- Page 2: UNIVERSITYOF FLORIDALIBRARIESiLaPHY
- Page 5: Unit Operations of Sanitary Enginee
- Page 8 and 9: Copyright © 1961 by John Wiley & S
- Page 11: PrefaceTraditionally, the scope of
- Page 17 and 18: 1Fluid transport inclosed conduits1
- Page 19 and 20: 'FLUID TRANSPORT IN CLOSED CONDUITS
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- Page 29 and 30: 1111 i1 11 1 ,111 1FLUID TRANSPORT
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- Page 49 and 50: ' ,. DatumFLUID TRANSPORT IN OPEN C
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yFLUID TRANSPORT IN OPEN CONDUITS 4
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FLUID TRANSPORT IN OPEN CONDUITS 49
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FLUID TRANSPORT IN OPEN CONDUITS 51
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FLUID TRANSPORT IN OPEN CONDUITS531
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FLUID TRANSPORT INOPEN CONDUITS551.
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FLUID TRANSPORT IN OPEN CONDUITS 57
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FLUID TRANSPORT IN OPEN CONDUITS 59
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1 bladesMIXING 61Impellers fall int
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MIXING 63FIGURE 3-3.Propeller mixer
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o§ ill* elf= S3 = a= t=».-'••
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—-to be 4 N P - K(N Re ) p (N Fry
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MIXING 69power curves are approxima
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MIXING 71s> Process AFIGURE 3-6.Eff
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MIXING 73In equation form, the corr
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MIXING 753-7. Gas TransferGas trans
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MIXING 77EXAMPLE 3-3A gas transfer
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MIXING 79and in the system as a who
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4Sedimentation4-1. Types of Sedimen
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SEDIMENTATION 83When an external fo
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SEDIMENTATION 8510 510 4<? 10*10 :o
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SEDIMENTATION 87/ </4f/'<h(a)/ A/(b
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SEDIMENTATION 89at a given depth an
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SEDIMENTATION 912. Compute the sett
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SEDIMENTATION 93q ,The over-all rem
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SEDIMENTATION 95FIGURE 4-10.Zone fo
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C--b^SEDIMENTATION 97The concentrat
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SEDIMENTATION 99Rearranging terms,t
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SEDIMENTATION 1012. Estimate the co
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.fl,.1—'saBdK)+3V03 >>« d 93N Pi
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105
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SEDIMENTATION 107Examples of vertic
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tSEDIMENTATION 1 09to the area requ
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FLOTATION AND AEROSOL SEPARATION 11
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FLOTATION AND AEROSOL SEPARATION 11
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115II lit n=2 -c o
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FLOTATION AND AEROSOL SEPARATION 11
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,'1j! —1—'11 1 1'1'1tioI—XC\J
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FLOTATION AND AEROSOL SEPARATION 12
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=FLOTATION AND AEROSOL SEPARATION 1
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FLOTATION AND AEROSOL SEPARATION 12
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FLOTATION AND AEROSOL SEPARATION 12
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FLOTATION AND AEROSOL SEPARATION 12
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FLOTATION AND AEROSOL SEPARATION 13
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—FLOTATION AND AEROSOL SEPARATION
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FLOTATION AND AEROSOL SEPARATION 13
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FLOW THROUGH BEDS OF SOLIDS 137Slow
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FLOW THROUGH BEDS OF SOLIDS1391000J
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FLOW THROUGH BEDS OF SOLIDS 14Subst
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FLOW THROUGH BEDS OF SOLIDS 1433. D
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FLOW THROUGH BEDS OF SOLIDS145= num
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''FLOW THROUGH BEDS OF SOLIDS 147t
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FLOW THROUGH BEDS OF SOLIDS 149A re
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CFLOW THROUGH BEDS OF SOLIDS3. Comp
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FLOW THROUGH BEDS OF SOLIDS 153FIGU
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ft,<-t-lo>-.02| 3oOc0)a'3.>> uo ^02
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FLOW THROUGH BEDS OF SOLIDS 157Top
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7Vacuum filtration7-1. Introduction
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VACUUM FILTRATION 161is divided int
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VACUUM FILTRATION 163Since the chan
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VACUUM FILTRATION 165In vacuum nitr
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-VACUUM FILTRATION 1672. Weight of
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lI1I l IVACUUM FILTRATION16980i i i
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8Gas transfer8-1. Mass Transfer Ope
