LEADER 03980nam 2200877z- 450 001 9910557787803321 005 20231214132843.0 035 $a(CKB)5400000000045510 035 $a(oapen)https://directory.doabooks.org/handle/20.500.12854/68830 035 $a(EXLCZ)995400000000045510 100 $a20202105d2020 |y 0 101 0 $aeng 135 $aurmn|---annan 181 $ctxt$2rdacontent 182 $cc$2rdamedia 183 $acr$2rdacarrier 200 10$aBiosensors with Magnetic Nanocomponents 210 $aBasel, Switzerland$cMDPI - Multidisciplinary Digital Publishing Institute$d2020 215 $a1 electronic resource (170 p.) 311 $a3-03936-680-7 311 $a3-03936-681-5 330 $aThe selective and quantitative detection of biocomponents is greatly requested in biomedical applications and clinical diagnostics. Many traditional magnetic materials are not suitable for the ever-increasing demands of these processes. The push for a new generation of microscale sensors for bioapplications continues to challenge the materials science community to develop novel nanostructures that are suitable for such purposes. The principal requirements of a new generation of nanomaterials for sensor applications are based on well-known demands: high sensitivity, small size, low power consumption, stability, quick response, resistance to aggressive media, low price, and easy operation by nonskilled personnel. There are different types of magnetic effects capable of creating sensors for biology, medicine, and drug delivery, including magnetoresistance, spin valves, Hall and inductive effects, and giant magnetoimpedance. The present goal is to design nanomaterials both for magnetic markers and sensitive elements as synergetic pairs working in one device with adjusted characteristics of both materials. Synthetic approaches using the advantages of simulation methods and synthetic materials mimicking natural tissue properties can be useful, as can the further development of modeling strategies for magnetic nanostructures. 606 $aHistory of engineering & technology$2bicssc 610 $amagnetic multilayers 610 $amagnetoimpedance 610 $amodeling 610 $amagnetic sensors 610 $amagnetic biosensors 610 $aMagnetoimpedance effect 610 $aamorphous ribbons 610 $apatterned ribbons 610 $ameander sensitive element 610 $amagnetic field sensor 610 $amagnetic nanoparticles 610 $acontrast agent 610 $arelaxation 610 $arelaxation rate 610 $aLangevin model 610 $amagnetic field inhomogeneity 610 $aferrogels 610 $amedical ultrasound 610 $asonography 610 $abiomedical applications 610 $amagnetic polymersomes 610 $amagnetic vesicles 610 $amagnetoactive composites 610 $ananocapsules 610 $acoarse-grained molecular dynamics 610 $acomputer simulation 610 $aspintronics 610 $aCFA 610 $athermoelectric effect 610 $aspin seebeck effect 610 $amagneto-impedance 610 $abiosensor 610 $afinite-element method 610 $amagnetic hyperthermia 610 $aspecific loss power 610 $amagnetic mixed ferrites 610 $ahysteresis losses 610 $athermometric measurements 610 $ananobiotechnology 610 $ananomedicine 610 $atherapeutics 610 $abiosensing 610 $amagnetoelasticity 610 $aprecipitation 610 $amass measurement 610 $achemical sensor 615 7$aHistory of engineering & technology 700 $aKurlyandskaya$b Galina V$4edt$01302783 702 $aKurlyandskaya$b Galina V$4oth 906 $aBOOK 912 $a9910557787803321 996 $aBiosensors with Magnetic Nanocomponents$93026563 997 $aUNINA