Study of the Mechanism of Burn-Out in Boiling System of High Burn-Out Heat Flux
スポンサーリンク
概要
- 論文の詳細を見る
Burn-out phenomena are studied for two special systems of boiling which are both realized in the saturated nucleate boiling of water at atmospheric pressure on a horizontal 10mm dia. copper heated surface.First, it is attempted by mechanical means to cause a forced collapse of the vapor masses which are generated periodically on the heated surface. In this case, burn-out heat flux q_c increases, but the velocity of fluid movement concerned with the collapse of vapor mass is restricted so that the increase of q_c is limited.Second, the heated surface is supplied with liquid by means of a small liquid jet. In this case, burn-out appears with a mechanism which is different from ordinary pool boiling. Splashing of liquid due to the violent effusion of vapor from the heated surface interrupts the part of supplied liquid in reaching the heated surface so that the quantity of liquid on the heated surface balances finally the heat flux, and burn-out occurs. For the burn-out of this type, q_c can be increased steadily by increasing the velocity of liquid jet.
- 一般社団法人日本機械学会の論文
著者
-
Katto Yoshiro
Faculty Of Engineering University Of Tokyo Bunkyo-ku
-
Katto Yoshiro
Faculty Of Engineering University Of Tokyo
-
KUNIHIRO Masatsugu
Faculty of Engineering, University of Tokyo
-
Kunihiro Masatsugu
Faculty Of Engineering University Of Tokyo
関連論文
- Turbulent Heat Transfer of a Gas flow on an Evaporation Liquid Surface
- Law of Micro-Liquid-Layer Formation between a Growing Bubble and a Solid Surface with a Special Refrence to Nucleate Boiling
- Thermal Onset of Oscillation in a Pipe Containing Heat Sources
- Study of Critical Flow : Completely Separated Gas-Liquid Two-Phase Flow
- Dynamics of Compressible Saturated Two-Phase Flow : Critical Flow
- Nucleate and Transition Boiling in a Narrow Space between Two Horizontal, Parallel Disk-Surfaces
- Peculiarity of Evaporating Liquid-Surface with Reference to Turbulent Heat Transfer
- Dynamics of Compressible Saturated Two-Phase Flow : Critical Flow-sequel, and Flow in a Pipe
- Study of the Mechanism of Burn-Out in Boiling System of High Burn-Out Heat Flux