Beverage carbonation devices

Claim 2

A beverage carbonation device which comprises a water and gas permeable container, a dry beverage mix, and an amount effective to carbonate a beverage of a porous crystalline aluminosilicate material having adsorbed therein an amount of carbon dioxide equal to at least about 5% by weight of said crystalline aluminosilicate material; said crystalline aluminosilicate material and said dry beverage mix being enclosed in said container; whereby when said device is submerged in a body of beverage-making liquid to be carbonated, said adsorbed carbon dioxide is released to provide beverage carbonation.

Claim 3

A device in accordance with claim 1 wherein the crystalline aluminosilicate material is selected from the group consisting of Zeolite X, Zeolite Y and Zeolite A and has pore sizes of from about 3 Angstroms to about 10 Angstroms.

Claim 4

A device in accordance with claim 2 wherein the water and gas-permeable container is in the form of a flexible, inert netting having mesh openings large enough to permit substantially uninhibited passage of carbon dixoide and small enough to retain the crystalline aluminosilicate material.

Claim 5

A device in accordance with claim 3 wherein the crystalline aluminosilicate material is in the form of 4× 8 mesh beads and the flexible inert netting has a mesh size greater than 8.

Claim 6

A device in accordance with claim 3 wherein the crystalline aluminosilicate material is in the form of 8× 12 mesh beads and the flexible, inert netting has a mesh size greater than 12.

Claim 7

A device in accordance with claim 2 wherein the water and gas-permeable container is affixed to a frame and handle assembly.

Claim 8

A device in accordance with claim 6 wherein the water and gas-permeable container is in the form of a flexible, inert netting having mesh openings large enough to permit substantially uninhibited passage of carbon dioxide and small enough to retain the crystalline aluminosilicate material.

Claim 9

A device in accordance with claim 7 wherein the crystalline aluminosilicate material is in the form of 4× 8 mesh beads and the flexible inert netting has a mesh size greater than 8.

Claim 10

A device in accordance with claim 7 wherein the crystalline aluminosilicate material is in the form of 8× 12 mesh beads and the flexible, inert netting has a mesh size greater than 12.

Claim 11

A beverage carbonation device which comprises a container, a dry beverage mix, and an amount effective to carbonate a beverage of a porous crystalline aluminosilicate material having adsorbed therein an amount of carbon dioxide equal to at least about 5% by weight of said aluminosilicate material; said aluminosilicate material and dry beverage mix being enclosed in the container with said aluminosilicate material being affixed to the inside surfaces of said container; whereby when the container is filled with a beverage-making liquid, making contact with said aluminosilicate material, said adsorbed carbon dioxide is released to provide beverage carbonation.

Claim 12

A beverage carbonation device which comprises a container, a dry beverage mix, and an amount effective to carbonate a beverage of a porous crystalline aluminosilicate material having adsorbed therein an amount of carbon dioxide equal to at least about 5% by weight of said aluminosilicate material; said aluminosilicate material and dry beverage mix being enclosed in the container with said aluminosilicate material being affixed to the inside surfaces of said container; whereby when the container is filled with a beverage-making liquid, making contact with said aluminosilicate material, said adsorbed carbon dioxide is released to provide beverage carbonation.

Claim 13

A device in accordance with claim 10 wherein the crystalline aluminosilicate material is selected from the group consisting of Zeolite X, Zeolite Y and Zeolite A and has pore sizes of from about 3 Angstroms to about 10 Angstroms.

Claim 14

A device in accordance with claim 11 wherein enough crystalline aluminosilicate material is attached to the container to provide from about 0.5 to about 4 grams of crystalline aluminosilicate material per fluid ounce capacity of said container.

Claim 15

A beverage carbonation device which comprises a container, a dry beverage mix, and an amount effective to carbonate a beverage of a single molded block of porous crystalline aluminosilicate material having adsorbed therein an amount of carbon dioxide equal to at least 5% by weight of said crystalline aluminosilicate material, said block having a thickness of from about 0.001 inch to about 3 inches; said block and dry beverage mix being enclosed in said container with said block being affixed in said container; whereby when a beverage-making liquid is introduced in said container making contact with said block, said adsorbed carbon dioxide is released to provide beverage carbonation.

Claim 16

A beverage carbonation device which comprises a container, a dry beverage mix, and an amount effective to carbonate a beverage of a single molded block of porous crystalline aluminosilicate material having adsorbed therein an amount of carbon dioxide equal to at least 5% by weight of said crystalline aluminosilicate material, said block having a thickness of from about 0.001 inch to about 3 inches; said block and dry beverage mix being enclosed in said container with said block being affixed in said container; whereby when a beverage-making liquid is introduced in said container making contact with said block, said adsorbed carbon dioxide is released to provide beverage carbonation.

