Introduction to Food Process EngineeringSpringer Science & Business Media, 2003 - 466 стор. This is a work on food process engineering which treats the principles of processing in a scientifically rigorous yet concise manner, and which may be used as a lead in to more specialized texts for higher study. It is equally relevant to those in the food industry who desire a greater understanding of the principles of the food processes with which they work. |
Зміст
An Introduction to Food Process Engineering | 1 |
Dimensions Quantities and Units | 5 |
22 DEFINITIONS OF SOME BASIC PHYSICAL QUANTITIES | 7 |
223 Force and Momentum | 8 |
225 Pressure | 9 |
226 Work and Energy | 10 |
23 DIMENSIONAL ANALYSIS | 11 |
232 Dimensional Analysis | 12 |
1023 The Fourier Number | 241 |
1025 Heisler Charts | 247 |
1032 Pasteurisation | 249 |
1033 Commercial Sterilisation | 250 |
104 KINETICS OF MICROBIAL DEATH | 251 |
1042 Process Lethality | 253 |
1043 Spoilage Probability | 255 |
106 THE MATHEMATICAL METHOD | 259 |
Thermodynamics and Equilibrium | 15 |
312 Temperature Scale | 16 |
314 Other Definitions | 17 |
32 THE GASEOUS PHASE | 18 |
323 Pure Component Vapour Pressure | 22 |
324 Partial Pressure and Pure Component Volume | 23 |
33 THE LIQUIDVAPOUR TRANSITION | 26 |
332 Isotherms and Critical Temperature | 28 |
334 VapourLiquid Equilibrium | 29 |
34 FIRST LAW OF THERMODYNAMICS | 33 |
35 HEAT CAPACITY | 35 |
351 Heat Capacity at Constant Volume | 36 |
352 Heat Capacity at Constant Pressure | 37 |
353 The Relationship between Heat Capacities for a Perfect Gas | 38 |
354 The Pressure Volume Temperature Relationship for Gases | 39 |
36 SECOND LAW OF THERMODYNAMICS | 40 |
361 The Heat Pump and Refrigeration | 41 |
362 Consequences of the Second Law | 42 |
Material and Energy Balances | 47 |
421 Overall Material Balances | 48 |
423 Component Material Balances | 50 |
424 Recycle and Bypass | 53 |
43 THE STEADYFLOW ENERGY EQUATION | 55 |
44 THERMOCHEMICAL DATA | 57 |
442 Latent Heat of Vaporisation | 64 |
45 ENERGY BALANCES | 66 |
The Fundamentals of Rate Processes | 73 |
53 MOMENTUM TRANSFER | 74 |
54 MASS TRANSFER | 75 |
55 TRANSPORT PROPERTIES | 76 |
56 SIMILARITIES BETWEEN HEAT MOMENTUM AND MASS TRANSFER | 77 |
The Flow of Food Fluids | 79 |
622 Reynolds Experiment | 80 |
623 Principle of Continuity | 83 |
624 Conservation of Energy | 84 |
63 LAMINAR FLOW IN A PIPELINE | 86 |
64 TURBULENT FLOW IN A PIPELINE | 88 |
65 PRESSURE MEASUREMENT AND FLUID METERING | 91 |
652 The Orifice Meter | 92 |
653 The Venturi Meter | 95 |
66 PUMPING OF LIQUIDS | 96 |
661 The Centrifugal Pump | 99 |
662 Positive Displacement Pumps | 100 |
663 Net Positive Suction Head | 101 |
67 NONNEWTONIAN FLOW | 102 |
68 TIMEINDEPENDENT RHEOLOGICAL MODELS | 104 |
681 Hookean Solids | 105 |
684 The Power Law | 107 |
685 Laminar Flow of Power Law Fluids | 110 |
686 Other Timeindependent Models | 113 |
69 TIMEDEPENDENT RHEOLOGICAL MODELS | 114 |
610 VISCOELASTICITY | 115 |
6102 Mechanical Analogues | 116 |
611 RHEOLOGICAL MEASUREMENTS | 121 |
Heat Processing of Foods | 131 |
722 Conduction in a Composite Slab | 134 |
723 Radial Conduction | 136 |
724 Conduction in a Composite Cylinder | 139 |
725 Conduction through a Spherical Shell | 140 |
732 Simultaneous Convection and Conduction | 142 |
733 Radial Convection | 144 |
734 Critical Thickness of Insulation | 146 |
