Illumination, Color and Imaging: Evaluation and Optimization of Visual Displays(Wiley Series in Display Technology)

This much needed, comprehensive and modern reference on display technology, illumination sources and color imaging focuses on visual effects and how reproduced images are best matched to human visual features. As such, it teaches readers how to exploit the knowledge of human color information processing to design usable, ergonomic, and pleasing displays or visual environments. The contents describe design principles and methods to optimize self-luminous visual technologies for the human user, including modern still and motion image displays, and indoor light sources. Design principles and methods are derived from the knowledge of the human visual system, with a special emphasis on color vision, color cognition, color harmony, color preference and visually evoked emotions. The expert authors include the most important and latest applications of the design principles and methods, forming a comprehensive view of human color information processing from the receptors through the retina via high-level visual perception right up to the level of cognition, preference, harmony, as well as visually evoked emotions. This book is included in the Wiley SID Series.

Table of Contents:
1 Color vision and self-luminous visual technologies 1.1 Colour vision related aspects of modern self-luminant (non-printing) visual technologies 1.1.1 Digital film and TV 1.1.2 Cameras 1.1.3 Colour monitors 1.1.4 Large displays including HMD and projectors 1.1.5 Light sources for indoor illumination and backlighting 1.2 Colour vision features and the optimization of modern self-luminant visual technologies 1.2.1 Photoreceptor structure 1.2.2 Spatial and temporal contrast sensitivity 1.2.3 Colour appearance perception 1.2.4 Colour difference perception 1.2.5 Legibility, visibility and conspicuity of coloured objects 1.2.6 Cognitive, preferred, harmonic and emotional colour 1.2.7 Inter-individual variability of colour vision 1.3 Perceptual, cognitive, and emotional features of the visual system and the corresponding technological challenge 2 Colorimetric and colour appearance based characterization of displays 2.1 Colorimetric and colour appearance based characterization of CRT displays 2.1.1 Modern applications of high-end CRT technology 2.1.2 Tone curve models and phosphor matrices 2.1.3 Measured CRT colour characteristics, sRGB and other characterization models 2.1.4 Additivity and independence of the colour channels 2.1.5 Multi-dimensional phosphor matrices and other methods 2.1.6 Spatial uniformity and spatial independence 2.1.7 Application of CIELAB, CIELUV and CIECAM02 to self-luminant monitors 2.2 Colorimetric and colour appearance based characterization of non-CRT displays 2.2.1 Characterization models of non-CRT displays (PDP, LCD, HMD, projectors) 2.2.2 Viewing direction uniformity 2.2.3 Visual artefacts 2.3 Display light source technologies 2.3.1 Projector light sources 2.3.2 Backlighting light sources 2.3.3 Colour filters, local dimming and high dynamic range imaging 2.4 Colour appearance of large viewing angle displays 2.4.1 Colour appearance differences between small and large colour stimuli 2.4.2 Mathematical modelling of the colour size effect 3 Colour management and image optimization for digital TV and digital cinema 3.1 Colour management workflows for digital TV and digital cinema 3.1.1 Colour management workflows of today?s digital film technology 3.1.2 Application of colour appearance models 3.1.3 Application of colour difference models 3.1.4 Test objects and colorimetric measurement 3.1.5 Colour gamut 3.1.6 Conversion between analogue film and digital film 3.1.7 High dynamic range colour motion picture imaging 3.2 Colour management and colour image processing in digital postproduction 3.2.1 Colour management and image processing in modern film and TV post production 3.2.2 Suitability of colour difference formulae and colour appearance models for the colourist 3.2.3 Differences among proof monitors, analogue cinema and digital cinema 3.2.4 Colour fidelity of monitors and projectors for postproduction 3.2.5 Film-like colour image appearance 3.2.6 Hybrid film projection environments 3.2.6.1 Depth of field, colour and resolution 3.2.6.2 Colour gamut conversion 3.2.6.3 ICC profiles and 3D-LUTs 3.2.6.4 DCI-conform hybrid colour image processing workflows 3.2.6.5 Factors of perceived colour quality 3.3 Exploiting the spatio-temporal characteristics of colour vision for digital TV, cinema and camera 3.3.1 Spatial and temporal optimization of motion pictures 3.3.2 Colour vision and motion picture compression 3.3.2.1 Perceived colour image quality 3.3.2.2 Scalability and loss of visual information 3.3.2.3 Compression efficiency 3.3.2.4 Objective and subjective evaluation of motion image compression 3.3.2.5 Choice of test sequences 3.3.3 Optimization of digital motion picture cameras 3.3.3.1 Optimization of the sensors 3.3.3.2 Optimization of the objective lens 3.3.4 Video watermarking in colour film post-production 3.4 Light sources in TV and film production and postproduction 3.4.1 Optimum spectral power distribution for cinematographic light sources 3.4.2 Colour rendering properties 3.4.3 Colour transformations in digital cameras 3.5 Visually evoked emotions in colour motion pictures 3.5.1 Technical parameters of motion picture sequences 3.5.2 Psychological factors 3.5.3 Visually evoked emotions 3.5.4 Emotional clusters 3.5.5 A model of emotional strength 3.5.6 Automatic emotional image processing enhancement 4 Pixel architectures for displays of three and multiple colour primaries 4.1 Optimization principles for three- and multi-primary colour displays to obtain a large colour gamut 4.1.1 Target colour sets 4.1.2 Factors of optimization 4.2 Large-gamut primary colours and their gamut in colour appearance space 4.2.1 Optimum colour primaries 4.2.2 Optimum colour gamuts in colour appearance space 4.3 Optimization principles of sub-pixel architectures for multi-primary colour displays 4.4 Three- and multi-primary sub-pixel architectures and colour image rendering methods 4.4.1 Three-primary architectures 4.4.2 Multi-primary architectures 4.4.3 Colour image rendering methods 5 Memory and preference based enhancement of colour displays 5.1 Ergonomic design of colour displays: optimal use of chromaticity contrast 5.1.1 Principles of ergonomic colour design 5.1.2 Legibility, conspicuity and visual search 5.1.3 Chromaticity contrast for optimal search performance 5.1.4 Chromaticity contrast preference 5.1.5 Luminance contrast preference 5.2 Long-term memory colours, intercultural differences and their use to evaluate and improve colour image quality 5.2.1 Long-term memory colours for familiar objects 5.2.2 Intercultural differences 5.2.3 Increasing colour quality by memory colours 5.3 Colour image preference for white point, local contrast, global contrast, hue and chroma 5.3.1 Apparatus and method to obtain a colour image preference dataset 5.3.2 Image transforms of colour image preference 5.3.3 Preferred white point 5.3.4 Preferred local contrast 5.3.5 Preferred global contrast 5.3.6 Preferred hue and chroma 5.4 Age dependent method for preference based colour image enhancement 5.4.1 Colour image descriptors 5.4.2 Colour image enhancement method 6 Improving the colour quality of indoor light sources 6.1 Optimization for indoor light sources to provide a visual environment of high colour rendering 6.1.1 Visual colour fidelity experiments 6.1.2 Colour rendering prediction methods 6.2 Optimization of indoor light sources to provide colour harmony in the visual environment 6.2.1 Visual colour harmony experiments 6.2.2 A recent mathematical method to predict colour harmony 6.2.3 A computational method to predict colour harmony rendering 6.3 Principal components of light source colour quality 6.3.1 Factors influencing colour quality 6.3.2 Experimental methods 6.3.3 Modelling colour quality 6.3.4 Principle components of colour quality 6.4 Assessment of complex indoor scenes under different light sources 6.5 Effect of inter-observer variability of colour vision on the colour quality of light sources 6.5.1 Variations of colour vision mechanisms 6.5.2 Effect of variability on colour quality 6.5.3 Relevance of variability for light source design 7 Emerging visual technologies 7.1 Emerging display technologies 7.1.1 Three-dimensional displays 7.1.2 Laser and LED displays 7.1.3 Colour gamut extension and image rendering for multi-primary displays 7.2 Emerging technologies for indoor light sources 7.2.1 Tuneable LED lamps for accent lighting 7.2.2 Optimization for brightness and Circadian rhythm 7.2.3 Accentuation of different aspects of colour quality 7.2.4 Using new phosphor blends 7.2.5 Implications of colour constancy for light source design 7.3 Summary and outlook

