Abstract: An audio identification method and apparatus are disclosed within the technical field of audio processing technology. The audio identification solution includes obtaining an original pitch sequence of a to-be-identified audio, where the original pitch sequence is used to indicate a frequency of the to-be-identified audio at each time point. The audio identification solution further includes dividing the original pitch sequence into a plurality of pitch sub-sequences, respectively identifying the original pitch sequence and the plurality of pitch sub-sequences, and combining the identification results. In doing so, the audio identification solution obtains a final identification result by dividing a long pitch sequence into a plurality of short pitch sequences, thus respectively identifying the long pitch sequence and the plurality of short pitch sequences, and combining identification results.

Abstract: An array substrate and a manufacturing method thereof, wherein the array substrate includes a substrate; an active layer disposed on the substrate; a gate insulating layer disposed on the active layer; a gate disposed on the gate insulating layer; and a protection region dispose between the active layer and the gate, wherein the protection region is disposed on two sides of the gate and disposed on a same layer as the gate insulating layer.

Abstract: An OLED device is provided, including a substrate and a plurality of OLED subpixels arranged on the substrate. An insulating barrier is provided between every two adjacent OLED subpixels with different colors, and the barrier is configured to block a carrier diffusion between the two adjacent OLED subpixels. The disclosure further provides a display apparatus including the OLED device, which can prevent the light emission crosstalk between the adjacent OLED subpixels and avoid the color coordinate shift of the OLED subpixels.

Abstract: A method for manufacturing an array substrate and an array substrate are disclosed. The method comprises the steps of forming a plurality of control electrodes on a baseplate, and forming a color-resist region between two adjacent control electrodes, wherein the color-resist region is a first color-resist region, a second color-resist region, a third color-resist region, and a fourth color-resist region in sequence; forming a first color-resist in the first color-resist region, forming a second color-resist in the second color-resist region, and forming a third color-resist in the third color-resist region; and coating the baseplate on which the control electrodes, the first color-resist, the second color-resist, and the third color-resist are formed and the fourth color-resist region with a transparent photoresist so as to form a flat layer. In the method according to the present disclosure, the production efficiency of the array substrate can be improved.

Abstract: A pixel structure includes scan lines, data lines and pixel areas. The scan lines are separately arranged in parallel in a horizontal direction. The data lines are separately arranged in parallel in a vertical direction. The scan lines and the data lines overlap with each other to form the pixel areas. The pixel structure further includes a connection electrode coupled to pixel areas. The connection electrode includes a first connection layer and a second connection layer. The first connection layer is in the same pattern layer as the scan lines and intersects with the scan lines. The first connection layer at an intersecting position with the scan line is disconnected. The second connection layer is in the same pattern layer as the data lines and crosses the scan lines.

Abstract: A method for fabricating a flexible OLED panel comprises the following steps. A rigid substrate is provided. A flexible basal layer is formed on the rigid substrate. A buffer layer, a semiconductor layer and a first gate insulating layer are formed one by one on the rigid substrate. A channel doping is performed. A first gate is formed on the first gate insulating layer. A source and drain doping is performed. An activating treatment is performed and then a second gate insulating layer is formed on the first gate. A hydrogen treatment is performed and then a second gate, an organic insulating layer, a source and a drain, a planar layer and an OLED structure are formed one by one on the second gate insulating layer. A laser lift-off procedure is applied to separate the rigid substrate and the flexible basal layer for getting a flexible OLED panel.

Abstract: A mattress with adjustable hardness comprises at least one resilience supplying module, at least one air bag module and a lining provided for the resilience supplying module and the air bag module to be placed therein. The lining is provided with a plurality of lattice-like units, each lattice-like unit defining a mounting space therein. The resilience supplying module is provided with a plurality of elastic bodies respectively provided in one of the mounting spaces. The air bag module is provided with a plurality of air bag units respectively provided in one of the mounting spaces. In this case, the air bag units may be inflated consistently, and the expanded volume of each of the air bag units after inflation may be limited to be uniform by the corresponding lattice-like unit. Thus, the problem of incapability of being kept evenness after inflation in the conventional practice is solved.

