Abstract:
PROBLEM TO BE SOLVED: To improve the quality of a moving image in the so-called hold type display. SOLUTION: An image display system adopting the present invention is provided with an image information input part 11 for inputting image information, a moving object detecting part 21 for detecting a moving object of the inputted image information, a motion information input part 12 for inputting motion information of the detected moving object, a decoration attaching part 22 for attaching decoration information to image information of the detected moving object on the basis of a moving state of the moving object recognized from the motion information, and an object deforming part 23 for deforming the moving object detected by the moving object detecting part 21, and provides a display device 30 with display information obtained by attaching the decoration information to the deformed moving object. COPYRIGHT: (C)2004,JPO
Abstract:
PROBLEM TO BE SOLVED: To reduce blurred picture in animated picture display and to obtain a satisfactory picture quality free from ghost. SOLUTION: This liquid crystal display device is provided with a control means which, in one period in a cycle of displaying one picture, controls a gate line driving means 2 so as to select a gate line for each of the first and the second pixel array for the purpose of displaying a picture on a liquid crystal panel; which controls the first and the second data line driving means 4a, 4b so that a picture signal for showing a picture is supplied to the first and the second data line group; which, in a separate period different from one in the same cycle as the one period, controls the gate line driving means 2 so as to select the gate line once more for each of the first and the second pixel array; and which controls the first and the second data line driving means 4a, 4b so that a non-picture signal having a prescribed electric potential and different from the picture signal is supplied to the first and the second data line group.
Abstract:
PROBLEM TO BE SOLVED: To suppress a color slippage occurring when a region having a sharp boundary is slipped on a liquid crystal display(LCD) and to improve an abnormal color visibility at the boundary portion being moved. SOLUTION: An overdrive controller driving the LCD is provided with a changing rate Rst computing section 21 which comprehends the transition state from the current luminance of R, G and B subpixels to target luminance, a selecting section 22 which selects a subpixel having slowest transition and other subpixels from among the comprehended transition state, an overdrive voltage computing section 11 which computes a voltage to accelerate luminance transition for the subpixel having the slowest transition, an effective luminance Yst' computing section 16 which computes the voltage to accelerate or decelerate the luminance transition for cooperation with respect to selected other subpixels and a Yst' overdrive voltage computing section 17, and supplys a supply voltage by switching with a switch (SW) 23. COPYRIGHT: (C)2003,JPO
Abstract:
PROBLEM TO BE SOLVED: To provide a display device and an optoelectronic device using a colloidal liquid crystal composite material, a method for forming the colloidal liquid crystal composite material and a method for manufacturing the optoelectronic device. SOLUTION: The display device comprises substrates each having an electrode and disposed apart from each other, a spacer disposed between the substrates to form an optoelectronic cell with the substrates, and a liquid crystal composite material (CLCC) filling the optoelectronic cell. The CLCC contains a particle-rich interdomain region and a liquid crystal microdomain, and the particle-rich interdomain region containing colloidal organic particles forms a network in the liquid crystal.
Abstract:
PROBLEM TO BE SOLVED: To shift an OCB cell from a spray orientation state to a bend orientation state in a short time by applying a voltage which is higher than an electric field needed to continue bend orientation between a display electrode (pixel electrode) and a common electrode. SOLUTION: When the power source is turned on, a power-on reset signal is outputted for t1 seconds, and a gate pulse which is about 20-20V similar to an ordinary gate pulse, but has a period much wider than that in ordinary gate timing is outputted to a gate line in the t1 seconds. The gate-on time of this driving method is set long to several msec - several sec. Consequently, the bend orientation as a nucleus is formed between the gate electrode and common electrode. Further, the whole pixel shifts to the bend orientation with the electric field applied between the display electrode and common electrode. As a higher and higher voltage is applied between the display electrode and common electrode, the shift to the bend orientation is faster and faster.
