Bioremediation and Bioeconomy

<p>I. Bioproducts from contaminated substrates (soil and water)</p> <p>1. Trace element contaminated agrocenoses in Ukraine for production of biodiesel</p> <p>2. Energy plantations, medicinal and aromatic plants on contaminated/ metalliferous soil</p> <p>3. Prosopis juliflora (Sw) DC – potential for bioremediation and biobased economy</p> <p>4. Giant reed (Arundo donax L.): a multipurpose crop bridging phytoremediation with sustainable bio-economy</p> <p>II. Biomass Energy, Biodiesel and Biofuel from contaminated substrates</p> <p>5. Biomass energy from revegetation of landfill sites</p> <p>6. Bioenergy from phytoremediated phytomass of aquatic plants via gasification </p> <p>7. Jatropha curcas L. cultivation on constrained land - Exploring the potential for economic growth and environmental protection </p> <p>8. Potential of castor bean (Ricinus communis L.) for phytoremediation of metalliferous waste assisted by plant growth promoting bacteria – possible cogeneration of economic products</p> <p>III. Ornamentals and crops for contaminated substrates</p> <p>9. Potential of ornamental plants for phytoremediation of heavy metals and income generation</p> <p>10. Tree crops on abandoned mines for environmental remediation and industrial feedstock</p> <p>11. Rice paddies for trace element cleanup - Bioeconomic perspectives</p> <p>12. Cultivation of Sweet Sorghum on Heavy Metal Contaminated Soils by Phytoremediation Approach for production of sweet fuel</p> <p>IV. Brownfield development for smart bioeconomy</p> <p>13. Mulberry and Vetiver for phytostabilization of mine over burden: Co-generation of economic products </p> <p>14. Utilization of contaminated lands for cultivation plant resources for production of dyes</p> <p>15. Brownfield restoration as a smart economic growth option for promoting ecotourism and leisure - Two case studies in Nord – Pas-de-Calais territory (France)</p> <p>16. Biological recultivation of mine industry deserts - facilitating the formation of phytocoenosis in the middle Ural region, Russia</p> <p>V. Algal bioproducts, biofuels, biorefinery for business opportunities</p> <p>17. Phycoremediation and business prospectus </p> <p>18. Algae based bioremediation: Bioproducts and biofuels for biobusiness</p> <p>VI. Bioprocesses, Bioengineering for boosting biobased economy</p> <p>19. Building a Biobased economy through waste remediation: Innovation towards a sustainable future</p> <p>20. Energy from waste water treatment plants</p> <p>21. Bioprocesses for Waste and Wastewater Remediation and Sustainable Energy Generation</p> <p>VII. Case studies</p> <p>22. Bioremediation in Brazil: Challenges to improve the development and application to boost up the bioeconomy</p> <p>23. Phytoremediation of Soil and Groundwater – Economic Benefits over Traditional Methodologies</p> <p>24. Phytomanagement of Polycyclic Aromatic Hydrocarbons and Heavy Metals Contaminated Sites in Assam, North Eastern State of India for Boosting Bio-economy</p> <p>VIII. New Biology</p> <p>25. Ecocatalysis: A New Approach Towards Bioeconomy</p> <p>26. Synthetic biology - an emerging field for developing economies</p>