PostHarvest Physiology and Hypobaric Storage of Fresh Produce (Record no. 92)

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      020 ## - INTERNATIONAL STANDARD BOOK NUMBER
      International Standard Book Number 0851998011
      020 ## - INTERNATIONAL STANDARD BOOK NUMBER
      International Standard Book Number 9780851998015
      040 ## - CATALOGING SOURCE
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      082 ## - DEWEY DECIMAL CLASSIFICATION NUMBER
      Classification number 664.8
      Item number BUR
      100 ## - MAIN ENTRY--PERSONAL NAME
      Personal name Burg, Stanley P.
      245 ## - TITLE STATEMENT
      Title PostHarvest Physiology and Hypobaric Storage of Fresh Produce
      260 ## - PUBLICATION, DISTRIBUTION, ETC. (IMPRINT)
      Place of publication, distribution, etc Oxfordshire
      Name of publisher, distributor, etc CABI
      Date of publication, distribution, etc 2004
      300 ## - PHYSICAL DESCRIPTION
      Extent xvi+654 p.
      505 ## - FORMATTED CONTENTS NOTE
      Formatted contents note Table of Contents<br/><br/>Preface xiv <br/>Acknowledgements xvi <br/>Introduction<br/>1 (8)<br/>Causes of Postharvest Losses<br/>1 (1)<br/>Current Status of LP<br/>1 (2)<br/>Comparison of LP and CA<br/>3 (1)<br/>History of CA and LP Storage<br/>3 (1)<br/>LP Research and Development<br/>4 (1)<br/>Is LP More Complicated than CA?<br/>4 (2)<br/>LP Patent Protection and Trade Secrets<br/>6 (3)<br/>Origins of the LP Concept<br/>9 (9)<br/>The LP Apparatus<br/>9 (1)<br/>Evidence that Gas Exchange in Fruits is Limited by an Air Phase<br/>10 (3)<br/>Testing for Ethylene-controlled Developmental Processes<br/>13 (2)<br/>Involvement of Other Gases and Volatile Substances<br/>15 (1)<br/>Converting the LP Test Apparatus into a Storage System<br/>15 (1)<br/>Who Invented Hypobaric Storage?<br/>15 (3)<br/>Gas and Vapour Mass Transport<br/>18 (63)<br/>Resistance Network<br/>18 (2)<br/>Effect of pH and Temperature on Gas Exchange through Bio-membranes<br/>20 (3)<br/>Cytosol Resistance<br/>23 (1)<br/>Permeability of the Cell Wall<br/>23 (1)<br/>Resistance of the Mitochondria<br/>23 (1)<br/>Total Gas Transport Resistance<br/>24 (1)<br/>Kinetics of Gas Equilibration between Cells, the Intercellular System and Atmosphere<br/>24 (3)<br/>Measuring the Air Phase Resistance Coefficient<br/>27 (1)<br/>O2, CO2 and Ethylene Exchange between Cell Fluid and Intercellular Air<br/>28 (1)<br/>Dependence of Ethylene Action on the IEC<br/>29 (6)<br/>NH3 Exchange between the Apoplast and Intercellular Air<br/>35 (2)<br/>Jamin's Chains: the Effect of Liquid Water on Intercellular Gas Transport<br/>37 (2)<br/>Cell Leakage during Senescence and Ripening<br/>39 (5)<br/>Measuring the Intercellular Gas Concentrations<br/>44 (2)<br/>Vacuum-extraction Errors<br/>46 (2)<br/>Intercellular Gas Transport<br/>48 (3)<br/>Axial Diffusion of Intercellular Gases<br/>51 (1)<br/>Stomates and Lenticles<br/>52 (4)<br/>Pedicel-end Stem Scar<br/>56 (4)<br/>Cuticular Gas Exchange<br/>60 (2)<br/>Effect