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The continuous hydrothermal flow synthesis of functionalized and non-functionalized nanoparticle dispersions was pursued. Besides improving the understanding of the relationship between process variables and the resulting nanoparticle dispersions, the usability of this process was extended by introducing clickable organic modifiers, a step toward the development of a convenient and versatile process for the synthesis of metal oxide nanoparticles with universal anchors on their surface.
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The book represents a collection of papers from Special Issue “Formation of Advanced Nanomaterials by Gas-Phase Aggregation” published in journal Applied Nano. It contains review and original articles covering a range of topics on the growth of clusters/nanoparticles using gas-phase aggregation approaches, the application of cluster beams for the formation of nanomaterials with advanced properties and specific nanostructures as well as providing new fundamental insights on nanoscale properties of materials.
Technology: general issues --- silver nanoparticles --- nano-PALDI MS --- SALDI MS --- laser desorption --- gas-phase synthesis of nanoparticles --- cluster sources --- nanomaterials prepared by gas aggregation --- polymer/metal nanocomposites --- electroactive actuators --- soft robotics --- biosensors --- chemical sensors --- gas phase --- gas sensors --- nanoparticles --- sputtering --- strain sensors --- core@shell nanoparticles --- CoCr nanoparticles --- cluster ion beam --- nanostructures --- potassium titanyl phosphate --- atomic force microscopy --- power spectral density function --- n/a
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The book represents a collection of papers from Special Issue “Formation of Advanced Nanomaterials by Gas-Phase Aggregation” published in journal Applied Nano. It contains review and original articles covering a range of topics on the growth of clusters/nanoparticles using gas-phase aggregation approaches, the application of cluster beams for the formation of nanomaterials with advanced properties and specific nanostructures as well as providing new fundamental insights on nanoscale properties of materials.
silver nanoparticles --- nano-PALDI MS --- SALDI MS --- laser desorption --- gas-phase synthesis of nanoparticles --- cluster sources --- nanomaterials prepared by gas aggregation --- polymer/metal nanocomposites --- electroactive actuators --- soft robotics --- biosensors --- chemical sensors --- gas phase --- gas sensors --- nanoparticles --- sputtering --- strain sensors --- core@shell nanoparticles --- CoCr nanoparticles --- cluster ion beam --- nanostructures --- potassium titanyl phosphate --- atomic force microscopy --- power spectral density function --- n/a
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Nanoplasmonics is an area that uses light to couple electrons in metals, and can break the diffraction limit for light confinement into subwavelength zones, allowing for strong field enhancements. In the last two decades, there has been a resurgence of this research topic and its applications. Thus, this Special Issue presents a collection of articles and reviews by international researchers and is devoted to the recent advances in and insights into this research topic, including plasmonic devices, plasmonic biosensing, plasmonic photocatalysis, plasmonic photovoltaics, surface-enhanced Raman scattering, and surface plasmon resonance spectroscopy.
Technology: general issues --- History of engineering & technology --- Materials science --- plasmonics --- localized surface plasmon resonance --- high pressure --- sensing --- SERS --- two-dimensional material --- titanium carbide MXene --- near-field enhancement --- plasmonic material --- optical properties of ultra-thin dielectric films --- surface plasmon spectroscopy --- spectroscopic ellipsometry --- SHINERS --- core–shell nanoparticles --- catalysis --- electrochemistry --- nanowires --- back reflector --- solar cells --- plasmonic --- III-V semiconductor --- surface plasmon resonance --- photonic crystal D-shaped fiber --- refractive index sensor --- dispersion sensor --- second-order dispersion sensor --- waveguide --- SPPs --- FDTD --- bandstop filter --- CMT --- nanocrystalline cellulose --- optical characterization --- copper ion --- poly(3,4-ethylenedioxythiophene) --- structural properties --- optical properties --- Surface Enhanced Raman Scattering (SERS) --- fabrication --- application --- agriculture --- food safety --- gold --- nanoparticles --- thiophenol --- silicon --- nonlinear optics --- sum-frequency generation --- UV-vis spectroscopy --- atomic force microscopy --- CLIO free electron laser --- inverse problem --- copper --- copper oxide --- n/a --- core-shell nanoparticles
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Nanoplasmonics is an area that uses light to couple electrons in metals, and can break the diffraction limit for light confinement into subwavelength zones, allowing for strong field enhancements. In the last two decades, there has been a resurgence of this research topic and its applications. Thus, this Special Issue presents a collection of articles and reviews by international researchers and is devoted to the recent advances in and insights into this research topic, including plasmonic devices, plasmonic biosensing, plasmonic photocatalysis, plasmonic photovoltaics, surface-enhanced Raman scattering, and surface plasmon resonance spectroscopy.
