Nano-Engineering at Functional Interfaces for Multidisciplinary Applications

1. Utility of nanoengineering for multidisciplinary applications<br>2. Overview of nanoengineering: synthesis, classification, characterization, functionality, and applications<br>3. Nanoengineering at functional plasmonic interfaces<br>4. Nanoengineering for gap-enhanced Raman tags and related plasmonic applications<br>5. Surface plasmon resonance waveguides and their applications: insights from functional metal-dielectric-metal interfaces<br>6. Nano-engineering at functional photonic crystal interfaces<br>7. Nano-engineering metasurfaces for myriad photonic applications<br>8. Nanoengineering light-emitting materials for sensing applications<br>9. Nano-engineering of functional metasurfaces by template-assisted self-assembly<br>10. Laser fabrication: a flexible nanoengineering approach towards plasmonics, anticancer, and sensing applications<br>11. Nano-engineering at functional interfaces in electrocatalysts and field-induced electrocatalyst<br>12. Nanoengineering low-dimensional materials for energy harvesting<br>13. Nano-engineering strategies for high-performance batteries and capacitors<br>14. Nanoengineering of materials for the chemiresistive sensing of volatile organic compounds<br>15. Nanoengineering of solution processed metal oxide interfacial layers for perovskite solar cells: impact on device performance and stability<br>16. Nanoengineering for antimicrobial applications<br>17. Green nanomaterials for antimicrobial and anticancer applications<br>18. Engineering advanced functional nanomaterials for virus detection<br>19. Nanoscale engineering for biomedical applications<br>20. Nano-engineering approaches for food analysis and related biosensing applications<br>21. Nanofunctional finishes fortextile applications<br>22. Nanoengineering via green technology for translational research<br>23. Future perspectives and research directions: technological advances and novel applications of nanostructures