Chapters Brief Overview:
1: Plasmonic solar cell: This chapter introduces the concept of plasmonic solar cells, detailing their advantages in enhancing light absorption and efficiency.
2: Surface plasmon resonance microscopy: A focused exploration of how surface plasmon resonance microscopy aids in understanding plasmonic structures and their behavior.
3: Thinfilm solar cell: Learn about the integration of plasmonics into thinfilm solar cells for reduced material use and increased efficiency.
4: Colloidal gold: Discover how colloidal gold nanoparticles can be utilized to enhance the performance of plasmonic solar cells.
5: Nanophotonics: An overview of how nanophotonics merges with plasmonics to control light at the nanoscale for improved solar cell functionality.
6: Plasmonics: This chapter dives deep into plasmonics, explaining its fundamental principles and its application in renewable energy technology.
7: Surfaceenhanced Raman spectroscopy: Understand the role of surfaceenhanced Raman spectroscopy in analyzing plasmonic materials for solar cell development.
8: Nanoshell: The chapter discusses how nanoshells, with their unique optical properties, contribute to enhancing solar cell efficiency.
9: Photothermal therapy: Explore the application of plasmonic nanomaterials in photothermal therapy and their potential crossover into energy applications.
10: Plasmonic nanoparticles: Learn about the role of plasmonic nanoparticles in solar cell design and their ability to improve light absorption and energy conversion.
11: Localized surface plasmon: This chapter covers the concept of localized surface plasmon resonance, essential for increasing the efficiency of plasmonic solar cells.
12: Plasmonic metamaterial: Gain insight into the design and application of plasmonic metamaterials, a breakthrough in enhancing solar cell properties.
13: Surface plasmon: Delve into the science behind surface plasmon excitation, a key factor in optimizing plasmonic solar cell performance.
14: Nanolaser: An exploration of how plasmonic nanolasers could revolutionize energy harvesting technologies.
15: Plasmon: This chapter examines the role of plasmons in energy transfer and their influence on the development of efficient solar cells.
16: Graphene plasmonics: Discover the synergy between graphene and plasmonics and how it could lead to more efficient solar cells.
17: Surface plasmon polariton: Learn about the phenomenon of surface plasmon polaritons and their potential to advance solar energy technologies.
18: Surface plasmon resonance: A detailed study of surface plasmon resonance and its crucial role in the development of highperformance solar cells.
19: Prashant K. Jain: This chapter highlights the contributions of Prashant K. Jain in advancing the field of plasmonics, with a focus on energy applications.
20: Multiple layered plasmonics: Examine the concept of multiplelayered plasmonics and its potential for enhancing solar cell design.
21: Plasmonic nanolithography: Explore the technique of plasmonic nanolithography, which can be used to fabricate advanced structures for solar energy harvesting.