Adrian Bejan(Editor), Allan D. Kraus (Editor). Heat transfer Handbok (776115), страница 30
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— John Wiley & Sons / Page 255 / 2nd Proofs / Heat Transfer Handbook / Bejan[255], (95)Lines: 4352 to 4420———0.16508pt PgVar———Normal PagePgEnds: TEX[255], (95)256123456789101112131415161718192021222324252627282930313233343536373839404142434445QQsqq̇q RRcRfrSStsTT∗tVWXxyZzCONDUCTION HEAT TRANSFERcumulative heat loss, Jstrength of line sink, W/mrate of heat transfer, Wvolumetric rate of energy generation, W/m3heat flux, W/m2radius, dimensionlessthermal resistance, K/Wcontact resistance, m2 ·K/Wfreezing interface location, dimensionlesscylindrical or spherical coordinate, mshape factor for two-dimensional conduction, mStefan number, dimensionlessgeneral coordinate, mtemperature, KKirchhoff transformed temperature, Ktime, svolume, m3depth, mdistance, dimensionlessCartesian length coordinate, mCartesian length coordinate, maxial distance, dimensionlessCartesian or cylindrical length coordinate, mGreek Letter Symbolsαthermal diffusivity, m 2/s∗ratio of thermal diffusivities, dimensionlessαβconstant, K−1phase angle, radγlength-to-radius ratio, dimensionlessδfin thickness, mfin effectiveness, dimensionlesssurface emissivity or emittance, dimensionlessηfin efficiency, dimensionlessθtemperature difference, Ktemperature parameter, dimensionlesscoordinate in cylindrical or spherical coordinate system,dimensionlesstemperature, dimensionlessθ∗nth eigenvalue, dimensionlessλnνorder of Bessel function, dimensionlessρdensity, kg/m3σStefan–Boltzmann constant, W/m2 ·K 4τtime, dimensionlessφtemperature difference, KBOOKCOMP, Inc.
— John Wiley & Sons / Page 256 / 2nd Proofs / Heat Transfer Handbook / Bejan[256], (96)Lines: 4420 to 4449———0.20833pt PgVar———Normal PagePgEnds: TEX[256], (96)REFERENCES123456789101112131415161718192021222324252627282930313233343536373839404142434445ω257indicates a function, dimensionlessspherical coordinate, dimensionlessangular frequency, rad/sshape parameter, dimensionlessRoman Letter Subscriptsafin tipbfin basecondconductionconvconvectionffinfreezing interfacefluidiintegerinitialidealjintegerlliquidmmeanmeltingmaxmaximumnnormal directionoptoptimumssurface conditionsolidtfin tip0condition at x = 0 or r = 0Additional Subscript and Superscript∞free stream conditionpintegerREFERENCESAbramowitz, M., and Stegun, I.
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