Optofluidic Devices and Applications
Optofluidic devices are of high scientific and industrial interest in chemistry, biology, material science, pharmacy, and medicine. In recent years, they have experienced strong development because of impressive achievements in the synergistic combination of photonics and micro/nanofluidics. Sensing...
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description | Optofluidic devices are of high scientific and industrial interest in chemistry, biology, material science, pharmacy, and medicine. In recent years, they have experienced strong development because of impressive achievements in the synergistic combination of photonics and micro/nanofluidics. Sensing and/or lasing platforms showing unprecedented sensitivities in extremely small analyte volumes, and allowing real-time analysis within a lab-on-a-chip approach, have been developed. They are based on the interaction of fluids with evanescent waves induced at the surface of metallic or photonic structures, on the implementation of microcavities to induce optical resonances in the fluid medium, or on other interactions of the microfluidic systems with light. In this context, a large variety of optofluidic devices has emerged, covering topics such as cell manipulation, microfabrication, water purification, energy production, catalytic reactions, microparticle sorting, micro-imaging, or bio-sensing. Moreover, the integration of these optofluidic devices in larger electro-optic platforms represents a highly valuable improvement towards advanced applications, such as those based on surface plasmon resonances that are already on the market. In this Special Issue, we invited the scientific community working in this rapidly evolving field to publish recent research and/or review papers on these optofluidic devices and their applications. |
doi_str_mv | 10.3390/books978-3-03943-718-4 |
format | Book |
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In recent years, they have experienced strong development because of impressive achievements in the synergistic combination of photonics and micro/nanofluidics. Sensing and/or lasing platforms showing unprecedented sensitivities in extremely small analyte volumes, and allowing real-time analysis within a lab-on-a-chip approach, have been developed. They are based on the interaction of fluids with evanescent waves induced at the surface of metallic or photonic structures, on the implementation of microcavities to induce optical resonances in the fluid medium, or on other interactions of the microfluidic systems with light. In this context, a large variety of optofluidic devices has emerged, covering topics such as cell manipulation, microfabrication, water purification, energy production, catalytic reactions, microparticle sorting, micro-imaging, or bio-sensing. Moreover, the integration of these optofluidic devices in larger electro-optic platforms represents a highly valuable improvement towards advanced applications, such as those based on surface plasmon resonances that are already on the market. In this Special Issue, we invited the scientific community working in this rapidly evolving field to publish recent research and/or review papers on these optofluidic devices and their applications.</description><identifier>ISBN: 9783039437177</identifier><identifier>ISBN: 3039437186</identifier><identifier>ISBN: 3039437178</identifier><identifier>ISBN: 9783039437184</identifier><identifier>DOI: 10.3390/books978-3-03943-718-4</identifier><language>eng</language><publisher>Basel, Switzerland: MDPI - Multidisciplinary Digital Publishing Institute</publisher><subject>3D hydrodynamic focusing ; aperture ratio ; biosensor ; cells ; colored oil ; colorimetric method ; colorimetry ; dissolved oxygen ; driving waveform ; droplet microfluidics ; electro-fluidic display ; electrowetting display ; fabrication ; History of engineering and technology ; hysteresis characteristic ; ink distribution ; lab-on-a-chip ; laser induced fluorescence ; liquid-core waveguide ; mechanical properties ; micro-manipulation ; micro-thermometry ; micro/nanomaterials ; microfluidic ; microparticles ; microreactor ; microscale channel ; n/a ; nanofluidic ; nanohole array ; nanoplasmonic ; ocean monitoring ; optically-induced dielectrophoresis ; opto-fluidics ; optoelectrokinetics ; optofluidic ; optofluidics ; organic dye ; photo-stability ; photocatalysis ; photocatalytic water purification ; reservoir effect ; response speed ; rhodamine 6G ; rhodamine B ; sensor ; separation ; silver nanoprisms ; single layer ; surface plasmon resonance ; Technology, Engineering, Agriculture, Industrial processes ; Technology: general issues ; zinc