform width therebetween, and a fired-on coating of porcelain enamel dielectric material on at least one of said electrodes, comprising positioning said electrodes a predetermined distance apart to provide an air gap Ta therebetween, such that the following equation is satisfied ##EQU10## where Ta -- air gap length in mils Vo -- applied peak voltage in volts Td -- dielectric thickness in mils ε -- dielectric constant
Claim 16
Independent Claim
93 words
A method for producing ozone from an oxygen-containing gas passed through a corona generator employing a pair of parallel, spaced-apart electrodes defining an air gap of uniform width therebetween, and a fired-on coating of porcelain enamel dielectric material on at least one of said electrodes, comprising positioning said electrodes a predetermined distance apart to provide an air gap Ta therebetween, such that the following equation is satisfied ##EQU10## where Ta -- air gap length in mils Vo -- applied peak voltage in volts Td -- dielectric thickness in mils ε -- dielectric constant
Claim 17
Dependent Claim
69 words
In the method of generating ozone in an air gap between a pair of spaced-apart electrodes between which electrodes is positioned a fired-on coating of porcelain enamel dielectric on at least one of said electrodes and having a total thickness of less than 40 mils, the improvement comprising determining the optimum air gap length and maintaining the air gap length within 10 mils of the optimum air gap length.
Claim 18
Dependent Claim
69 words
In the method of generating ozone in an air gap between a pair of spaced-apart electrodes between which electrodes is positioned a fired-on coating of porcelain enamel dielectric on at least one of said electrodes and having a total thickness of less than 40 mils, the improvement comprising determining the optimum air gap length and maintaining the air gap length within 10 mils of the optimum air gap length.