Page 299 - Plant-Based Remediation Processes
P. 299

294                                                           Index

            Hyperaccumulator (cont.)             Sesbania drummondii, 66–67
              pyrite                             soil retention time, 59
                 biomass species, 141         Linum usitatissimum L. See Flax/linseed
                 Brassicaceae, 152
                 description, 141
                 metalliferous soils, 141     M
                 roots, 143                   Manganese (Mn), shoot tissues, 147, 148
                 T. caerulescens, 152         Mercury-contaminated soil
                                                 characterization, 281
                                                 EBCS, 282–285
            I                                    experimental procedure
            Immobilization techniques              mesocosm experiments, 281–282
              amendments/phytostabilization, 185   soil sequential extraction, 281
              ex situ and in situ, 185           samples, 281
              organic and inorganic amendments, 186  MeSeCys. See Methylselenocysteine
              phytoremediation, 186–189              (MeSeCys)
            Industrial processing             MeSeMet. See Methylselenomethionine
              flax and hemp, 228                      (MeSeMet)
              HMs-contaminated biomass, 229–230  Metabolism, selenium
                       ®
              OEKO-TEX limit values and fastness,  Astragalus species, 167, 168
                   228, 229                      ATP sulfurylase, 166, 167
              phytoextraction technology, 228    chloroplasts, 166
            In vitro root culture, metal removal  genetics, 168–169
              bioreactors, 109–110               phyto-volatilization, 168
              characteristics                    SeCys, 166, 167
                 axenic conditions, 102          SeMet synthesis, 168
                 heavy metal polluted habitats, 103  Metal/metalloids contamination, plant growth
                 metabolic engineering, 103      biomass, 80
                 PGR, 102                        causes, industry development, 79
                 phytoremediation process and    macro-and microelements
                   mechanisms, 102                 calcium and liming, 84–85
                 plant cells and tissues, 102      crop plants nutrients, agroecosystems,
                 roots and shoots, 103–104           82–84
              hairy root (see Hairy root culture)  fertilisers, 85
              Rubia tinctorum, 104                 high soil copper, 85
              Scirpus americanus, 104              lithosphere, 80
              Typha latifolia, 104                 mineral nutrition, plant, 82
                                                   plant production purposes, 84
                                                   soil-forming processes, 80
            L                                      solid phase, 80–82
            Lead (Pb)-contaminated environment,    synergism, 84
                   tropical plants                 triple-phase system, 80
              antioxidant enzymes, 72–73           zinc and manganese, 84
              archeological research, 59–60      phytoremediation (see Phytoremediation)
              chelates assisted mechanism, 70–71  polluted area, 79
              contamination, 60                  soil parameters changes (see Growth
              exposure, 60                           stimulation)
              noxious effects, 69–70          Metal/metalloids phytoremediation
              oxyanion complexes, 62–63          bacteria and mycorrhizal fungi, 40–41
              passive and induced mechanisms, 71–72  biochemical responses
              physical properties, 59              Brassica juncea,46
              phytoextraction, 65–66               chloroplast structure and function, 46
              phytoremediation (see Phytoremediation)  enzyme activity, 45–46
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