of LP on NH3 Efflux<br/>62 (1)<br/>Changes in Gas Exchange during Storage<br/>63 (1)<br/>Resistance of Boxes and Wraps<br/>63 (1)<br/>Effect of LP on Mass Transport through Air Phases<br/>64 (1)<br/>Effect of LP on Vapour Mass Transport<br/>65 (1)<br/>LP Does Not Remove Flavour and Aroma Volatiles from Fruits<br/>66 (1)<br/>Examples<br/>67 (14)<br/>Oxygen, Carbon Dioxide, Ammonia and Cyanide<br/>81 (51)<br/>Measuring Respiration and Ethylene Production under Hypobaric Conditions<br/>81 (2)<br/>Effect of O2 on Respiration<br/>83 (8)<br/>Low [O2] and High [CO2] Injury<br/>91 (2)<br/>Effect of O2 on Ethylene Production<br/>93 (1)<br/>Effect of O2 on Ethylene Action<br/>94 (1)<br/>Effect of O2 on Ascorbic Acid Oxidation<br/>95 (2)<br/>Effect of Hypoxia on Ethylene Production, Fruit Softening, ACC Accumulation and Ethylene-induced Enzyme Activity<br/>97 (1)<br/>Advantages of a CO2-free Atmosphere<br/>97 (1)<br/>Effect of CO2 on Respiration<br/>98 (1)<br/>Effect of CO2 on Ethylene Production<br/>98 (2)<br/>CO2 as an Activator, Regulator and Inhibitor of Enzymatic Reactions<br/>100 (1)<br/>Effect of CO2 on Ethylene Action and Metabolism<br/>101 (5)<br/>Effect of CO2 on Succinic Acid Accumulation<br/>106 (2)<br/>Effect of CO2 on Ascorbic Acid Content<br/>108 (1)<br/>Effect of CO2 on Stomatal Action<br/>109 (4)<br/>Effect of CO2 on Cellular pH<br/>113 (7)<br/>Ammonia Toxicity<br/>120 (1)<br/>Ammonia Incorporation into Organic Compounds<br/>121 (1)<br/>Ammonia Formation<br/>122 (1)<br/>Ammonia Production during Flower Fading and Leaf Senescence<br/>123 (2)<br/>Cyanide<br/>125 (2)<br/>Examples<br/>127 (5)<br/>Ethylene<br/>132 (108)<br/>Biosynthetic Pathway<br/>132 (3)<br/>Effect of Temperature on Ethylene Production and Perception<br/>135 (2)<br/>Cellular Localization of EFE<br/>137 (3)<br/>Effect of Ethylene on Respiration<br/>140 (1)<br/>Climacteric and Non-climacteric Fruits<br/>141 (4)<br/>Systems 1 and 2 Ethylene Production<br/>145 (1)<br/>Auto-inhibition of System 1 Ethylene Production<br/>145 (2)<br/>Auto-stimulation of System 2 Ethylene Production<br/>147 (1)<br/>Significance of the Pre-climacteric IEC<br/>148 (6)<br/>Effect of Harvest<br/>154 (10)<br/>Ethylene Receptor<br/>164 (8)<br/>Ethylene Transduction Pathway<br/>172 (1)<br/>Regulation of Ethylene Sensitivity<br/>173 (4)<br/>Initiation of Ripening in Climacteric Fruits<br/>177 (4)<br/>Ethylene-independent Developmental Regulation of Ripening in Climacteric Fruits<br/>181 (5)<br/>Ripening in Non-climacteric Fruits<br/>186 (2)<br/>Circadian Rhythms of Ethylene Production<br/>188 (5)<br/>Stress-induced Ethylene Production<br/>193 (1)<br/>Auxin-induced Ethylene Production<br/>194 (5)<br/>Effect of Ethylene on Polar Auxin Transport<br/>199 (1)<br/>Effect of Ethylene on Auxin Synthesis and Metabolism<br/>199 (1)<br/>Gravity-dependent Ethylene Action<br/>200 (5)<br/>Effect of Ethylene on Auxin Gravitransport<br/>205 (5)<br/>The `Triple Response' of Seedlings<br/>210 (3)<br/>Ethylene-induced Epinasty<br/>213 (2)<br/>Effect