Saponification of Adsorbent BLPAMA

Qing Xin Yao; Jian Jun Xie; Jun Xia Liu

doi:10.4028/www.scientific.net/AMR.721.20

Paper Titles

Microstructural Stability of a Single Crystal Superalloy DD10 under Stressed and Un-Stressed Thermal Exposure at 980 °C
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Effect of Zinc Ion on the Electrochemical and Thermal Performance of Polyaniline/Activated Carbon Composites Prepared by In Situ Emulsion Polymerization
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Investigation on Fatigue Damage of the Al5Zn2Mg High Strength Aluminum Alloy
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Annealing Temperature Effect on the Photoluminescence Properties of Er-Doped Silicon-Rich Silicon Oxide Films
p.16

Saponification of Adsorbent BLPAMA
p.20

Properties of High-Quality LaAlO₃ Film Deposited by In Situ Plasma-Enhanced-Atomic-Layer-Deposition
p.24

Number Modeling of Deformation Behavior for Al-Based Powders Coated on Magnesium Alloy by Supersonic Particles Deposition
p.29

Growth and Characterisation of Ag₂S Films on ZnS/Indium-Tin-Oxide Coated Glass
p.33

Preparation and Characterization of PbO₂ Electrode Modified with Praseodymium
p.37

HomeAdvanced Materials ResearchAdvanced Materials Research Vol. 721Saponification of Adsorbent BLPAMA

Saponification of Adsorbent BLPAMA

Abstract:

The saponification conditions for bentonite/sodium lignosulfonate graft acrylamide and maleic anhydride adsorbent composites (BLPAMA) prepared by solution polymerization were studied in detail. The results had shown that the optimum conditions of saponification were that the concentration of NaOH (CNaOH) = 1.0mol/L, the temperature (T) = 90°C and the saponification time (t) = 1.5h. And the maximum adsorption quantity of saponified BLPAMA to Pb2+ was 1.304mmol/g in the Pb2+/Cu2+ binary metal solution.