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2024 | Buch

Thermoplasmonics

From Principles, Materials and Characterization to Engineering Applications

verfasst von: Guohua Liu

Verlag: Springer Nature Singapore

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Über dieses Buch

This book is built on the recent advancements in understanding thermoplasmonics and highlights the exciting new directions that are shaping this field. Thermoplasmonics using light to heat nanostructures is a promising and rapidly expanding subfield of plasmonics. When the light frequency matches the oscillation frequency of free electrons on the nanostructures, it induces a collective oscillation known as plasmon resonance. This effect allows fantastic control over the optical field at sub-wavelength scales, enhancing the light-matter interaction to surmount the diffraction limits. The plasmon resonance is responsible for fascinating and tunable properties, such as local field enhancement, generation of hot electrons as well as the localized/collective heating. These energetic carriers and heat can be harvested to drive a wide range of physical and chemical processes, making them promising for different fields of science. In this book, we discuss the recent advances in understanding of thermoplasmonics and highlight some of the exciting new directions, covering aspects of its principles, materials, and characterization, along with the diverse applications. The basic fundamentals are first introduced from plasmonic theory and thermodynamics to the thermal-induced processes. Then, much effort is placed on examination of thermoplasmonic materials and the common synthesis methods. The strategies for proper material selection and rational structural design are summarized toward more efficient energy conversion. The synthesizing methods for novel nanostructures are presented with a goal to achieve optimal thermoplasmonic properties. Afterward, the characterization technologies for thermoplasmonics are also addressed, which involves analytic and computational approaches as well as nanoscale thermometry. For each application, the unique role of thermoplasmonics and their associated benefits are elaborated. Research trends and insights into the use of thermoplasmonics to improve performance are analyzed as well. Finally, the current challenges and future perspectives in this field are pointed out in this book.

Inhaltsverzeichnis

Frontmatter
Chapter 1. Introduction
Guohua Liu
Chapter 2. Fundamental Principles of Thermoplasmonics
Abstract
Thermoplasmonic physics can be understood from different points of view (Matthew Pelton in Introduction to metal-nanoparticle plasmonics. Wiley, p 275, 2013 [1]; Besteiro et al. in ACS Photonics 4:2759–2781, 2017 [2]; Sio in Active plasmonic nanomaterials. CRC Press, Taylor & Francis Group, LLC, 2016 [3]; Camargo and Cortes in Plasmonic catalysis from fundamentals to applications. Wiley, 2021 [4]; Cunha et al. in Adv Opt Mater 8, 2020 [5]). A quantum–mechanical microscopic description defines plasmons as the collective oscillations of conduction electrons. Within this framework, plasmons manifest as charge-density waves, oscillating against a background of positive charge from atomic nuclei.
Guohua Liu
Chapter 3. Thermoplasmonic Materials
Abstract
Material selection, design, and fabrication are critical aspects in thermoplasmonics. Here, we focus on fundamental strategies for selecting suitable plasmonic materials, tuning surface plasmon responses through single nanoparticle designs involving size and shape, and leveraging coupling effects in NP assemblies with carefully designed matrices or substrates. Once the selection and design are established, the common synthesizing methods for novel nanostructures are further presented to achieve optimal thermoplasmonic properties.
Guohua Liu
Chapter 4. Characterization Techniques
Abstract
The ability to accurately measure localized temperature variations is essential for comprehending the fundamental aspects of thermoplasmonics. This calls for nanothermometry that possesses high spatial, temporal, and thermal resolutions. Yet, the sensitivity of many current techniques is compromised by systematic errors, which can arise from fluctuations in fluorescence, variations in local environmental conditions, or changes in the optical properties of the surrounding medium. Therefore, it is crucial to combine analytical models, numerical simulations, and experimental methods to achieve a complement understanding of thermoplasmonics.
Guohua Liu
Chapter 5. Engineering Applications
Abstract
This section discusses the diverse applications of thermoplasmonics including life sciences, optoelectronic information science, energy, chemistry, environmental studies, and material science. Specific areas of application include protein denaturation, photothermal cancer therapy, drug and gene delivery, heat-assisted magnetic recording, photoacoustic imaging, plasmonic-induced nanochemistry, photothermal imaging, solar steam generation, and experiments with single living cells. Each application is discussed in detail, focusing on the origins of the associated techniques, key pioneering studies that introduced significant variations or new concepts, the current advancements in the field, and the challenges that persist.
Guohua Liu
Chapter 6. Summary and Outlook
Abstract
This study provides a comprehensive review of the critical aspects of thermoplasmonics, including the basic principles, materials, characterizations, and burgeoning applications. Fundamental principles of thermoplasmonics are elucidated, encompassing plasmonic theory, thermodynamics, and thermal-induced physics. The discussion on plasmonic theory encompasses metal electromagnetism, plasmon resonances, and quality factors, providing a solid foundation for understanding the interaction of light with metallic nanostructures.
Guohua Liu
Metadaten
Titel
Thermoplasmonics
verfasst von
Guohua Liu
Copyright-Jahr
2024
Verlag
Springer Nature Singapore
Electronic ISBN
978-981-9783-32-8
Print ISBN
978-981-9783-31-1
DOI
https://doi.org/10.1007/978-981-97-8332-8