of Ethylene on Correlative Inhibition<br/>215 (4)<br/>Effect of Ethylene on Microfibrillar and Microtubular Orientation<br/>219 (2)<br/>Ethylene-induced Leaf Senescence<br/>221 (3)<br/>Role of Ethylene in Abscission<br/>224 (1)<br/>Role of Ethylene in Flower Fading<br/>225 (6)<br/>Induction of Physiological Disorders by Ethylene<br/>231 (1)<br/>Effect of Ethylene on Stomatal Opening<br/>232 (1)<br/>Effect of Ethylene on Ascorbic Acid Content<br/>232 (1)<br/>Examples<br/>232 (8)<br/>Heat Transfer and Water Loss<br/>240 (62)<br/>Dependence of Water Loss on Respiratory Heat<br/>241 (7)<br/>The Cuticle<br/>248 (2)<br/>Dependence of Transpirational Resistance on Relative Humidity<br/>250 (2)<br/>Water-retentive Packaging<br/>252 (1)<br/>Dependence of Transpirational Resistance on Pressure<br/>253 (3)<br/>Radial Transport of Respiratory Heat<br/>256 (2)<br/>Cellular Water Conductance<br/>258 (1)<br/>Apoplastic Water Transport<br/>259 (1)<br/>Symplastic Cell-to-cell Water Transport<br/>259 (1)<br/>Water Vapour Transport through the Intercellular System<br/>260 (3)<br/>Skin Shrivel and `Peel Puffing'<br/>263 (2)<br/>Dimensionless Groups used for Convective Heat Transfer Calculations<br/>265 (2)<br/>Heat Transfer Coefficient for Free Convection at Atmospheric Pressure<br/>267 (1)<br/>Radiative Couplings<br/>268 (2)<br/>Evaporative Couplings<br/>270 (1)<br/>Heat Transfer in CA Storage at Atmospheric Pressure<br/>270 (2)<br/>Controlling Water Loss at Atmospheric Pressure<br/>272 (1)<br/>LP Heat Sources<br/>273 (1)<br/>Humidity Control in LP<br/>273 (2)<br/>LP Stacking Arrangements<br/>275 (4)<br/>Forced Convection in LP<br/>279 (1)<br/>Effect of LP on Free Convective Heat Transfer<br/>280 (2)<br/>Thermal Balance under Hypobaric Conditions<br/>282 (4)<br/>Cool down under Hypobaric Conditions<br/>286 (3)<br/>Examples<br/>289 (13)<br/>Postharvest Diseases and Physiological Disorders<br/>302 (31)<br/>Direct Effects of O2 on Microbial Growth<br/>302 (3)<br/>Direct Effects of CO2 on Microbial Growth<br/>305 (2)<br/>Combined Direct Effects of CO2 and O2 on Microbial Growth<br/>307 (1)<br/>Microbial Development in LP<br/>308 (5)<br/>Ripening, Ageing and Senescence Influence the Host's Susceptibility to Disease<br/>313 (1)<br/>Ethylene<br/>313 (1)<br/>Phytoalexins and Anti-fungal Compounds<br/>314 (3)<br/>Water Condensation<br/>317 (1)<br/>Hypochlorous Acid Vapour<br/>318 (3)<br/>Chilling Injury<br/>321 (6)<br/>Physiological Disorders other than Chilling Injury<br/>327 (2)<br/>Examples<br/>329 (4)<br/>Insect Quarantine<br/>333 (17)<br/>Effect of High Temperature<br/>333 (3)<br/>Effect of Low Temperature<br/>336 (1)<br/>Dependence of Insect O2 Consumption on Temperature, [O2] and [CO2]<br/>336 (1)<br/>Lethal Effects of High [CO2], Low [O2] and Desiccation<br/>337 (2)<br/>The Gas Exchange System of Insects<br/>339 (5)<br/>Comparison of the Gas Exchange Systems of Insects and Plants<br/>344 (1)<br/>Effect of a Low Pressure on Insect Mortality<br/>345 (5)<br/>Technical Difficulties Associated with Laboratory Hypobaric Research<br/>350 (21)<br/>Does the Inability to Provide CO2 Detract from LP Storage?