Search for dissertations about: "Quartz Crystal Microbalance with Dissipation"
Showing result 1 - 5 of 79 swedish dissertations containing the words Quartz Crystal Microbalance with Dissipation.
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1. Development of Electroacoustic Sensors for Biomolecular Interaction Analysis
Abstract : Biomolecular interaction analysis to determine the kinetics and affinity between interacting partners is important for the fundamental understanding of biology, as well as for the development of new pharmaceutical substances. A quartz crystal microbalance instrument suitable for kinetics and affinity analyses of interaction events was developed. READ MORE
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2. On the Frequency and Q Factor Response of the Quartz Crystal Microbalance to Liquid Overlayers
Abstract : The quartz crystal microbalance (QCM) is an ultra-sensitive weighing device. It consists of a piezoelectric quartz crystal, often in the form of a disk, which is sandwiched between a pair of evaporated electrodes. READ MORE
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3. Interfacial Properties of Biomacromolecular Model Systems: Surface Forces and Nanotribology
Abstract : The nanotribology, adhesion and related interfacial properties of biomacromolecular systems have been studied. The aim was to elucidate the role of physisorbed and chemically grafted bio-polymers implicated as mediators for cellulose based processing and material design. READ MORE
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4. QCM-D with focus on variations in oscillation amplitude
Abstract : The QCM-D (quartz crystal microbalance with dissipation monitoring) technique is an increasingly popular tool in studies of molecular interactions at interfaces, e.g. binding/unbinding reactions at surfaces, studies of thin film properties, and conformational changes. READ MORE
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5. Biomolecule Trapping With Stimuli-Responsive Polymer Coated Nanostructures
Abstract : Trapping biomolecules in nanosized gaps is of great interest in novel systems for single molecule analysis and membranes, which filter biomolecules. Current platforms are lacking in full functionality to facilitate biomolecule trapping and transport in their native environment and without covalent tethering to surfaces. READ MORE