Mathematical modeling of arsenic(V) adsorption onto iron oxyhydroxides in an adsorption-submerged membrane hybrid system

Keyphrases

• Adsorption 100%
• Iron Oxide 100%
• Mathematical Modeling 100%
• As(V) 100%
• Submerged Membrane Hybrid System 100%
• Arsenic(V) Adsorption 100%
• Kinetic Parameters 60%
• Mathematical Model 40%
• Manganese 40%
• Hybrid System 40%
• Concentration Profile 40%
• Granular Ferric Hydroxide 40%
• Adsorbent 40%
• Membrane Flux 40%
• Tetravalent 40%
• Homogeneous Surface Diffusion Model 40%
• Feroxyhyte 40%
• Effluent 20%
• Micro-sized 20%
• Adsorption Kinetics 20%
• Solute 20%
• Surface Diffusion 20%
• Contact Time 20%
• Arsenic(V) 20%
• Arsenic Adsorption 20%
• Intra-particle 20%
• Operation Conditions 20%
• Adsorption Equilibrium 20%
• Batch Adsorption Study 20%
• Kinetic Data 20%
• Effluent Concentration 20%
• Mass Transfer Resistance 20%
• Breakthrough Curve 20%
• Mass Transfer Coefficient 20%
• Hybrid Membrane 20%
• Slurry Reactor 20%
• Mass Balance Equation 20%
• Equilibrium Parameters 20%
• Submerged Microfiltration 20%
• Porous Iron 20%
• Adsorption Membrane 20%
• Membrane Hybrid System 20%
• Arsenic(V) Removal 20%
• Nanofiltration Membrane 20%
• Systems-based 20%
• Model Simulation 20%
• System Benefit 20%
• Adsorbent Dose 20%

Chemical Engineering

• Surface Diffusion 100%
• Slurry Reactor 33%
• Microfiltration 33%
• Mass Transport 33%
• Adsorption Equilibrium 33%
• Batch Adsorption 33%
• Mass Transfer Resistance 33%