735 Correlations for Film Heat Transfer Coefficients | 147 |
736 Overall Heat Transfer Coefficient | 149 |
74 HEAT EXCHANGERS | 152 |
742 Sizing of Heat Exchangers | 154 |
75 BOILING AND CONDENSATION | 163 |
752 Condensation | 167 |
76 HEAT TRANSFER TO NONNEWTONIAN FLUIDS | 168 |
77 PRINCIPLES OF RADIATION | 171 |
772 Black Body Radiation | 173 |
773 Emissivity and Real Surfaces | 174 |
774 Radiative Heat Transfer | 175 |
775 View Factors | 177 |
78 MICROWAVE HEATING OF FOODS | 179 |
782 Generation of Microwaves | 180 |
784 Microwave Ovens and Industrial Plant | 182 |
785 Advantages and Applications of Microwave Heating | 183 |
Mass Transfer | 191 |
82 MOLECULAR DIFFUSION | 192 |
822 Diffusivity | 193 |
823 Concentration | 194 |
83 CONVECTIVE MASS TRANSFER | 195 |
832 Film Mass Transfer Coefficients | 197 |
833 Overall Mass Transfer Coefficients | 198 |
834 Addition of Film Mass Transfer Coefficients | 199 |
835 Resistances to Mass Transfer in Food Processing | 201 |
837 Alternative Units for Mass Transfer Coefficients | 203 |
838 Units of Henrys Constant | 205 |
842 Other Forms of the General Diffusion Equation | 206 |
843 Diffusion through a Stagnant Gas Film | 207 |
844 Particles Droplets and Bubbles | 209 |
85 CORRELATIONS FOR MASS TRANSFER COEFFICIENTS | 213 |
Psychrometry | 219 |
922 Saturated Humidity | 220 |
924 Relative Humidity | 221 |
926 Humid Heat | 222 |
933 Adiabatic Saturation Temperature | 224 |
934 Relationship between Wet Bulb Temperature and Adiabatic Saturation Temperature | 225 |
942 Mixing of Humid Air Streams | 229 |
95 APPLICATION OF PSYCHROMETRY TO DRYING | 230 |
Thermal Processing of Foods | 235 |
1013 Lumped Analysis | 236 |
102 UNSTEADYSTATE CONDUCTION | 239 |
1062 The Procedure to Find Total Process Time | 260 |
1063 Heat Transfer in Thermal Processing | 263 |
1064 Integrated F Value | 266 |
107 RETORTS FOR THERMAL PROCESSING | 268 |
1072 Design Variations | 269 |
108 CONTINUOUS FLOW STERILISATION | 270 |
1082 Process Description | 271 |
LowTemperature Preservation | 277 |
112 FREEZING RATE AND FREEZING POINT | 278 |
113 THE FROZEN STATE | 281 |
1132 Food Quality During Frozen Storage | 283 |
114 FREEZING EQUIPMENT | 285 |
1142 Blast Freezer | 286 |
1145 Cryogenic and Immersion Freezing | 287 |
115 PREDICTION OF FREEZING TIME | 288 |
1152 Nagaokas Equation | 291 |
1153 Stefans Model | 292 |
1154 Planks Equation for Brickshaped Objects | 293 |
116 THAWING | 295 |
117 PRINCIPLES OF VAPOUR COMPRESSION REFRIGERATION | 296 |
1173 The Evaporator | 297 |
1174 The Compressor | 298 |
Evaporation and Drying | 303 |
122 EQUIPMENT FOR EVAPORATION | 304 |
1222 Forced Circulation Evaporators | 305 |
123 SIZING OF A SINGLE EFFECT EVAPORATOR | 306 |
1231 Material and Energy Balances | 307 |
1232 Evaporator Efficiency | 309 |
1233 Boiling Point Elevation | 310 |
124 METHODS OF IMPROVING EVAPORATOR EFFICIENCY | 311 |
1241 Vapour Recompression | 312 |
1242 Multiple Effect Evaporation | 313 |
The Concentration of Tomato Juice | 314 |
125 SIZING OF MULTIPLE EFFECT EVAPORATORS | 315 |
126 DRYING | 318 |
1262 Water Activity | 319 |
1263 Effect of Water Activity on Microbial Growth | 320 |
1265 Isotherms and Equilibrium | 321 |
127 BATCH DRYING | 322 |
1272 Batch Drying Time | 324 |
128 TYPES OF DRIER | 327 |
1282 Direct and Indirect Driers | 328 |
1285 Tunnel Drier | 329 |
1287 Fluidised Bed Drier | 330 |