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GAS TRANSFER 173Suppose, for exampl
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GAS TRANSFER 175The terms enclosed
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GAS TRANSFER 1778-5. Over-All Coeff
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GAS TRANSFER 179The preceding expre
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GAS TRANSFER 181employed not only a
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GAS TRANSFER 183where Klcl, K G a =
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GAS TRANSFER 185Nusselt number for
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GAS TRANSFER 187The exponents 1 —
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GAS TRANSFER189GasLiquidoutlet P2-
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GAS TRANSFER 1910.120.100.08S•iff
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GAS TRANSFER 193S0 2in the exit and
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GAS TRANSFER195Equations 8-33 and 8
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:GAS TRANSFER 197H„ = i(^W- = i(^
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GAS TRANSFER 199At the mean liquid
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GAS TRANSFER201and that in the gas
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GAS TRANSFER 203e= porosity of pack
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GAS TRANSFER 205COPiStage 1IA c 2St
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GAS TRANSFER 207K f, K", K'" Consta
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ADSORPTION AND LEACHING 209Waal for
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ADSORPTION AND LEACHING 211ViLoSing
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:ADSORPTION AND LEACHING 213The sub
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ADSORPTION AND LEACHING 215Material
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ADSORPTION AND LEACHING 217weight f
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HEAT TRANSFER 219capacity or specif
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HEAT TRANSFER 221Cold surfaceHot su
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HEAT TRANSFEREquation 10-9 is somet
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HEAT TRANSFER 225Temperaturegradien
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HEAT TRANSFER 227where h = heat tra
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HEAT TRANSFER 22910-7. Over-All Coe
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HEAT TRANSfEl? 2315. Compute temper
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HEAT TRANSFER 233eA^^^^^2^,J .A Ti^
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'[HEAT TRANSFER 235AnnulusfluidsTub
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HEAT TRANSFER 237between the energy
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11Evaporation11-1. IntroductionThe
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EVAPORATION 241VaporEntrainmentsett
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EVAPORATION 243Impingement bafflefo
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EVAPORATION 245where qn = rate of h
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EVAPORATION 247$> m «eZZ —42- 3^
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-EVAPORATION 249Contact condenserCo
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EVAPORATION 251Solution1. As a firs
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EVAPORATION 2537. Re-estimate the c
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12Psychrometry andhumidiflcation12-
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PSYCHROMETRY AND HUMIDIFICATION 257
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. Humid1ii11111111PSYCHROMETRY AND
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PSYCHROMETRY AND HUMIDIFICATION 261
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PSYCHROMETRY AND HUMIDIFICATION 263
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PSYCHROMETRY AND HUMIDIFICATION 265
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PSYCHROMETRY AND HUMIDIFICATION 267
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PSYCHROMETRY AND HUMIDIFICATION2690
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IIPSYCHROMETRY AND HUMIDIFICATION 2
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PSYCHROMETRY AND HUMIDIFICATION 273
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DRYING 275from one end to the other
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DRYING 277Relief valveCycloneStorag
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DRYING 279FIGURE 13-2.Rate-of-dryin
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DRYING 281where hg = heat transfer
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DRYING 28313-5. Design of Continuou
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DRYING 285heated in gas or oil burn
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DRYING 287and the required diameter
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Appendix iDENSITY OF WATER AS A FUN
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Appendix 3VISCOSITY OF WATER AND OF
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Appendix 5NOMOGRAPH FOR THE SOLUTIO
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Appendix 7U.S.SIEVE SERIESSieve Sie
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APPENDIX 8 297SOLUBILITY DATA FOR A
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Appendix 10DRY SATURATED STEAM: TEM
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Appendix 12THERMAL CONDUCTIVITIESTe
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Appendix 13CHARACTERISTICS OF TUBIN
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INDEX 305Dehumidification, 266Densi
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INDEX 307efficients; Mass transfer
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*.' i g15 JHz-if^Due Returnedjwuius