A method of infusing salt can include heating salt to a temperature above the boiling point of water. The method can also apply a liquid additive solution to the heated salt to create an infused salt. The temperature of the heated salt can be sufficiently high that the salt remains above the boiling point of water for a first period of time after the liquid additive solution is applied thereto.

An icephobic coating composition forms a coating layer that melts ice and snow upon contract and remains durable after several exposures to winter storms. The icephobic coating composition includes about 2.5% to about 12.5% by weight of latex polymer solids; about 30% to about 70% by weight of an inorganic halide salt; about 15% to about 50% by weight water; and about 1% to about 15% by weight of an organic co-solvent selected from glycerin, glycols, and glycol ethers. An alternative icephobic coating composition includes about 1% to about 20% by weight of a solution polymer instead of a latex polymer, and about 10% to about 40% by weight of a VOC-exempt organic solvent instead of the foregoing water and co-solvent.

The present invention pertains to systems, methods, and compositions for liquid phase change, including for active cloud point, e.g., critical solution temperature, adjustment and heating or cooling, e.g., refrigeration, cycles. In some embodiments heat is absorbed, released or both due to phase changes in a liquid system. Advantageously, the phase changes may be controlled by controlling the ingredients or amounts of certain components of the liquid system. Advantages may include lower capital expenditures, lower operating expenses, or both for a diverse and wide range of heating and cooling applications. Such applications include, for example, cooling of data centers, cooled transportation of goods, refrigeration, heat pumps, extractions, ocean thermal energy conversion, and de-icing of roads to name just a few.

Composition and methods of applying potassium mixtures are disclosed. Applications include: fertilizer and fertilizer additives, freeze conditioning, dust control, coating oil, and fire prevention.

A composition used to melt ice and snow is provided. The composition has a large solar radiation absorption bandwidth and good thermal conduction, which can be manually, mechanically or otherwise dispersed over a large or small surface area to aid in melting ice or snow into liquid when exposed to optical radiation. A method for preparing the composition and methods of use of the composition are also provided.

A deicing and snow melting device, for elevating the melting point of ice and snow, comprises of a plurality of pellets including an active ingredient. Each pellet of the plurality of pellets has at least an underside and a topside. The active ingredient is selected from the group consisting of chloride salts, organic compounds, alcohols or mixtures thereof. A base comprising a water-soluble sheet is joined to either one of the underside or topside of each pellet of the plurality of pellets. The base may define at least one hole through a top surface and bottom surface of the base allowing for easy dispersion of the active ingredient

A method for preparing a composition with low corrosive effect and low freezing point, in which an ammonium cation source is mixed with a carboxyl anion source in an appropriate molar or weight ratio, either without a medium or by using an appropriate medium for obtaining liquid or water-soluble organic ammonium carboxylate of formula (1): [NR.sup.1R.sup.2R.sup.3R.sup.4].sup.+.sub.n [R.sup.5(COO).sub.n].sup.−n, in which R.sup.1, R.sup.2, and R.sup.3 are selected from hydrogen, substituted and unsubstituted 1-6 carbon alkyl, R.sup.4 is a substituted or unsubstituted 1-6 carbon alkyl, R.sup.5 is hydrogen, a substituted or unsubstituted 1-6 carbon hydrocarbon and n is an integral 1-6, and, thereafter, a possible solvent is added while keeping the alkali or alkali-earth metal content of the composition in a range of 0.001-30 wt-%.

A deicing composition and method of making the same includes an aqueous salt solution comprising sodium chloride, calcium chloride, and magnesium chloride. The aqueous salt solution may be naturally produced from an oil, natural gas, or natural salt water well from siliclastic or chemical sedimentary rock type formation or it may be synthesized. The deicing composition may also include fresh water and a corrosion inhibiting mixture that includes sodium gluconate and triethanolamine.

Embodiments of the present invention include de-icing compositions, along with the manufacture of and use of the de-icing compositions. The de-icing compositions achieve a higher melting capacity and melt ice for longer times than conventional de-icing solutions. The de-icing compositions include suspensions of salt instead of solutions. These de-icing suspensions can be applied to ice using liquid application systems. Embodiments include a de-icing composition. The de-icing composition is a suspension. The de-icing composition includes a solvent, which includes water. The de-icing composition may also include a salt component in a total concentration greater than the solubility of the salt component in water at a temperature in a range from 0° F. to 40° F. A portion of the salt component may not be dissolved in the solvent. The undissolved portion of the salt component may include particles with an effective diameter less than 500 μm. The de-icing composition may further include a suspending agent.

Methods of melting ice using ice-melt compositions including calcium chloride coated with a lignosulfonate material are disclosed. The ice-melt compositions can be useful as ice-melt products with improved safety. A method can include applying an ice-melt composition to ice, the ice-melt composition comprising coated particles. Each coated particle can include a core comprising calcium chloride and a coating at least partially surrounding the core, the coating comprising a lignosulfonate material.