1289 Spray Drier | 331 |
Solids Processing and Particle Manufacture | 335 |
1312 Mean Particle Size | 336 |
1313 Particle Shape | 339 |
1314 Methods of Determining Particle Size | 340 |
1315 Mass Distributions | 342 |
1316 Other Particle Characteristics | 344 |
132 THE MOTION OF A PARTICLE IN A FLUID | 345 |
1321 Terminal Falling Velocity | 346 |
1322 Particle Drag Coefficient | 348 |
1323 Effect of Increasing Reynolds Number | 349 |
THE BEHAVIOUR OF PARTICLES IN BULK | 353 |
134 FLUIDISATION | 355 |
1342 Minimum Fluidising Velocity in Aggregative Fluidisation | 357 |
1343 Gassolid Fluidised Bed Behaviour | 362 |
1344 Bubbles and Particle Mixing | 364 |
1345 Heat and Mass Transfer | 366 |
1347 Spouted Beds | 368 |
1348 Participate Fluidisation | 369 |
PNEUMATIC CONVEYING | 371 |
1353 Pneumatic Conveying Regimes | 372 |
136 FOOD PARTICLE MANUFACTURING PROCESSES | 373 |
1362 ParticleParticle Bonding | 376 |
1363 Fluidised Bed Granulation | 379 |
1364 Other Particle Agglomeration Methods | 382 |
137 SIZE REDUCTION | 383 |
1372 Size reduction equipment | 384 |
1373 Operating methods | 385 |
Mixing and Separation | 395 |
1412 Mixedness | 396 |
1413 Mixing Index and Mixing Time | 397 |
1414 Mixing of Liquids | 401 |
1415 Power Consumption in Liquid Mixing | 406 |
1416 Correlations for the Density and Viscosity of Mixtures | 409 |
1417 Mixing of Solids | 410 |
1418 Equipment for Solids Mixing | 411 |
142 FILTRATION | 412 |
1422 Analysis of Cake Filtration | 414 |
1423 Constant Pressure Filtration | 415 |
1424 Filtration Equipment | 416 |
1425 Filter Aids | 418 |
143 MEMBRANE SEPARATIONS | 419 |
1432 Osmosis and Reverse Osmosis | 420 |
1433 General Membrane Equation | 421 |
1434 Osmotic Pressure | 422 |
1435 Ultrafiltration | 423 |
1437 Membrane Configurations | 424 |
1438 Permeate Flux | 425 |
1439 Prediction of Permeate Flux | 427 |
14310 Some Applications of Membrane Technology | 431 |
Appendix A | 437 |
Appendix B | 439 |
Appendix C | 441 |
Appendix D | 445 |
Appendix E | 447 |
Appendix F | 449 |
Answers | 453 |
459 | |
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Загальні терміни та фрази
apparent viscosity batch behaviour bulb temperature Calculate concentration condensation constant convection cooling curve defined density diameter diffusivity drier drying effect energy enthalpy equal Equation equilibrium evaporator Example feed Figure film heat transfer filter filtrate fluid fluidised bed food processing freezer freezing frozen gases gives gradient granule heat capacity heat exchanger heat transfer coefficient humidity increases kg m³ kJ kg kmol latent heat layer liquid phase logarithmic mean mass flow rate mass transfer coefficient material balance membrane microwave mixing mixture moisture content mole fraction molecules operation overall heat transfer partial pressure particles pipe plate pressure drop pump rate of heat reduced refrigerant relationship reverse osmosis Reynolds number saturated shear rate shear stress solids solution spray drying steam sterilisation surface area T₁ T₂ temperature difference thermal conductivity thermal resistance thermodynamic tube unit vaporisation vapour pressure volume volumetric flow rate water vapour
Посилання на книгу
Handbook of Food and Bioprocess Modeling Techniques Shyam S. Sablani,Ashim K. Datta,M. Shafiur Rahman,Arun S. Mujumdar Попередній перегляд недоступний - 2006 |