oxide</subject><creationdate>2020</creationdate><tpages>148</tpages><format>148</format><oa>free_for_read</oa><woscitedreferencessubscribed>false</woscitedreferencessubscribed></display><links><openurl>$$Topenurl_article</openurl><openurlfulltext>$$Topenurlfull_article</openurlfulltext><thumbnail>$$Tsyndetics_thumb_exl</thumbnail><link.rule.ids>306,776,780,782,27902,55285</link.rule.ids></links><search><contributor>Yubero, Francisco</contributor><contributor>Lahoz, Fernando</contributor><title>Optofluidic Devices and Applications</title><description>Optofluidic devices are of high scientific and industrial interest in chemistry, biology, material science, pharmacy, and medicine. In recent years, they have experienced strong development because of impressive achievements in the synergistic combination of photonics and micro/nanofluidics. Sensing and/or lasing platforms showing unprecedented sensitivities in extremely small analyte volumes, and allowing real-time analysis within a lab-on-a-chip approach, have been developed. They are based on the interaction of fluids with evanescent waves induced at the surface of metallic or photonic structures, on the implementation of microcavities to induce optical resonances in the fluid medium, or on other interactions of the microfluidic systems with light. In this context, a large variety of optofluidic devices has emerged, covering topics such as cell manipulation, microfabrication, water purification, energy production, catalytic reactions, microparticle sorting, micro-imaging, or bio-sensing. Moreover, the integration of these optofluidic devices in larger electro-optic platforms represents a highly valuable improvement towards advanced applications, such as those based on surface plasmon resonances that are already on the market. In this Special Issue, we invited the scientific community working in this rapidly evolving field to publish recent research and/or review papers on these optofluidic devices and their applications.</description><subject>3D hydrodynamic focusing</subject><subject>aperture ratio</subject><subject>biosensor</subject><subject>cells</subject><subject>colored oil</subject><subject>colorimetric method</subject><subject>colorimetry</subject><subject>dissolved oxygen</subject><subject>driving waveform</subject><subject>droplet microfluidics</subject><subject>electro-fluidic display</subject><subject>electrowetting display</subject><subject>fabrication</subject><subject>History of engineering and technology</subject><subject>hysteresis characteristic</subject><subject>ink distribution</subject><subject>lab-on-a-chip</subject><subject>laser induced fluorescence</subject><subject>liquid-core waveguide</subject><subject>mechanical properties</subject><subject>micro-manipulation</subject><subject>micro-thermometry</subject><subject>micro/nanomaterials</subject><subject>microfluidic</subject><subject>microparticles</subject><subject>microreactor</subject><subject>microscale channel</subject><subject>n/a</subject><subject>nanofluidic</subject><subject>nanohole array</subject><subject>nanoplasmonic</subject><subject>ocean monitoring</subject><subject>optically-induced dielectrophoresis</subject><subject>opto-fluidics</subject><subject>optoelectrokinetics</subject><subject>optofluidic</subject><subject>optofluidics</subject><subject>organic dye</subject><subject>photo-stability</subject><subject>photocatalysis</subject><subject>photocatalytic water purification</subject><subject>reservoir effect</subject><subject>response speed</subject><subject>rhodamine 6G</subject><subject>rhodamine B</subject><subject>sensor</subject><subject>separation</subject><subject>silver nanoprisms</subject><subject>single layer</subject><subject>surface plasmon resonance</subject><subject>Technology, Engineering, Agriculture, Industrial processes</subject><subject>Technology: general issues</subject><subject>zinc oxide</subject><isbn>9783039437177</isbn><isbn>3039437186</isbn><isbn>3039437178</isbn><isbn>9783039437184</isbn><fulltext>true</fulltext><rsrctype>book</rsrctype><creationdate>2020</creationdate><recordtype>book</recordtype><sourceid>V1H</sourceid><recordid>eNotj8tKAzEUQANFsNT5AkFm0W30JjeTmyxLfVQodKPrkifGDpOBVL9fqa4OnMWBw9idgHtECw--1lOzZDhyQKuQkzBcLVj36_BiSBBds661TwCQFgRJs2Trw3yuefwqsYT-MX2XkFrvpthv5nkswZ1LndoNu8pubKn754q9Pz-9bXd8f3h53W72_ANRSy69H9ADaUyDVTkQkZIpC59QgARHFGIwaYgSyQVtvUFMqGy2IZOOiCt2-9etbk7TMVZ32TpqqxTgD0dRP90</recordid><startdate>2020</startdate><enddate>2020</enddate><general>MDPI - Multidisciplinary Digital Publishing Institute</general><scope>V1H</scope></search><sort><creationdate>2020</creationdate><title>Optofluidic Devices and Applications</title></sort><facets><frbrtype>5</frbrtype><frbrgroupid>cdi_FETCH-LOGICAL-h3362-2bb53b0763e594fc77742ef1be31020a77cdc8e5d237ac69b833e349f9cf76d33</frbrgroupid><rsrctype>books</rsrctype><prefilter>books</prefilter><language>eng</language><creationdate>2020</creationdate><topic>3D hydrodynamic focusing</topic><topic>aperture ratio</topic><topic>biosensor</topic><topic>cells</topic><topic>colored