SrasV1, Istex, Corpus, bibRecord, 000E35

Surface Nano-patterning of Polymers for Mass-Sensitive Biodetection

Identifieur interne : 000E35 ( Istex/Corpus ); précédent : 000E34; suivant : 000E36

Surface Nano-patterning of Polymers for Mass-Sensitive Biodetection

Auteurs : Adnan Mujahid ; Franz L. Dickert

Source :

RBID : ISTEX:2E03EE6A3E785FAA2FE4CC070B1EAA69DA6D13B2

Abstract

Abstract: The crafting of sensor material of desired features has always remained a challenging task in the field of material designing and predominantly becomes more interesting when analyte belongs to biospecies. Label-free detection of different bioanalytes such as enzymes, viruses, microorganisms, and blood groups through mass-sensitive transducers has gained considerable importance in the development of modern biosensors. Analyte molecules interact with the surface of sensitive layer coated on these devices and as a result of this interaction, the frequency change is determined, which provides quantitative information about the mass of analyte. One of the most vital elements of these detection systems is to design selective sensor coatings through control surface structuring at nanoscale. Molecular imprinting has proven to be a highly suitable technique to generate selective surfaces that are capable of detecting different analytes, quantitatively and qualitatively as well. The tailor-made synthetic antibody cavities are rigid and stable, which are not immediately collapsed upon analyte interaction; moreover, the different bioanalytes do not undergo any phase change and maintain their original identity during analysis. This chapter will discuss the contribution of imprinting methods to design optimized surfaces for mass-sensitive detection of diverse biological species.

Url:

