Description
Due to the nature of agricultural commodities as carriers of exotic pests, importing countries have employed varying methods of pest control for postharvest products. Thermal treatments are emerging as effective, environmentally-friendly alternatives to traditional methods, eliminating chemical residues and minimizing damage to produce. This book provides comprehensive information of these increasingly important treatments, covering temperature measurement, heat transfer, physiological responses of plants, insects and pathogens to heat, and an introduction to current and potential quarantine treatments based on hot air, hot water, and radio frequency energy.
Chapter
1.3 Survey of Heat Treatments
1.4 Heat Treatments for Microbial Control
1.5 Tolerance of Commodities to Heat Treatments
2 Fundamental Heat Transfer Theory for Thermal Treatments
2.2 Conventional Heat Transfer Theory
2.4 Case Studies to Demonstrate the Differences between Conventional and Dielectric Heating
3 Temperature Measurement
3.2 Principles and Properties
3.3 Sensor Calibration, Precision and Response Time
3.4 Application of Temperature Sensors
4 Physiological Responses of Agricultural Commodities to Heat Treatments
4.2 Effects on Physiology
4.4 Responses of Dried Commodities to Heat Treatment
4.5 Factors Affecting Response to Heat Treatment
5 Experimental and Simulation Methods of Insect Thermal Death Kinetics
5.2 Experimental Methods for Obtaining Thermal Kinetic Response Information
5.3 Insect Mortality Models
6 Biology and Thermal Death Kinetics of Selected Insects
6.2 Biology and Economic Impact of Target Species
6.4 Influence of Life Stages and Species on Thermal Mortality
6.5 Activation Energies for Thermal Kill of Insect Pests
6.6 Preconditioning Effects on Thermotolerance of Pests
6.7 Effect of Heating Rates in Thermal Treatments
7 Thermal Control of Fungi in the Reduction of Postharvest Decay
7.2 Responses of Fungi to Thermal Heat: in Vitro Studies
7.3 Methods of Thermal Treatment
8 Disinfestation of Stored Products and Associated Structures Using Heat
8.2 The Use of Heat for Insect Management
8.3 Effects of High Temperatures on Stored-product Insects
8.4 Heat Tolerance in Stored-product Insects
8.5 Survey of Current Thermal Kinetic Data: Empirical Methods and Common Models
8.6 Current Status of Research and Development in Heat Disinfestation of Stored Products
8.7 Heat Disinfestation of Structures
9 Considerations for Phytosanitary Heat Treatment Research
9.2 Source of Research Organisms
9.4 Methods of Infesting Commodities for Disinfestation Research
9.5 Determination of Disinfestation Policy
9.6 Commodity Conditioning
9.7 Commercial Possibilities
9.8 Conclusions and Recommendations
10 Heat with Controlled Atmospheres
10.2 Mode of Action of Controlled Atmospheres on Insects
10.3 Effects of Controlled Atmospheres on Commodities
10.4 Effects of Heat and Controlled Atmospheres on Arthropod Pests
10.5 Commodity Response to High-temperature Controlled Atmospheres
10.6 Synergistic Effects of Heat and Controlled Atmospheres
10.7 Promising Treatments
11 The Influence of Heat Shock Proteins on Insect Pests and Fruits in Thermal Treatments
11.3 Heat Shock Responses and Heat Shock Proteins in Plant Tissue
11.4 Heat Shock Responses and Heat Shock Proteins in Insects
12 Thermal Treatment Protocol Development and Scale-up
12.2 Strategies for Thermal Treatment Development
12.3 Systematic Development of RF Treatment for In-shell Walnuts
12.4 Developing RF Treatments for Fresh Fruits
13 Commercial Quarantine Heat Treatments
13.2 Definitions and Concepts
13.3 Quarantine Heat Treatments
13.4 Quarantine Treatment Protocols
13.5 Quarantine Security Statistics
13.6 Developing Quarantine Heat Treatments
13.8 Experimental Heat Treatment Equipment
13.9 Heat Treatment Research
13.10 Commercial Heat Treatment Equipment and Facilities
13.11 Approved Commercial Heat Treatments