Muutke küpsiste eelistusi

Modern Introduction to Surface Plasmons: Theory, Mathematica Modeling, and Applications [Kõva köide]

5.00/5 (4 hinnangut Goodreads-ist)
(University of Arizona),
  • Formaat: Hardback, 386 pages, kõrgus x laius x paksus: 249x175x23 mm, kaal: 920 g, Worked examples or Exercises; 230 Halftones, unspecified; 130 Line drawings, unspecified
  • Ilmumisaeg: 06-May-2010
  • Kirjastus: Cambridge University Press
  • ISBN-10: 0521767172
  • ISBN-13: 9780521767170
Teised raamatud teemal:
Modern Introduction to Surface Plasmons: Theory, Mathematica Modeling, and ApplicationsSuurem pilt
  • Formaat: Hardback, 386 pages, kõrgus x laius x paksus: 249x175x23 mm, kaal: 920 g, Worked examples or Exercises; 230 Halftones, unspecified; 130 Line drawings, unspecified
  • Ilmumisaeg: 06-May-2010
  • Kirjastus: Cambridge University Press
  • ISBN-10: 0521767172
  • ISBN-13: 9780521767170
Teised raamatud teemal:
Püsilink: https://www.kriso.ee/db/9780521767170.html
Märksõnad:
"In 1952 Pines and Bohm discussed a quantized bulk plasma oscillation of electronsin a metallic solid to explain the energy losses of fast electrons passing throughmetal foils [ 1]. They called this excitation a "plasmon"--Provided by publisher.

"Introducing graduate students in physics, optics, materials science and electrical engineering to surface plasmons, this book also covers guided modes at planar interfaces of metamaterials with negative refractive index. The physics of localized and propagating surface plasmons, on planar films, gratings, nanowires and nanoparticles, is developed using both analytical and numerical techniques. Guided modes at the interfaces between materials with any combination of positive or negative permittivity and permeability are analyzed in a systematic manner. Applications of surface plasmon physics are described, including near-field transducers in heat-assisted magnetic recording and biosensors. Resources at www.cambridge.org/9780521767170 include Mathematica code to generate figures from the book, color versions of many figures, and extended discussion of topics such as vector diffraction theory"--Provided by publisher.

Introducing graduate students in physics, optics, materials science, and electrical engineering to surface plasmons, this book also covers guided modes at planar interfaces of metamaterials with negative refractive index.

The physics of localized and propagating surface plasmons on planar films, gratings, nanowires, and nanoparticles is developed using both analytical and numerical techniques. Guided modes at the interfaces between materials with any combination of positive or negative permittivity and permeability are analyzed in a systematic manner. Applications of surface plasmon physics are described, including near-field transducers in heat-assisted magnetic recording and biosensors.

Cover illustration: a stylized theoretical image of the field intensity pattern around a lollipop nanoantenna at resonance. This antenna design was used in the first demonstration of near-field, heat-assisted magnetic recording with a flying recording head and rotating medium. It was used to confine laser energy on the medium to a recording track width of less than a tenth of a wavelength. Courtesy Seagate Technology.

Arvustused

"... the authors have provided an accessible source to the rapidly developing field of plasmonics... the material presented will amply fulfill the requirements of graduate students in the many disciplines that use plasmonics. The book is well illustrated, and overall it is prepared to an extremely high standard." K. Alan Shore, Optics and Photonics News

