Metal Hyperaccumulator Plants: A Review of the Ecology and Physiology of a Biological Resource for Phytoremediation of Metal-Polluted Soils

By A. Baker, S. McGrath, R. Reeves, J. A. Smith. 2000

1,170 citations recorded by the source corpus.

Subfields: Analytical Chemistry, Plant Science, Pollution

View Paper: https://www.semanticscholar.org/paper/a100ff0a4482bc3fc6cf8a4caf8f5ee387aba859

How researchers see this paper

The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.

In Analytical Chemistry

1. E. Pilon-Smits
2. N. Rajakaruna

In Plant Science

1. R. Boyd
2. J. Barea
3. C. Azcón-Aguilar
4. R. Azcón
5. J. M. Nongkynrih
6. Kavita Shah
7. E. Pilon-Smits
8. M. Pozo

In Pollution

1. Kavita Shah
2. J. M. Nongkynrih
3. F. A. Harper
4. Keri Dandridge Powell
5. A. Pollard
6. J. A. Smith
7. R. Boyd
8. E. Pilon-Smits

Citations in the corpus

• Phytoremediation of Metals Using Transgenic Plants (2002, background): “Metal hyperaccumulators are commonly defined as plant species that accumulate ~100-fold higher metal levels than nonaccumulator species (Brooks, 1998), for example, 1% of DW for Mn and Zn, 0.1% of DW for Cu and Ni, and 0.01% of DW for Cd (Baker et al., 2000).”
• Coping Mechanisms of Plants to Metal Contaminated Soil (2013, background): “Baker et al. (2000) categorized these ligands according to the characteristic electron donor centers, which include sulfur donor ligands, oxygen donor ligands and nitrogen donor ligands.”
• Metal hyperaccumulation and bioremediation (2007, background): “The technology is based on the use of naturally occurring or genetically engineered microorganisms (GEMS) to restore contaminated sites and protect the environment (Baker et al. 2000).”