Abstract:
According to an embodiment of the invention, there is disclosed an array substrate, comprising: data lines; first and second gate lines, the first and second gate lines and the data lines crossing with each other so as to define sub-pixel structures; each of the sub-pixel structures comprising first and second sub-pixels; a first control line, insulated from the first and second gate lines; and first switch devices, each for making the first gate line and the second gate line corresponding to the first sub-pixel and the second sub-pixel in the same sub-pixel structure connected or disconnected under the control of the first control line, wherein in each of the sub-pixel structures, the first gate line is connected to the first sub-pixel, the second gate line is connected to the second sub-pixel, and the first sub-pixel and the second sub-pixel are connected to the same data line.
Abstract:
A liquid crystal lens is comprises: a plurality of lens units (1), and a driver circuit electrically-connected with the plurality of lens units respectively; each lens unit comprises: a common electrode (11), a signal electrode opposite to the common electrode, and a liquid crystal layer provided between the common electrode and the signal electrode; each signal electrode comprises: one or two conductive wires (25) with one end being electrically-connected to the driver circuit, and a resistive block (22) provided on a second substrate and opposite to the common electrode. The resistive block is electrically-connected with the conductive wire(s). Where the driver circuit applies a drive voltage through the conductive wire(s) to the resistive block, the liquid crystal layer provided between the resistive block and the common electrode has a lens function. A stereoscopic display device comprising a same liquid crystal lens is also disclosed.
Abstract:
An embodiment of the present invention provides a method for aligning a phase retardation plate with a display panel comprising the following steps: S1: determining the positions of a first reference line on the phase retardation plate and a second reference line on the display panel, wherein the first reference line is the central line between the first and second ends of the phase retardation area, and the second reference line is the central line between the third and fourth ends of the display area; S2: obtaining a positional deviation between the first reference line and the second reference line by calculation; S3: adjusting the relative position between the phase retardation plate and the display panel according to the positional deviation.
Abstract:
Embodiments of the present invention provide a 3D display device and a 3D display system, the 3D display device, comprising: a reflecting unit, reflecting light incident thereon; a polarization display unit, formed at a reflected light emitting side of the reflecting unit, and the polarization display unit for displaying images, converting incident natural light into polarized light and transmitting or blocking light reflected by the reflecting unit; and a polarization direction adjustment unit, formed at a reflected light emitting side of the polarization display unit, for converting the reflected light emitted from the polarization display unit into two sets of polarized light with different polarization directions.
Abstract:
An electric alignment device and an alignment method for a birefringence grating are disclosed in the embodiments of the present invention. The electric alignment device comprises: an alignment platform provided with at least two stripe electrodes, the at least two stripe electrodes are parallel to each other so as to generate an electric field for aligning liquid crystal polymer in the birefringence grating.
Abstract:
A 3D display device and LC barrier are disclosed. The 3D display device comprises a non-polarized light display unit and an LC barrier. The LC barrier comprises a liquid crystal cell arranged at one side of the non-polarized light display unit, and the liquid crystal cell comprises an upper substrate, a lower substrate and a cholesteric liquid crystal layer between the substrates; a first quarter-wave plate provided on the upper substrate; a polarizer provided on the first quarter-wave plate; an absorption axis of the polarizer forms a predetermined angle with a fast axis of the first quarter-wave plate.
Abstract:
Embodiments of the present invention provide a pixel structure and a control method thereof and a display panel. The pixel structure comprises a plurality of sub-pixels, and a plurality of gate lines and a plurality of data lines that are crossed with each other, wherein the gate lines comprise a plurality of first gate lines and a plurality of second gate lines, each sub-pixel comprises a first part and a second part, and each sub-pixel comprises a first thin film transistor and a second thin film transistor, the first part is connected to a corresponding data line through the first thin film transistor, a gate of the first film transistor is connected to a corresponding first gate line, the first part and the second part of each sub-pixel are connected with each other through the second thin film transistor, and a gate of the second film transistor is connected to a corresponding second gate line.
Abstract:
A backlight module, a display device and a driving method are disclosed. The backlight module includes a first light guide plate and a second light guide plate arranged oppositely, a first light source and a second light source. A surface of the first light guide plate facing the second light guide plate is a light exit surface of the first light guide plate. The first light source is arranged at a light entrance surface of the first light guide plate. The second light source is arranged at a light entrance surface of the second light guide plate. The first light guide plate includes a light guide element guiding light along a direction perpendicular to the light exit surface of the first light guide plate. The second light guide plate includes a scattering element.
Abstract:
A distance measuring device coupled to a camera and a rotator for driving the camera to rotate. The camera includes a photo sensor and a lens. The distance measuring device includes a distance obtaining module, an angle obtaining module, and a computing module coupled to the distance obtaining module and the angle obtaining module. The distance obtaining module is configured to obtain an unaligned target image of a target captured by the camera. A projection of the unaligned target image on a reference plane does not overlap with a projection of a center point of the photo sensor on the reference plane. The reference plane is perpendicular to a rotation axis of the camera. The distance obtaining module is further configured to calculate a projection distance between the projection of the unaligned target image and the projection of the center point. The angle obtaining module is configured to obtain a rotation angle between an unaligned position at which the camera captures the unaligned target image and an aligned position at which the camera captures an aligned target image of the target. A projection of the aligned target image on the reference plane overlapping with the projection of the center point of the photo sensor. The computing module is configured to calculate a target distance between the target and the imaging camera based on the projection distance and the rotation angle.
Abstract:
A lamp holder for a desk lamp and the desk lamp are disclosed. The lamp holder comprises: a light scattering plate, comprising a first face and a second face arranged oppositely to each other and side faces around ends of the first and second faces. The light scattering plate comprises at least one light-entering side face where light is capable of entering. Light can enter the light scattering plate from the light-entering side face of the light scattering plate, and after being scattered by the light scattering plate, a portion of the light exits from the first face of the light scattering plate and another portion of the light exits from the second face of the light scattering plate. The lamp holder provides not only sufficient lighting in the operational area located below the lamp holder, but also some lighting above the lamp holder.