Muu info

This book introduces graduate students in physics, optics, materials science and electrical engineering to surface plasmons, and applications of surface plasmon physics.
Preface xi
1 Introduction
1(3)
2 Electromagnetics of planar surface waves
4(52)
2.1 Introduction
4(1)
2.2 Topics in electromagnetic theory
5(9)
2.3 Media type notation
14(4)
2.4 Mode and symmetry notation
18(1)
2.5 Wave vector notation
19(1)
2.6 Single-interface TE mode fields
20(2)
2.7 Single-interface TM mode fields
22(2)
2.8 Single-interface generalized fields
24(1)
2.9 Double-interface TE mode fields
25(2)
2.10 Double-interface TM mode fields
27(3)
2.11 Double-interface generalized fields
30(1)
2.12 Wave impedance
31(2)
2.13 Single-interface mode solution
33(2)
2.14 Double-interface mode solution
35(5)
2.15 Poynting vector
40(6)
2.16 Prism coupling
46(4)
2.17 Reflectivity and Goos-Hanchen shift
50(4)
2.18 Summary
54(1)
2.19 Exercises
55(1)
References
55(1)
3 Single-interface modes in the microwave regime
56(24)
3.1 Introduction
56(1)
3.2 Dispersion of em and μm
57(3)
3.3 Single-interface lossless-mode solutions
60(4)
3.4 Lossy modes in the Otto configuration
64(8)
3.5 Lossy modes in the Kretschmann configuration
72(6)
3.6 Summary
78(1)
3.7 Exercises
78(2)
References
79(1)
4 Single-interface lossless modes in er-μr parameter space
80(14)
4.1 Introduction
80(1)
4.2 System
80(4)
4.3 Mode equation solutions
84(3)
4.4 Fields and local power flow
87(6)
4.5 Summary
93(1)
4.6 Exercises
93(1)
References
93(1)
5 Double-interface lossless modes in er-μr parameter space
94(27)
5.1 Introduction
94(1)
5.2 System
94(5)
5.3 Mode equation solutions
99(1)
5.4 Complete mode equation solutions: dg = 500nm
100(10)
5.5 Complete mode equation solutions: dg = 25nm
110(9)
5.6 Summary
119(1)
5.7 Exercises
120(1)
References
120(1)
6 Single-interface surface plasmons
121(20)
6.1 Introduction
121(1)
6.2 System
121(3)
6.3 Mode equation solutions
124(3)
6.4 Fields and local power flow
127(5)
6.5 Propagating electric fields
132(1)
6.6 Surface charge density and fields
133(2)
6.7 Modes in the Otto and Kretschmann configurations
135(4)
6.8 Summary
139(1)
6.9 Exercises
140(1)
References
140(1)
7 Double-interface surface plasmons in symmetric guides
141(23)
7.1 Introduction
141(1)
7.2 System
141(3)
7.3 Mode equation solutions
144(4)
7.4 Fields and local power flow
148(6)
7.5 Fields and phasors
154(2)
7.6 Surface charge density and fields
156(2)
7.7 Modes in the general prism coupling configuration
158(4)
7.8 Summary
162(1)
7.9 Exercises
162(2)
References
162(2)
8 Quasi- one-dimensional surface plasmons
164(37)
8.1 Introduction
164(1)
8.2 Propagating surface plasmons on metallic wires of circular cross section
164(8)
8.3 Propagating surface plasmons on metallic wires of noncircular cross section
172(6)
8.4 Propagating surface plasmons on hollow cylindrical waveguides
178(4)
8.5 Propagating surface plasmons on hollow cylindrical shells
182(6)
8.6 Excitation of surface plasmons on nanowires with plane waves
188(8)
8.7 Nanowires with noncircular cross sections
196(2)
8.8 Summary
198(1)
8.9 Exercises
198(3)
References
199(2)
9 Localized surface plasmons
201(55)
9.1 Nanoparticles
201(20)
9.2 Nanoholes or nanovoids
221(3)
9.3 Nanoshells
224(8)
9.4 Other nanoparticle shapes
232(11)
9.5 Dual nanoparticles
243(6)
9.6 Summary
249(2)
9.7 Exercises
251(5)
References
251(5)
10 Techniques for exciting surface plasmons
256(27)
10.1 Introduction
256(1)
10.2 Otto configuration
257(4)
10.3 Kretschmann configuration
261(2)
10.4 Diffraction gratings and Wood's anomalies
263(11)
10.5 Surface roughness
274(1)
10.6 End-fire coupling
275(1)
10.7 Near-field launching
276(4)
10.8 Summary
280(1)
10.9 Appendix: description of grating code (See the online supplemental material at www.cambridge.org
280(1)
10.10 Exercises
280(3)
References
281(2)
11 Plasmonic materials
283(22)
11.1 Introduction
283(1)
11.2 Real metals
283(10)
11.3 Drude metals
293(9)
11.4 Summary
302(1)
11.5 Exercises
302(3)
References
303(2)
12 Applications
305(44)
12.1 Introduction
305(1)
12.2 Measuring the optical constants of metals
305(4)
12.3 Chemical and biological sensors
309(6)
12.4 Near-field microscopy
315(5)
12.5 Surface-enhanced Raman spectroscopy
320(2)
12.6 Nonlinear optics
322(2)
12.7 Heat-assisted magnetic recording
324(4)
12.8 Nanophotonics
328(12)
12.9 Cancer detection and treatment
340(1)
12.10 Other applications
341(2)
12.11 Summary
343(1)
12.12 Exercises
344(5)
References
344(5)
Appendix A
349(20)
A.1 Finite-difference time-domain method
349(12)
A.2 Poynting vector and local power flow
361(8)
References
367(2)
Index 369
Dror Sarid is Professor and former Director of the Optical Data Storage Center at the College of Optical Sciences, the University of Arizona. He participated in the development of the field of surface plasmons, identifying the long- and short-range surface plasmons and their important applications in science and technology. William Challener is a Research Scientist at Seagate Technology. He has worked on optical and magnetic data storage materials and systems, and various chemical and biological sensors employing surface plasmons and other evanescent wave optics.