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Biotransformation has accompanied mankind since the Neolithic community, when people settled down and began to engage in agriculture. Modern biocatalysis started in the mid-1850s with the pioneer works of Pasteur. Today, biotransformations have become an indispensable part of our lives, similar to other hi-tech products. Now, in 2019, biocatalysis “received” the Nobel Prize in Chemistry due to prof. Frances H. Arnold’s achievements in the area of the directed evolution of enzymes. This book deals with some major topics of biotransformation, such as the application of enzymatic methods in glycobiology, including the synthesis of hyaluronan, complex glycoconjugates of N-acetylmuramic acid, and the enzymatic deglycosylation of rutin. Enzymatic redox reactions were exemplified by the enzymatic synthesis of indigo from indole, oxidations of β-ketoesters and the engineering of a horse radish peroxidase. The enzymatic reactions were elegantly employed in biosensors, such as glucose oxidase, in the case of electrochemical glucose sensors. Nitrilases are important enzymes for nitrile metabolism in plants and microorganisms have already found broad application in industry—here, these enzymes were for the first time described in Basidiomyceta. This book nicely describes molecular biocatalysis as a pluripotent methodology—“A jack of all trades...”—which strongly contributes to the high quality and sustainability of our daily lives.
Technology: general issues --- E. coli --- recombinant horseradish peroxidase --- site-directed mutagenesis --- periplasm --- glycosylation sites --- Aspergillus niger --- quercetin --- rutin --- rutinose --- rutinosidase --- “solid-state biocatalysis” --- hyaluronic acid --- in vitro synthesis --- one-pot multi-enzyme --- optimization --- enzyme cascade --- Basidiomycota --- Agaricomycotina --- nitrilase --- cyanide hydratase --- nitrile --- substrate specificity --- overproduction --- homology modeling --- substrate docking --- phylogenetic distribution --- indigo --- MISO library --- flavin --- monooxygenase --- FMO --- β-N-acetylhexosaminidases --- transglycosylation --- Glide docking --- Talaromyces flavus --- muramic acid --- non-reducing carbohydrate --- glucose oxidase --- direct electron transfer --- amine-reactive phenazine ethosulfate --- glucose sensor --- glycemic level monitoring --- Pseudomonas putida MnB1 --- biogenic manganese oxides --- abiotic manganese oxides --- α-Hydroxy-β-keto esters --- whole-cell biocatalysis --- surface display --- cell wall anchor --- Lactobacillus plantarum --- whole-cell biocatalyst --- n/a --- Fe(II)/2-ketoglutarate-dependent dioxygenase --- 2-ketoglutarate generation --- regio- and stereo-selective synthesis --- hydroxy amino acids --- sequential cascade reaction --- "solid-state biocatalysis"
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Biotransformation has accompanied mankind since the Neolithic community, when people settled down and began to engage in agriculture. Modern biocatalysis started in the mid-1850s with the pioneer works of Pasteur. Today, biotransformations have become an indispensable part of our lives, similar to other hi-tech products. Now, in 2019, biocatalysis “received” the Nobel Prize in Chemistry due to prof. Frances H. Arnold’s achievements in the area of the directed evolution of enzymes. This book deals with some major topics of biotransformation, such as the application of enzymatic methods in glycobiology, including the synthesis of hyaluronan, complex glycoconjugates of N-acetylmuramic acid, and the enzymatic deglycosylation of rutin. Enzymatic redox reactions were exemplified by the enzymatic synthesis of indigo from indole, oxidations of β-ketoesters and the engineering of a horse radish peroxidase. The enzymatic reactions were elegantly employed in biosensors, such as glucose oxidase, in the case of electrochemical glucose sensors. Nitrilases are important enzymes for nitrile metabolism in plants and microorganisms have already found broad application in industry—here, these enzymes were for the first time described in Basidiomyceta. This book nicely describes molecular biocatalysis as a pluripotent methodology—“A jack of all trades...”—which strongly contributes to the high quality and sustainability of our daily lives.
