Metal remediation and preconcentration using immobilized short-chain peptides composed of aspartic acid and cysteine

Keyphrases

• Resin 100%
• Controlled Pore Glass 100%
• Metal Remediation 100%
• Short Peptides 100%
• Metal Preconcentration 100%
• Aspartic Acid 100%
• Cysteine 100%
• Cd2+ 100%
• Ni2+ 75%
• Cysteine Residues 50%
• Co2+ 50%
• Aspartic Acid Residue 50%
• Glycine 25%
• Flame Atomic Absorption Spectrophotometry 25%
• Polyamic Acid 25%
• Binding Ratio 25%
• Metal-containing 25%
• Order of Magnitude 25%
• Breakthrough Curve 25%
• Single Metal 25%
• Metal Binding Capacity 25%
• Metal Binding 25%
• Conditional Stability Constant 25%
• Synthesized Peptides 25%
• Amino Acid Sequence 25%
• Mg2+ 25%
• Artificial Seawater 25%
• Multi-metal Solution 25%
• Microcolumn 25%
• Preconcentrates 25%
• Solid-phase Peptide Synthesis 25%
• Binding Selectivity 25%
• Silane Chemistry 25%
• Mass Transport 25%
• Selective Binding 25%
• Influent Flow Rate 25%
• Linear Velocity 25%

Chemistry

• Aspartic Acid 100%
• Preconcentration 100%
• Peptide 100%
• Cysteine 100%
• Aspartic Acid Residue 50%
• Carbon Dioxide 25%
• Mass Transfer 25%
• Seawater 25%
• Chemistry 25%
• Cysteine Residue 25%
• Atomic Absorption Spectroscopy 25%
• Peptide Synthesis 25%
• Silane 25%
• stability 25%
• Amino Acid Sequence 25%
• Polyaminoacid 25%
• Flow Kinetics 25%

Chemical Engineering

• Elution 100%
• Carbon Dioxide 100%
• Inductively Coupled Plasma Mass Spectrometry 100%
• Mass Transfer 100%
• Silane 100%