Differential heat and mass transfer rate influences on the activation efficiency of laminar flow condensation particle counters

Keyphrases

• Heat Mass Transfer 100%
• Heat Transfer Rate 100%
• Mass Transfer Rate 100%
• Condensation Particle Counter 100%
• Laminar Flow 100%
• Activation Efficiency 100%
• Flow Condensation 100%
• Differential Heat 100%
• Helium 66%
• Mole Fraction 41%
• Working Fluid 33%
• Small Particles 16%
• Condensation 16%
• Orifice Diameter 16%
• Thermophysical Properties 16%
• Gas Composition 16%
• Lewis number 16%
• Nanoparticles 8%
• Aerosol 8%
• Mass Transfer 8%
• Particle Size 8%
• Aerosol Particles 8%
• Sub-10 Nm 8%
• Condenser 8%
• Peclet number 8%
• Supersaturation 8%
• 1-Butanol 8%
• Saturator 8%
• Gas Mixture 8%
• Momentum Transfer 8%
• Comparison Experiment 8%
• Vapor Pressure 8%
• Cutwidth 8%
• Nanometer Size 8%
• Constant Mass 8%
• Heat Transfer Fluid 8%
• Supersaturation Ratio 8%
• Supersaturated Vapor 8%
• Coupled Heat Transfer 8%
• Molecular Nitrogen 8%
• Model Condensation 8%
• Choked Flow 8%
• Variable Model 8%
• Differential Rates 8%
• Efficiency Decrease 8%
• Vapor Mass Transfer 8%

Engineering

• Heat Transfer Rate 100%
• Mass Transfer Rate 100%
• Condensation Particle Counter 100%
• Laminar Flows 100%
• Heat And Mass Transfer 100%
• Mole Fraction 41%
• Mass Transport 25%
• Supersaturation 16%
• Gas Composition 16%
• Lewis Number 16%
• Condensation 16%
• Nanometre 8%
• Nanoparticles 8%
• Critical Size 8%
• Particle Diameter 8%
• Detected Particle 8%
• Size Range 8%
• Flowrates 8%
• Saturators 8%
• Sensitive Detector 8%
• Peclet Number 8%
• Momentum Transfer 8%
• Choked Flow 8%
• Condenser Region 8%
• Nitrogen 8%

Chemical Engineering

• Mass Transport 100%
• Butene 20%
• Peclet Number 20%
• Nanoparticle 20%
• Nitrogen 20%