Evaluating the impact of airflow conditions and fabric thickness on nonwoven thermal resistance via local thermal non-equilibrium

Keyphrases

• Airflow Conditions 100%
• Biodegradability 33%
• Cold Protective Clothing 66%
• Complex Fibers 33%
• Convection Coefficient 33%
• Convective Heat Loss 33%
• Eco-friendly 33%
• Energy Formulation 33%
• Equilibrium Assumption 100%
• Equilibrium Model 33%
• Equilibrium Predictions 33%
• Fabric Thickness 100%
• Finite Rate 33%
• Fluid Residence Time 66%
• Heat Exchange 33%
• Heat Interaction 33%
• Heat Transfer Mechanism 33%
• High Winds 33%
• High-speed Airflow 33%
• Hollow Fiber 66%
• Horizontal Airflow 33%
• Insulation 33%
• Interfacial Convection 33%
• Internal Laminar Flow 33%
• Local Thermal Non-equilibrium 100%
• Local Thermodynamic Equilibrium 33%
• Low Thermal Conductivity 33%
• Natural Basis 33%
• Non-equilibrium 66%
• Non-equilibrium Model 33%
• Nonwoven 100%
• Porous Media Model 33%
• Predictive Tool 33%
• Radiative Thermal Conductivity 33%
• Regime Dependent 33%
• Residence Time 33%
• Solid Fibers 33%
• Thermal Equilibrium 66%
• Thermal Lag 33%
• Thermal Resistance 100%
• Thick Sample 33%
• Turbulent Flow 33%
• Two Dimensional 33%
• User-defined Function 33%
• Vertical Flow 66%
• Wind Environment 33%

Engineering

• Air Flow 100%
• Convection Coefficient 20%
• Convective 20%
• Energy Formulation 20%
• Engineering 20%
• Equilibrium Model 40%
• Experimental Measurement 20%
• Heat Exchange 20%
• Heat Loss 20%
• Heat Resistance 100%
• High Wind 20%
• Hollow Fibre 40%
• Laminar Flows 20%
• Local Thermal Equilibrium 20%
• Low Thermal Conductivity 20%
• Nonequilibrium 100%
• Nonwovens 100%
• Porous Medium Model 20%
• Protective Clothing 40%
• Thermal Conductivity 20%
• Thermal Equilibrium 40%
• Thermal Lag 20%
• Turbulent Flow 20%
• Two Dimensional 20%

Chemical Engineering

• Hollow Fiber Membrane Module 100%
• Thermal Conductivity 100%