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Preface |
6 |
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Contents |
8 |
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1 Introduction |
11 |
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References |
13 |
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2 Theory of Photo-Thermal Effects for Plasmonic Nanocrystals and Assemblies |
15 |
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2.1 Introduction |
15 |
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2.2 Optical Properties of Single Nanoparticles and Nanoparticle Clusters |
16 |
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2.2.1 Mie Theory |
17 |
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2.2.1.1 Quasistatic Approximation |
18 |
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2.2.2 Effective Medium Theory |
19 |
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2.2.3 Effect of Geometry of the System |
20 |
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2.2.4 Effect of Nanoparticle Material and Its Surrounding Medium |
22 |
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2.3 Optically Generated Heat Effects |
23 |
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2.3.1 Single Spherical Nanoparticles |
24 |
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2.3.1.1 Phase Transformations |
26 |
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2.3.2 Ensemble of Nanoparticles |
27 |
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2.3.3 Thermal Complexes with Hot Spots |
28 |
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References |
32 |
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3 Nanoscale Temperature Measurement Under Optical Illumination Using AlGaN:Er3+ Photoluminescence Nanothermometry |
33 |
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3.1 Introduction |
33 |
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3.2 AlGaN:Er3+ Photoluminescence Nanothermometry |
33 |
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3.3 Experimental Details of AlGaN:Er3+ Photoluminescence Nanothermometry |
35 |
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References |
39 |
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4 Comparison of Nucleation Behavior of Surrounding Water Under Optical Excitation of Single Gold Nanostructure and Colloidal Solution |
41 |
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4.1 Introduction |
41 |
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4.2 Temperature Changes and Phase Transformation with Gold Nano-wrenches |
41 |
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4.3 Dynamic Temperature Changes and Phase Transformation with Gold Nano-wrenches |
42 |
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4.4 Temperature Measurements of Optically Excited Colloidal Gold Nanoparticles |
45 |
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4.5 Temperature Measurements Probing Convection of the Liquid During Laser Excitation of a Colloidal Nanoparticle Solution |
45 |
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References |
48 |
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5 Effect of Ions and Ionic Strength on Surface Plasmon Extinction Properties of Single Plasmonic Nanostructures |
49 |
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5.1 Introduction |
49 |
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5.2 Measurement of Nanoscale Temperature Change on Optically Excited Gold Nanowires Using AlGaN:Er3+ Nanothermometry |
50 |
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5.3 Dynamic Temperature Measurements on Single Gold Nanowire Using Flow Cell |
52 |
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5.4 Model of Heat Transfer |
52 |
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5.5 Absorption Measurements on Gold Nanoparticle(s)/ Gold Nanorod(s) |
53 |
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5.6 Absorption and Temperature Measurements on a Same Gold Nanoparticle(s) |
55 |
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5.7 Single Nanowire Dark-Field Scattering Measurements |
56 |
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5.8 Single Nanoparticle(s) Emission Measurements |
57 |
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5.9 Calculation of Absorption Cross Section of a Nanowire |
57 |
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5.10 Langmuir Model of Charge Occupancy and Effect on Absorption Attenuation |
59 |
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References |
59 |
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6 Photothermal Heating Study Using Er2O3 Photoluminescence Nanothermometry |
61 |
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6.1 Introduction |
61 |
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6.2 Temperature Calibration of Erbium Oxide Photoluminescence |
62 |
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6.3 Temperature Profile of Single Gold Nanodot |
64 |
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6.4 Temperature Measurement Inside a Microbubble |
68 |
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6.5 Drawbacks/Limitations of the Technique |
69 |
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References |
70 |
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7 Nanoscale Temperature Study of Plasmonic Nanoparticles Using NaYF4:Yb3+:Er3+ Upconverting Nanoparticles |
72 |
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7.1 Introduction |
72 |
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7.2 Temperature Calibration of NaYF4:Yb3+,Er3+ Nanocrystals Photoluminescence |
72 |
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7.3 Characterization of NaYF4:Yb3+,Er3+ Nanocrystals |
74 |
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7.4 Lifetime Study of NaYF4:Yb3+,Er3+ Nanocrystals |
76 |
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References |
80 |
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8 Near Field Nanoscale Temperature Measurement Using AlGaN:Er3+?Film via Photoluminescence Nanothermometry |
82 |
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8.1 Introduction |
82 |
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8.2 Characterization of NSOM Tip and Nanoparticles |
83 |
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8.3 Sub Diffraction Near Field Photothermal Temperature Measurement |
84 |
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8.4 Steady State Near Field Photothermal Heat Study |
88 |
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8.4.1 Estimation of Cluster Radius (Rc) from Thermal Profile |
89 |
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8.5 Comparison Between Estimation of Cluster Radius (Rc) from Thermal Profile, AFM, and Changes on Er3+ Luminescence Intensity |
90 |
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8.6 Two Laser Steady State Data Collection Experiment |
91 |
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8.7 Scaling Law in Near Field Photothermal Heat Dissipation |
92 |
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References |
95 |
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