All-Dielectric Nanophotonics
- 1st Edition - November 9, 2023
- Imprint: Elsevier
- Editors: Alexander S. Shalin, Adrià Canós Valero, Andrey Miroshnichenko
- Language: English
- Paperback ISBN:9 7 8 - 0 - 3 2 3 - 9 5 1 9 5 - 1
- eBook ISBN:9 7 8 - 0 - 3 2 3 - 9 5 1 9 6 - 8
All-Dielectric Nanophotonics aims to review the underlying principles, advances and future directions of research in the field. The book reviews progress in all-dielectric metasu… Read more
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Request a sales quoteAll-Dielectric Nanophotonics aims to review the underlying principles, advances and future directions of research in the field. The book reviews progress in all-dielectric metasurfaces and nanoantennas, new types of excitations, such as magnetic and toroidal modes and associated anapole states. Ultrahigh-Q resonant modes such as bound states in the continuum are covered and the promise of replacing conventional bulky optical elements with nanometer-scale structures with enhanced functionality is discussed. This book is suitable for new entrants to the field as an overview of this research area. Experienced researchers and professionals in the field may also find this book suitable as a reference.
- Provides an overview of the fundamental principles, theories and calculation techniques underpinning all-dielectric nanophotonics research
- Reviews current progress in the field, such as all-dielectric metasurfaces and nanoantennas, new types of excitations, associated anapole states, and more
- Discusses emerging applications such as active nanophotonics with in-depth analysis
Materials Scientists and Engineers, Physicists
1. Introduction
2. Theoretical background
2.1 Maxwell’s equations
2.2 General concepts of scattering theory
2.3 Multipole decompositions
2.4 Quasinormal modes
2.5 Phenomenological models
2.6 General principles of periodic arrays
3. Dielectric materials
3.1 Introduction
3.2 Conventional semiconductors
3.3 Emerging materials
4. Directional scattering of dielectric nanoantennas
4.1 First and second Kerker conditions
4.2 Generalized Kerker effect
4.3 Non-diffractive arrays: Kerker effect, perfect reflection, and lattice anapole
4.4 Lattice resonance effect
4.5 Finite-size arrays
4.6 Unidirectional scattering near substrate
4.7 Transverse Kerker effect
4.8 Superdirectivity
4.9 Beamsteering with nanoantennas
4.10 Nanoparticle chain waveguides
4.11 Summary
4.12 Abbreviations
5. Fano resonances in all-dielectric nanostructures
5.1 Theory of Fano resonances
5.2 Disorder-induced Fano resonances
5.3 Cascades of Fano resonances
5.4 Fano resonance and Purcell effect
5.5 Dynamical scattering effects at the Fano resonances
5.6 Fano resonance in metasurfaces
5.7 Summary
6. Non-radiating sources
6.1 Multipole analysis of radiationless states
6.2 Fano–Feshbach description of radiationless states
6.3 Selected experiments and applications
7. Bound states in the continuum in dielectric resonators embedded into metallic waveguide
7.1 Introduction
7.2 BICs in periodical arrays and gratings
7.3 Dielectric rods inserted into radiation space restricted by metal planes
7.4 Rectangular rod between two metallic planes
7.5 Fabry–Perot BICs: two rods inside waveguide
7.6 Topologically protected BICs merge into SP or accidental BICs
7.7 Conclusions and discussion
8. Exceptional points
8.1 Introduction
8.2 General theory of exceptional points
8.3 Exceptional points in isolated and coupled dielectric resonators
8.4 Exceptional points in non-Hermitian systems with gain and loss
8.5 Topological properties of exceptional points
8.6 Enhanced sensitivity at the EP
8.7 EPs and strong coupling
8.8 Conclusion
9. Rational design of maximum chiral dielectric metasurfaces
9.1 Introduction
9.2 Theoretical background
9.3 Chiral mirrors
9.4 Rotationally symmetric chiral metasurfaces
9.5 Asymmetric metasurfaces
9.6 Conclusions and outlook
10. Transparent phase dielectric metasurfaces
10.1 Introduction
10.2 Fano metasurfaces
10.3 Huygens metasurfaces
10.4 Transverse Kerker metasurfaces
