| Customization: | Available |
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| CAS No.: | 9003-05-8 |
| Formula: | (C3h5no)N |
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| What is Anionic polyacrylamide (CPAM) ? |
| Polyacrylamide various percentages can be dissolved in water, especially when the concentration is higher than '70% more that are water-soluble polymers. Molecular Weight does not seem to affect the solubility of water, but the high molecular weight polymer at concentrations exceeding 10% will form a gel-like structure. This is due to the formation of intermolecular hydrogen bonds. (PAM) polyacrylamide insoluble in most organic solvents. Except for a few polar organic solvent, such as acetic acid,chloroacetic acid, ethylene glycol, glycerol, molten urea and formamide. However, the limited solubility of these organic solvents, often require heating, or of little value. Further soluble formamide, hydrazine, ethylene glycol. Because the industry in the form of an aqueous solution applications. |
Flocculation: Experience the magic of coagulation and aggregation with our PAM. Flocculation is where suspended particles are masterfully brought together, forming larger clusters that facilitate easier removal from water systems. PAM enables suspended material to conglomerate through charge neutralization and bridge adsorption, thereby enhancing flocculation. This dynamic process ensures clarity and quality in water treatment.
Adhesion: Unleash the binding power of PAM. Whether through mechanical, physical, or chemical interactions, PAM provides superior adhesion, ensuring particles stick together for optimal treatment outcomes. Through a sophisticated interplay of mechanical, physical, and chemical effects, PAM excels in adhesion. Its action ensures a robust bond, enhancing the overall treatment process.
Reduction in resistance: Embrace efficiency like never before. PAM significantly diminishes fluid friction, achieving a remarkable reduction in resistance by 50-80%, even with trace amounts, optimizing your water treatment process. PAM effectively slashes fluid friction, transforming water dynamics. A mere trace can lead to a dramatic 50-80% reduction in resistance, significantly enhancing your system's efficiency.
Thickening: Discover the thickening marvel of PAM in neutral and acidic conditions. As the pH soars past 10, PAM undergoes hydrolysis, transforming into a robust mesh structure, amplifying its thickening capabilities. PAM exhibits outstanding thickening properties in neutral and acidic environments. Beyond a pH of 10, it hydrolyzes, forming a semi-mesh structure that significantly enhances thickening effects.
Flocculation Principle: Dive into the flocculation principle where PAM's interaction with particle surfaces, zeta potentials, and dynamic properties creates a harmonious balance, reducing potential and boosting cohesion. PAM drives flocculation by interacting with surface properties, zeta potential, and pH. Oppositely charged PAM reduces potential, enhancing cohesion for effective floc aggregation.
Adsorption Bridging: Initiate the bridging phenomenon with PAM. Its molecular chains anchor to diverse particle surfaces, forming robust bridges that cause aggregates to settle efficiently. PAM molecular chains anchor onto particle surfaces, creating effective bridges between polymer particles. This bridging effect results in particle aggregation and efficient settling.
Adsorption: Harness the power of adsorption with PAM. Its polar groups adeptly attract and bind particles, ensuring effective molecular interaction and superior treatment outcomes. PAM employs various polar groups for effective particle adsorption, ensuring robust molecular engagement for superior water treatment performance.
Enhancement: Experience the transformative enhancement of PAM. With its robust molecular network, PAM integrates with dispersed phases, fortifying the structure and elevating performance. PAM molecular chains create a reinforcing network with dispersed phases through mechanical, physical, and chemical interactions, providing substantial enhancement to the treatment process.
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