Novel Nanostructured Materials for Electrochemical Bio-sensing Applications

PART 1: Fundamentals, Current advancements in nanostructured electrochemical biosensors <br>Currently there is a huge progress in nanostructured materials and their applications. Especially for electrochemical bio-sensing applications because nanostructured material has great characteristics like rich surface chemistry, high surface area, surface functionality, compatibility etc.<br>1. Fundamentals of nanostructured materials and synthetic routes <br>2. Basic principles, classifications and historical prospectives of electrochemical biosensors<br>3. Modern trends in carbon nanostructured materials based electrochemical bio-sensing systems<br>4. Developments in inorganic, organic nanostructured materials based electrochemical bio-sensing <br>5. Organo-metallic and biomass derived nanostructured materials for bio-sensing applications<br>6. Comparative review of nanostructured electrochemical bio-sensing with other sensing technologies <br><br>PART 2: Fabrication of nanostructured materials based bio-sensing Platforms<br>Physical, chemical, mechanical characteristics and chemical functionalities of material played an important role in fabrication of electrochemical biosensor. Material characteristics has a great influence on bio-sensing performance. This section includes discussion of methods and materials for preparation of nanostructured biosensors.<br>7. Approaches in preparation of carbon nanostructured electrochemical bio-sensing devices<br>8. Fabrication routes for metallic nanostructured electrochemical biosensors<br>9. Design of nanostructured bio-sensors based on organic and other composite materials <br>10. Electronic aspects of Electrochemical biosensors: Operation conditions, power requirement, integration ability <br><br>PART 3: Applications of nanostructured electrochemical biosensors <br>Nanostructure material based biosensors have wide spread applications in field of biomedical, environmental, industrial, food and beverages, agricultural, forensic and pharmaceutical analysis. Because these biosensors hold extradinary analytical improvements in terms of low concentration detection, impressive detection and quantification limits. This section includes the applications of nanostructured material biosensors<br>11. Nanostructured materials based electrochemical biosensor devices for quantification of antioxidants<br>12. Nanostructured electrochemical biosensors for pesticides, insecticides.<br>13. Electrochemical bio-sensing for determination of toxic dyes<br>14. Electrochemical detection of pathogens in water and food samples <br>15. Electrochemical biosensors for toxic gases monitoring<br>16. Electrochemical bio-sensing tools for soil nutrient and pH monitoring <br>17. Nanostructure materials modified electrochemical bio-sensing devices for determination of neurochemicals<br>18. Real-time utilization of nanostructured biosensors for determination food toxins<br>19. Nanostructured electrochemical biosensors for estimation of pharmaceutical drugs<br>20. Advanced nanostructured materials based biosensors in clinical and forensic diagnosis<br>21. Detection of toxic metals using nanostructured bio-sensing platforms<br>22. Nanostructured materials based electrochemical biosensors for hormones<br>23. Nanostructured electrochemical biosensors for determination of amino acids<br>24. Micronutrients and vitamins electrochemical biosensors based on nanostructured materials <br>25. Applications of flexible, wearable biosensors for society welfare<br>26. Safety, health and regulation issues of nanostructured biosensors<br>27. Advances in green synthesis of nanostructured biosensors<br>28. Recycling, Toxicity and disposal methods for nanostructured materials based biosensors<br>29. Economic impact and commercialization limitations of nanostructured electrochemical biosensors<br>30. Future Sustainability and sensitivity of nanostructured materials based electrochemical biosensors over other technologies <br>31. Current electrochemical biosensors in market, trends and its future reliability : A Case study<br>32. A overview stability and life time of electrochemical biosensors