Liquid-Vapor Phase-Change Phenomena

By V. Carey. 2020

779 citations recorded by the source corpus.

Emerging Concepts in Analysis and Applications of HydrogelsIntroduction to Statistical PhysicsHandbook of Phase ChangeLiquid-Vapor PhaseChange Phenomena: An Introduction To The Thermophysics Of vaporization and condensation in heat transfer equipmentDrop-Surface InteractionsHandbook of Thermal Science and EngineeringElectronics CoolingHeat TransferElectrical Power Equipment Maintenance and TestingLiquid Vapor Phase Change PhenomenaConvective Boiling and CondensationTransport Phenomena in Multiphase SystemsLiquid CrystalsMicro Transport Phenomena During BoilingCavitation and Bubble DynamicsApplied Surface Thermodynamics, Second EditionNucleation TheoryFundamentals of Multiphase Heat Transfer and FlowClassic Heathkit Electronic Test EquipmentPhase Transition DynamicsHeat Routing with Liquid-vapor Phase Change Phenomena in Microscale Porous MediaEncyclopedia of Microfluidics and NanofluidicsDroplet Wetting and EvaporationApparent and Microscopic Contact AnglesHeat Transfer Enhancement of Heat ExchangersHandbook of Surface and Colloid ChemistryKinetics of EvaporationThe Physics of Phase TransitionsKinetic Theory of NucleationTheory, Numerics and Applications of Hyperbolic Problems IPhase Change in MechanicsSolutions Manual Liquid Vapor Phase Change PhenomenaPhase Transitions in FoodsHeat TransferFundamentals of Heat Exchanger DesignLiquid-Vapor Phase-Change PhenomenaPhase Change Materials and Their ApplicationsGeothermal EngineeringNucleation Theory and ApplicationsMicrochannel Phase Change Transport Phenomena

Subfields: Computational Mechanics, Electrical and Electronic Engineering

View Paper: https://www.semanticscholar.org/paper/586d16abf3d7a6f2ddc8d6e355252e02f5352605

How researchers see this paper

The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.

In Computational Mechanics

In Electrical and Electronic Engineering

Citations in the corpus

Lattice Boltzmann modeling of boiling heat transfer: The boiling curve and the effects of wettability (2015, background): “Introduction Boiling is commonly observed in our daily life and is ubiquitous in nature as well as in many industrial applications [1-3].”
Ageing and burst of surface bubbles (2018, background): “Their number increases as we increase water temperature, as expected from inhomogeneous bubble nucleation in the nano- or microcrevasses of tube walls (Carey 2007).”
Enhancement of Natural Convection and Pool Boiling Heat Transfer via Ultrasonic Vibration (2004, background): “Since thermal bubbles agitate microconvection around the heating wire as well as carry away latent heat of vaporization [9], the heat transfer coefficient without ultrasound is much higher as compared with that of natural convection.”
Condensation on superhydrophobic copper oxide nanostructures (2012, methodology): “Observations of nucleation and growth behavior captured using ESEM, coupled with a model of the heat transfer process on superhydrophobic CuO surfaces, suggest that these surfaces may only become advantageous over a smooth hydrophobic surface for nucleation densities corresponding to L/(2rp) → 1 wit”
Phase change phenomena in silicon microchannels (2005, background): “The two-phase flow transitions along the flow direction into four regimes—bubbly flow (liquid flow carrying vapor bubbles), slug/plug flow (liquid flow with coalesced bubbles), annular flow (a fast-moving vapor core wrapped by a thin, slowly-moving liquid layer), and mist flow (a mixture of vapor an”
Microscale heat transfer measurements during pool boiling of FC-72: effect of subcooling (2004, background): “Many mechanisms for bubble heat transfer have been suggested (see Carey [1] for a short review) but the microconvection model of Mikic and Rosenhow [2] and the microlayer model of Cooper and Lloyd [3] are the most widely cited.”
Flow boiling of water in a circular staggered micro-pin fin heat sink (2008, background): “, bubbly flow is associated with nucleate boiling and annular flow pattern with convective film boiling [42].”
Performance characteristics of pulsating heat pipes as integral thermal spreaders (2009, background): “This may allow slug and annular flows to be sustained at higher liquid and gas superficial velocities [20].”
Intensive literature review of condensation inside smooth and enhanced tubes (2009, methodology): “Carey [28] studied on the solution of convective condensation in round tubes during an annular flow regime.”
Dropwise Condensation on Micro- and Nanostructured Surfaces (2014, neutral): “supersaturation than is required when condensing on hydrophilic surfaces [13,148].”
Boiling heat transfer on superhydrophilic, superhydrophobic, and superbiphilic surfaces (2012, background): “While flow boiling describes the boiling of liquids forced to move along hot solid surfaces, pool boiling, the mode studied here, describes a fluid heated on a hot surface and transported by buoyancy [16].”
Surface wettability control by nanocoating: The effects on pool boiling heat transfer and nucleation mechanism (2009, methodology): “An excellent review of nucleation theory was given by Carey [1].”
Microchannel size effects on local flow boiling heat transfer to a dielectric fluid (2008, background): “] [26] [27] [28] [29] [30] [31] [32] [33] [34] [12] G = 250 kg/m(2)s w = 250 μm”
Water vapour, sonoluminescence and sonochemistry (2000, methodology): “The equation derived from kinetic theory given in Carey (1992) is used to compute the rate of evaporation and condensation at the bubble surface.”
Vapor chambers with jumping-drop liquid return from superhydrophobic condensers (2013, background): “For dropwise condensation on the superhydrophobic condenser, the phase-change heat transfer can be additionally affected by the capillary resistance (important for nanometric drops) and conduction resistance (important for millimetric drops) [20,21].”