<br/>351 (1)<br/>Factors Influencing Weight Loss in a Laboratory Hypobaric Experiment<br/>351 (2)<br/>Factors Determining the Steady-state Relative Humidity<br/>353 (4)<br/>Measuring the Relative Humidity<br/>357 (1)<br/>Other Sources of Moisture<br/>357 (1)<br/>Chamber Leak Rate<br/>358 (1)<br/>Chamber Temperature Uniformity<br/>359 (3)<br/>Elevating the Humidity<br/>362 (1)<br/>Mylar Radiation Shielding<br/>363 (2)<br/>Air Change Rate<br/>365 (1)<br/>Design of a Laboratory Apparatus<br/>365 (1)<br/>Measuring the Pressure<br/>365 (1)<br/>Examples<br/>366 (5)<br/>Horticultural Commodity Requirements<br/>371 (69)<br/>Fruits<br/>372 (1)<br/>Apple (Malus x domestica Borkh.), American Summer Pearmain, Jonathan, Cox Orange, Red King, Golden Delicious, Boskoop, Schweizer Glockenapfel, McIntosh, Red Delicious, Ida Red, Spartan, Staymen, Northern Spy, Red Rome, Lodi, Empire, Ontario<br/>372 (3)<br/>Apricot (Prunus armeniaca L.), var. Large Early Montgament<br/>375 (1)<br/>Avocado (Persea americana Mill.), Choquette, Waldin, Booth 8, Lula, Hass<br/>376 (2)<br/>Banana (Musa paradisica var. Sapientum), Lacatan, Valery, Gros Michel and Dwarf Cavendish<br/>378 (2)<br/>Blueberry (Vaccinium corymbosum L.), var. Jersey<br/>380 (1)<br/>Cantaloupe (Cucumis melo L.), cv. Earl's Favourite<br/>381 (1)<br/>Carambola (Averrhoa carambola Linn.)<br/>381 (1)<br/>Cherimoya (Annona cherimola Miller)<br/>381 (1)<br/>Cherry, Sweet (Prunus avium L.) cvs Bing, Lambert, Grosse Schwarze Knorpelkirsche, Emperor Francis, Picota<br/>382 (1)<br/>Cherry, Barbados (Malpighia glabra L.) and Surinam (Eugenia uniflora L.)<br/>383 (1)<br/>Cranberry (Vaccinium macrocarpon Ait.)<br/>383 (1)<br/>Currant (Ribes vulgare Lam.), Red, White and Black<br/>383 (1)<br/>Grape (Vitis vinifera L.), American, European and var. Red Emperor<br/>384 (1)<br/>Grapefruit (Citrus x paradisi Macfad.), Florida Ruby Red, Florida Marsh White, Texas Ruby Red<br/>384 (1)<br/>Guava (Psidium guajava L.)<br/>385 (1)<br/>Honeydew Melon (Cucumis melo L.)<br/>386 (1)<br/>Lime, Persian [Citrus aurantifolia (Christm.) Swingle], var. Tahiti<br/>386 (1)<br/>Mango (Mangifera indica L.), cvs Haden, Irwin, Tommy Atkins, Kent, Keitt, Maya, Okrang<br/>387 (2)<br/>Nectarine (Prunus persica L.), var. Nectarina<br/>389 (1)<br/>Orange (Citrus sinensis Osbeck), Valencia<br/>389 (1)<br/>Papaya (Carica papaya L.), var. Solo<br/>390 (2)<br/>Peach (Prunus persica L. Batsch.), cvs White Okubo, Cardinal, Red Haven, Gleason Early Elberta<br/>392 (1)<br/>Pear (Pyrus communis L.), cvs Bartlett, Clapp, Commice<br/>393 (1)<br/>Pineapple (Ananas comosus L. Merr.), var. Smooth Cayenne<br/>393 (2)<br/>Prune (Prunus domestica), cv. Richards Early Italian<br/>395 (1)<br/>Strawberry (Fragaria x ananassa Duch.), cvs Tioga, Shasta, Florida 90, Donna, Z-5A, Long Island Jerseybelle, Cambridge Favourite<br/>395 (2)<br/>Tomato (Lycopersicon esculentum Mill.), vars Homestead 2, Jupiter, Michigan-Ohio Hybrid, Heines Hochzucht, NM Super II, NM Milo I, Waldin, Ace<br/>397 (2)<br/>Vegetables<br/>399 (1)<br/>Asparagus (Asparagus officinalis L.)