Technology: general issues --- E. coli --- recombinant horseradish peroxidase --- site-directed mutagenesis --- periplasm --- glycosylation sites --- Aspergillus niger --- quercetin --- rutin --- rutinose --- rutinosidase --- “solid-state biocatalysis” --- hyaluronic acid --- in vitro synthesis --- one-pot multi-enzyme --- optimization --- enzyme cascade --- Basidiomycota --- Agaricomycotina --- nitrilase --- cyanide hydratase --- nitrile --- substrate specificity --- overproduction --- homology modeling --- substrate docking --- phylogenetic distribution --- indigo --- MISO library --- flavin --- monooxygenase --- FMO --- β-N-acetylhexosaminidases --- transglycosylation --- Glide docking --- Talaromyces flavus --- muramic acid --- non-reducing carbohydrate --- glucose oxidase --- direct electron transfer --- amine-reactive phenazine ethosulfate --- glucose sensor --- glycemic level monitoring --- Pseudomonas putida MnB1 --- biogenic manganese oxides --- abiotic manganese oxides --- α-Hydroxy-β-keto esters --- whole-cell biocatalysis --- surface display --- cell wall anchor --- Lactobacillus plantarum --- whole-cell biocatalyst --- n/a --- Fe(II)/2-ketoglutarate-dependent dioxygenase --- 2-ketoglutarate generation --- regio- and stereo-selective synthesis --- hydroxy amino acids --- sequential cascade reaction --- "solid-state biocatalysis"
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Biotransformation has accompanied mankind since the Neolithic community, when people settled down and began to engage in agriculture. Modern biocatalysis started in the mid-1850s with the pioneer works of Pasteur. Today, biotransformations have become an indispensable part of our lives, similar to other hi-tech products. Now, in 2019, biocatalysis “received” the Nobel Prize in Chemistry due to prof. Frances H. Arnold’s achievements in the area of the directed evolution of enzymes. This book deals with some major topics of biotransformation, such as the application of enzymatic methods in glycobiology, including the synthesis of hyaluronan, complex glycoconjugates of N-acetylmuramic acid, and the enzymatic deglycosylation of rutin. Enzymatic redox reactions were exemplified by the enzymatic synthesis of indigo from indole, oxidations of β-ketoesters and the engineering of a horse radish peroxidase. The enzymatic reactions were elegantly employed in biosensors, such as glucose oxidase, in the case of electrochemical glucose sensors. Nitrilases are important enzymes for nitrile metabolism in plants and microorganisms have already found broad application in industry—here, these enzymes were for the first time described in Basidiomyceta. This book nicely describes molecular biocatalysis as a pluripotent methodology—“A jack of all trades...”—which strongly contributes to the high quality and sustainability of our daily lives.
E. coli --- recombinant horseradish peroxidase --- site-directed mutagenesis --- periplasm --- glycosylation sites --- Aspergillus niger --- quercetin --- rutin --- rutinose --- rutinosidase --- “solid-state biocatalysis” --- hyaluronic acid --- in vitro synthesis --- one-pot multi-enzyme --- optimization --- enzyme cascade --- Basidiomycota --- Agaricomycotina --- nitrilase --- cyanide hydratase --- nitrile --- substrate specificity --- overproduction --- homology modeling --- substrate docking --- phylogenetic distribution --- indigo --- MISO library --- flavin --- monooxygenase --- FMO --- β-N-acetylhexosaminidases --- transglycosylation --- Glide docking --- Talaromyces flavus --- muramic acid --- non-reducing carbohydrate --- glucose oxidase --- direct electron transfer --- amine-reactive phenazine ethosulfate --- glucose sensor --- glycemic level monitoring --- Pseudomonas putida MnB1 --- biogenic manganese oxides --- abiotic manganese oxides --- α-Hydroxy-β-keto esters --- whole-cell biocatalysis --- surface display --- cell wall anchor --- Lactobacillus plantarum --- whole-cell biocatalyst --- n/a --- Fe(II)/2-ketoglutarate-dependent dioxygenase --- 2-ketoglutarate generation --- regio- and stereo-selective synthesis --- hydroxy amino acids --- sequential cascade reaction --- "solid-state biocatalysis"
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Efforts to miniaturize sensing and diagnostic devices and to integrate multiple functions into one device have caused massive growth in the field of microfluidics and this integration is now recognized as an important feature of most new diagnostic approaches. These approaches have and continue to change the field of biosensing and diagnostics. In this Special Issue, we present a small collection of works describing microfluidics with applications in biosensing and diagnostics.