https://api.istex.fr/ark:/67375/HCB-BKQ6KHZS-R/fulltext.pdf

DOI: 10.1007/978-1-4419-6169-3_3

Links to Exploration step

ISTEX:2E03EE6A3E785FAA2FE4CC070B1EAA69DA6D13B2

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<front><div type="abstract" xml:lang="en">Abstract: The crafting of sensor material of desired features has always remained a challenging task in the field of material designing and predominantly becomes more interesting when analyte belongs to biospecies. Label-free detection of different bioanalytes such as enzymes, viruses, microorganisms, and blood groups through mass-sensitive transducers has gained considerable importance in the development of modern biosensors. Analyte molecules interact with the surface of sensitive layer coated on these devices and as a result of this interaction, the frequency change is determined, which provides quantitative information about the mass of analyte. One of the most vital elements of these detection systems is to design selective sensor coatings through control surface structuring at nanoscale. Molecular imprinting has proven to be a highly suitable technique to generate selective surfaces that are capable of detecting different analytes, quantitatively and qualitatively as well. The tailor-made synthetic antibody cavities are rigid and stable, which are not immediately collapsed upon analyte interaction; moreover, the different bioanalytes do not undergo any phase change and maintain their original identity during analysis. This chapter will discuss the contribution of imprinting methods to design optimized surfaces for mass-sensitive detection of diverse biological species.</div>
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<p>The crafting of sensor material of desired features has always remained a challenging task in the field of material designing and predominantly becomes more interesting when analyte belongs to biospecies. Label-free detection of different bioanalytes such as enzymes, viruses, microorganisms, and blood groups through mass-sensitive transducers has gained considerable importance in the development of modern biosensors. Analyte molecules interact with the surface of sensitive layer coated on these devices and as a result of this interaction, the frequency change is determined, which provides quantitative information about the mass of analyte. One of the most vital elements of these detection systems is to design selective sensor coatings through control surface structuring at nanoscale. Molecular imprinting has proven to be a highly suitable technique to generate selective surfaces that are capable of detecting different analytes, quantitatively and qualitatively as well. The tailor-made synthetic antibody cavities are rigid and stable, which are not immediately collapsed upon analyte interaction; moreover, the different bioanalytes do not undergo any phase change and maintain their original identity during analysis. This chapter will discuss the contribution of imprinting methods to design optimized surfaces for mass-sensitive detection of diverse biological species.</p>
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<textClass ana="abbreviation"><keywords scheme="abbreviations"><list><head>Abbreviations</head>
<item><term>AIDS</term>
<desc>
                Acquired immune deficiency syndrome
              </desc>
</item>
<item><term>AFM</term>
<desc>
                Atomic force microscopy
              </desc>
</item>
<item><term>BLV</term>
<desc>
                Bovine leukemia virus
              </desc>
</item>
<item><term>BAW</term>
<desc>
                Bulk acoustic wave
              </desc>
</item>
<item><term>BG</term>
<desc>
                Blood group
              </desc>
</item>
<item><term>BSA</term>
<desc>
                Bovine serum albumin
              </desc>
</item>
<item><term>DVB</term>
<desc>
                Divinyl benzene
              </desc>
</item>
<item><term>ELISA</term>
<desc>
                Enzyme-linked immuno sorbent assay
              </desc>
</item>
<item><term>ESA</term>
<desc>
                Electrostatic self assembly
              </desc>
</item>
<item><term>FBAR</term>
<desc>
                Film bulk acoustic resonators
              </desc>
</item>
<item><term>FMDV</term>
<desc>
                Foot and mouth disease viruses
              </desc>
</item>
<item><term>HPLC</term>
<desc>
                High performance liquid chromatography
              </desc>
</item>
<item><term>HRV</term>
<desc>
                Human rhinovirus
              </desc>
</item>
<item><term>HSA</term>
<desc>
                Human serum albumin
              </desc>
</item>
<item><term>HRP</term>
<desc>
                Horseradish peroxidase
              </desc>
</item>
<item><term>IAA</term>
<desc>
                Indole-3-acetic acid
              </desc>
</item>
<item><term>IBA</term>
<desc>
                Indole-3-butyric acid
              </desc>
</item>
<item><term>IET</term>
<desc>
                Indole-3-ethanol
              </desc>
</item>
<item><term>LBL</term>
<desc>
                Layer-by-layer
              </desc>
</item>
<item><term>MAA</term>
<desc>
                meth acrylic acid
              </desc>
</item>
<item><term>MIP</term>
<desc>
                Molecular imprinted polymer
              </desc>
</item>
<item><term>PET</term>
<desc>
                Poly ethylene terephthalate
              </desc>
</item>
<item><term>PCR</term>
<desc>
                Polymerized chain reaction
              </desc>
</item>
<item><term>QCM</term>
<desc>
                Quartz crystal microbalance
              </desc>
</item>
<item><term>RBC</term>
<desc>
                Red blood cells
              </desc>
</item>
<item><term>SAW</term>
<desc>
                Surface acoustic wave
              </desc>
</item>
<item><term>STW</term>
<desc>
                Shear transverse wave
              </desc>
</item>
<item><term>SAM</term>
<desc>
                Self-assembled monolayers
              </desc>
</item>
<item><term>SEM</term>
<desc>
                Scanning electron microscopy
              </desc>
</item>
<item><term>SPR</term>
<desc>
                Surface plasmon resonance
              </desc>
</item>
<item><term>SARS</term>
<desc>
                Severe acute respiratory syndrome
              </desc>
</item>
<item><term>TMV</term>
<desc>
                Tobacco mosaic virus
              </desc>
</item>
</list>
</keywords>
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<Para>The crafting of sensor material of desired features has always remained a challenging task in the field of material designing and predominantly becomes more interesting when analyte belongs to biospecies. Label-free detection of different bioanalytes such as enzymes, viruses, microorganisms, and blood groups through mass-sensitive transducers has gained considerable importance in the development of modern biosensors. Analyte molecules interact with the surface of sensitive layer coated on these devices and as a result of this interaction, the frequency change is determined, which provides quantitative information about the mass of analyte. One of the most vital elements of these detection systems is to design selective sensor coatings through control surface structuring at nanoscale. Molecular imprinting has proven to be a highly suitable technique to generate selective surfaces that are capable of detecting different analytes, quantitatively and qualitatively as well. The tailor-made synthetic antibody cavities are rigid and stable, which are not immediately collapsed upon analyte interaction; moreover, the different bioanalytes do not undergo any phase change and maintain their original identity during analysis. This chapter will discuss the contribution of imprinting methods to design optimized surfaces for mass-sensitive detection of diverse biological species.</Para>
