ISSN 印刷: 2169-2785
Interfacial Phenomena and Heat Transfer
Interfacial Phenomena and Heat Transfer aims to serve as a forum to advance understanding of fundamental and applied areas on interfacial phenomena, fluid flow, and heat transfer through interdisciplinary research. The special feature of the Journal is to highlight multi-scale phenomena involved in physical and/or chemical behaviors in the context of both classical and new unsolved problems of thermal physics, fluid mechanics, and interfacial phenomena. This goal is fulfilled by publishing novel research on experimental, theoretical and computational methods, assigning priority to comprehensive works covering at least two of the above three approaches. The scope of the Journal covers interdisciplinary areas of physics of fluids, heat and mass transfer, physical chemistry and engineering in macro-, meso-, micro-, and nano-scale. As such review papers, full-length articles and short communications are sought on the following areas: intense heat and mass transfer systems; flows in channels and complex fluid systems; physics of contact line, wetting and thermocapillary flows; instabilities and flow patterns; two-phase systems behavior including films, drops, rivulets, spray, jets, and bubbles; phase change phenomena such as boiling, evaporation, condensation and solidification; multi-scaled textured, soft or heterogeneous surfaces; and gravity dependent phenomena, e.g. processes in micro- and hyper-gravity. The Journal may also consider significant contributions related to the development of innovative experimental techniques, and instrumentation demonstrating advancement of science in the focus areas of this journal.
INTERFACIAL PHENOMENA AND HEAT TRANSFER IN PROTON EXCHANGE MEMBRANE FUEL CELLS
TWO-PHASE FLOW OF R245FA IN A 1MM CORRUGATION DEPTH PLATE HEAT EXCHANGER − PART II: FLOW BOILING HEAT TRANSFER
COMBINED EFFECT OF SUBSTRATE WETTABILITY AND THERMAL PROPERTIES ON EVAPORATION DYNAMICS OF A SESSILE DROPLET
VISUAL OBSERVATION OF TWO-PHASE FLOW IN INTERDIGITATED CHANNELS OF A DIRECT METHANOL FUEL CELL
DETERMINATION OF APPARENT CONTACT ANGLE AND SHAPE OF A STATIC PENDANT DROP ON A PHYSICALLY TEXTURED INCLINED SURFACE