¡¡¡¡Ãä¬É¼h boundary layer
Ãä¬É¼h¤èµ{ boundary layer equation
Ãä¬É¼h¤ÀÖà boundary layer separation
Ãä¬É¼h«p«× boundary layer thickness
Ãä¬É¼h²z½× boundary later theory
Ãä¬É¼hÂà±Ê boundary layer transition
Ãä¬É±ø¥ó numerical boundary condition
Ãä¬É¤¸ªk boundary element method
ÅܤÀªk variational method
¼Ð°OÊI®æªk marker and cell method, MAC method
ªíÆ[Öß«× apparent viscosity
ªí±ªi surface wave
ªí±¤O surface force
ªí±±i¤O surface tension
ªí±±i¤Oªi capillary wave
ªi°ª wave height
ªi¦C wave train
ªi¯à wave energy
ªi¸s wave group
ªi³t wave speed, wave velocity
ªiªý wave drag
§B®æ´µ¤èµ{ Burgers equation
§B§V§Q©w²z Bernonlli theorem
§B§V§Q¤èµ{ Bernoulli equation
ªy poise
ªyµÂ¸¬y Poiseuille flow
¤£©w±`ªk time-dependent method
¤£³W«hªi irregular wave
¤£¥iÀ£ÁY¬y[°Ê] incompressible flow
¤£¥iÀ£ÁY¬yÊ^ incompressible fluid
¤£¥iÀ£ÁY©Ê incompressibility
¤£Ã©w©Ê instability
¥¬©Ô¥ð´µ¸Ñ Blasius solution
³¡¤À¬Û¦ü partial similarity
´ú³tªk anemometry
´úÀ£¤Õ pressure tap
¼h¬y laminar flow
¼h¬yÃä¬É¼h laminar boundary layer
¼h¬y¤ÀÖà laminar separation
ºUÉa¬y aerated flow
¶WªÅ¤Æ¬y supercavitating flow
¶WªÅªw supercavity
¶WªÅªw¬y supercavity flow
¶WÁn³t¬y[°Ê] supersonic flow
¶WÀ£[±j] over pressure
¼éªi tidal wave
¨I[°°ï]¿n sedimentation, deposition
¨I¿nª« sediment, deposit
¨I°³t«× settling velocity
¦¨®Ö nucleation
¤Ø«×®ÄÀ³ scale effect
½ÄÀ»ªi shock wave
¥X¤f exit, outlet
¥X¤fÀ£¤O exit pressure
¶Ç¼½ propagation
¶Ç¾É conduction
¶Ç·P¾¹ transducer, sensor
¶Ç¼ö¨t¼Æ heat transfer coefficient
¶Ç½è¨t¼Æ mass transfer coefficient
²îªi ship wave
¦¸¼h sublayer
¹F®Ô¨©º¸¨Ë¹ù d'Alembert paradox
¤j´õ¼ÒÀÀ large eddy simulation
³æ½Õ®t¤À®æ¦¡ monotone difference scheme
³æ¬Û¬y single phase flow
³æ²Õ¥÷¬y single-component flow
·í¦a°¨»®¼Æ local Mach number
µ¥æi¬y isentropic flow
§C³tªÅÉa°Ê¤O¾Ç low-speed aerodynamics
¨f¨½§J¹pÃä¬É±ø¥ó Dirichlet boundary condition
©³À£ base pressure
¦a±®ÄÀ³ ground effect
©w²z pi theorem, Buckingham theorem
©w¶É¤¤¤ß metacenter
°Ê¤O¬Û¦ü[©Ê] dynamic similarity
°Ê¤OÖß©Ê dynamic viscosity
°Ê¶q¤èµ{ momentum equation
°Ê¶q«p«× momentum thickness
°Ê¶q¥æ´« momentum transfer
°Ê¶q¦uùÚ conservation of momentum
°ÊºAÅTÀ³ dynamic response
°ÊºA®Õã dynamic calibration
°ô´H®ÄÀ³ blockage effect
°ô¶ë blockage
§ùºÖ¯S-¥±Äõ§Jº¸®æ¦¡ Dufort-Frankel scheme
¹ï¬y convection
¹ï¬y¶Ç¼ö convective heat transfer
¹ï¬yÂX´²¤èµ{ convection diffusion equation
¹ï¬y´õM convective cell
¶wÊ^ blunt body
¶wÀYÊ^ bluff body
¦hºÞÀ£±jp multiple manometer
¦h«¤Ø«×°ÝÃD multiple scale problem
¦h«ÊI®æªk multi- grid method
¤G¦¸¬y secondary flow
¤Gºû¬y two-dimensional flow
¤ÏÂX´²®t¤À®æ¦¡ anti-diffusion difference scheme
¤Ï¬y reverse flow
¤Ï®g reflection
¤ÏÀ£ back pressure
©ñ¤j¯x°} amplification matrix
©ñ¤j¦]¤l amplification factor
µá§J©w«ß Fick law
«D©w±`¬y unsteady flow, non-steady flow
«Dµ´¼ö¬y diabatic flow
«D§¡¤Ã¬y nonuniform flow
«D¥¿Å¬y[°Ê] non-equilibrium flow
«D½u©Êªi nonlinear wave
«D½u©Ê¤£Ã©w©Ê nonlinear instability
ªmÄË boiling
¤À¥¬ distribution
¤À¨Bªk fractional step method
¤À¼h¬y stratified flow
¤ÀÖÃÂI separation point
¤ÀÖìy separated flow
¤À¤lÂX´² molecular diffusion
·¬} wind tunnel
·³tºÞ Pitot- static tube
¶¾.¿Õ¥ì°Ò±ø¥ó von Neumann condition
¿ç®g¶Ç¼ö radiative heat transfer
¯BÊ^ floating body
¥±³Ò¼w¼Æ Froude number
Î`¶Õ complex potential
Î`³t«× complex velocity
ªþ¥[½è¶q added mass ,associated mass
ªþ±¼h boundary layer
ªþÊ^¿Eªi attached shock wave
ªþµÛÂI attachment point
ªþµÛ´õ bound vortex
»\´µ¯S¯Çªi Gerstner wave
°ª«×¤ôÀY elevating head
°ª¤À¿ë²v®æ¦¡ high resolution scheme
°ª³tªÅÉa°Ê¤O¾Ç high-speed aerodynamics
¤à¥»¿Õ¤Ò®æ¦¡ Godunov scheme
®æ©Ô´µÀN¤Ò¼Æ Grashof number
ÌÛ«¬ configuration
©t¥ß¤l soliton
©ä¨¤¬y corner flow
ºÞ¬y pipe flow, tube flow