Abstract: Provided is a heat dissipating capacitor comprising internal electrodes of opposing polarity forming a capacitive couple between external terminations. A dielectric is between the internal electrodes. The heat dissipating capacitor comprises at least one thermal dissipation layer and at least one thermal conductive termination wherein the thermal dissipation layer is in thermally conductive contact with the thermal conductive termination.

Abstract: In one embodiment, this invention relates to an aqueous acid iron phosphorus bath which comprises (A) at least one compound from which iron can be electrolytically deposited, (B) hypophosphite ion, and (C) sulfur-containing compound represented by the formula Y—S—R1—SO3X??I wherein X is H or an alkali metal, R1 is an alkylene group containing from 1 to about 5 carbon atoms, Y is H, S—R1—SO3X, C(S)NR2?, C(S)OR?, C(NH2)NR2?, or a heterocyclic group, and each R? is independently H, or an alkyl group containing from 1 to about 5 carbon atoms. Optionally, the aqueous acidic iron phosphorus electroplating bath of the invention also may comprise aluminum irons. The alloys which are deposited on the substrates by the process of the present invention are characterized by the presence of iron, phosphorus and sulfur.

Abstract: In one embodiment, this invention relates to an aqueous acid iron phosphorus bath which comprises (A) at least one compound from which iron can be electrolytically deposited, (B) hypophosphite ion, and (C) sulfur-containing compound represented by the formula Y—S—R1—SO3X??I wherein X is H or an alkali metal, R1 is an alkylene group containing from 1 to about 5 carbon atoms, Y is H, S—R1—SO3X, C(S)NR2?, C(S)OR?, C(NH2)NR2?, or a heterocyclic group, and each R? is independently H, or an alkyl group containing from 1 to about 5 carbon atoms. Optionally, the aqueous acidic iron phosphorus electroplating bath of the invention also may comprise aluminum irons. The alloys which are deposited on the substrates by the process of the present invention are characterized by the presence of iron, phosphorus and sulfur.

Abstract: In one embodiment, this invention relates to an aqueous acid iron phosphorus bath which comprises (A) at least one compound from which iron can be electrolytically deposited, (B) hypophosphite ion, and (C) a sulfur-containing compound selected from sulfoalkylated polyethylene imines, sulfonated safranin dye, and mercapto aliphatic sulfonic acids or alkali metal salts thereof. Optionally, the aqueous acidic iron phosphorus electroplating bath of the invention also may comprise aluminum irons. The alloys which are deposited on the substrates by the process of the present invention are characterized by the presence of iron, phosphorus and sulfur.

Abstract: A sulfate scavenger for chromium-plating baths consists of barium chromate or dichromate or mixtures of the two, added either directly to the bath or as part of a replenishment mixture with chromic acid.

Abstract: Corrosion resistant electrodeposited chromium layers, processes for their electrodepositions and plating baths suitable for use therein are disclosed. The corrosion resistant chromium layers also are bright, adherent, smooth, hard, wear resistant, and exhibit a low coefficient of friction. Electrodeposition is carried out at both high and low currrent densities. The baths used comprise 450-650 g/l of chromic acid, 40-100 g/l of sulfoacetic acid and 0-4.5 g/l of sulfate ion and are substantially free of other carboxylic acids, fluoride ions, iodide ions, bromide ions and selenium ions. The baths used comprise 400-650 g/l of chromic acid, 40-100 g/l of sulfoacetic acid and 0-4.5 g/l of sulfate ion and are substantially free of other carboxylic acids, flouride ions, iodide ions, bromide ions and selenium ions.

Abstract: An adherent, smooth electrodeposit of chromium is produced on a nodular cast iron substrate from a chromium plating bath. The desired deposit is provided herein by activating the substrate, subjecting the activated substrate to an ultrasonic treatment, and thereafter plating chromium from a chromium plating bath. The method is particularly effective for electrodeposition of chromium on such substrates from commercial high energy efficient chromium electroplating baths, where ordinarily only roughened deposits are obtained.

Abstract: An activation solution is provided for forming adherent chromium electrodeposits on metal substrates, preferably ferrous metals such as cast iron, from high energy efficient chromium baths. The solution suitably is a mixture of sulfuric acid, added sulfate ion, and an inorganic oxidizing agent. A preferred solution contains 10 to 40% by volume concentrated sulfuric acid, 100 to 200 grams per liter of magnesium sulfate heptahydrate and 1 to 2 grams per liter of sodium nitrate.

Abstract: An improved activation solution is provided for forming adherent chromium electrodeposits on metal substrates from high energy efficient chromium baths. The solution is a substantially neutral alkali metal sulfate solution.