Switchable Bioelectronics
Switchable BiointerfacesPhysically Stimulated SystemsLight-Switchable InterfacesTemperature-Switchable InterfacesElectrically Switchable InterfacesMagnetoswitchable InterfacesChemically Stimulated SystemsProgrammable BioelectronicsEnzyme-Based Logic Systems for BiocomputingProgrammable Enzyme–Based Biocatalytic SystemsConclusion and Future OutlookStimuli-Responsive Systems and ApplicationsIntroductionThermoresponsive MaterialsSystems That Are pH ResponsivePhotoresponsive SystemsPhotoisomerizationAzobenzene-based systemsSpiropyran-based systemsPhotodimerizationAnthracene derivativesCoumarin derivativesCinnamoyl derivativesPhotocleavagePhotocagesSelf-assemblyStimuli-Responsive Polymers with Tunable Release KineticsIntroductionStimuli-Responsive PolymersTemperature-Responsive PolymersPolymers That Are pH ResponsiveElectroactive PolymersLight-Responsive PolymersSummaryConformational Switching in Nanofibers: A New Bioelectronic Interface for Gas SensorsIntroductionConformational Change and Energy-Related Shape Resistance of a Single ChainTheoryM-FJC and WLC ModelsForce Spectroscopy ApplicationsSingle-Chain ElongationChain Elasticity, Shape Resistance, and SwitchabilityCharacteristic Behavior of PolysaccharidesEffect of Small-Molecule Polymer Interaction on SwitchabilityPolymer-Solvent InteractionSwitchable Nanofiber Sensing PlatformMolecularly Imprinted Polymers as Recognition and Signaling Elements in SensorsIntroductionApplications of the Molecular Imprinting Technique as a SensorMIP-Based Electrochemical SensorsMIP-Based Mass SensorsMIP-Based Optical Sensors