plasmonics --- localized surface plasmon resonance --- high pressure --- sensing --- SERS --- two-dimensional material --- titanium carbide MXene --- near-field enhancement --- plasmonic material --- optical properties of ultra-thin dielectric films --- surface plasmon spectroscopy --- spectroscopic ellipsometry --- SHINERS --- core–shell nanoparticles --- catalysis --- electrochemistry --- nanowires --- back reflector --- solar cells --- plasmonic --- III-V semiconductor --- surface plasmon resonance --- photonic crystal D-shaped fiber --- refractive index sensor --- dispersion sensor --- second-order dispersion sensor --- waveguide --- SPPs --- FDTD --- bandstop filter --- CMT --- nanocrystalline cellulose --- optical characterization --- copper ion --- poly(3,4-ethylenedioxythiophene) --- structural properties --- optical properties --- Surface Enhanced Raman Scattering (SERS) --- fabrication --- application --- agriculture --- food safety --- gold --- nanoparticles --- thiophenol --- silicon --- nonlinear optics --- sum-frequency generation --- UV-vis spectroscopy --- atomic force microscopy --- CLIO free electron laser --- inverse problem --- copper --- copper oxide --- n/a --- core-shell nanoparticles
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The book represents a collection of papers from Special Issue “Formation of Advanced Nanomaterials by Gas-Phase Aggregation” published in journal Applied Nano. It contains review and original articles covering a range of topics on the growth of clusters/nanoparticles using gas-phase aggregation approaches, the application of cluster beams for the formation of nanomaterials with advanced properties and specific nanostructures as well as providing new fundamental insights on nanoscale properties of materials.
Technology: general issues --- silver nanoparticles --- nano-PALDI MS --- SALDI MS --- laser desorption --- gas-phase synthesis of nanoparticles --- cluster sources --- nanomaterials prepared by gas aggregation --- polymer/metal nanocomposites --- electroactive actuators --- soft robotics --- biosensors --- chemical sensors --- gas phase --- gas sensors --- nanoparticles --- sputtering --- strain sensors --- core@shell nanoparticles --- CoCr nanoparticles --- cluster ion beam --- nanostructures --- potassium titanyl phosphate --- atomic force microscopy --- power spectral density function --- silver nanoparticles --- nano-PALDI MS --- SALDI MS --- laser desorption --- gas-phase synthesis of nanoparticles --- cluster sources --- nanomaterials prepared by gas aggregation --- polymer/metal nanocomposites --- electroactive actuators --- soft robotics --- biosensors --- chemical sensors --- gas phase --- gas sensors --- nanoparticles --- sputtering --- strain sensors --- core@shell nanoparticles --- CoCr nanoparticles --- cluster ion beam --- nanostructures --- potassium titanyl phosphate --- atomic force microscopy --- power spectral density function
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Nanoplasmonics is an area that uses light to couple electrons in metals, and can break the diffraction limit for light confinement into subwavelength zones, allowing for strong field enhancements. In the last two decades, there has been a resurgence of this research topic and its applications. Thus, this Special Issue presents a collection of articles and reviews by international researchers and is devoted to the recent advances in and insights into this research topic, including plasmonic devices, plasmonic biosensing, plasmonic photocatalysis, plasmonic photovoltaics, surface-enhanced Raman scattering, and surface plasmon resonance spectroscopy.