About the Author :
Dr. Peter Bodrogi is a senior research fellow at the Laboratory of Lighting Technology of the Technische Universitat Darmstadt in Darmstadt, Germany. He graduated in Physics from the Lorand Eotvos University of Budapest, Hungary. He obtained his PhD degree in Information Technology from the University of Pannonia in Hungary. He has co-authored numerous scientific publications and invented patents about colour vision and self-luminant display technology. He has received several scientific awards including a Research Fellowship of the Alexander von Humboldt Foundation, Germany, and the Walsh-Weston Award, Great Britain. He has been member of several Technical Committees of the International Commission of Illumination (CIE). Prof. Tran Quoc Khanh is University Professor and Head of the Laboratory of Lighting Technology at the Technische Universitat Darmstadt in Darmstadt, Germany. He graduated in Optical Technologies, obtained his PhD degree in Lighting Engineering, and his degree of lecture qualification (habilitation) for his thesis in Colorimetry and Colour Image Processing from the Technische Universitat Ilmenau, Germany. He has gathered industrial experience as a project manager by ARRI CineTechnik in Munchen, Germany. He has been the organizer of the well-known series of international symposia for automotive lighting (ISAL) in Darmstadt, Germany, and is a member of several Technical Committees of the International Commission of Illumination (CIE).