Abstract:
PROBLEM TO BE SOLVED: To improve color shifting, blur and tail draw and the like which appear in the scroll of a text, the dragging of an icon, a CG(computer graphic) animation and a moving video and the like which are displayed on an LCD(liquid crystal display). SOLUTION: This circuit is a liquid crystal display driving circuit which is provided with a capacitance estimating part 12 estimating capacitance values to which respective pixels reach after one refresh cycle at the time of applying a prescribed voltage to the pixels with respect to target luminance, a frame buffer 13 storing the capacitance values estimated by the capacitance estimating part 12 and an over drive voltage calculating part 11 calculating voltages to be applied to the respective pixels based on target luminance posterior to one refresh cycle and the capacitance values stored in the frame buffer 13.
Abstract:
PROBLEM TO BE SOLVED: To greatly improve visual angle characteristics, to have a high transmission rate, and to drive the device with a low voltage by providing an optical phase difference compensating film which operates to compensate modulation imposed on light passing through a liquid crystal layer by nearly a half of its width. SOLUTION: An OCB type liquid crystal layer 10 is sandwiched between glass substrates 3 and 6. Polarizing filters 2a and 2b which cut off and transmit specific polarized light are present outside the glass substrates 3 and 6, and optical phase difference compensating films 20a and 20b are arranged between the glass substrate 3 and polarizing film 2a, and the glass substrate 6 and polarizing filter 2b. Those optical phase difference compensating films 20a and 20b contain liquid crystal molecules having point-symmetrical orientation on the basis of the contacts between the liquid crystal layer 10 and optical phase difference compensating films 20a and 20b about nearly a half of the orientation of the liquid crystal layer 10. Further, the product of the refractive index anisotropy Δn and thickness (d) of the liquid crystal layer 10 is preferably that 0.8
Abstract:
PROBLEM TO BE SOLVED: To prevent the deterioration in the visual sensation characteristics of a screen, each as reversal development at a vertical visual field angle, by determining the min. wavelength λ among the wavelengths of the light relating to colors, the min. value V1 of a driving voltage and the optical phase difference R(V1 ) at this voltage so as to satisfy a specific relation. SOLUTION: The optimum value of the optical phase difference R(V1 ) relating to the respective colors of R(red), G(green), B(blue) is determined, by which the optically rotatory power of liquid crystals for B(blue) wavelength is prevented. The R(V1 ) is the absolute value of retardation before correction by a phase compensation film at the driving voltage V. on a low side. Namely, the occurrence of the optically rotatory power of the liquid crystals for the B(blue) wavelength is prevented by the optimization of the value of R(V1 )/λ. The term 'optimization' signifies to satisfy the relation R(V1 )/λ=
Abstract:
PROBLEM TO BE SOLVED: To provide a simulation system for a light emitting device, a computer device, a simulation method, and a program. SOLUTION: In this simulation system 10, the computer device 34 includes: a carrier conveyance calculation module 42 having a plurality of calculation modules configured therein, calculating the concentration of carriers in the light emitting device, and storing therein the recombination velocity of the carriers as exciton generation velocity; an optical calculation module 40 calculating a data set including a total radiation electric-power factor which is electric power required in exciton optical radiation to store the data set in a storage; an exciton diffusion calculation module 44 reading a data set corresponding to the electric-power factor to calculate the concentration of excitons, inclusive of the total deactivation velocity of excitons; and a device characteristic calculation module 46 calculating device characteristics of the light emitting device in measurable dimensions by using a radiation deactivation velocity calculated from the concentration of excitons. COPYRIGHT: (C)2008,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a control system which applies a voltage to a liquid crystal layer to have short-time transition to bend orientation for a liquid crystal display device which uses the liquid crystal layer with the bend orientation. SOLUTION: While the potential difference VG-VS between a gate electrode and a signal electrode is held above 10V, a potential difference of >=10V is applied continuously or intermittently between the signal electrode and a counter electrode. When the voltage is applied intermittently, an ON time for which the potential difference is applied between the signal electrode and counter electrode is preferably longer than a time wherein part of the liquid crystal layer substantially begins to change into spray orientation as a 2nd stage and an OFF time for which the potential difference is not applied between the signal electrode and counter electrode is desirably longer than a time needed for a return of the liquid crystal area of the spray orientation as the 2nd stage to the state before the potential is applied.