Nothing Special   »   [go: up one dir, main page]

Smit et al., 2002 - Google Patents

Heat transfer coefficients during condensation of the zeotropic refrigerant mixture HCFC-22/HCFC-142b

Smit et al., 2002

View PDF
Document ID
16683066568229584041
Author
Smit F
Thome J
Meyer J
Publication year
Publication venue
J. Heat Transfer

External Links

Snippet

Heat transfer coefficients during condensation of zeotropic refrigerant mixtures were obtained at mass fractions of 90 percent/10 percent, 80 percent/20 percent, 70 percent/30 percent, 60 percent/40 percent, and 50 percent/50 percent for HCFC-22/HCFC-142b and for …
Continue reading at www.academia.edu (PDF) (other versions)

Similar Documents

Publication Publication Date Title
Wen et al. Evaporation heat transfer and pressure drop characteristics of R-290 (propane), R-600 (butane), and a mixture of R-290/R-600 in the three-lines serpentine small-tube bank
Zhuang et al. Experimental investigation on flow condensation heat transfer and pressure drop of R170 in a horizontal tube
Del Col et al. Condensation of zeotropic mixtures in horizontal tubes: new simplified heat transfer model based on flow regimes
Smit et al. Heat transfer coefficients during condensation of the zeotropic refrigerant mixture HCFC-22/HCFC-142b
Mauro et al. Flow boiling heat transfer and pressure drop data of non-azeotropic mixture R455A in a horizontal 6.0 mm stainless-steel tube
Son et al. Condensation heat transfer characteristics of CO2 in a horizontal smooth-and microfin-tube at high saturation temperatures
López-Belchí et al. Condensing two-phase pressure drop and heat transfer coefficient of propane in a horizontal multiport mini-channel tube: Experimental measurements
Hassan Investigation of performance of heat pipe as heat exchanger using alternative refrigerants
Nozu et al. Condensation of refrigerants in horizontal, spirally grooved microfin tubes: numerical analysis of heat transfer in the annular flow regime
Kundu et al. Flow boiling heat transfer characteristics of R407C inside a smooth tube with different tube inclinations
da Silva Lima et al. Ammonia two-phase flow in a horizontal smooth tube: flow pattern observations, diabatic and adiabatic frictional pressure drops and assessment of prediction methods
Lee et al. Condensation heat transfer and pressure drop characteristics of R-290, R-600a, R-134a and R-22 in horizontal tubes
Chingulpitak et al. Two-phase flow model of refrigerants flowing through helically coiled capillary tubes
Rivera et al. Boiling heat transfer coefficients inside a vertical smooth tube for water/ammonia and ammonia lithium nitrate mixtures
Smit et al. R-22 and zeotropic R-22/R-142b mixture condensation in microfin, high-fin, and twisted tape insert tubes
Moghaddam et al. Flow pattern maps, pressure drop and performance assessment of horizontal tubes with coiled wire inserts during condensation of R-600a
Olivier et al. Pressure drop during refrigerant condensation inside horizontal smooth, helical microfin, and herringbone microfin tubes
Hossain et al. Entropy generation minimization for boiling flow inside evaporator tube with R32 and R410A refrigerants: A comparison of different two-phase flow models
Sweeney et al. The heat transfer and pressure drop behavior of a zeotropic refrigerant mixture in a microfinned tube
Garimella et al. Heat transfer during near-critical-pressure condensation of refrigerant blends
Jiang et al. Measurement of condensation heat transfer coefficients at near-critical pressures in refrigerant blends
Hu et al. Heat transfer characteristics of refrigerant-oil mixtures flow boiling in a horizontal C-shape curved smooth tube
Bukasa et al. Heat transfer performance during condensation inside spiralled micro-fin tubes
Zilly et al. Condensation of CO2 at low temperature inside horizontal microfinned tubes
Mitra Supercritical gas cooling and condensation of refrigerant R410A at near-critical pressures