Electrolysis cells and electrolytic processes

Claim 2

A process of carrying out useful electrolytic reactions simultaneously at an anode and cathode which comprises supplying a catholyte containing a compound to be reduced electrolytically to a cathode in a diaphragmless cell, supplying an anolyte containing a compound to be oxidized electrolytically to the anode in said cell, while imposing an electric current on said anode and cathode of said cell in an amount, rate and location of said cell sufficient to prevent the anolyte from substantially contacting the cathode and to prevent substantially the catholyte from from contacting the anode, and effecting oxidation of the said compound to be oxidized and reduction of the said compound to be reduced in separate useful simultaneous electrolytic reactions.

Claim 3

A process as in claim 1, in which the cell is provided with a porous anode and a porous cathode.

Claim 4

A process as in claim 2, in which the cell is also provided with a cell frame which substantially prevents intermingling of the anolyte contacting the anode and the catholyte contacting the cathode.

Claim 5

A process of carrying out useful electrolytic reactions simultaneously at an anode and cathode which comprises supplying a catholyte containing a compound to be reduced electrolytically to a porous cathode in a diaphragmless cell, supplying an anolyte containing a compound to be oxidized electrolytically to a porous anode in said cell, while imposing an electric current on said anode and cathode of said cell in an amount, rate and location of said cell sufficient to prevent the anolyte from substantially contacting the cathode and to prevent substantially the catholyte from contacting the anode, said process being further characterized in that the cell is provided with a frame which substantially prevents intermingling of the anolyte contacting the anode and the catholyte contacting the cathode, and the catholyte contains an activated olefin to be electrolytically converted to a hydrodimer of said olefin and the anolyte contains the mono alkyl ester of an alkyl dioic acid to be converted to the dialkyl ester of the decarboxylated dimer of said acid.

Claim 6

A process of carrying out useful electrolytic reactions simultaneously at an anode and cathode which comprises supplying a catholyte containing a compound to be reduced electrolytically to a porous cathode in a diaphragmless cell, supplying an anolyte containing a compound to be oxidized electrolytically to a porous anode in said cell, while imposing an electric current on said anode and cathode of said cell in an amount, rate and location of said cell sufficient to prevent the anolyte from substantially contacting the cathode and to prevent substantially the catholyte from contacting the anode, said process being further characterized in that the cell is provided with a frame which substantially prevents intermingling of the anolyte contacting the anode and the catholyte contacting the cathode, and the catholyte contains an activated olefin to be electrolytically converted to a hydrodimer of said olefin and the anolyte contains the mono alkyl ester of an alkyl dioic acid to be converted to the dialkyl ester of the decarboxylated dimer of said acid.

Claim 7

A process as in claim 1, in which the cell is provided with one porous electrode and one planar electrode.

Claim 8

A process as in claim 1, in which the cell is provided with a planar anode and a planar cathode, and the anolyte is supplied to the anode just before the upstream edge thereof and the catholyte is supplied to the cathode just before the upstream edge thereof.

Claim 9

A process of carrying out electrolytic reactions simultaneously at an anode and cathode which comprises supplying a catholyte containing an activated olefin to be dimerized to a porous cathode in a diaphragmless cell, supplying an anolyte containing the mono alkyl ester of an alkyl dioic acid to a porous anode of said cell, while imposing an electric current on the anode and cathode of said cell, and supplying a solvent electrolyte to said cell in an amount, rate and location of said cell sufficient to prevent substantially the catholyte from contacting the anode and to prevent substantially the anolyte from contacting the cathode.

Claim 10

A process of carrying out electrolytic reactions simultaneously at an anode and cathode which comprises supplying a catholyte containing an activated olefin to be dimerized to a porous cathode in a diaphragmless cell, supplying an anolyte containing the mono alkyl ester of an alkyl dioic acid to a porous anode of said cell, while imposing an electric current on the anode and cathode of said cell, and supplying a solvent electrolyte to said cell in an amount, rate and location of said cell sufficient to prevent substantially the catholyte from contacting the anode and to prevent substantially the anolyte from contacting the cathode.

Claim 11

A process as in claim 7 in which said activated olefin is selected from the group consisting of acrylonitrile and lower alkyl acrylate and said monoalkyl ester is the mono methyl adipate.

Claim 12

A process as in claim 8, in which the cell is also provided with a cell frame which substantially prevents intermingling of product streams from the anode and the cathode.

Claim 13

The process of claim 1 in which the stated useful electrolytic reactions cannot effectively be carried out while substantially avoiding the formation of undesirable by-products, by general electrolysis procedures in an undivided cell.