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Детальная информация

Pinhey, Sally. Plants for soil regeneration: an illustrated guide / Sally Pinhey, Margaret Tebbs. — 1 online resource: illustrations — <URL:http://elib.fa.ru/ebsco/3187524.pdf>.

Дата создания записи: 22.11.2021

Тематика: Soil restoration.; Soil science.; Soil management.; Soils — Quality.; Sols — Réhabilitation.; Pédologie.; Sols — Aménagement.; Sols — Qualité.; soil science.; Soil management; Soil restoration; Soil science; Soils — Quality

Коллекции: EBSCO

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Аннотация

"This book gives farmers, growers and gardeners information and a visual guide to the plants which can be used to improve soil quality without the use of agrichemicals"--.

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Оглавление

  • Cover
  • Plants for Soil Regeneration, an Illustrated Guide
  • Contents
  • 1  Soil Health
    • Bibliography
  • 2  Nitrogen-fixing Plants
    • The Nitrogen Cycle
  • 3  Cover Crops, Green Manures and Herbal Leys
    • What Is the Difference?
    • Humus
    • Soil Health and Regenerative Agriculture
    • Winds of Change
    • Chemical and Nutritional Composition of Brassicaceae
    • Farming Without Man-made Chemicals
    • Plant Species used in Cover Crops, Green Manures and Herbal Leys
      • Asteraceae (Compositae)
      • Brassicaceae (Cruciferae)
      • Hydrophyllaceae
      • Leguminosae
      • Polygonaceae
    • Grasses Used as Cover Crops, Green Manures and Leys
    • Pesticides and Herbicides
    • Bibliography
  • 4  Bacteria and Other Microorganisms
    • Bacteria
    • Fungi
    • Other microorganisms
    • Bibliography
  • 5  The Role of Fungi
    • Mycorrhizae
      • Ectomycorrhizae
      • Endomycorrhizae
        • Arbuscular mycorrhizae
        • Ericoid mycorrhizae
        • Orchid mycorrhiza
    • Saprophytes
    • Pathogens
    • Actinomycetes
    • Conclusion
    • Bibliography
  • 6  Phytoremediators
    • Disposal of Heavy Metals after Phytoaccumulation
    • Phytoextraction
    • Petroleum Pollutants
    • Urban Environments
    • Halophytes and Salinity
    • Plastics
    • A Selection of Plants Commonly Used for Phytoremediation
      • Aspen (Populus spp.; Salicaceae)
      • Berseem or Egyptian clover (Trifolium alexandrinum; Leguminosae)
      • Brassica (Brassicaceae)
      • Common reed (Phragmites australis; Poaceae)
      • Moso bamboo (Phyllostachys pubescens; Poaceae)
      • Pennycress (Thlaspi caerulescens; Brassicaceae)
      • Reed canary grass (Phalaris arundinacea; Poaceae)
      • Sunflower (Helianthus annuus; Asteraceae)
      • Tobacco (Nicotiana tabacum; Solanaceae)
      • Willow (Salix spp.; Salicaceae)
    • Bibliography
  • 7  Illustrations, with Information on Each Plant
    • Achillea millefolium (Fig. 7.1)
      • Environmental benefits
      • Structure
    • Alnus glutinosa (Fig. 7.2)
      • Environmental benefits
      • Structure
    • Alopecurus myosuroides (Fig. 7.3)
      • Environmental benefits
      • Structure
    • Ammophila arenaria (Fig. 7.4)
      • Environmental benefits
      • Structure
    • Avena sativa (Fig. 7.5)
      • Environmental benefits
      • Structure
    • Avicennia marina (Fig. 7.6)
      • Environmental benefits
      • Structure
    • Calendula officinalis (Fig. 7.7)
      • Environmental benefits
      • Structure
    • Cichorium intybus (Fig. 7.8)
      • Environmental benefits
      • Structure
    • Cirsium arvense (Fig. 7.9)
      • Environmental effects
      • Structure
    • Corylus avellana and Corylus maxima (Fig. 7.10)
      • Environmental benefits
      • Structure
    • Dactylis glomerata (Fig. 7.11)
      • Environmental benefits
      • Structure
    • Elymus repens (Fig. 7.12)
      • Environmental benefits
      • Structure
    • Equisetum arvense (Fig. 7.13)
      • Environmental benefits
      • Structure
    • Fagopyrum esculentum (Fig. 7.14)
      • Environmental benefits
      • Structure
    • Festuca pratensis (Fig. 7.15)
      • Environmental benefits
      • Structure
    • Helianthus annuus (Fig. 7.16)
      • Environmental benefits
      • Structure
