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Search for "nanoparticle heating" in Full Text gives 2 result(s) in Beilstein Journal of Nanotechnology.

Time-resolved probing of laser-induced nanostructuring processes in liquids

Maximilian Spellauge,
David Redka,
Mianzhen Mo,
Changyong Song,
Heinz Paul Huber and
Anton Plech

Beilstein J. Nanotechnol. 2025, 16, 968–1002, doi:10.3762/bjnano.16.74

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Figure 1: Scheme of fundamental structural relaxations of laser-excited metal NPs in liquid environment. (A) ...

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Figure 2: Time-resolved experiments using ultrashort X-ray or electron pulses via a pump–probe method. (A) Ti...

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Figure 3: Single-particle investigation via multiplexing experiments. (A) An XFEL single-pulse multiplexing e...

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Figure 4: MeV-UED studies of structure dynamics in solution. (A) Schematic diagram of the experimental setup....

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Figure 5: MeV-UED studies of ionized liquid water. (A) Experimental results of ΔI_mol(q,t). (B) Reconstructed Δ...

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Figure 6: (A) Estimation of temperature change of slowly heated gold nanoparticles as function of absorbed la...

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Figure 7: Ultrafast transient absorption data measuring the heat transfer from Au NPs to the liquid environme...

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Figure 8: Examples for time-resolved optical studies of gold NP excitation. In (A) TAS with a pulsed pump bea...

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Figure 9: (A) Change of X-ray scattering distribution of a laser-excited gold particle suspension in water at...

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Figure 10: Caloric progress of gold NP heating and fragmentation as result of picosecond-resolved X-ray scatte...

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Figure 11: (A) Schematic setup of PPM. The pump pulse (red) is focused on the target at a defined angle, while...

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Figure 12: Sub-nanosecond laser ablation dynamics in liquid. (A) Filament formation after irradiation of disti...

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Figure 13: Nanosecond, microsecond and millisecond laser ablation dynamics in liquid. (A) Shadowgraphs with a ...

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Review

Published 02 Jul 2025

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Plasmonic nanotechnology for photothermal applications – an evaluation

A. R. Indhu,
L. Keerthana and
Gnanaprakash Dharmalingam

Beilstein J. Nanotechnol. 2023, 14, 380–419, doi:10.3762/bjnano.14.33

pondered on in the final section of the article, taking into account the specific requirements from different applications. Keywords: nanoparticle heating; phonons; photothermal; plasmonic; stability; surface plasmon resonance; Review 1 Introduction With an ever-increasing demand for energy and the

conductivity, tunability of materials for realizing broadband energy absorption, appearance of new mechanisms of photon absorption, and improved prospects of preserving material properties [4][5][6]. Nanoparticle heating can result also due to the conversion of optical absorption by plasmons into heat. This

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Figure 1: Schematic representation of surface plasmon resonance (SPR) excitation. (a) SPR wave or surface pla...

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Figure 2: Optical spectra (absorption – red, scattering – blue, and extinction – black) of different morpholo...

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Figure 3: Manifestation of the governing factors of SPR. Shown are the changes to the peak position while con...

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Figure 4: Dissipation ratio of electron–hole pair loss vs phonon loss of the surface plasmon excitation for d...

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Figure 5: Extinction efficiencies of gold nanospheres calculated through the quasi-static approximation vs us...

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Figure 6: Absorption spectra of Au nanospheres of different diameters showing the shift of excitation wavelen...

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Figure 7: Normalized absorption spectra of Ag-NMs with different radii of the concentric spheres irradiated u...

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Figure 8: The PT conversion mechanism. (a) Photoexcitation of plasmons. (b) Electron thermalization. (c) Elec...

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Figure 9: Radiative and non-radiative decay time scales of the conversion processes in PPT materials. For the...

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Figure 10: Hot carrier lifetimes on the Fermi surface and variation between positive and negative curvature, e...

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Figure 11: Electron–phonon coupling timescales for different diameters of metal nanoparticles: (a) Ag, (b) Au,...

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Figure 12: Comparison of the probability distribution of electrons and holes at various energy levels for coin...

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Figure 13: Relaxation process of the phonon vibration. Figure 13i (left panel) was redrawn from [82]. Figure 13ii (right panel) was ad...

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Figure 14: Thermal capacitance coefficient (β) for the ellipsoidal, rod, disk, and ring morphologies of Au nan...

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Figure 15: Absorption spectra of spherical nanoparticles of Ag, Au, and Cu with radii between 50 and 100 nm an...

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Figure 16: PT conversion and thermalization of plasmonic nanoparticles after absorption of a laser pulse. The ...

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Figure 17: SEM images of Au nanoassemblies. (a) Hexagonally filled Au polyhedra. (b) Hexagonally filled Au pol...

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Figure 18: (i) FDTD calculation of absorption spectra of Au nanorods (aspect ratio of ca. 3) for different num...

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Figure 19: TEM images with 50 nm scale bars of linked Ag nanospheres prepared with an injection rate of 5 μL/m...

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Figure 20: TEM images of CuS, metal, and bimetal plasmonic nanoparticles and the corresponding temperature ris...

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Figure 21: (i) (a, b) SEM images of a black Au membrane in a hexagonal ordered array of AAO. (c) Thermal image...

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Figure 22: (i) Simulated electric field intensities of Ag/SiO₂ at the ZX plane: (a) Core–shell (d_Ag = 40 nm, t...

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Figure 23: Integrated nanostructures for PT conversion. (i) Hollow mesoporous bimetallic (Ag/Au) nanoshells fo...

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Figure 24: PT conversion efficiencies of different transition metal nitrides (HfN, ZrN, and TiN) and the corre...

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Figure 25: Colloidal stability of nanoparticles for different particle sizes from 8 to 68 nm of organic pigmen...

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Figure 26: Illustration of the chemical interaction stability of nanoparticles. (i) Chemical interactions betw...

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Figure 27: Thermal stability of Ag and Au nanoparticles of different shapes at different temperatures. (i) (a)...

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Figure 28: Thermal stability of Au nanorods at increasing temperatures. (i) Aspect ratio and plasmonic absorba...

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Album

Review

Published 27 Mar 2023

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