<br/>399 (1)<br/>Beans (Phaseolus vulgaris L.), Pole, Snap and Bush; cvs Improved Tendergreen, `McCaslan 42', Sprite<br/>400 (2)<br/>Beet Leaf (Beta vulgaris L.), var. Conditiva Alef<br/>402 (1)<br/>Broccoli (Brassica oleracea L. -- Italica Group)<br/>402 (1)<br/>Brussels Sprouts (Brassica oleracea L. -- Gemmifera Group)<br/>403 (1)<br/>Cabbage (Brassica oleracea L. -- Capitata Group), cv. Quick Green Storage<br/>403 (1)<br/>Carrot (Daucas carota L.)<br/>404 (1)<br/>Cauliflower (Brassica oleraceae L. -- Botrytis Group)<br/>404 (1)<br/>Celery, Transplants (Apium graveolens L.), cv. Utah 52--70<br/>405 (1)<br/>Corn, Sweet (Zea mays L.), cvs Iobelle, Florida Sweet, Wintergreen<br/>405 (1)<br/>Cress (Lepidium sativum L.)<br/>406 (1)<br/>Cucumber (Cucumis sativus L.), var. Poinsett<br/>407 (1)<br/>Kohlrabi (Brassica caulorapa)<br/>408 (1)<br/>Leek (Allium ampeloprasum L.)<br/>408 (1)<br/>Lettuce (Latuca sativa L.), var. Iceberg<br/>408 (2)<br/>Mushroom [Agaricus bisporrus (Lge.)], cvs Golden Light, White Button, Shitake, Enokitake, Matsutake<br/>410 (2)<br/>Onion, Green (Allium cepa L.)<br/>412 (1)<br/>Onion, Dry (Allium cepa L.), cvs Autumn Spice, Rocket, Trapps #6<br/>412 (1)<br/>Parsley [Petroselinum sativum (Mill.) Nym.]<br/>413 (1)<br/>Pepper, Sweet (Capsicum annum L.), Neusiedler Ideal, Bellboy<br/>414 (1)<br/>Potato (Solanum tuberosum L.)<br/>415 (1)<br/>Radish (Raphanus sativa L.), var. Sativus<br/>415 (1)<br/>Spinach (Spinacia oleracea L.)<br/>415 (1)<br/>Squash (Curcurbita maxima Duch.), var. Acorn; (Curcurbita pepo L. var. Melopepo Alef.); and Yellow Crookneck `Summer' Squash<br/>416 (1)<br/>Turnip (Brassica campestris L. -- Rapifera Group)<br/>416 (1)<br/>Cut Flowers, Cuttings and Potted Plants<br/>417 (1)<br/>Diseases of Cut Flowers<br/>417 (1)<br/>Alstroemeria, Cut Flower (Alstroemeria sp.)<br/>417 (1)<br/>Anthurium, Cut Flower (Anthurium sp.), var. Ozaki<br/>417 (1)<br/>Aster, China, Cut Flower (Callistephus chinensis)<br/>418 (1)<br/>Azalea, Potted Plant (Rhododendron sp.)<br/>418 (1)<br/>Carnation, Cut Flower (Dianthus caryophyllus L.), cvs White Sims (White), Linda (Pink), Scania (Red), Laddie and Various Other Colours<br/>418 (4)<br/>Chrysanthemum, Rooted and Non-rooted Cuttings (Chrysanthemum morifolium = Dendranthema morifolium), cvs Delaware, Neptune, Yellow Delaware, Blue Marble, Golden Anne, Bright Golden Anne, Regal Anne, Yellow Snowdown, Hurricane, Yellow Mandalay, Polaris, Fandango, Super White, Heyday, Rose Chip<br/>422 (1)<br/>Chrysanthemum, Cut Flower (Chrysanthemum morifolium = Dendranthema morifolium)<br/>423 (1)<br/>Chrysanthemum, Potted Plant (Chrysanthemum morifolium = Dendranthema morifolium)<br/>424 (1)<br/>Cuttings (Foliage and Woody)<br/>425 (1)<br/>Foliage Plants, Potted<br/>426 (1)<br/>Freesia, Cut Flower (Freesia sp.)