Methods for representing crystal structure of inorganic materials in matrix form, and for quantitative comparison of multiple inorganic materials, can be employed to identify candidate materials with high potential to possess a desired property. Such methods can include conversion of an atomic coordinate set to a coordinate set for an anion only lattice, anion substitution, and unit cell re-scaling. Such methods can further include simulation of x-ray diffraction data for modified anion-only lattices, and generation of n2 matrices from the simulated diffraction data. Quantitative structural similarity values can be derived from the n2 matrices. The quantitative structural similarity values can be useful for structural categorization, as well as prediction of functional properties.

Marine engine exhaust includes pollutants such as CO.sub.2, NO.sub.x and SO.sub.x. An on-board system and method for the simultaneous removal of these pollutants includes obtaining seawater from the water on which the marine vessel travels, purifying the seawater to remove a portion of hard ions, concentrating the seawater to yield a concentrated brine solution, treating the concentrated brine solution with a chemical softener to yield a treated brine solution, acidifying the treated brine solution, and utilizing the acidified brine solution in a chlor-alkali process to yield sodium hydroxide. The sodium hydroxide can be used in an acid gas scrubber to remove CO.sub.2, NO.sub.x, and SO.sub.x from the marine engine exhaust gas.

A method for producing a haloamine solution with reduced amounts of halogen oxyanions including (a) the on-site generation of a halogen-containing oxidant, such as a solution and (b) reacting on-site the halogen-containing oxidant with a nitrogen source, to thereby produce the haloamine solution.

A method for producing a haloamine solution with reduced amounts of halogen oxyanions including (a) the on-site generation of a halogen-containing oxidant, such as a solution and (b) reacting on-site the halogen-containing oxidant with a nitrogen source, to thereby produce the haloamine solution.

The electrochemical reactors disclosed herein provide novel oxidation and reduction chemistries and employ in-creased mass transport rates of materials to and from the surfaces of electrodes

The electrochemical reactors disclosed herein provide novel oxidation and reduction chemistries and employ in-creased mass transport rates of materials to and from the surfaces of electrodes

An anti-microbial formulation for seed and crop application includes about 170 ppm hypochlorous acid; about 25 ppm hypochlorite ion; about 2.5 ppm ozone; about 2.5 ppm chlorine dioxide; between about 10 ppm and about 100,000 ppm alkyl polyglycoside; and a remainder of water. A method of manipulating the pH of the formulation and a method of treating seeds and crops with the formulation to restrict or eliminate microbial growth and proliferation is also described herein.

An anti-microbial formulation for seed and crop application includes about 170 ppm hypochlorous acid; about 25 ppm hypochlorite ion; about 2.5 ppm ozone; about 2.5 ppm chlorine dioxide; between about 10 ppm and about 100,000 ppm alkyl polyglycoside; and a remainder of water. A method of manipulating the pH of the formulation and a method of treating seeds and crops with the formulation to restrict or eliminate microbial growth and proliferation is also described herein.

A method for producing a haloamine solution with reduced amounts of halogen oxyanions including (a) the on-site generation of a halogen-containing oxidant, such as a solution and (b) reacting on-site the halogen-containing oxidant with a nitrogen source, to thereby produce the haloamine solution.

A method for producing a haloamine solution with reduced amounts of halogen oxyanions including (a) the on-site generation of a halogen-containing oxidant, such as a solution and (b) reacting on-site the halogen-containing oxidant with a nitrogen source, to thereby produce the haloamine solution.