Electro organic method

Claim 2

In a method of electrolyzing a non-aqueous medium in an electrolytic cell having an anode, a cathode, and solid electrolyte means, the anode in contact with one surface of the solid electrolyte means, the cathode in contact with the opposite surface of the solid electrolyte means, and the anode-solid electrolyte means-cathode dividing the electrolytic cell into anode and cathode compartments, which method comprises providing a non-aqueous medium containing an organic reactant in contact with one of said anode and cathode, and externally imposing an electrical potential across the anode and cathode whereby to evolve anhydrous product at an electrode and transport ionic species across the solid electrolyte means, the improvement wherein said solid electrolyte means contains entrapped, mobile, ion transport means provided by an ionizable liquid or polar ionic organic moieties within the solid electrolyte means.

Claim 3

In a method of electrolyzing a non-aqueous medium in an electrolytic cell having an anode, a cathode, and solid electrolyte means, the anode in contact with one surface of the solid electrolyte means, and the cathode in contact with the opposite surface of the solid electrolyte means, which method comprises providing a non-aqueous medium containing an organic reactant in contact with one of said anode and cathode, and externally imposing an electrical potential across the anode and cathode whereby to evolve anhydrous product at an electrode and transport ionic species across the solid electrolyte means, the improvement wherein said solid electrolyte means contains entrapped, mobile, ion transport means provided by an ionizable liquid or polar ionic organic moieties within the solid electrolyte means, the ionizable liquid being an aqueous electrolyte, and the electrolytic cell comprises a compartment between elements of the solid electrolyte which compartment contains the aqueous electrolyte.

Claim 4

In a method of electrolyzing a non-aqueous medium in an electrolytic cell having an anode, a cathode, and solid electrolyte means, the anode in contact with one surface of the solid electrolyte means, and the cathode in contact with the opposite surface of the solid electrolyte means, which method comprises providing a non-aqueous medium containing an organic reactant in contact with one of said anode and cathode, and externally imposing an electrical potential across the anode and cathode whereby to evolve anhydrous product at an electrode and transport ionic species across the solid electrolyte means, the improvement wherein said solid electrolyte means contains entrapped, mobile, ion transport means provided by an ionizable liquid or polar ionic organic moieties within the solid electrolyte means, the ionizable liquid being an aqueous electrolyte, and the electrolytic cell comprises a compartment between elements of the solid electrolyte which compartment contains the aqueous electrolyte.

Claim 5

In a method of electrolyzing a non-aqueous medium in an electrolytic cell having an anode, a cathode, and solid electrolyte means, the anode in contact with one surface of the solid electrolyte means, and the cathode in contact with the opposite surface of the solid electrolyte means, which method comprises providing a non-aqueous medium containing an organic reactant in contact with one of said anode and cathode, and externally imposing an electrical potential across the anode and cathode whereby to evolve anhydrous product at an electrode and transport ionic species across the solid electrolyte means, the improvement wherein said solid electrolyte means contains entrapped, mobile, ion transport means provided by an ionizable liquid or polar ionic organic moieties within the solid electrolyte means, the ionizable liquid being an aqueous electrolyte and the solid electrolyte means comprises two sheets of ion exchange resin material having a zone containing the aqueous electrolyte therebetween.

Claim 6

In a method of electrolyzing a non-aqueous medium in an electrolytic cell having an anode, a cathode, and solid electrolyte means, the anode in contact with one surface of the solid electrolyte means, and the cathode in contact with the opposite surface of the solid electrolyte means, which method comprises providing a non-aqueous medium containing an organic reactant in contact with one of said anode and cathode, and externally imposing an electrical potential across the anode and cathode whereby to evolve anhydrous product at an electrode and transport ionic species across the solid electrolyte means, the improvement wherein said solid electrolyte means contains entrapped, mobile, ion transport means provided by an ionizable liquid or polar ionic organic moieties within the solid electrolyte means, the ionizable liquid being an aqueous electrolyte and the solid electrolyte means comprises two sheets of ion exchange resin material having a zone containing the aqueous electrolyte therebetween.

Claim 7

The method of claim 3 wherein a sheet of ion exchange resin material has a hydrophobic layer thereon whereby to retain the aqueous electrolyte within the solid electrolyte means.

Claim 8

In a method of electrolyzing a non-aqueous medium in an electrolytic cell having an anode, a cathode, and solid electrolyte means, the anode in contact with one surface of the solid electrolyte means, and the cathode in contact with the opposite surface of the solid electrolyte means, which method comprises providing a non-aqueous medium containing an organic reactant in contact with one of said anode and cathode, and externally imposing an electrical potential across the anode and cathode whereby to evolve anhydrous product at an electrode and transport ionic species across the solid electrolyte means, the improvement wherein said solid electrolyte means contains entrapped, mobile, ion transport means provided by an ionizable liquid or polar ionic organic moieties within the solid electrolyte means, and the ionizable liquid comprises an oxidation and reduction resistant, organic compound.

Claim 9

In a method of electrolyzing a non-aqueous medium in an electrolytic cell having an anode, a cathode, and solid electrolyte means, the anode in contact with one surface of the solid electrolyte means, and the cathode in contact with the opposite surface of the solid electrolyte means, which method comprises providing a non-aqueous medium containing an organic reactant in contact with one of said anode and cathode, and externally imposing an electrical potential across the anode and cathode whereby to evolve anhydrous product at an electrode and transport ionic species across the solid electrolyte means, the improvement wherein said solid electrolyte means contains entrapped, mobile, ion transport means provided by an ionizable liquid or polar ionic organic moieties within the solid electrolyte means, and the ionizable liquid comprises an oxidation and reduction resistant, organic compound.