10.5 Hybrid anapole metasurfaces
10.6 Pancharatnam–Berry phase metasurfaces
11. Nonlinear phenomena empowered by resonant dielectric nanostructures
11.1 Introduction
11.2 Third-order nonlinear effects in dielectric nanostructures
11.3 Quadratic nonlinear effects in dielectric nanostructures
11.4 Conclusions and outlook
12. Active nanophotonics
12.1 Theoretical concepts
12.2 Configurations for enhancing the emission of quantum emitters
12.3 Outlook
13. Summary, future perspectives, and new directions
- Edition: 1
- Published: November 9, 2023
- No. of pages (Paperback): 428
- Imprint: Elsevier
- Language: English
- Paperback ISBN: 9780323951951
- eBook ISBN: 9780323951968
AS
Alexander S. Shalin
Dr. Alexander Shalin is currently an Associate Professor at Riga Technical University and a Principal Researcher at Moscow Institute of Physics and Technology and Senior Researcher at Moscow State University. Dr. Shalin got his PhD in physics (Optics) in 2007 from Ulyanovsk State University, Russia. In 2014 he was awarded the title of Full Doctor of Sciences from ITMO University (Saint Petersburg). In 2015, he became the head of the Laboratory of ‘Nano-Optomechanics and NanoPhotonics’ at ITMO. He possesses significant scientific experience and has more than 150 publications in prestigious journals and several monographs. He has contributed extensively to the development of all-dielectric nanophotonics, including but not limited to the introduction of higher order toroidal moments and hybrid anapole states, studies on the optomechanical interactions of dielectric nanoparticles, or the first proposal of the unusual transverse Kerker effect. In 2017, he was recognized as Best Young Scientist in ITMO.
Affiliations and expertise
Associate Professor, Riga Technical University, Latvia and Principal Researcher at Moscow Institute of Physics and Technology and Senior Researcher at Moscow State UniversityAV
Adrià Canós Valero
Dr. Adria Canos Valero received his MSc in Materials Science and Engineering from the EEIGM (France). After a period at CERN (Switzerland) focused on the study of superconducting materials, he went ahead to pursue his passion in theoretical electromagnetism at ITMO University, where he recently acquired his Ph.D. His research is centered around the study of non-radiating sources and non-Hermitian effects arising in all-dielectric nanophotonic platforms. He has authored several interdisciplinary works on all-dielectric nanophotonics published in highly reputed journals. Among his most relevant contributions, together with his co-authors, he introduced and observed the non-radiating source known as Hybrid Anapole, proposed an on-chip all-dielectric scheme to mix fluid in nano volumes, and found a connection between symmetry breaking and super scattering mediated by bound states in the continuum.
Affiliations and expertise
ITMO University, Petersburg, RussiaAM
Andrey Miroshnichenko
Dr. Andrey Miroshnichenko is currently a professor at UNSW Canberra in the School of Engineering & Information Technology. Professor Andrey Miroshnichenko received this Ph.D. in 2003 from the Max-Planck Institute for Physics of Complex Systems in Dresden (Germany) and joined in 2004 the Nonlinear Physics Center at ANU, Australia. During his career, he has made several fundamental contributions to the development of photonic crystals and played a crucial role in introducing the Fano resonance concept to nanophotonics. In 2017 he was awarded the renowned UNSW Scientia Fellowship, and joined the University of New South Wales in Canberra. He has authored or co-authored more than 250 journal publications and a book and several book chapters. His research interests encompass a wide range of topics within nonlinear nanophotonics, nonlinear optics, optical nanoantennas, metasurfaces and nanoclusters.
Affiliations and expertise
Professor, School of Engineering and Information Technology, University of New South Canberra, Canberra, AustraliaRead All-Dielectric Nanophotonics on ScienceDirect