Claim 17

A device in accordance with claim 13 wherein the crystalline aluminosilicate material is selected from the group consisting of Zeolite X, Zeolite Y and Zeolite A and has pore sizes of from about 3 Angstroms to about 10 Angstroms.

Claim 18

A device in accordance with claim 14 wherein enough crystalline aluminosilicate material is affixed to the container to provide from about 0.5 to about 4 grams of crystalline aluminosilicate material per fluid ounce capacity of said container.

Claim 19

A beverage carbonation device which comprises a container having therein an open carbonation chamber containing a dry beverage mix, an amount effective to carbonate a beverage of a porous crystalline aluminosilicate material and carbon dioxide for beverage carbonation; said crystalline aluminosilicate material having adsorbed therein at least 5% by weight of said carbon dioxide, said carbonation chamber having a screening means affixed therein to prevent passage of the crystalline aluminosilicate material from said carbonation chamber; whereby when said container is filled with a beverage liquid making contact with said aluminosilicate material, said adsorbed carbon dioxide is released to provide beverage carbonation.

Claim 20

A beverage carbonation device which comprises a container having therein an open carbonation chamber containing a dry beverage mix, an amount effective to carbonate a beverage of a porous crystalline aluminosilicate material and carbon dioxide for beverage carbonation; said crystalline aluminosilicate material having adsorbed therein at least 5% by weight of said carbon dioxide, said carbonation chamber having a screening means affixed therein to prevent passage of the crystalline aluminosilicate material from said carbonation chamber; whereby when said container is filled with a beverage liquid making contact with said aluminosilicate material, said adsorbed carbon dioxide is released to provide beverage carbonation.

Claim 21

A device in accordance with claim 16 wherein the crystalline aluminosilicate material is selected from the group consisting of Zeolite X, Zeolite Y and Zeolite A and has pore sizes of from about 3 Angstroms to about 10 Angstroms.

Claim 22

A device in accordance with claim 17 wherein the crystalline aluminosilicate material is present in a quantity sufficient to provide from about 0.5 to about 4 grams of crystalline aluminosilicate material per fluid ounce capacity of said carbonation chamber.

Claim 23

A device in accordance with claim 17 wherein the crystalline aluminosilicate material is in the form of 4 × 8 mesh beads and the screening means has a mesh size greater than 8.

Claim 24

A device in accordance with claim 17 wherein the crystalline aluminosilicate material is in the form of 8 × 12 mesh beads and the screening means has a mesh size greater than 12.

Claim 25

A package comprising a two-compartmented bag, one compartment of said bag containing a potable aqueous solution and the other compartment of said bag containing an effective amount to carbonate the potable solution of porous crystalline aluminosilicate material, said material having absorbed therein at least about 5% by weight of carbon dioxide.

Claim 26

A package comprising a two-compartmented bag, one compartment of said bag containing a potable aqueous solution and the other compartment of said bag containing an effective amount to carbonate the potable solution of porous crystalline aluminosilicate material, said material having absorbed therein at least about 5% by weight of carbon dioxide.

Claim 27

The carbonated beverage system of claim 21 wherein said potable aqueous solution is a fully diluted uncarbonated beverage and wherein said compartments are separated by a breakable seal whereby said solution can be carbonated in said bag by the breaking of said seal.

Claim 28

A beverage carbonation device which comprises a rod-like support member, an amount effective to carbonate a beverage of a molded disc of porous crystalline aluminosilicate material and carbon dioxide; said porous crystalline aluminosilicate material having adsorbed therein at least about 5% by weight of said carbon dioxide; said disc being coated with a dry beverage mix; said disc being attached to one end of said support member; whereby when said disc is placed in a body of beverage-making liquid to be carbonated, said adhered carbon dioxide is released to provide beverage carbonation.

Claim 29

A beverage carbonation device which comprises a rod-like support member, an amount effective to carbonate a beverage of a molded disc of porous crystalline aluminosilicate material and carbon dioxide; said porous crystalline aluminosilicate material having adsorbed therein at least about 5% by weight of said carbon dioxide; said disc being coated with a dry beverage mix; said disc being attached to one end of said support member; whereby when said disc is placed in a body of beverage-making liquid to be carbonated, said adhered carbon dioxide is released to provide beverage carbonation.