Flocculants: Technologies and Global Markets

Report Scope

This study is intended to discuss the present and upcoming market trends of flocculants. Determining the future growth potential of the market is also part of the scope of the study. Furthermore, assessment of the product life cycle of flocculants, identification of capacity utilization trends, and analysis of raw materials are also within the purview of this study.

Under types of flocculants, this report has included mineral flocculants (e.g., activated silica, bentonite, and metallic hydroxides with a polymeric structure), natural flocculants (e.g., starch derivatives, Moringa oleifera polysaccharides, and alginates, or seaweed), and synthetic flocculants (e.g., polyacrylamides, polyethylene-imines, polyamides-amines, polyamines, and polyethylene-oxide). Apart from these flocculants, no other types of flocculants are considered under the scope of the report. With regard to ionization of flocculants, this report has included nonionic flocculants (having very minuscule zeta potential or no zeta potential), cationic flocculants (positively charged), and anionic flocculants (negatively charged).

Applications of flocculants in water and wastewater treatment, surface chemistry, earth science, brewing (different applications in the food and beverages industry are also considered), and other areas (e.g., jar test and biological applications) are considered under the scope of the report. Apart from these applications, no other applications have been considered within the report.

With regard to end users, flocculants used in municipal, oil and gas, power-generation, manufacturing (including pharmaceutical, automobile, semiconductor and electronics, and heavy industries), metal and mining, and other industries (pulp and paper, and refining) have been considered in the report. Apart from these end users, no other end users have been considered in the report.

Estimated values used are based on manufacturers’ total revenues. For calculating volume, metric tons are used as the base unit. Therefore, volume is presented in kilotons. One kiloton is equivalent to 1,000,000 kilograms (kg).

Analyst Credentials

Research Analyst Sinha G. Gaurav holds an MBA in finance from ICFAI Business School, Hyderabad (India), and a bachelor's degree in electrical engineering from Rajasthan University (India). His primary focus is in the electronics and semiconductor markets. He has nine years of experience in the field of market research in electronics, finance and database designing. His areas of interest include semiconductors, automation, industrial controls, robotics and nanotechnology. His publications focus on subjects such as quantum dots, photonic sensors and detectors, LIDAR, ultrafast lasers, home automation, helmet-mounted displays (HMDs), factory automation and radio frequency (RF) components, among others.

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