Abstract: Compositions, tablets, prills and granules are provided including (a) about 95 to about 99.999 weight percent of at least one alkali metal hydrogen sulfate; and (b) about 0.001 to less than 0.08 weight percent of at least one alkali metal salt of a fatty carboxylic acid and/or at least one alkaline earth metal salt of a fatty carboxylic acid; wherein the composition includes less than 1 weight percent of chlorite and/or hypochlorite and less than 1 weight percent of alkali metal salt and/or alkaline earth metal salt that is chemically different from the at least one alkali metal hydrogen sulfate, the at least one alkali metal salt of a fatty carboxylic acid and the at least one alkaline earth metal salt of a fatty carboxylic acid, on a basis of total weight of the composition. Methods of use also are provided.

Abstract: The present invention provides a method of converting a brominated hydrocarbon to a chlorinated hydrocarbon that involves contacting together the brominated hydrocarbon and a chlorinated ion exchange resin that has a water content of less than or equal to 30 percent by weight, based on the total weight of the chlorinated ion exchange resin and the water. The brominated hydrocarbon includes at least one replaceable bromo group, where each replaceable bromo group is independently covalently bonded to an sp3 hybridized carbon. Contact between the brominated hydrocarbon and the chlorinated ion exchange resin results in replacement of at least one replaceable bromo group of the brominated hydrocarbon with a chloro group, and correspondingly conversion of at least a portion of the brominated hydrocarbon to the chlorinated hydrocarbon.

Abstract: Compositions, tablets, prills and granules are provided including (a) about 95 to about 99.999 weight percent of at least one alkali metal hydrogen sulfate; and (b) about 0.001 to less than 0.08 weight percent of at least one alkali metal salt of a fatty carboxylic acid and/or at least one alkaline earth metal salt of a fatty carboxylic acid; wherein the composition includes less than 1 weight percent of chlorite and/or hypochlorite and less than 1 weight percent of alkali metal salt and/or alkaline earth metal salt that is chemically different from the at least one alkali metal hydrogen sulfate, the at least one alkali metal salt of a fatty carboxylic acid and the at least one alkaline earth metal salt of a fatty carboxylic acid, on a basis of total weight of the composition. Methods of use also are provided.

Abstract: A method of sanitizing a surface is described that includes: (a) providing a pH control composition that includes at least one pH control agent (such as sodium bisulfate); (b) contacting a first feed aqueous stream with the pH control composition, thereby forming a first treated aqueous stream; (c) combining at least a portion of the first treated aqueous stream with a feed sanitizing aqueous stream that includes free available halogen, thereby forming a treated sanitizing aqueous stream that includes free available halogen (such as free available chlorine). The surface sanitizing method further includes, (d) elevating the temperature of the treated sanitizing aqueous stream, thereby forming a heated treated sanitizing aqueous stream having an elevated temperature that includes free available halogen. The heated treated sanitizing aqueous stream is applied to a surface to be sanitized (such as a poultry carcass surface).

Abstract: A chemical feeder includes a housing having a housing chamber, a sieve plate within the housing chamber, and a cartridge on an upper surface of the sieve plate. The cartridge includes a tubular member with a sidewall outer surface and a plurality of partitions extending from the sidewall outer surface to define a plurality of pockets, at least one of which contains a solid chemical material. The sieve plate includes a plurality of sieve plate inlet apertures, at least a portion of which are in fluid communication with at least one of the plurality of pockets. During operation, a feed liquid passes up through at least a portion of the sieve inlet plate apertures and into at least one pocket where it contacts a solid chemical material, so as to form a treated liquid that includes dissolved chemical material, at least a portion of which is removed through an outlet.

Abstract: A dechlorination composition for dechlorinating water includes at least one alkali metal sulfite, at least one borate, at least one hydrogenated vegetable oil, and at least one saccharide. The dechlorination composition can also include at least one colorant, at least one stearate salt, and at least one halide salt. The dechlorination composition can be formed into a compressed solid. Methods of preparing compressed solids of dechlorination compositions are also disclosed.

Abstract: A dechlorination composition for dechlorinating water, such as treated water, includes at least one alkali metal sulfite, at least one alkali metal thiosulfate, at least one hydrogenated vegetable oil, and at least one saccharide. The dechlorination composition can also include at least one colorant and at least one halide salt. The dechlorination composition can be formed into a compressed solid. Methods of preparing compressed solids of dechlorination compositions are also disclosed.

Abstract: The preparation of chlorinated hydrocarbons, such as pentachloropropanes, such as 1,1,1,2,3-pentachloropropane, from tetrachloropropanes, such as 1,1,1,3-tetrachloropropane, in the presence of a polyvalent antimony compound that includes a pentavalent antimony compound, such as antimony pentachloride, is described. Also described are methods for preparing optionally chlorinated alkenes, such as, tetrachloropropenes, from chlorinated alkanes, such as pentachloropropanes, in the presence of polyvalent antimony compound that includes a pentavalent antimony compound, as well as methods for recovering polyvalent antimony compounds from such processes.

Abstract: The preparation of chlorinated hydrocarbons by reacting a chlorinated alkane substrate, such as 1,1,1,3-tetrachloropropane, with a source of chlorine, such as chlorine (Cl2), in the presence of a polyvalent molybdenum compound, such as molybdenum pentachloride, is described. With the method of the present invention, the chlorinated alkane product has covalently bonded thereto at least one more chlorine group than the chlorinated alkane substrate, and the chlorinated alkane substrate and the chlorinated alkane product each have a carbon backbone structure that is in each case the same.

Abstract: The preparation of chlorinated hydrocarbons, such as pentachloropropanes, such as 1,1,1,2,3-pentachloropropane, from tetrachloropropanes, such as 1,1,1,3-tetrachloropropane, in the presence of a polyvalent antimony compound that includes a pentavalent antimony compound, such as antimony pentachloride, is described. Also described are methods for preparing optionally chlorinated alkenes, such as, tetrachloropropenes, from chlorinated alkanes, such as pentachloropropanes, in the presence of ferric chloride and a polyvalent antimony compound that includes a pentavalent antimony compound.