Experimental and numerical investigation on particle deposition in a compact heat exchanger

•The effect of particle size and injected mass on particle deposition is investigated.•The influence of velocity on particle deposition is studied.•Particle deposition occurs mostly on the first and last edges of fin channels.•Increase of particle size can enhance deposition ratio in fin channels.•I...

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Veröffentlicht in:Applied thermal engineering 2017-03, Vol.115, p.406-417
Hauptverfasser: Baghdar Hosseini, S., Haghighi Khoshkhoo, R., Javadi Malabad, S.M.
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container_title Applied thermal engineering
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creator Baghdar Hosseini, S.
Haghighi Khoshkhoo, R.
Javadi Malabad, S.M.
description •The effect of particle size and injected mass on particle deposition is investigated.•The influence of velocity on particle deposition is studied.•Particle deposition occurs mostly on the first and last edges of fin channels.•Increase of particle size can enhance deposition ratio in fin channels.•Increase of air velocity can promote particle deposition or restrain it. In this study the effect of particle size on deposition in compact heat exchanger was investigated experimentally and numerically. An experimental setup was designed to visualize particle deposition and measure pressure drop across the exchanger. Numerical study was performed on five fin channels. The flow was modeled by solving Reynolds-Averaged Navier-Stokes (RANS) equations, and particle motions were simulated by discrete particle model (DPM) with UDF to model deposition. Experimental study was performed for particle size over a range from 1μm to 4mm and numerical investigation were done for particle size from 1μm to 100μm which were placed in A1 particle group of experiment. Experimental results show enhancement of particle deposition; besides, pressure drop rises with increase of particle size. Numerical study also demonstrates that particle deposition increases with increase of particle size up to 50μm. Studies show that velocity increase pressure drop and can promote or hinder particle deposition.
doi_str_mv 10.1016/j.applthermaleng.2016.12.110
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subjects CFD analysis
Compact heat exchanger
Computational fluid dynamics
Computer simulation
Deposition
DPM
Experimental investigation
Heat
Mathematical models
Measurement
Navier-Stokes equations
Particle deposition
Particle size
Pressure drop
Reynolds averaged Navier-Stokes method
Stokes law (fluid mechanics)
Studies
title Experimental and numerical investigation on particle deposition in a compact heat exchanger
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