Technology: general issues --- History of engineering & technology --- Materials science --- plasmonics --- localized surface plasmon resonance --- high pressure --- sensing --- SERS --- two-dimensional material --- titanium carbide MXene --- near-field enhancement --- plasmonic material --- optical properties of ultra-thin dielectric films --- surface plasmon spectroscopy --- spectroscopic ellipsometry --- SHINERS --- core-shell nanoparticles --- catalysis --- electrochemistry --- nanowires --- back reflector --- solar cells --- plasmonic --- III-V semiconductor --- surface plasmon resonance --- photonic crystal D-shaped fiber --- refractive index sensor --- dispersion sensor --- second-order dispersion sensor --- waveguide --- SPPs --- FDTD --- bandstop filter --- CMT --- nanocrystalline cellulose --- optical characterization --- copper ion --- poly(3,4-ethylenedioxythiophene) --- structural properties --- optical properties --- Surface Enhanced Raman Scattering (SERS) --- fabrication --- application --- agriculture --- food safety --- gold --- nanoparticles --- thiophenol --- silicon --- nonlinear optics --- sum-frequency generation --- UV-vis spectroscopy --- atomic force microscopy --- CLIO free electron laser --- inverse problem --- copper --- copper oxide --- plasmonics --- localized surface plasmon resonance --- high pressure --- sensing --- SERS --- two-dimensional material --- titanium carbide MXene --- near-field enhancement --- plasmonic material --- optical properties of ultra-thin dielectric films --- surface plasmon spectroscopy --- spectroscopic ellipsometry --- SHINERS --- core-shell nanoparticles --- catalysis --- electrochemistry --- nanowires --- back reflector --- solar cells --- plasmonic --- III-V semiconductor --- surface plasmon resonance --- photonic crystal D-shaped fiber --- refractive index sensor --- dispersion sensor --- second-order dispersion sensor --- waveguide --- SPPs --- FDTD --- bandstop filter --- CMT --- nanocrystalline cellulose --- optical characterization --- copper ion --- poly(3,4-ethylenedioxythiophene) --- structural properties --- optical properties --- Surface Enhanced Raman Scattering (SERS) --- fabrication --- application --- agriculture --- food safety --- gold --- nanoparticles --- thiophenol --- silicon --- nonlinear optics --- sum-frequency generation --- UV-vis spectroscopy --- atomic force microscopy --- CLIO free electron laser --- inverse problem --- copper --- copper oxide
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This book presents a collection of 13 original research articles that focus on the science of light–matter interaction. This area of science has been led to some the greatest accomplishments of the past 100 years, with the discovery of materials that perform useful operations by collecting light or generating light from an outside stimulus. These materials are at the center of a multitude of technologies that have permeated our daily life; every day we rely on quantum well lasers for telecommunication, organic light emitting diodes for our displays, complementary metal–oxide–semiconductors for our camera detectors, and of course a plethora of new photovoltaic cells that harvest sunlight to satisfy our energy needs. In this book, top-rated researchers present their latest findings in the field of nano-particles, plasmonics, semi-conductors, magneto-optics, and holography.
Research & information: general --- Technology: general issues --- faraday rotator material --- optical isolator --- transparent ceramics --- photopolymerizable --- thiol-ene network --- scratch-healing --- transparent --- dyeing --- unsaturated polyester resin --- azobenzene --- hologram --- aqueous dispersion --- plasmonic nanoparticles --- nonlinear acousto-optics --- nanofluids --- ultrasonic sensors --- silicon photonics --- optical waveguide --- smectic A liquid crystal (SALC) --- stimulated light scattering (SLS) --- holography --- photochromism --- diarylethenes --- refractive index --- CGH --- magnetic-optical bi-functional materials --- hydrothermal process --- down-conversion luminescence --- Na3FeF6:Tb3+ --- magnetic-luminescent structure --- hybrid system --- ternary quantum dots --- magnetic nanoparticles --- iron oxide --- calcium carbonate microspheres --- sensor --- nanoparticles --- silica shells --- metal nanoparticles --- gold-silver nanoshells --- core-shell nanoparticles --- magneto-optics --- mcd --- faraday rotation --- figure of merit --- polarization --- oxygen plasma treatment --- photopolymer --- temperature --- CTE --- thermal degradation --- hexagonal boron nitride --- photoluminescence --- cerium --- anti-counterfeiting --- crystals --- faraday rotator material --- optical isolator --- transparent ceramics --- photopolymerizable --- thiol-ene network --- scratch-healing --- transparent --- dyeing --- unsaturated polyester resin --- azobenzene --- hologram --- aqueous dispersion --- plasmonic nanoparticles --- nonlinear acousto-optics --- nanofluids --- ultrasonic sensors --- silicon photonics --- optical waveguide --- smectic A liquid crystal (SALC) --- stimulated light scattering (SLS) --- holography --- photochromism --- diarylethenes --- refractive index --- CGH --- magnetic-optical bi-functional materials --- hydrothermal process --- down-conversion luminescence --- Na3FeF6:Tb3+ --- magnetic-luminescent structure --- hybrid system --- ternary quantum dots --- magnetic nanoparticles --- iron oxide --- calcium carbonate microspheres --- sensor --- nanoparticles --- silica shells --- metal nanoparticles --- gold-silver nanoshells --- core-shell nanoparticles --- magneto-optics --- mcd --- faraday rotation --- figure of merit --- polarization --- oxygen plasma treatment --- photopolymer --- temperature --- CTE --- thermal degradation --- hexagonal boron nitride --- photoluminescence --- cerium --- anti-counterfeiting --- crystals
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This book presents a collection of 13 original research articles that focus on the science of light–matter interaction. This area of science has been led to some the greatest accomplishments of the past 100 years, with the discovery of materials that perform useful operations by collecting light or generating light from an outside stimulus. These materials are at the center of a multitude of technologies that have permeated our daily life; every day we rely on quantum well lasers for telecommunication, organic light emitting diodes for our displays, complementary metal–oxide–semiconductors for our camera detectors, and of course a plethora of new photovoltaic cells that harvest sunlight to satisfy our energy needs. In this book, top-rated researchers present their latest findings in the field of nano-particles, plasmonics, semi-conductors, magneto-optics, and holography.