History of engineering & technology --- therapeutic drug monitoring (TDM) --- aminoglycosides --- size and mobility traps (SMT) --- microfluidics --- numerical techniques --- Microsoft Excel --- finite difference method --- Navier–Stokes --- time dependent flow --- dynamic flow --- initiation of flow --- Poiseuille flow --- point-of-care --- biosensor --- hybrid integration --- acoustofluidics --- cavitation --- micromixing --- optical absorbance --- colorimetry --- salivary potassium --- biomolecules --- microfluidic --- dielectrophoretic immobilization --- CMOS biosensor --- lab-on-chip --- microfluidic probe --- droplet --- sampling --- Taylor dispersion --- diagnostic --- GMR sensor --- whole cell --- microdroplets --- photo-isomerisation --- photokinetics --- opto-mechanics --- conformational states
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Efforts to miniaturize sensing and diagnostic devices and to integrate multiple functions into one device have caused massive growth in the field of microfluidics and this integration is now recognized as an important feature of most new diagnostic approaches. These approaches have and continue to change the field of biosensing and diagnostics. In this Special Issue, we present a small collection of works describing microfluidics with applications in biosensing and diagnostics.
History of engineering & technology --- therapeutic drug monitoring (TDM) --- aminoglycosides --- size and mobility traps (SMT) --- microfluidics --- numerical techniques --- Microsoft Excel --- finite difference method --- Navier–Stokes --- time dependent flow --- dynamic flow --- initiation of flow --- Poiseuille flow --- point-of-care --- biosensor --- hybrid integration --- acoustofluidics --- cavitation --- micromixing --- optical absorbance --- colorimetry --- salivary potassium --- biomolecules --- microfluidic --- dielectrophoretic immobilization --- CMOS biosensor --- lab-on-chip --- microfluidic probe --- droplet --- sampling --- Taylor dispersion --- diagnostic --- GMR sensor --- whole cell --- microdroplets --- photo-isomerisation --- photokinetics --- opto-mechanics --- conformational states
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Efforts to miniaturize sensing and diagnostic devices and to integrate multiple functions into one device have caused massive growth in the field of microfluidics and this integration is now recognized as an important feature of most new diagnostic approaches. These approaches have and continue to change the field of biosensing and diagnostics. In this Special Issue, we present a small collection of works describing microfluidics with applications in biosensing and diagnostics.
therapeutic drug monitoring (TDM) --- aminoglycosides --- size and mobility traps (SMT) --- microfluidics --- numerical techniques --- Microsoft Excel --- finite difference method --- Navier–Stokes --- time dependent flow --- dynamic flow --- initiation of flow --- Poiseuille flow --- point-of-care --- biosensor --- hybrid integration --- acoustofluidics --- cavitation --- micromixing --- optical absorbance --- colorimetry --- salivary potassium --- biomolecules --- microfluidic --- dielectrophoretic immobilization --- CMOS biosensor --- lab-on-chip --- microfluidic probe --- droplet --- sampling --- Taylor dispersion --- diagnostic --- GMR sensor --- whole cell --- microdroplets --- photo-isomerisation --- photokinetics --- opto-mechanics --- conformational states
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This Special Issue examines state-of-the-art in-cell NMR spectroscopy as it relates to biological systems of increasing complexity. The compendia of research and recent innovations from prominent laboratories in the field of solid state and solution in-cell NMR spectroscopy, metabolomics and technology development are presented. The work establishes in-cell NMR spectroscopy as the premier method for determining the structures and interaction capabilities of biological molecules at high resolution within the delicately intricate interior of living cells, and the means of utilizing cells as living laboratories to directly assess the effects of exogenous and endogenous stimuli on cell physiology.]