oil</topic><topic>colorimetric method</topic><topic>colorimetry</topic><topic>dissolved oxygen</topic><topic>driving waveform</topic><topic>droplet microfluidics</topic><topic>electro-fluidic display</topic><topic>electrowetting display</topic><topic>fabrication</topic><topic>History of engineering and technology</topic><topic>hysteresis characteristic</topic><topic>ink distribution</topic><topic>lab-on-a-chip</topic><topic>laser induced fluorescence</topic><topic>liquid-core waveguide</topic><topic>mechanical properties</topic><topic>micro-manipulation</topic><topic>micro-thermometry</topic><topic>micro/nanomaterials</topic><topic>microfluidic</topic><topic>microparticles</topic><topic>microreactor</topic><topic>microscale channel</topic><topic>n/a</topic><topic>nanofluidic</topic><topic>nanohole array</topic><topic>nanoplasmonic</topic><topic>ocean monitoring</topic><topic>optically-induced dielectrophoresis</topic><topic>opto-fluidics</topic><topic>optoelectrokinetics</topic><topic>optofluidic</topic><topic>optofluidics</topic><topic>organic dye</topic><topic>photo-stability</topic><topic>photocatalysis</topic><topic>photocatalytic water purification</topic><topic>reservoir effect</topic><topic>response speed</topic><topic>rhodamine 6G</topic><topic>rhodamine B</topic><topic>sensor</topic><topic>separation</topic><topic>silver nanoprisms</topic><topic>single layer</topic><topic>surface plasmon resonance</topic><topic>Technology, Engineering, Agriculture, Industrial processes</topic><topic>Technology: general issues</topic><topic>zinc oxide</topic><toplevel>online_resources</toplevel><collection>DOAB: Directory of Open Access Books</collection></facets><delivery><delcategory>Remote Search Resource</delcategory><fulltext>fulltext</fulltext></delivery><addata><au>Yubero, Francisco</au><au>Lahoz, Fernando</au><format>book</format><genre>book</genre><ristype>BOOK</ristype><btitle>Optofluidic Devices and Applications</btitle><date>2020</date><risdate>2020</risdate><isbn>9783039437177</isbn><isbn>3039437186</isbn><isbn>3039437178</isbn><isbn>9783039437184</isbn><abstract>Optofluidic devices are of high scientific and industrial interest in chemistry, biology, material science, pharmacy, and medicine. In recent years, they have experienced strong development because of impressive achievements in the synergistic combination of photonics and micro/nanofluidics. Sensing and/or lasing platforms showing unprecedented sensitivities in extremely small analyte volumes, and allowing real-time analysis within a lab-on-a-chip approach, have been developed. They are based on the interaction of fluids with evanescent waves induced at the surface of metallic or photonic structures, on the implementation of microcavities to induce optical resonances in the fluid medium, or on other interactions of the microfluidic systems with light. In this context, a large variety of optofluidic devices has emerged, covering topics such as cell manipulation, microfabrication, water purification, energy production, catalytic reactions, microparticle sorting, micro-imaging, or bio-sensing. Moreover, the integration of these optofluidic devices in larger electro-optic platforms represents a highly valuable improvement towards advanced applications, such as those based on surface plasmon resonances that are already on the market. In this Special Issue, we invited the scientific community working in this rapidly evolving field to publish recent research and/or review papers on these optofluidic devices and their applications.</abstract><cop>Basel, Switzerland</cop><pub>MDPI - Multidisciplinary Digital Publishing Institute</pub><doi>10.3390/books978-3-03943-718-4</doi><tpages>148</tpages><oa>free_for_read</oa></addata></record> |
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subjects | 3D hydrodynamic focusing aperture ratio biosensor cells colored oil colorimetric method colorimetry dissolved oxygen driving waveform droplet microfluidics electro-fluidic display electrowetting display fabrication History of engineering and technology hysteresis characteristic ink distribution lab-on-a-chip laser induced fluorescence liquid-core waveguide mechanical properties micro-manipulation micro-thermometry micro/nanomaterials microfluidic microparticles microreactor microscale channel n/a nanofluidic nanohole array nanoplasmonic ocean monitoring optically-induced dielectrophoresis opto-fluidics optoelectrokinetics optofluidic optofluidics organic dye photo-stability photocatalysis photocatalytic water purification reservoir effect response speed rhodamine 6G rhodamine B sensor separation silver nanoprisms single layer surface plasmon resonance Technology, Engineering, Agriculture, Industrial processes Technology: general issues zinc oxide |
title | Optofluidic Devices and Applications |
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