Abstract: A method for fabricating a flexible OLED panel comprises the following steps. A rigid substrate is provided. A flexible basal layer is formed on the rigid substrate. A buffer layer, a semiconductor layer and a first gate insulating layer are formed one by one on the rigid substrate. A channel doping is performed. A first gate is formed on the first gate insulating layer. A source and drain doping is performed. An activating treatment is performed and then a second gate insulating layer is formed on the first gate. A hydrogen treatment is performed and then a second gate, an organic insulating layer, a source and a drain, a planar layer and an OLED structure are formed one by one on the second gate insulating layer. A laser lift-off procedure is applied to separate the rigid substrate and the flexible basal layer for getting a flexible OLED panel.

Abstract: An OLED device is provided, including a substrate and a plurality of OLED subpixels arranged on the substrate. An insulating barrier is provided between every two adjacent OLED subpixels with different colors, and the barrier is configured to block a carrier diffusion between the two adjacent OLED subpixels. The disclosure further provides a display apparatus including the OLED device, which can prevent the light emission crosstalk between the adjacent OLED subpixels and avoid the color coordinate shift of the OLED subpixels.

Abstract: A pixel structure includes scan lines, data lines and pixel areas. The scan lines are separately arranged in parallel in a horizontal direction. The data lines are separately arranged in parallel in a vertical direction. The scan lines and the data lines overlap with each other to form the pixel areas. The pixel structure further includes a connection electrode coupled to pixel areas. The connection electrode includes a first connection layer and a second connection layer. The first connection layer is in the same pattern layer as the scan lines and intersects with the scan lines. The first connection layer at an intersecting position with the scan line is disconnected. The second connection layer is in the same pattern layer as the data lines and crosses the scan lines.

Abstract: The present invention provides a pixel structure, comprising scan lines, data lines and pixel areas, and the scan lines are separately arranged in parallel along a horizontal direction, and the data lines are separately arranged in parallel along a vertical direction, and the scan lines and the data lines overlap with each other to form the pixel areas, and the pixel structure further comprises a connection electrode employed to coupled to pixel areas, and the connection electrode comprises a first connection layer and a second connection layer, and the first connection layer is in the same pattern layer with the scan lines and intersects with the scan lines, and the first connection layer at an intersecting position with the scan line is disconnected, and the second connection layer is in the same pattern layer with the data lines and crosses with the scan lines.

Abstract: An audio identification method and apparatus are disclosed within the technical field of audio processing technology. The audio identification solution includes obtaining an original pitch sequence of a to-be-identified audio, where the original pitch sequence is used to indicate a frequency of the to-be-identified audio at each time point. The audio identification solution further includes dividing the original pitch sequence into a plurality of pitch sub-sequences, respectively identifying the original pitch sequence and the plurality of pitch sub-sequences, and combining the identification results. In doing so, the audio identification solution obtains a final identification result by dividing a long pitch sequence into a plurality of short pitch sequences, thus respectively identifying the long pitch sequence and the plurality of short pitch sequences, and combining identification results.

Abstract: An air bag module of inflatable mattress is disclosed. The inflatable mattress is provided with a lining for the air bag module to be placed therein, and a resilience supplying module being placed in the lining and resting on the air bag module. The air bag module includes at least one air bag unit. The air bag unit is provided with an air distribution layer and a hardness adjustment layer connected with the air distribution layer while located between the air distribution layer and the resilience supplying module. In the air distribution layer, air is inputted into each distributing air bag equally via intercommunication of distributing air bags, such that air from the distributing air bags is consistently received by each supporting air bag of the hardness adjustment layer. Thus, the problem of uneven surface of bed due to non-uniform inflation in the conventional structure is solved.

