Soil Health, Soil Biology, Soilborne Diseases and Sustainable Agriculture :A Guide

Publication subTitle :A Guide

Author: Stirling Graham; Hayden Helen; Pattison Tony  

Publisher: CSIRO PUBLISHING‎

Publication year: 2016

E-ISBN: 9781486303052

P-ISBN(Paperback): 9781486303045

Subject: S154.1 soil ecology

Keyword: 园艺,病虫害及其防治,食品工业,农业经济,农学(农艺学),环境科学、安全科学

Language: ENG

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Description

Helps growers make the transition to an ecologically based form of agriculture by providing holistic solutions to soilborne diseases.

Chapter

Air

The macrofauna: millipedes, centipedes, spiders, termites, ants, scorpions andearthworms

The soil food web

Interactions between organisms in the soil food web

Ecosystem services provided by the soil biota

Improvement of soil structure and soil water regimes

Production, storage and release of nutrients

Suppression of soilborne pests and pathogens

Plant growth promotion

Degradation of toxic compounds

The soil–root interface: a key site of biological activity

Maintenance of the energy sources required to sustain soil biological processes

Concluding remarks

Chapter 4: Soilborne diseases: a major impediment to cropproduction

Diseases caused by Rhizoctonia

Root rot, crown rot and vascular wilt diseases caused by Fusarium

Take-all of cereals caused by Gaeumannomyces graminis

Root rot and damping-off diseases caused by Pythium and Phytophthora

Pachymetra root rot of sugarcane

Diseases caused by Sclerotinia and Sclerotium

Bacterial wilt caused by Ralstonia solanacearum

Crown gall

Diseases caused by nematode pests

Sedentary endoparasites

Migratory endoparasites

Ectoparasites

Estimating the amount of pathogen inoculum in soil

Effects of environment and management on pathogen inoculum levels and disease severity

Diagnosis of soilborne diseases

Integrated disease management

Chapter 5: Impact of natural enemies on soilborne pathogens

Interactions within the soil food web and their effects on soilborne pestsand pathogens

Classical, inundative, and conservation biological control, and its relevance tosoilborne pests and pathogens

Disease-suppressive soils: organic matter-mediated and specific forms of suppression

Benefits and limitations of different forms of suppression

Identification of disease-suppressive soils, and indicators of suppression

Impact of management on disease suppression

The key role of organic matter in improving soil health and enhancingdisease suppression

Examples of disease suppression

Biological suppression of Rhizoctonia root rot

Take-all decline of cereals

Disease suppression in horticulture

Specific suppression of plant-parasitic nematodes

The role of organic and biological products in improving plant growth or enhancing disease suppression

Soil improvers, bio-stimulants and plant-growth promoters

Bio-inoculants

Biopesticides

Confirming the efficacy of organic and biological products

Concluding remarks

Chapter 6: A practical guide to improving soil health andreducing losses from soilborne diseases

Assess soil health and identify any physical, chemical and biological constraints

Soil physical and chemical factors

Soilborne diseases

Low biological activity and diversity

Determine the main limiting factors

Identify options for improvement

Monitor soilborne pathogens and beneficial organisms

Modify soil and crop management practices

Instigate a continuous process of assessment, modification and re-assessment

Concluding remarks

Case study: Growers and consultants use a root diseasetesting service to monitor pathogens and reduce lossesfrom soilborne diseases

Chapter 7: Grain farming systems to improve soil health andenhance biological suppression of soilborne diseases

Conservation agriculture: the first step in building an active, diverse andresilient soil biological community

Conservation agriculture and soil organic matter

The key role of high cropping intensities and crop rotation

The biological impact of conservation agriculture

Second-tier practices to continue the soil improvement process

Avoidance of compaction through traffic control

Biomass-producing cover crops and organic amendments

Integrated crop and livestock production

Site-specific management of inputs

Integrated pest management systems

Options to further improve best-practice farming systems

More effective plant nutrition

Greater levels of disease suppression and biological control

Improved resilience under stress

Concluding remarks

Case study: Reducing risk in a drought-prone environmentby improving nutrient use efficiency

Chapter 8: Annual and perennial pastures to improve soil health in grain-cropping systems

The role of perennial pastures in improving soil health

The impact of climate and pasture species on soil biological properties

The contribution of mixed farming systems to sustainability

Choice of pasture species

Options for the future

Concluding remarks

Case study: Living roots mean a healthy, living soil

Chapter 9: Yield decline of sugarcane: a soil health problemovercome by modifying the farming system

The conventional sugarcane farming system

The impact of the conventional sugarcane farming system on soil health

Soil structure/compaction

Pests and pathogens

Soil organic matter

A more sustainable sugarcane farming system

Soil health and biological benefits from the new farming system

The impact of the new sugarcane farming system on soilborne pests and pathogens

Effects on Pachymetra root rot

Managing nematode pests with rotation crops

The impact of tillage on the resurgence of nematode pests

Enhancing suppression of nematode pests with inputs of organic matter

Specific suppression of nematode pests by bacteria in the genus Pasteuria

Effects of pesticides and fertilisers on the biological health of sugarcane soils

Improving soil health is a long-term process

Concluding remarks

Case study: Incremental changes to a sugarcane farmingsystem improve soil health and profitability

Case study: Controlled traffic and soybean rotation cropsproduce multiple benefits in a sugarcane farming system

Chapter 10: Vegetable farming systems: the challenge of improving soil health and sustainability in an industry that demands high levels of productivity

High-input vegetable production systems

Possible components of more sustainable vegetable production systems

Crop rotation, cover crops, companion planting and residue retention

Biofumigation

Appropriate planting times and cultural practices

Reduced tillage

Controlled traffic

Precision agriculture

Organic amendments

Nutrient management

Irrigation management

Integrated management of pests and diseases

Organic and biological products

Organic production

Integrated management systems

Concluding remarks

Case study: No-till zucchini production reduces costs andimproves soil health in the dry tropics

Case study: Sustainable vegetable production on landprone to soil erosion

Chapter 11: Options for improving soil health and minimising losses from soilborne diseases in perennial horticultural crops

Reducing or eliminating tillage

Using cover crops to maintain ground cover

Minimising compaction

Mulching

Organic amendments

Examples of disease management systems for perennial crops

The Ashburner system of controlling Phytophthora root rot of avocado

Mulching to reduce specific replant disease in apple orchards

Root disease management in banana

Enhancing specific agents to suppress particular pathogens

Concluding remarks

Case study: Managing soil, water and nematode pests on a banana plantation in a tropical environment

Case study: Wine-grape production with a focus on sustainability

Chapter 12: Key soil health messages, and practices that should be included in holistic soil improvement programs

The main messages from the book

Key practices to improve soil health and sustainability

References and further reading

Index

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