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<AbbreviationGroup><Heading>Abbreviations</Heading>
<DefinitionList><DefinitionListEntry><Term>AIDS</Term>
<Description><Para>Acquired immune deficiency syndrome</Para>
</Description>
</DefinitionListEntry>
<DefinitionListEntry><Term>AFM</Term>
<Description><Para>Atomic force microscopy</Para>
</Description>
</DefinitionListEntry>
<DefinitionListEntry><Term>BLV</Term>
<Description><Para>Bovine leukemia virus</Para>
</Description>
</DefinitionListEntry>
<DefinitionListEntry><Term>BAW</Term>
<Description><Para>Bulk acoustic wave</Para>
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</DefinitionListEntry>
<DefinitionListEntry><Term>BG</Term>
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<DefinitionListEntry><Term>BSA</Term>
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<Description><Para>Indole-3-ethanol</Para>
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<Description><Para>Layer-by-layer</Para>
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<DefinitionListEntry><Term>MAA</Term>
<Description><Para>meth acrylic acid</Para>
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</DefinitionListEntry>
<DefinitionListEntry><Term>MIP</Term>
<Description><Para>Molecular imprinted polymer</Para>
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<DefinitionListEntry><Term>PET</Term>
<Description><Para>Poly ethylene terephthalate</Para>
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</DefinitionListEntry>
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<Description><Para>Polymerized chain reaction</Para>
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<Description><Para>Quartz crystal microbalance</Para>
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<Description><Para>Surface acoustic wave</Para>
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<Description><Para>Shear transverse wave</Para>
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<Description><Para>Self-assembled monolayers</Para>
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<DefinitionListEntry><Term>SEM</Term>
<Description><Para>Scanning electron microscopy</Para>
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<DefinitionListEntry><Term>SARS</Term>
<Description><Para>Severe acute respiratory syndrome</Para>
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<DefinitionListEntry><Term>TMV</Term>
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<mods version="3.6"><titleInfo lang="en"><title>Surface Nano-patterning of Polymers for Mass-Sensitive Biodetection</title>
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<titleInfo type="alternative" contentType="CDATA"><title>Surface Nano-patterning of Polymers for Mass-Sensitive Biodetection</title>
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<name type="personal"><namePart type="given">Adnan</namePart>
<namePart type="family">Mujahid</namePart>
<affiliation>Department of Analytical Chemistry, University of Vienna, Waehringer Strasse 38, A-1090, Vienna, Austria</affiliation>
<role><roleTerm type="text">author</roleTerm>
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<name type="personal" displayLabel="corresp"><namePart type="given">Franz</namePart>
<namePart type="given">L.</namePart>
<namePart type="family">Dickert</namePart>
<affiliation>Department of Analytical Chemistry, University of Vienna, Waehringer Strasse 38, A-1090, Vienna, Austria</affiliation>
<affiliation>E-mail: franz.dickert@univie.ac.at</affiliation>
<role><roleTerm type="text">author</roleTerm>
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<name type="personal"><namePart type="given">Sandro</namePart>
<namePart type="family">Carrara</namePart>
<affiliation>Fac. Informatique et Communications, Labo. Systèmes Intégrés (LSI), EPFL, 1015, Lausanne, Switzerland</affiliation>
<affiliation>E-mail: sandro.cararra@epfl.ch</affiliation>
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<abstract lang="en">Abstract: The crafting of sensor material of desired features has always remained a challenging task in the field of material designing and predominantly becomes more interesting when analyte belongs to biospecies. Label-free detection of different bioanalytes such as enzymes, viruses, microorganisms, and blood groups through mass-sensitive transducers has gained considerable importance in the development of modern biosensors. Analyte molecules interact with the surface of sensitive layer coated on these devices and as a result of this interaction, the frequency change is determined, which provides quantitative information about the mass of analyte. One of the most vital elements of these detection systems is to design selective sensor coatings through control surface structuring at nanoscale. Molecular imprinting has proven to be a highly suitable technique to generate selective surfaces that are capable of detecting different analytes, quantitatively and qualitatively as well. The tailor-made synthetic antibody cavities are rigid and stable, which are not immediately collapsed upon analyte interaction; moreover, the different bioanalytes do not undergo any phase change and maintain their original identity during analysis. This chapter will discuss the contribution of imprinting methods to design optimized surfaces for mass-sensitive detection of diverse biological species.</abstract>
<relatedItem type="host"><titleInfo><title>Nano-Bio-Sensing</title>
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<name type="personal"><namePart type="given">Sandro</namePart>
<namePart type="family">Carrara</namePart>
<affiliation>Fac. Informatique et Communications, Labo. Systèmes Intégrés (LSI), EPFL, 1015, Lausanne, Switzerland</affiliation>
<affiliation>E-mail: sandro.cararra@epfl.ch</affiliation>
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<topic authority="SpringerSubjectCodes" authorityURI="SCT">Engineering</topic>
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<topic authority="SpringerSubjectCodes" authorityURI="SCT18000">Nanotechnology and Microengineering</topic>
<topic authority="SpringerSubjectCodes" authorityURI="SCZ13000">Biomaterials</topic>
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<identifier type="DOI">10.1007/978-1-4419-6169-3</identifier>
<identifier type="ISBN">978-1-4419-6168-6</identifier>
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<part><date>2011</date>
<detail type="chapter"><number>Chapter 3</number>
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<extent unit="pages"><start>45</start>
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Surface Nano-patterning of Polymers for Mass-Sensitive Biodetection

Surface Nano-patterning of Polymers for Mass-Sensitive Biodetection

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