Abstract
Arbuscular mycorrhizal fungal symbiosis formed by majority of vascular plants has played a key role in evolution of land plants. An understanding of the manifold advantages of mycorrhizal symbiosis can be helpful in utilizing them as a significant microbe in green technology for sustainable agriculture development which has become an absolute requirement in current environmental scenario. The manuscript discusses the implication of recent results and ideas on symbiosis that are relevant for plant community establishment under natural environmental condition and way the process are interlinked. Mycorrhizal symbiosis also opens a way to a pollution-free environment by playing a magnificent role in nutrient uptake, interacts to affect plant community composition by changing relative species abundance and consequently above-ground productivity, thereby replacing the chemical input and saving the fertilizers subsidiary of government and save the environment.
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Abbreviations
- AL:
-
Acaulospora laecunosa
- At:
-
Acaulospora tuberculata
- Ga:
-
Glomus aggregatum
- Gc:
-
Glomus constrictum
- Gca:
-
Glomus caledonium
- Gf:
-
Glomus fasciculatum
- Gi:
-
Glomus intraradices
- Gia:
-
Gigaspora albida
- Gge:
-
Glomus gerdemanil
- Gic:
-
Gigaspora candida
- Gm:
-
Glomus mosseae
- Gma:
-
Glomus macrocarpum
- Gmi:
-
Glomus microcarpum
- Gco:
-
Gmomus coronatum
- Get:
-
Glomus etunicatum
- Gle:
-
Glomus leptoticum
- Gs:
-
Glomus species
- Gci:
-
Gigaspora calaspora
- Gg:
-
Gigaspora gigantea
- Gsp:
-
Gigaspora spp.
- Sn:
-
Sclerocystis nigra
- Sc:
-
Sclerocystis spp.
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Prasad, K. (2017). Biology, Diversity and Promising Role of Mycorrhizal Endophytes for Green Technology. In: Maheshwari, D. (eds) Endophytes: Biology and Biotechnology. Sustainable Development and Biodiversity, vol 15. Springer, Cham. https://doi.org/10.1007/978-3-319-66541-2_11
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