4A Zeolite Production Cost Reports

4A Zeolite production cost report provides a comprehensive analysis and know-how for setting up a 4A Zeolite production plant. The study covers all the requisite aspects that one needs to know for the production of 4A Zeolite. This includes manufacturing processes, raw material requirements, utility requirements, infrastructure requirements, machinery and technology requirements, manpower requirements, packaging requirements, transportation requirements, etc.

The report also provides detailed insights into project economics including capital investments, project funding, operating expenses, income and expenditure projections, fixed costs vs variable costs, direct and indirect costs, expected ROI and NPV, profit and loss account, financial analysis, etc.

4A Zeolite is a hydrated silicate of aluminium and either sodium or calcium or both. It is a synthetic zeolite activated by a thermal process for removing water from crystallisation. It is a kind of aluminosilicate crystal that has average pores measuring 4 angstroms (0.4 nm), usually used for dehydration in air brake systems and natural gas drying.

It appears to be a white powder with a whiteness of ≥95 %. It is an inorganic product that has very high porosity. Its pH value is ≤11, and its Particle size is D50 μm 2-6. It has a density of g/cm3 0.38-0.45. It is not soluble in water, alcohol, and organic solvents but somewhat soluble in strong acids and alkali hydroxides. Its melting point is >1600 °C (2,912 °F, 1,873.15 °K). By nature, it is chemically stable under environments that are basic, neutral, and mildly acidic. It should be stored under conditions that are away from acid, water, and alkali and in tight sealing and isolation.

The 4A Zeolite demand is rapidly increasing due to its wide usage as a water softener in household detergents. 4A Zeolite, in washing water, exchanges its Na2+ with Ca2+, which restrains them from reacting with detergent surfactants to improve the cleaning performance, which is driving the market growth.

It is also used as a catalyst in refining petroleum. Its primary role is as an environmental-friendly substitute for STPP with similar efficiency. Furthermore, due to its porous structure, it is used as molecular sieves, beads and pellets that find use in industries like medicine, natural gas, refineries, coal chemical, and to generate oxygen etc., which drives the market forward.