LEADER 04629nam 2200949z- 450 001 9910367744703321 005 20231214133446.0 010 $a3-03921-829-8 035 $a(CKB)4100000010106270 035 $a(oapen)https://directory.doabooks.org/handle/20.500.12854/51783 035 $a(EXLCZ)994100000010106270 100 $a20202102d2019 |y 0 101 0 $aeng 135 $aurmn|---annan 181 $ctxt$2rdacontent 182 $cc$2rdamedia 183 $acr$2rdacarrier 200 10$aLiquid Crystal on Silicon Devices: Modeling and Advanced Spatial Light Modulation Applications 210 $cMDPI - Multidisciplinary Digital Publishing Institute$d2019 215 $a1 electronic resource (172 p.) 311 $a3-03921-828-X 330 $aLiquid Crystal on Silicon (LCoS) has become one of the most widespread technologies for spatial light modulation in optics and photonics applications. These reflective microdisplays are composed of a high-performance silicon complementary metal oxide semiconductor (CMOS) backplane, which controls the light-modulating properties of the liquid crystal layer. State-of-the-art LCoS microdisplays may exhibit a very small pixel pitch (below 4 ?m), a very large number of pixels (resolutions larger than 4K), and high fill factors (larger than 90%). They modulate illumination sources covering the UV, visible, and far IR. LCoS are used not only as displays but also as polarization, amplitude, and phase-only spatial light modulators, where they achieve full phase modulation. Due to their excellent modulating properties and high degree of flexibility, they are found in all sorts of spatial light modulation applications, such as in LCOS-based display systems for augmented and virtual reality, true holographic displays, digital holography, diffractive optical elements, superresolution optical systems, beam-steering devices, holographic optical traps, and quantum optical computing. In order to fulfil the requirements in this extensive range of applications, specific models and characterization techniques are proposed. These devices may exhibit a number of degradation effects such as interpixel cross-talk and fringing field, and time flicker, which may also depend on the analog or digital backplane of the corresponding LCoS device. The use of appropriate characterization and compensation techniques is then necessary. 517 $aLiquid Crystal on Silicon Devices 610 $aaberration compensation 610 $aholographic and volume memories 610 $aachromatic lens 610 $ahead-up displays 610 $aphase characterization 610 $aholographic display 610 $aspatial resolution 610 $aspatial light modulator 610 $azoom lens 610 $asoliton 610 $atransmission matrix 610 $ahead-mounted displays 610 $adiffraction 610 $aparallel-aligned 610 $aliquid-crystal on silicon 610 $aphase measurement 610 $amultimode fiber 610 $adigital holography 610 $achromatic aberration 610 $amultiorder diffractive lens 610 $aholography 610 $aphase accuracy 610 $ainterference 610 $acomputer generated hologram 610 $aoptical manipulation 610 $aspeckle suppression 610 $aphase modulation 610 $atransparent mode 610 $alight scattering 610 $aferroelectric 610 $aphase change 610 $aliquid-crystal-on-silicon 610 $aimaging systems 610 $aLiquid Crystal on Silicon display 610 $adiffractive optical element 610 $aliquid crystals 610 $aspatially anamorphic phenomenon 610 $acalibration 610 $ahead-up display 610 $ahelix-free 610 $aphase precision and stability 610 $akinoform 610 $aspatial light modulators 610 $aphotopolymer 610 $adiffractive optics 610 $amode division multiplexing 610 $aliquid crystal on silicon device 610 $aaugmented reality displays 610 $aholographic data storage 610 $aliquid crystal spatial light modulator 610 $aharmonic lens 610 $afringing field effect 610 $aliquid crystal 700 $aLizana$b A?ngel$4auth$01314775 702 $aMa?rquez$b Andre?s$4auth 906 $aBOOK 912 $a9910367744703321 996 $aLiquid Crystal on Silicon Devices: Modeling and Advanced Spatial Light Modulation Applications$93031952 997 $aUNINA