Bioremediation of Pollutants

<p>Part I Phytoremediation</p> <p>1 Phytoremediation—a holistic approach for remediation of</p> <p>heavy metals and metalloids</p> <p>2 Role of potential native weeds and grasses for phytoremediation</p> <p>of endocrine-disrupting pollutants discharged from pulp paper</p> <p>industry waste</p> <p>3 Transgenic plants in phytoremediation of organic pollutants</p> <p>4 Progress, prospects, and challenges of genetic engineering in</p> <p>Phytoremediation</p> <p>5 Recent advances in phytoremediation using genome engineering</p> <p>CRISPR-Cas9 technology</p> <p>Part II Microbial Remediation</p> <p>6 Endophytes—the hidden world for agriculture, ecosystem, and</p> <p>environmental sustainability</p> <p>7 Engineering bacterial aromatic dioxygenase genes to improve</p> <p>Bioremediation</p> <p>8 Microbial remediation progress and future prospects</p> <p>9 Development of biologically-based activated carbon for advanced</p> <p>water and wastewater treatment process</p> <p>10 The role of microorganism bioremediation for sustainable</p> <p>environment management</p> <p>11 Bioreactor and bioprocess technology for bioremediation of</p> <p>domestic and municipal wastewater</p> <p>12 Metagenomics approach for bioremediation: challenges and</p> <p>Perspectives</p> <p>13 Microbial bioremediation of industrial effluents and pesticides</p> <p>14 Synthetic biology approaches for bioremediation</p> <p>15 Microbial indicators and biosensors for bioremediation</p> <p>16 Biosurfactant-based bioremediation</p> <p>17 Engineered bacteria for bioremediation</p> <p>18 Biofilm in bioremediation</p> <p>19 Genetic engineering approaches for detecting environmental</p> <p>Pollutants</p> <p>20 Current status, challenges, and future of bioremediation</p> <p>21 Engineered microbes and evolving plastic bioremediation</p> <p>technology</p>