Rheological Flocculant Products and Application Guide
Rheological Flocculant Product Overview
PAMPolymer offers advanced rheological flocculants designed to enhance performance in water treatment and other industrial applications. Our products improve settling rates and viscosity, ensuring efficient and cost-effective solutions for various industries. Our Rheological Polymers could be used in thickening in alumina, copper, gold, nickel and phosphate industry. The application of these polymers will improve the pumpability of high concentrated slurry, as well as the cost efficiency. Could products are with full range of anionic charge, molecular weights and monomer combinations to meet the specific applications. Advantages of Rheological Polymers Reducing the water consumption; Better distribution of fine materials in tails disposal; Reducing the energy consumption like water, pumping; Improving the mud rheology. PAMPolymer offers advanced rheological flocculants designed to enhance performance in water treatment and other industrial applications. Our products improve settling rates and viscosity, ensuring efficient and cost-effective solutions for various industries. Our Rheological Polymers could be used in thickening in alumina, copper, gold, nickel and phosphate industry. The application of these polymers will improve the pumpability of high concentrated slurry, as well as the cost efficiency. Could products
Specifications and Product Selection
are with full range of anionic charge, molecular weights and monomer combinations to meet the specific applications. Advantages of Rheological Polymers Reducing the water consumption; Better distribution of fine materials in tails disposal; Reducing the energy consumption like water, pumping; Improving the mud rheology. PAMPolymer provides advanced rheological polymers designed to enhance fluid properties in various industries. Our products improve viscosity, stability, and flow control, offering efficient solutions for water treatment, oilfield, and other industrial applications. PAMPolymer provides advanced viscosity agents designed to enhance fluid control in various industrial processes. Our products improve the flow properties, ensuring optimal performance in water treatment, oilfield, and other applications requiring precise viscosity management. PAMPolymer offers advanced rheological flocculants designed to enhance performance in water treatment and other industrial applications. Our products improve settling rates and viscosity, ensuring efficient and cost-effective solutions for various industries. Our Rheological Polymers could be used in thickening in alumina, copper, gold, nickel and phosphate industry. The application of these polymers will improve the pumpability of high concentrated slurry, as well as the cost efficiency. Could products are with
Applications and Performance
full range of anionic charge, molecular weights and monomer combinations to meet the specific applications. Advantages of Rheological Polymers Reducing the water consumption; Better distribution of fine materials in tails disposal; Reducing the energy consumption like water, pumping; Improving the mud rheology. The viscosity of PAM polyacrylamide solution mainly reflects the internal frictional resistance caused by the flow or relative motion of liquid molecules. Internal friction resistance is related to po… The viscosity of PAM polyacrylamide solution mainly reflects the internal frictional resistance caused by the flow or relative motion of liquid molecules. Internal friction resistance is related to polymer structure, solvent properties, solution concentration, temperature and pressure. What are the factors that affect the viscosity of PAM polyacrylamide solutions? 1. The effect of temperature on the viscosity of PAM polyacrylamide Temperature is a reflection of the strength of random thermal motion of molecules, and the motion of molecules must overcome interactions between molecules, as well as interactions between molecules, such as intermolecular hydrogen bonds, internal friction, diffusion, molecular chain orientation, entanglement, etc. Directly affects the viscosity, so the viscosity
Preparation, Handling and Use
of the polymer solution will vary with temperature. Changes in temperature have a significant effect on the viscosity of polymer solutions. The viscosity of PAM polyacrylamide solution decreased with increasing temperature. The reason is that the dispersed phase particles of the polymer solution are entangled with each other to form a polymer with a network structure. The higher the temperature, the more easily the network structure is destroyed, so the viscosity decreases. 2. The effect of hydrolysis time on the viscosity of PAM polyacrylamide The viscosity of the PAM polyacrylamide solution changes with the extension of the hydrolysis time. The hydrolysis time is short and the viscosity is very small, which may be because the polymer has not yet formed a network structure; because the hydrolysis time is too long, the viscosity decreases, and the long hydrolysis time is due to the pam powder. caused by the loosening of the structure in solution. Partially hydrolyzed polyacrylamide dissolves in water and decomposes into negatively charged macromolecules. Intermolecular electrostatic repulsion and anionic repulsion between different chains on the same molecule cause the
PAMPolymer Supply Information
molecules to stretch and entangle with each other in solution, which is why partially hydrolyzed polyacrylamide can significantly increase its solution viscosity. 3. The effect of salinity on the viscosity of PAM polyacrylamide The number of cationic groups in the molecular chain of polyacrylamide PAM powder is more than that of anionic groups, and the net charge is more. According to the principle of similar miscibility, the polymer has better water solubility and higher intrinsic viscosity. As the mineral content increases, the positive electrostatic charges are partially surrounded by anions, forming an ionic atmosphere, which combines with the surrounding positive electrostatic charges, and the properties and viscosity of the polymer solution decrease. Mineral concentrations continue to increase, and positive and negative ionic groups form combinations of intramolecular or intermolecular hydrogen bonds. At the same time, the added salt ions broke the bond between positive and negative ions by shielding the positive and negative charges, resulting in an increase in the solubility of the polymer in water. These two effects compete with each other, resulting in a higher salt concentration in