<br/>427 (1)<br/>Fynbos, Cut Flower (Erica sparsa, Stoebe plumosa, Phylica imberbus)<br/>427 (1)<br/>Geranium, Cutting (Pelargonium x hortorum Bailey)<br/>427 (1)<br/>Geranium, Potted Plant (Pelargonium x hortorum Bailey), Red<br/>427 (1)<br/>Ginger, Red, Cut Flower (Alpinia purpuata)<br/>428 (1)<br/>Ginger, Wax, Cut Flower (Alpinia speciosa)<br/>429 (1)<br/>Gladiolus, Cut Flower (Gladiolus sp.)<br/>429 (1)<br/>Gypsophila, Cut Flower (Gypsophila sp.)<br/>429 (1)<br/>Heliconia, Cut Flower (Heliconia humilis, Heliconia latispatha)<br/>430 (1)<br/>Leucadendron, Cut Flower (Leucadendron argenteum), vars Pisa, Jubilee Crown<br/>430 (1)<br/>Liatris, Cut Flower (Liatris sp.)<br/>430 (1)<br/>Lily, Easter, Cut Flower (Lilium longiflorum speciosum rubrum)<br/>430 (1)<br/>Lily, Easter, Potted Plant (Lilium longiflorum speciosum rubrum)<br/>430 (1)<br/>Narcissus, Cut Flower (Narcissus sp.)<br/>431 (1)<br/>Orchid, Cut Flower (Vanda Agnes Joaquim)<br/>431 (1)<br/>Poppy, Cut Flower (Papaver sp.)<br/>431 (1)<br/>Protea, Cut Flower (Protea sp.), vars Eximia, Cardinal, Sylvia, Pink Ice, Renata, Repens<br/>432 (1)<br/>Rapeseed, Cut Flower (Brassica napus)<br/>433 (1)<br/>Rose, Cut Flower (Rosa sp.), `Sweetheart', `Tanbeedee Belinda', `Forever Yours', `Bacarra', `Merko Mercedes', `Sweet Promise', `Sonia', `Visa', `Madam Delbar', `Sandia', `Samantha', `Royalty', `Spanish Sun', `Town Crier'<br/>433 (2)<br/>Snapdragon, Cut Flower (Antirrhinum majus), `Promenade Crimson'<br/>435 (1)<br/>Statice, Cut Flower (Statice ameria)<br/>436 (1)<br/>Stock, Cut Flower (Malcomia maritima), Purple and Rose Red<br/>436 (1)<br/>Tulip, Cut Flower (Tulipa sp.)<br/>436 (1)<br/>Seeds [Apium graveolens var. Dulce (Celery), Brassica oleracea (Cabbage), Allium cepa (Onion)]<br/>436 (1)<br/>Tissue Cultures (Nicotiana tabacum `Wisconsin 38', Chrysanthemum x morifolium)<br/>437 (1)<br/>Pressure Cycling (Tomatoes, Bananas, Apples, Cabbage, Chrysanthemum Cuttings, Cut Carnation Blooms)<br/>437 (1)<br/>Mixed Loads (Cabbages, Carrots, Bananas, Tomatoes, Apples)<br/>438 (2)<br/>Meat Storage<br/>440 (44)<br/>Optimal LP Storage Condition for Meat<br/>441 (1)<br/>Partial Pressures of O2, CO2 and H2O Vapour Present in a VacuFreshSM Container during Meat Storage<br/>442 (1)<br/>Heat Transfer and Weight Loss<br/>442 (2)<br/>Packaging Parameters<br/>444 (3)<br/>Oxidation of Meat Pigments<br/>447 (1)<br/>Fat Oxidation<br/>448 (1)<br/>Meat Odour and Flavour<br/>448 (1)<br/>Microbial Spoilage under Aerobic Conditions<br/>449 (1)<br/>Microbial Spoilage under Anaerobic Conditions<br/>450 (1)<br/>Effect of CO2 on Microbial Spoilage<br/>451 (2)<br/>Microbiological Safety<br/>453 (1)<br/>Botulism<br/>454 (1)<br/>Temperature<br/>455 (3)<br/>Ice-crystal Formation<br/>458 (1)<br/>Humidity<br/>459 (1)<br/>Venting the Container<br/>460 (1)<br/>Tenderization and Ageing<br/>460 (2)<br/>Commodity Requirements<br/>462 (1)<br/>Beef<br/>462 (2)<br/>Chicken<br/>464 (1)<br/>Duck<br/>465 (1)<br/>Fish (Atlantic Cod, Gadus morhua; Atlantic Herring, Clupea harengus; Spot Fish, Leiostrous xanthurus; Atlantic Salmon, Salmo