What is it about?
Taylor flow is a strategy-aimed flow to transfer conventional single-phase into a more efficient two-phase flow, resulting in an enhanced momentum/heat/mass transfer rate and many other advantages. Multiphase flow in micro-sized structures refers to a microflow in which two or more distinct phases are recognizable, i.e., a carrying or continuous phase and one or more dispersed phases. A two-phase flow denotes a combination of two distinct phases, including gas, liquid, and solid particles. Gas-liquid (GL) and liquid-liquid (LL) are two common types of multiphase flow in microchannels encountered in various practical applications, such as biomedical, pharmacological, engineering, and commercial. Immiscible LL two-phase flows can also be observed in many industrial applications, where the dispersive liquid flow is introduced as droplets into the carrying liquid flow.
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Why is it important?
To date, Taylor flow has focused on the processes involving gas–liquid and liquid–liquid two-phase systems in microchannels over various biomedical, pharmaceutical, industrial, and commercial applications. Appropriately micro-structured design is, therefore, a key consideration for equipment dealing with transport phenomena. This review paper highlights the hydrodynamic aspects of gas-liquid and liquid-liquid two-phase flows in microchannels.
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This page is a summary of: A Review on the Hydrodynamics of Taylor Flow in Microchannels: Experimental and Computational Studies, Processes, May 2021, MDPI AG,
DOI: 10.3390/pr9050870.
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