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Showing 1-20 of 31 results
  1. Assessing Plants for Phytoremediation of Arsenic-Contaminated Soils

    Arsenic (As) is a pollutant of major concern throughout the world, and causes serious environmental problems in many areas including, for example,...
    Nandita Singh, Lena Q. Ma in Phytoremediation
    Protocol 2007
  2. Phytoremediation in China

    During recent decades contamination of ecosystems by synthetic organic compounds has increased tremendously in China, and now poses a major...
    Shirong Tang, Cehui Mo in Phytoremediation
    Protocol 2007
  3. Using Plant Phylogeny to Predict Detoxification of Triazine Herbicides

    A plant useful for phytoremediation has first to grow in the presence of the target pollutant without being harmed. The plant must not only be...
    Sylvie Marcacci, Jean-Paul Schwitzguébel in Phytoremediation
    Protocol 2007
  4. Using Electrodics to Aid Mobilization of Lead in Soil

    Lead is a significant contaminant in soil that poses a challenge to phytoremediation because of its low bioavailability induced by complexation with...
    David J. Butcher, Jae-Min Lim in Phytoremediation
    Protocol 2007
  5. Manipulating Soil Metal Availability Using EDTA and Low-Molecular-Weight Organic Acids

    Soils can be contaminated with heavy metals from various human activities and a num-ber of ex situ and in situ techniques have been developed to...
    Longhua Wu, Yongming Luo, **g Song in Phytoremediation
    Protocol 2007
  6. Detoxification of Soil Phenolic Pollutants by Plant Secretory Enzyme

    The enormous growth of industrialization and agriculture has resulted in serious environmental pollution, and polychlorophenols are among the most...
    Guo-Dong Wang, **ao-Ya Chen in Phytoremediation
    Protocol 2007
  7. Increasing Plant Tolerance to Metals in the Environment

    An effective metal phytoremediation strategy depends on the ability of plants to tolerate and accumulate metals from the environment. Metals in soil...
    Jennifer C. Stearns, Saleh Shah, Bernard R. Glick in Phytoremediation
    Protocol 2007
  8. Testing the Manipulation of Soil Availability of Metals

    Manipulating heavy-metal availability with chelating agents is a way to accelerate natural phytoremediation of contaminated soils. Nevertheless,...
    Fernando Madrid Diaz, M. B. Kirkham in Phytoremediation
    Protocol 2007
  9. Stable Isotope Methods for Estimating the Labile Metal Content of Soils

    Estimation of the labile or available metal content of soils relies extensively on the use of chemical-extraction techniques. However, where interest...
    Andrew J. Midwood in Phytoremediation
    Protocol 2007
  10. Sectored Planters for Phytoremdiation Studies

    Field practice of phytoremediation involves complicated and variable conditions. There is a need for methods that can transpose the contaminated site...
    Chung-Shih Tang in Phytoremediation
    Protocol 2007
  11. Soils Contaminated With Radionuclides

    Soils contaminated with radionuclides provide a particular challenge to soil decontamination and hence a useful perspective on the phytoextraction of...
    Neil Willey in Phytoremediation
    Protocol 2007
  12. Phytoremediation in Russia

    Phytoremediation is taking a prominent place in the processes of environmental cleanup from hazardous pollutants, and there is increasing interest...
    Yelena V. Lyubun, Dmitry N. Tychinin in Phytoremediation
    Protocol 2007
  13. Phytoremediation in India

    In India, urbanization, excessive utilization of natural resources, and population growth are the causes for air, water, and soil contamination and...
    M. N. V. Prasad in Phytoremediation
    Protocol 2007
  14. Searching for Genes Involved in Metal Tolerance, Uptake, and Transport

    Despite the recent exploitation of high-throughput methodologies such as cDNA microarrays, the overall picture of plant metal tolerance,...
    Viivi H. Hassinen, Arja I. Tervahauta, Sirpa O. Kärenlampi in Phytoremediation
    Protocol 2007
  15. Phytoremediation in Portugal

    A specific database concerning the number of sites suitable for phytoremediation, i.e., those sites that contain contaminants in moderate...
    Cristina Nabais, Susana C. Gonçalves, Helena Freitas in Phytoremediation
    Protocol 2007
  16. Plant Phylogeny and the Remediation of Persistent Organic Pollutants

    The purpose of this chapter is twofold. First, we review the relevant literature regarding the phytoremediation of persistent organic pollutants...
    Jason C White, Barbara A Zeeb in Phytoremediation
    Protocol 2007
  17. In Vitro Hairy Root Cultures as a Tool for Phytoremediation Research

    Plant model systems are needed in which to conduct basic laboratory studies prior to field applications of phytoremediation. In vitro plant cultures...
    Cecilia G. Flocco, Ana M. Giulietti in Phytoremediation
    Protocol 2007
  18. Phytoremediation With Living Aquatic Plants

    This chapter provides a summary of the mathematical analysis and experimental design of laboratory measurements of the bioremoval potential for...
    Steven P. K. Sternberg in Phytoremediation
    Protocol 2007
  19. Implementing Phytoremediation of Petroleum Hydrocarbons

    An evaluation of the current “state of the art” for the phytoremediation of total petroleum hydrocarbons (TPH) is given, which will allow for...
    Chris D. Collins in Phytoremediation
    Protocol 2007
  20. Uptake, Assimilation, and Novel Metabolism of Nitrogen Dioxide in Plants

    To understand the uptake and assimilation of nitrogen dioxide (NO2) in various plants, quantification of both inorganic nitrogen such as nitrate,...
    Misa Takahashi, Toshiyuki Matsubara, ... Hiromichi Morikawa in Phytoremediation
    Protocol 2007
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