Advances in Display Technologies VI
Proceedings Volume 9770 is from: Logo
13-18 February 2016
San Francisco, California, United States
Front Matter: Volume 9770
Proc. SPIE 9770, Front Matter: Volume 9770, 977001 (22 June 2016);
New Display Technologies
Proc. SPIE 9770, Emissive and reflective properties of curved displays in relation to image quality, 977002 (7 March 2016);
Proc. SPIE 9770, See-through multi-view 3D display with parallax barrier, 977003 (7 March 2016);
Proc. SPIE 9770, Feasibility study on the use of liquid crystal/dye cells for digital signage, 977004 (7 March 2016);
Proc. SPIE 9770, Autostereoscopic display concept with time-sequential wavelength-selective filter-barrier, 977005 (7 March 2016);
Proc. SPIE 9770, Super multi-view display for analyzing human cognition, 977006 (7 March 2016);
Projection Screen and Moire Reduction
Proc. SPIE 9770, Brightness property of micro-capsules diffuser screen in laser projection display, 977008 (7 March 2016);
Proc. SPIE 9770, A novel screen design for anti-ambient light front projection display with angle-selective absorber, 977009 (7 March 2016);
Proc. SPIE 9770, Moiré reducing two-dimensional diffractive optical low-pass filter made from molded plastic, 97700A (7 March 2016);
Proc. SPIE 9770, Numerical evaluation of moiré pattern in touch sensor module with electrode mesh structure in oblique view, 97700B (7 March 2016);
3D, Holographic, and HM Displays
Proc. SPIE 9770, Dual-view 3D displays based on integral imaging, 97700C (7 March 2016);
Proc. SPIE 9770, Fourier holographic display for augmented reality using holographic optical element, 97700D (7 March 2016);
Proc. SPIE 9770, Master-oscillator power-amplifier in the red spectral range for holographic displays, 97700E (7 March 2016);
Proc. SPIE 9770, Lightweight high-brightness helmet-mounted head-up display system, 97700F (7 March 2016);
Driving Algorithm and Electronics
Proc. SPIE 9770, A portable intra-oral scanner based on sinusoidal pattern of fast phase-shifting, 97700G (7 March 2016);
Proc. SPIE 9770, Fully transparent thin film transistors based on zinc oxide channel layer and molybdenum doped indium oxide electrodes, 97700H (7 March 2016);
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