Chromium Oxalate Production Cost Reports

The report provides a detailed analysis essential for establishing a Chromium Oxalate production plant. It encompasses all critical aspects necessary for Chromium Oxalate production, including the cost of Chromium Oxalate production, Chromium Oxalate plant cost, Chromium Oxalate production costs, and the overall Chromium Oxalate production plant cost. Additionally, the study covers specific expenditures associated with setting up and operating a Chromium Oxalate production plant. These encompass production processes, raw material requirements, utility requirements, infrastructure needs, machinery and technology requirements, manpower requirements, packaging requirements, transportation requirements, and more.

Chromium oxalate is a crystalline coordination compound with different industrial applications as a chemical intermediate and reagent. It is used in pigment and dye production to improve colour stability, vibrancy, and fixation. It works as a mordant in textile dyeing processes to improve dye adherence and durability on fabrics.

It is used as a catalyst precursor in organic synthesis and chemical reactions, including dehydrohalogenation and reduction processes. It is also used in the production of corrosion inhibitors for coatings, composites, and advanced materials that boost durability and rust prevention in automotive, electronics, and blade industries. It absorbs oxygen from gas mixtures, helps in plating and chrome steel production.

The market for chromium oxalate is influenced by growing demand in pigments, dyes, advanced coatings, composites, and metallurgy sectors. Its usage to improve colour stability, corrosion resistance, and material durability amid expanding automotive, electronics, and textile industries contributes to its market growth. Also, innovations in sustainable production, like greener synthesis methods using trivalent chromium to replace toxic hexavalent forms, along with the rise in needs for catalysts, fuel its market.

The industrial chromium oxalate procurement is affected by raw material costs for chromium sources and oxalic acid, and supply chain disruptions from mining regulations in key producers like South Africa. Also, strict environmental compliance under REACH and similar global standards that mandate low-toxicity formulations affects its sourcing.

Raw Material for Chromium Oxalate Production

According to the Chromium Oxalate production plant project report, the key raw materials used in the production of Chromium Oxalate include Oxalic Acid-Potassium Dichromate-Potassium Oxalate.

Production Process of Chromium Oxalate

The extensive Chromium Oxalate production cost report consists of the following major industrial production process:

• From Oxalic Acid, Potassium Dichromate, and Potassium Oxalate: The production process of chromium oxalate involves several steps. First, oxalic acid is dissolved in water and potassium dichromate is added to it. The mixture is gently heated with stirring, causing the orange solution to change to a yellow-green colour as chromium is chemically reduced after cooling the solution in an ice bath for crystal formation, followed by the addition of potassium oxalate. This leads to the formation of a soluble chromium complex, which is collected by vacuum filtration. The product is washed and dried to get pure chromium oxalate as the final product.

Chromium(II) oxalate is a coordination compound that has chromium in the +2 oxidation state with oxalate ions. It appears as light green or bluish-green crystalline powder or solid with a density of around 2.3 to 2.5 g/cm³. It exists in a solid state at room temperature, is moderately or slightly soluble in water (especially higher in acidic or hot conditions). It is almost insoluble in cold water and alcohol, and prone to partial dissociation influenced by pH, temperature, and ions like calcium or magnesium. It forms stable complexes as oxalate works as a bidentate ligand in high-spin octahedral geometry. It shows a magnetic moment near 4.65 BM, indicating no Cr-Cr bonding, and engages in redox reactions because of the chromium's variable oxidation states. It thermally decomposes above 140–320 degree Celsius to chromium oxides while losing water from its dihydrate form.