Research & information: general --- Technology: general issues --- faraday rotator material --- optical isolator --- transparent ceramics --- photopolymerizable --- thiol-ene network --- scratch-healing --- transparent --- dyeing --- unsaturated polyester resin --- azobenzene --- hologram --- aqueous dispersion --- plasmonic nanoparticles --- nonlinear acousto-optics --- nanofluids --- ultrasonic sensors --- silicon photonics --- optical waveguide --- smectic A liquid crystal (SALC) --- stimulated light scattering (SLS) --- holography --- photochromism --- diarylethenes --- refractive index --- CGH --- magnetic-optical bi-functional materials --- hydrothermal process --- down-conversion luminescence --- Na3FeF6:Tb3+ --- magnetic–luminescent structure --- hybrid system --- ternary quantum dots --- magnetic nanoparticles --- iron oxide --- calcium carbonate microspheres --- sensor --- nanoparticles --- silica shells --- metal nanoparticles --- gold-silver nanoshells --- core-shell nanoparticles --- magneto-optics --- mcd --- faraday rotation --- figure of merit --- polarization --- oxygen plasma treatment --- photopolymer --- temperature --- CTE --- thermal degradation --- hexagonal boron nitride --- photoluminescence --- cerium --- anti-counterfeiting --- crystals --- n/a --- magnetic-luminescent structure
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The constant search for innovative magnetic materials increasingly leads to the creation of highly engineered systems built in different forms (films, wires, particles), structured on the nanoscale in at least one spatial direction, and often characterized by the coexistence of two or more phases that are magnetically and/or structurally different. In magnetic systems, the nanometric structural characteristics of the constituent elements, together with the type and strength of the magnetic interactions between them, determine the overall magnetic behavior and can lead to the appearance of unexpected and amazing magnetic phenomena. Indeed, the study of the magnetic properties of nanomaterials continues to arouse great interest for their intriguing fundamental properties and prospective technological applications. This Special Issue contributes to broadening the knowledge on magnetic nanomaterials, demonstrating the breadth and richness of this research field as well as the growing need to address it through an interdisciplinary approach. The papers collected in this book (two reviews and eight regular articles) report cutting-edge studies on the production and characterization of a variety of novel magnetic nanomaterials (nanoparticles, nanocomposites, thin films and multilayers), which have the potential to play a key role in different technologically advanced sectors, such as biotechnology, nanomedicine, energy, spintronics, data storage, and sensors.
Technology: general issues --- History of engineering & technology --- disordered magnetism --- super-spin glass --- glassy correlation length --- magnetic freezing --- nanogranular Au/Fe-oxide --- Fe-oxide nanocrystallites --- synthetic antiferromagnet --- exchange bias --- interlayer exchange coupling --- vibrating sample magnetometry --- CoFeB --- thermally assisted magnetic scanning probe lithography --- magnetron sputtering --- nanoparticles --- sol-gel --- Raman spectroscopy --- UV-blue photoluminescence --- ZnNiO --- Kubelka-Munk function --- Burstein-Moss shift --- substitutional doping --- FePd alloy --- electrodeposition technique --- magnetic properties --- structural characterisation --- ferrimagnetic materials --- superparamagnetism --- magnetic hysteresis --- magnetic materials --- magnetic nanoparticles --- nanocomposites --- nanowires --- martensitic transition --- Heusler alloys --- magnetic shape memory alloys --- twin boundary --- epitaxial Ni-Mn-Ga films --- transmission electron microscopy --- magnetic anisotropy --- iron nitrides --- III-nitrides --- nanocrystals --- density functional theory --- magnetic hyperthermia --- magneto-sonoporation --- stem cells --- superparamagnetic iron oxide particles --- cell labelling --- ultrasounds --- osteogenesis --- bone tissue engineering --- magnetic aggregates --- magnetic interactions --- core/shell nanoparticles --- multicore nanoparticles --- hybrid systems --- mixed nanoparticle systems --- chemical synthesis --- magnetic heating
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