solar; Caesar Grunt, Haemulon carbonarium; Gray Snapper, Lutjanus griseus; Atlantic Mackerel, Scomber scombrus)<br/>465 (6)<br/>Horse Meat<br/>471 (2)<br/>Lamb<br/>473 (2)<br/>Pork<br/>475 (1)<br/>Shrimp (Panaeus setiferus)<br/>476 (2)<br/>Veal<br/>478 (1)<br/>Examples<br/>478 (6)<br/>Warehouse Design<br/>484 (11)<br/>Grumman's Hypobaric Warehouse<br/>484 (1)<br/>Alternative Steel-cylinder Design<br/>484 (2)<br/>Concrete Warehouse Designs<br/>486 (1)<br/>Boeing/Preload Design<br/>486 (1)<br/>Crom Corporation Design<br/>487 (2)<br/>University of Guelph Design<br/>489 (3)<br/>Concrete Masonry Corporation (CMC) Precast Concept<br/>492 (1)<br/>Inherent Thermal Problem in a Concrete Warehouse Design<br/>493 (2)<br/>Intermodal Container Design<br/>495 (28)<br/>Prototype No. 1<br/>495 (1)<br/>Prototype No. 2<br/>496 (1)<br/>Grumman's Dormavac Container<br/>496 (2)<br/>Grumman/Dormavac Structural Design<br/>498 (1)<br/>Grumman/Dormavac Mechanical Design<br/>498 (3)<br/>Defects in Grumman's Dormavac Design<br/>501 (1)<br/>General Description of the VacuFreshSM Container<br/>502 (1)<br/>VacuFreshSM Tank Container Specifications and Physical Parameters<br/>503 (1)<br/>Special Features<br/>503 (3)<br/>Interior Structures<br/>506 (1)<br/>VacuFreshSM Mechanical Equipment<br/>507 (1)<br/>Refrigeration System General Schematic<br/>507 (3)<br/>Heating Cycle<br/>510 (1)<br/>Temperature Modulation<br/>510 (1)<br/>Vacuum System General Schematic<br/>510 (4)<br/>Preventing Condensation in Cabinets, Conduits and Regulators<br/>514 (1)<br/>Vacuum-control Circuitry<br/>515 (1)<br/>Controlling the Pumping Speed<br/>515 (1)<br/>Detented Controller<br/>515 (3)<br/>Electronic Vacuum Gauge<br/>518 (1)<br/>Pressure Regulation<br/>518 (1)<br/>Momentary Test Buttons<br/>519 (1)<br/>Data Logger<br/>519 (1)<br/>TransVac<br/>520 (1)<br/>Example<br/>521 (2)<br/>Conclusions<br/>523 (7)<br/>Appendix -- Influence of LP on Physical, Biological and Chemical Parameters<br/>530 (13)<br/>Physical and Chemical Properties<br/>530 (1)<br/>Chemical Potential<br/>530 (1)<br/>Electrochemical Potential<br/>531 (1)<br/>Standard State<br/>531 (1)<br/>Hydrostatic Pressure, Water Activity and Osmotic Pressure<br/>531 (1)<br/>Osmoregulation<br/>532 (1)<br/>Water Potential of Liquid Water<br/>532 (1)<br/>Chemical Activity of Water<br/>533 (1)<br/>Water Vapour Pressure and Relative Humidity<br/>533 (1)<br/>Water Potential of Water Vapour in the Gas Phase<br/>534 (1)<br/>Humidity Control in an LP Container<br/>534 (1)<br/>Influence of Pressure and Water Vapour on the Partial Pressures of O2, CO2 and Other Gases Present in the Vacuum Tank's Gas Mixture<br/>534 (1)<br/>Diffusion in the Gas Phase<br/>535 (1)<br/>Definitions<br/>535 (1)<br/>Steady-state Equimolar Counter-diffusion in Gases<br/>535 (1)<br/>Steady-state Unidirectional Diffusion in Gases<br/>536 (1)<br/>Steady-state Equimolar Counter-diffusion in Liquids<br/>537 (1)<br/>Steady-state Unidirectional Diffusion in Liquids<br/>537 (1)<br/>Binary Diffusion Coefficient of