protein NMR --- time-resolved NMR --- Ribosome --- structural calculation 4 --- crystalline and amorphous starch --- in-cell NMR --- protein dynamics --- DNP --- protein modification --- Tau --- spectrum reconstruction 3 --- mRNA --- Thioredoxin --- protein structure --- protein interactions --- drug discovery --- protein structure determination 1 --- review --- enzyme activity --- MARK2 phosphorylation --- post-translational modifications --- Dihydrofolate reductase --- mammalian cells --- target engagement --- non-uniform sampling 2 --- paramagnetic effects --- protein structure-function --- cross-correlated relaxation --- structure function --- rRNA --- 2D INADEQUATE --- lipid membrane --- Thymidylate synthase --- whole cell NMR --- enzyme kinetics --- magic-angle spinning --- live cell --- solid-state NMR --- Adenylate kinase --- DNA --- in-situ NMR --- antimicrobial peptide --- NMR spectroscopy --- intrinsically disordered proteins
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The Special Issue "Fiber Optic Sensors in Chemical and Biological Applications” gathers recent original papers. The subjects of the papers cover a broad range of optical fiber chemical sensors and biosensors applied for regulation in bioreactors, to novel concepts of intrinsic optical fiber sensors.
Research & information: general --- Biology, life sciences --- fiber optic sensor --- gold nanoparticles --- localized surface plasmon resonance --- mercury --- ppb --- refractive index sensor --- gas sensor --- hollow-core photonic crystal fiber --- Mach–Zehnder interferometer --- whole-cell biosensor --- bioluminescent bioreporter --- optical fiber biosensor --- toluene --- Pseudomonas putida TVA8 --- Escherichia coli 652T7 --- fiber optics --- long period grating --- fiber optical sensors --- refractive index --- chemical sensing --- mercapto compound --- yeast cultivation --- feedback regulation --- glucose detection --- optical biosensor --- laser-induced plasma spectroscopy --- microchip laser --- hair analysis --- OFDR type DAS --- phase fading solution --- high SNR --- real-time events detection --- ammonia detection --- layer-by-layer --- U-bent optical fiber --- porphyrin --- poly(styrene sulfonate) --- diazo resin --- photocrosslinking
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The Special Issue "Fiber Optic Sensors in Chemical and Biological Applications” gathers recent original papers. The subjects of the papers cover a broad range of optical fiber chemical sensors and biosensors applied for regulation in bioreactors, to novel concepts of intrinsic optical fiber sensors.
Research & information: general --- Biology, life sciences --- fiber optic sensor --- gold nanoparticles --- localized surface plasmon resonance --- mercury --- ppb --- refractive index sensor --- gas sensor --- hollow-core photonic crystal fiber --- Mach–Zehnder interferometer --- whole-cell biosensor --- bioluminescent bioreporter --- optical fiber biosensor --- toluene --- Pseudomonas putida TVA8 --- Escherichia coli 652T7 --- fiber optics --- long period grating --- fiber optical sensors --- refractive index --- chemical sensing --- mercapto compound --- yeast cultivation --- feedback regulation --- glucose detection --- optical biosensor --- laser-induced plasma spectroscopy --- microchip laser --- hair analysis --- OFDR type DAS --- phase fading solution --- high SNR --- real-time events detection --- ammonia detection --- layer-by-layer --- U-bent optical fiber --- porphyrin --- poly(styrene sulfonate) --- diazo resin --- photocrosslinking
Choose an application
The Special Issue "Fiber Optic Sensors in Chemical and Biological Applications” gathers recent original papers. The subjects of the papers cover a broad range of optical fiber chemical sensors and biosensors applied for regulation in bioreactors, to novel concepts of intrinsic optical fiber sensors.
fiber optic sensor --- gold nanoparticles --- localized surface plasmon resonance --- mercury --- ppb --- refractive index sensor --- gas sensor --- hollow-core photonic crystal fiber --- Mach–Zehnder interferometer --- whole-cell biosensor --- bioluminescent bioreporter --- optical fiber biosensor --- toluene --- Pseudomonas putida TVA8 --- Escherichia coli 652T7 --- fiber optics --- long period grating --- fiber optical sensors --- refractive index --- chemical sensing --- mercapto compound --- yeast cultivation --- feedback regulation --- glucose detection --- optical biosensor --- laser-induced plasma spectroscopy --- microchip laser --- hair analysis --- OFDR type DAS --- phase fading solution --- high SNR --- real-time events detection --- ammonia detection --- layer-by-layer --- U-bent optical fiber --- porphyrin --- poly(styrene sulfonate) --- diazo resin --- photocrosslinking
Listing 1 - 10 of 23 | << page >> |
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