Abstract: A mattress with adjustable hardness comprises at least one resilience supplying module, at least one air bag module and a lining provided for the resilience supplying module and the air bag module to be placed therein. The lining is provided with a plurality of lattice-like units, each lattice-like unit defining a mounting space therein. The resilience supplying module is provided with a plurality of elastic bodies respectively provided in one of the mounting spaces. The air bag module is provided with a plurality of air bag units respectively provided in one of the mounting spaces. In this case, the air bag units may be inflated consistently, and the expanded volume of each of the air bag units after inflation may be limited to be uniform by the corresponding lattice-like unit. Thus, the problem of incapability of being kept evenness after inflation in the conventional practice is solved.

Abstract: An air bag module of inflatable mattress is disclosed. The inflatable mattress is provided with a lining for the air bag module to be placed therein, and a resilience supplying module being placed in the lining and resting on the air bag module. The air bag module includes at least one air bag unit. The air bag unit is provided with an air distribution layer and a hardness adjustment layer connected with the air distribution layer while located between the air distribution layer and the resilience supplying module. In the air distribution layer, air is inputted into each distributing air bag equally via intercommunication of distributing air bags, such that air from the distributing air bags is consistently received by each supporting air bag of the hardness adjustment layer. Thus, the problem of uneven surface of bed due to non-uniform inflation in the conventional structure is solved.

Abstract: A method for manufacturing an array substrate and an array substrate are disclosed. The method comprises the steps of forming a plurality of control electrodes on a baseplate, and forming a color-resist region between two adjacent control electrodes, wherein the color-resist region is a first color-resist region, a second color-resist region, a third color-resist region, and a fourth color-resist region in sequence; forming a first color-resist in the first color-resist region, forming a second color-resist in the second color-resist region, and forming a third color-resist in the third color-resist region; and coating the baseplate on which the control electrodes, the first color-resist, the second color-resist, and the third color-resist are formed and the fourth color-resist region with a transparent photoresist so as to form a flat layer. In the method according to the present disclosure, the production efficiency of the array substrate can be improved.

Abstract: Disclosed are an array substrate and a display device which belong to the technical field of display and are intended to solve the technical problem of undesirable display effect resulting from transparent conductive material left in a gap of an overcoat layer.

Abstract: The present invention provides a manufacture method of a TFT substrate structure and a TFT substrate structure. In the manufacture method of the TFT substrate structure, as manufacturing the gate, a plurality of metal sections distributed in spaces are formed at two sides of the gate, and the gate and the plurality of metal sections are employed to be a mask to implement ion implantation to the polysilicon layer. In the TFT substrate structure according to the present invention, the undoped areas are formed among the n-type heavy doping areas while forming the n-type heavy doping areas at the polysilicon layer.

Abstract: Disclosed are an array substrate and a display device which belong to the technical field of displays, and solve the technical problem that, in the existing in-cell technology, the manufacturing process of array substrates is too complex. The array substrate comprises a plurality of pixel units each having a thin film transistor, a plurality of common electrodes, and a plurality of address lines. The address lines each are formed by connecting a first metal wire and a second metal wire, the first metal wire being located at a same layer as a gate of the thin film transistor, and the second metal wire being located at a same layer as a source and a drain of the thin film transistor.

Abstract: A touch display comprises a color filter substrate, an array substrate opposite to the color filter via a plurality of spacers and a voltage detection circuit. The color filter substrate comprises an upper substrate and a common electrode formed on the upper substrate, and the array substrate comprises a lower substrate and a gate line, a data line and a pixel electrode formed on the lower substrate. The plurality of spacers comprise a first spacer formed between the gate line and the common electrode and a second spacer formed between the data line and the common electrode , which are capable of electrically connecting the common electrode with the gate line and the data line respectively under an external pressure more than a threshold value. The voltage detection circuit is connected with the gate line and the data line so as to detect whether the voltage on the gate line and the voltage on the data line become equal to the voltage of the common electrode.