Gases<br/>537 (2)<br/>Binary Diffusion Coefficient in Liquids<br/>539 (1)<br/>Influence of Water Vapour on Physical and Chemical Parameters<br/>539 (1)<br/>Viscosity of Water Vapour + Air Mixtures<br/>540 (1)<br/>Thermal Conductivity of Water Vapour + Air Mixtures<br/>541 (1)<br/>Heat Capacity of Water Vapour + Air Mixtures<br/>541 (1)<br/>Prandtl (Pr) and Reynolds (Re) Numbers of Water Vapour + Air Mixtures<br/>541 (1)<br/>Diffusion of a Dilute Gaseous Component in a Water Vapour + Air Mixtures<br/>541 (1)<br/>Effect of Air Partial Pressure on the Convective Film Coefficient for Condensation in a Water Vapour/Air Mixtures<br/>542 (1)<br/>References 543 (88)<br/>Index 631
      520 ## - SUMMARY, ETC.
      Summary, etc Hypobaric (low-pressure) storage offers considerable potential as a method to prevent postharvest loss of horticultural and other perishable commodities, such as fruit, vegetables, cut flowers and meat. Yet hitherto there has been no comprehensive evaluation and documentation of this method and its scientific basis.Written by the world's leading authority on hypobaric storage Postharvest Physiology and Hypobaric Storage of Fresh Produce fills this gap in the existing literature. The first part of the book provides a detailed account of the metabolic functions of gases, and the mechanisms of postharvest gas exchange, heat transfer and water loss in fresh produce. The effect of hypobaric conditions on each process is then considered, before a critical review of all available information on hypobaric storage. This includes horticultural commodity requirements, laboratory research, and the design of hypobaric warehouses and transportation containers.
      650 ## - SUBJECT ADDED ENTRY--TOPICAL TERM
      Topical term or geographic name as entry element Post Harvest Technology
      942 ## - ADDED ENTRY ELEMENTS (KOHA)
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      Withdrawn status Lost status Source of classification or shelving scheme Damaged status Not for loan Collection code Home library Current library Date acquired Total Checkouts Total Renewals Full call number Barcode Date last seen Date checked out Price effective from Koha item type
          Dewey Decimal Classification     PHT SARVAJNA LIBRARY, UHS, BAGALKOT SARVAJNA LIBRARY, UHS, BAGALKOT 18/11/2014 2   664.8 BUR 001817 03/06/2020 03/06/2020 18/11/2014 Books
                PHT SARVAJNA LIBRARY, UHS, BAGALKOT SARVAJNA LIBRARY, UHS, BAGALKOT 17/04/2015 4   664.8 BUR 006154 23/08/2022 19/07/2022 17/04/2015 Books
      External Imp. Links

      UHSB || ICAR || IDEAL: A Union Catalog of NARS Libraries || KrushiKosh (Digital Library) || Kanaja (ಕಣಜ – ಕನ್ನಡ ಜ್ಞಾನಕೋಶ) || Karnataka Gazetteer || ASRB || Employment News || ಉದ್ಯೋಗ ಮಾಹಿತಿ || || Karnataka Digital Public Library ||


      For more Information please contact Librarian @ Sarvajna Library, UHS, Bagalkot OR Dr. Gireesh A Ganjihal Assistant Librarian
      "Healthy Soils for a Healthy Life"

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