    • Hippophae rhamnoides (Fig. 7.17)
      • Environmental benefits
      • Structure
    • Lolium multiflorum (Fig. 7.18)
      • Environmental benefits
      • Structure
    • Lolium perenne (Fig. 7.19)
      • Environmental benefits
      • Structure
    • Lotus corniculatus (Fig. 7.20)
      • Environmental benefits
      • Structure
    • Medicago sativa (Fig. 7.21)
      • Environmental benefits
      • Structure
    • Melilotus officinalis (Fig. 7.22)
      • Environmental benefits
      • Structure
    • Nicotiana tabacum (Fig. 7.23)
      • Environmental benefits
      • Structure
    • Onobrychis viciifolia (Fig. 7.24)
      • Environmental benefits
      • Structure
    • Petroselinum crispum (Fig. 7.25)
      • Environmental benefits
      • Structure
    • Phacelia tanacetifolia (Fig. 7.26)
      • Environmental benefits
      • Structure
    • Phleum pratense (Fig. 7.27)
      • Environmental benefits
      • Structure
    • Phragmites australis (Fig. 7.28)
      • Environmental benefits
      • Structure
    • Plantago lanceolata (Fig. 7.29)
      • Environmental benefits
      • Structure
    • Populus tremula (Fig. 7.30)
      • Environmental benefits
      • Structure
    • Prunus domestica subsp. insititia and Prunus cerasifera (Fig. 7.31)
      • Environmental benefits
      • Structure
    • Pteridium aquilinum (Fig. 7.32)
      • Environmental effects
      • Structure
    • Raphanus sativus and R. raphanistrum (Fig. 7.33)
      • Environmental benefits
      • Structure
    • Reynoutria japonica (Fig. 7.34)
      • Environmental benefits
      • Structure
    • Rumex obtusifolius (Fig. 7.35)
      • Environmental benefits
      • Structure
    • Salix viminalis (Fig. 7.36)
      • Environmental benefits
      • Structure
    • Sanguisorbe minor (Fig. 7.37)
      • Environmental benefits
      • Structure
    • Secale cereal (Fig. 7.38)
      • Environmental benefits
      • Structure
    • Senecio jacobaea (Fig. 7.39)
      • Environmental benefits
      • Structure
    • Sinapis alba (Fig. 7.40)
      • Environmental benefits
      • Structure
    • Trifolium alexandrinum and Trifolium repens (Fig. 7.41)
      • Environmental benefits
      • Structure
    • Trifolium hybridum (Fig. 7.42)
      • Environmental benefits
      • Structure
    • Trifolium pratense (Fig. 7.43)
      • Environmental benefits
      • Structure
    • Trigonella foenum-graecum (Fig. 7.44)
      • Environmental benefits
      • Structure
    • Ulex europaeus, U. gallii and U. minor (Fig. 7.45)
      • Environmental benefits
      • Structure
    • Vicia faba (V. alba) (Fig. 7.46)
      • Environmental benefits
      • Structure
    • Vicia sativa (Fig. 7.47)
      • Environmental benefits
      • Structure
    • Bibliography
  • 8  Soil Stabilizers and Coastal Plants
    • Saline Soil
    • Grasses for Soil Erosion
    • Fertile Islands
    • Bibliography
  • 9  Weeds and Invasive Plants
    • Black-grass (Alopecurus myosuroides)
    • Bracken (Pteridium aquilinum)
    • Common couch (Elymus repens, syn. Elytrigia repens)
    • Creeping thistle (Cirsium arvense)
    • Docks (Rumex obtusifolius, R. crispus and the hybrid R. × pratensis)
    • Field horsetail (Equisetum arvense)
    • Gorses (Ulex europaeus, U. gallii and U. minor)
    • Japanese knotweed (Reynoutria japonica)
    • Ragwort (Senecio jacobaea)
    • Rushes
    • Bibliography
  • 10  Hedges and Trees
    • Bibliography
  • 11  Case Studies
    • Case Study 1: Becklands Farm, Marshwood Vale, Dorset, UK
    • Case Study 2: Mead Farm, Dorset, UK
    • Case Study 3: Meg Tebbs, West Dorset, UK (no-dig vegetable patch)
    • Case Study 4: Tim Parton, Farmer, Staffordshire, UK
    • Case Study 5: Mount Benger Farm, Otago, New Zealand
  • Appendix
    • Agricultural Chemicals (Agrichemicals)
      • Fungicides
      • Herbicides
      • Parasiticides
      • Pesticides
    • Biodynamic Agriculture
    • Hügelkultur
    • Uses of Land for Food Production, by John Sheldon (12 November 2019)
  • Glossary
  • List of Plant Illustrations in Alphabetical Order of English Names
  • Index
  • Back Cover

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