Topics
heat exchangerDevice
refrigerantChemical compound
Many factors, such as loading, flow circuiting, phase separation, and distributor effectiveness determine how uniformly refrigerant is distributed within a multicircuited heat exchanger. This work describes the development of a test procedure for evaluation of refrigerant flow distribution in a multicircuited round tube evaporator as well as a comparison between a typical valve/distributor combination and a novel expansion device that integrates the distributor into the valve body. The results of this study show that refrigerant flow distribution can be made more uniform through implementation of this device
The performance of air to refrigerant heat exchangers can be affected greatly by both refrigerant an...
To provide essential design information of microchannel evaporators, an experimental study was condu...
三重大学大学院工学研究科博士後期課程システム工学専攻In order to improve the performance of a heat pump system, this research h...
Many factors, such as loading, flow circuiting, phase separation, and distributor effectiveness dete...
This study aims at understanding flow distribution exiting thermostatic expansion valve and through ...
Conical refrigerant distributors are usually used to improve the distribution of two-phase flow to e...
The biggest challenge in the evaporator distribution system is to maintain a uniform distribution of...
A heat exchanger that arranges flat tubes horizontally has a vertical header that distributes the re...
Brazed aluminum heat exchangers are recently considered as evaporators of automotive or residential...
Thermostatic expansion valves (TEV) and electronic expansion valves (EEV) are expansion devices comm...
A microchannel heat exchanger applied to air conditioners has advantages because of its high heat tr...
In a refrigeration cycle, condensed liquid refrigerant is expanded to a two-phase fluid entering the...
This thesis presents the results of the study to experimentally examine effects of the distribution ...
This paper explores the effects of fluid properties on two-phase flow in the vertical header and ref...
Maldistribution of refrigerant two-phase flow in a DX evaporator is almost inevitable in real applic...
The performance of air to refrigerant heat exchangers can be affected greatly by both refrigerant an...
To provide essential design information of microchannel evaporators, an experimental study was condu...
三重大学大学院工学研究科博士後期課程システム工学専攻In order to improve the performance of a heat pump system, this research h...
Many factors, such as loading, flow circuiting, phase separation, and distributor effectiveness dete...
This study aims at understanding flow distribution exiting thermostatic expansion valve and through ...
Conical refrigerant distributors are usually used to improve the distribution of two-phase flow to e...
The biggest challenge in the evaporator distribution system is to maintain a uniform distribution of...
A heat exchanger that arranges flat tubes horizontally has a vertical header that distributes the re...
Brazed aluminum heat exchangers are recently considered as evaporators of automotive or residential...
Thermostatic expansion valves (TEV) and electronic expansion valves (EEV) are expansion devices comm...
A microchannel heat exchanger applied to air conditioners has advantages because of its high heat tr...
In a refrigeration cycle, condensed liquid refrigerant is expanded to a two-phase fluid entering the...
This thesis presents the results of the study to experimentally examine effects of the distribution ...
This paper explores the effects of fluid properties on two-phase flow in the vertical header and ref...
Maldistribution of refrigerant two-phase flow in a DX evaporator is almost inevitable in real applic...
The performance of air to refrigerant heat exchangers can be affected greatly by both refrigerant an...
To provide essential design information of microchannel evaporators, an experimental study was condu...
三重大学大学院工学研究科博士後期課程システム工学専攻In order to improve the performance of a heat pump system, this research h...
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