Quantitative modeling of aggregating colloidal systems is the underlying problem in many industrial processes, such as micro and nanoparticle processing, crystallization or flocculation.
This is mostly the case for industrial wastewaters captured and reused in closed loops in industrial processes, such as pulp and paper industries.
Though efforts have been taken to curtail the industrial applications of nitrosamines, they are formed unintentionally from various industrial processes, such as during rubber manufacturing and processing, leather tanning, metal casing, and food processing.
They are impressive producers of hydrolytic enzymes already applied in a variety of industrial processes, such as the food, feed, pulp, paper and textile industries.
In present day they have found applications in all the industrial processes such as in food, detergents, textiles, pharmaceutical, paper and fine chemical industries for the hydrolysis of starch [ 3– 5].
Almost all the hydrogen used now in industrial processes, such as making gasoline, comes from reforming natural gas.
This process involves capturing carbon dioxide from industrial processes such as fossil fuel power stations and then storing it securely underground.
Particle shape in many important industrial processes, such as catalysis and pyrolysis, is often non-spherical.
The safety of complex industrial processes such as chemical or power processes is of prime interest.
Heavy industrial processes, such as steel making, contribute considerably to GHG emissions.
These heat-trapping gases are the byproduct of industrial processes such as refrigeration and can be eliminated from those processes by re-engineering.
