008 |
|
200715s2020 ne o 001 0 eng d |
020 |
|
|a9780128183939 (electronic bk.)
|
020 |
|
|a0128183934 (electronic bk.)
|
020 |
|
|a9780128183922 (print)
|
020 |
|
|a0128183926
|
040 |
|
|aYDX|beng|cYDX|dOPELS|dUKAHL|dOCLCF|dEBLCP|dN$T|dOCLCO|dS2H
|
041 |
0
|
|aeng
|
050 |
4
|
|aTA1530
|
082 |
04
|
|a621.36|223
|
095 |
|
|aNF|tLCC|p|dTA1530|e|c
|
245 |
00
|
|aNano-optics|h[electronic resource] :|bfundamentals, experimental methods, and applications /|cedited by Sabu Thomas [and more].
|
260 |
|
|aAmsterdam :|bElsevier,|c2020.
|
300 |
|
|a1 online resource
|
490 |
1
|
|aMicro and Nano Technologies Ser.
|
500 |
|
|aIncludes index.
|
505 |
0
|
|aIntro -- Nano-Optics: Fundamentals, Experimental Methods, and Applications -- Copyright -- Contents -- Contributors -- About the Editors -- Chapter 1: From nature: Optics, nanotechnology, and nano-optics -- 1. Introduction -- 2. Nature and optics -- 3. Nanotechnology in nature -- 4. Presence of nano-optics in nature -- 4.1. Light manipulation -- 4.2. Antireflection -- 4.3. Light focusing -- 4.4. Chirality -- 5. Summary -- References -- Chapter 2: Nano-optics: Challenges, trends, and future -- 1. An outlook -- 1.1. A historical perspective -- 1.2. Photonics -- 1.3. Speed of light
|
505 |
8
|
|a1.4. Focal length of thin spherical lens and refractive index -- 1.5. Brewster's angle -- 1.6. Optical properties of nanoparticles -- 2. Challenges: Nano-optics bottleneck -- 3. Trends: Current scenario in nano-optics -- 4. The future: A world of possibilities -- 5. Conclusion -- References -- Chapter 3: Nano-optics for healthcare applications -- 1. Introduction -- 2. Nano-optics for bio imaging -- 3. Nano-optics for biosensing -- 4. Nano-optics for cancer therapy -- 5. Conclusion -- References -- Chapter 4: Laser, nanoparticles, and optics -- 1. Laser-Introduction
|
505 |
8
|
|a1.1. Laser principle and properties -- 1.2. Applications of laser in nanotechnology -- 1.3. Applications of nanotechnology in laser devices -- 1.4. Laser-produced nanoparticles -- 1.4.1. Synthesis approach -- 2. Random lasing -- 2.1. Coherent and incoherent random lasers -- 2.2. Fabrication of the random media: Importance of nanostructured materials -- 2.3. Plasmonically enhanced random laser to spaser -- 2.4. Directionality in random lasers -- 3. Applications of random lasers -- References -- Chapter 5: Introduction to quantum plasmonic sensing -- 1. Introduction -- 2. Plasmonic sensing
|
505 |
8
|
|a2.1. Surface plasmon resonance sensing -- Spectral interrogation -- 2.2. Localized surface plasmon resonance sensing -- 2.3. Other plasmonic sensors -- 2.4. Intensity- and phase-sensitive sensing -- 3. Quantum sensing -- 3.1. Shot-noise limit -- 3.2. Subshot-noise sensing -- 3.3. Single-mode schemes -- 3.4. Two-mode schemes -- 4. Quantum plasmonic sensing -- 4.1. Quantum sensing with metallic nanoparticles -- 4.1.1. Refractive index sensing with two-mode squeezed vacuum states -- 4.1.2. Ultrasound sensing with two-mode squeezed displaced states
|
505 |
8
|
|a4.2. Quantum sensing with metallic film-prism setups -- 4.2.1. Refractive index sensing with two-mode squeezed displaced states -- Comparison among different state inputs -- 4.2.2. Refractive index sensing with photon number states -- 4.3. Quantum sensing with metallic nanowires -- 5. Conclusion -- References -- Chapter 6: Nanobiophotonics and fluorescence nanoscopy in 2020 -- 1. Introduction -- 1.1. Electrons, photons, and plasmons -- 1.2. Nanoparticles -- 2. Optical microscopy to nanoscopy -- 2.1. Optical resolution: A historical perspective -- 2.2. Optical nanoscopy
|
650 |
0
|
|aNanophotonics.
|
650 |
0
|
|aNanostructured materials.
|
650 |
7
|
|aNanophotonics.|2fast|0(OCoLC)fst01744190
|
650 |
7
|
|aNanostructured materials.|2fast|0(OCoLC)fst01032630
|
655 |
0
|
|aElectronic books.
|
655 |
4
|
|aElectronic books.
|
700 |
1
|
|aThomas, Sabu.
|
830 |
0
|
|aMicro and Nano Technologies Ser.
|
856 |
40
|
|uhttps://www.sciencedirect.com/science/book/9780128183922
|