Metal toxicity and ectomycorrhizas

By G. Jentschke, D. Godbold. 2000

304 citations recorded by the source corpus.

View Paper: https://www.semanticscholar.org/paper/f03f10b428a51800ba46dfa92bc21718be0142b3

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Citations in the corpus

The molecular mechanism of zinc and cadmium stress response in plants (2012, background): “The presence of mycorrhiza, a symbiotic interaction between specific soil fungi and roots of most vascular plant species, can enhance heavy metal detoxification and tolerance of plants by selective metal exclusion and metal chelator secretion of the fungi [27].”
The Potential of Rhizosphere Microorganisms to Promote the Plant Growth in Disturbed Soils (2012, background): “It was shown, that mycorrhizal fungi, in spite of their possible metal restraining, can increase the total heavy metal uptake of their host plants through an increased plant growth (Jentschke and Godbold 2000; Schützendübel and Polle 2002).”
Cadmium toxicity in plants (2005, background): “Mycorrizhas Mycorrhizas are among the extracellular strategies to avoid metal toxiciy (Marschner, 1995; Jentshcke and Godbold, 2000).”
Mechanisms of Enhanced Heavy Metal Tolerance in Plants by Silicon： A Review (2013, background): “As one of the major metal resistance mechanisms in plants, mycorrhizas can absorb heavy metal onto their external mycelium and/or chelate metals with fungal exudates (Jentschke and Godbold, 2000), although it is not clear whether Si has an effect on the mycorrhizal growth under heavy metal stress.”
Antibiotic resistance plasmids in wastewater treatment plants and their possible dissemination into the environment (2010, background): “Mycorrhizal fungi have been demonstrated to alleviate Al toxicity in their host plants (Andrade et al., 2009; Arriagada et al., 2007; Borie and Rubio, 1999; Cuenca et al., 2001; Cumming and Weinstein, 1990; Hentschel et al., 1993; Jentschke and Godbold, 2000; Schier and McQuattie, 1995; 1996).”
Geomycology: biogeochemical transformations of rocks, minerals, metals and radionuclides by fungi, bioweathering and bioremediation. (2007, unknown): “…of fungi, affect reproduction and metabolic activity, and reduce the ability of mycorrhizal fungi to colonize host plant roots (Gadd 1993a; Amir & Pineau 1998; Fay & Mitchell 1999; Hartley-Whitaker et al. 2000a,b; Jentschke & Godbold 2000; Mozafar et al. 2002; Moynahan et al. 2002; Baldrian 2003).”
Heavy metal detoxification and tolerance mechanisms in plants: Implications for phytoremediation (2016, background): “Mycorrhizae 328 particulary ECM that are characteristic of trees and shrubs, have been widely reported to be 329 effective in reducing the deleterious effects of heavy metals on the host plant (Marschner 1995; 330 Huttermann et al. 1999; Jentschke and Godbold 2000).”
Ectomycorrhizal protection of Pinus sylvestris against copper toxicity (2001, background): “Jentschke & Godbold (2000) warned that metal transfer to shoots is a complex process that is affected by transpiration, which in turn might be influenced by metal toxicity and fungal symbionts.”
Antioxidant activities and metal acquisition in mycorrhizal plants growing in a heavy-metal multicontaminated soil amended with treated lignocellulosic agrowaste (2009, background): “However, it remains unclear whether the observed alleviation is a consequence of improved nutrition, the fungal effect on the plant’s physiological stress reactions or simply hindered access of HMs to the root surface caused by the latter’s fungal sheath (Jentschke and Godbold, 2000).”
How metal-tolerant ecotypes of ectomycorrhizal fungi protect plants from heavy metal pollution (2011, background): “5 The adaptive metal tolerance in Suillus sp. protects pines against toxicity Since several decades, researchers have demonstrated that ectomycorrhizal fungi can alleviate metal toxicity in plants (Jentschke and Godbold 2000).”