Keywordsnitroxide-mediated polymerization; poly(ampholytes); stimuli-responsive polymers; 2-acrylamido-2-methylpropane sulfonic acid; acrylamide; acrylic acid; error-in-variables-model; polymerization kinetics; reactivity ratio estimation; terpolymerization; PEGMA; grafting; nitroxide-mediated polymerization; chitosan; wastewater; dye; magnetic field; radical polymerization; quantum chemistry; acrylamide; solution polymerization; photopolymerization; process control; ACOMP; online monitoring; copolymeric polyelectrolytes; light scattering; viscosity; poly (ethylene glycol); d,l-lactide; macromers; triblock co-polymers; hyperbranched polymers; biodegradable hydrogels; aqueous-phase copolymerization; polyethylene glycol methacrylate monomers; reactivity ratios; ionization degree; solids content; polymerization kinetics; HEMA; nanocomposites; in situ polymerization; nano-clays; nano-silica; methacrylic acid; free radical polymerization; modeling; propagation; termination; electrostatic interactions; electrostatic screening; kinetics; NMR; drag reduction; aqueous polymer; turbulent flow; poly(ethylene oxide); polyacrylamide; gum; inverse mini-emulsion; interfacial polymerization; aqueous-core nanocapsules; high-efficiency encapsulation; enzyme-triggered release; supercritical carbon dioxide; RAFT polymerization; hydrogels; polymer network homogeneity; solubility in supercritical fluids; n/a; Group 4 metallocenes; anticancer; poly(ethylene glycol); pancreatic cancer; breast cancer; prostate cancer; interfacial polycondensation; Group 4 metallocene polymers; organotin polyethers; bio-renewable; depropagation; ionic strength; parameter estimation; mesoporous alumina; mesoporous magnesia; poly(ethylene glycol); poly(vinyl alcohol); poly(N-(2-hydroxypropyl) methacrylamide); poly(dimethylacrylamide); molecular imprinting; crosslinking polymerization; polyphenols; adsorbents; amphiphilic materials; vegetable extracts; continuous processes
