Phytomanagement of Polluted Sites

<p>1. Phytoremediation: From theory towards practices<br>2. Market opportunities in sustainable phytoremediation<br>3. Ecological Restoration of Coal Mine Degraded Lands – Topsoil Management, Pedogenesis, Carbon Sequestration and Mine Pit Limnology <br>4. Ecorestoration of fly ash deposits by native plant species at thermal power stations (Serbia) <br>5. Ecorestoration of polluted aquatic ecosystems through rhizofiltration<br>6. Floral species in pollution remediation and augmentation of micrometeorological conditions and microclimate: An integrated approach<br>7. Phytoremediation of Air Pollutants: Prospects and Challenges<br>8. A review of phytoremediation prospects of arsenic contaminated water and soil<br>9. Aromatic crops in phytoremediation: From contaminated to waste dump sites<br>10. Rehabilitation of uranium contaminated sites by phytoremediation and natural attenuation<br>11. A sustainable phytoremediation strategies for river water rejuvenation<br>12. Restoration of pesticide contaminated sites through plants<br>13. Adaption mechanisms in plants under heavy metal stress conditions during phytoremediation<br>14. Application of soil quality indicators for phytorestoration of mine spoil<br>15. Rhizoremediation of polluted sites: harnessing plant-microbe interactions<br>16. Phytoremediation of red mud deposits through natural succession<br>17. Eco-restoration potential of vegetation for contaminated water bodies<br>18. Phytomanagement of chromium contaminated brown fields<br>19. Techno-economics perspectives of bioremediation of wastewater, dewatering and biofuel production from <br>microalgae<br>20. Exploring the potential and opportunities of recent tools for removal of hazardous materials from environments<br>21. Recent advances, challenges and opportunities in bioremediation of hazardous materials<br>22. Economics, Technology and Environmental Protection: A Critical Analysis of Phytomanagement Technologies</p>