Abstract: An OLED component is disclosed, which relates to the technical field of display panel. The OLED component comprises a TFT substrate, a coating zone, a sealant, a cover and a photo spacer. The coating zone is located at a center of the TFT substrate; the sealant is arranged around the coating zone; the cover is arranged above the coating zone and the sealant; and the photo spacer is arranged on an upper surface of the coating zone for supporting the cover. Since the photo spacer is arranged on the upper surface of the coating zone, an alignment accuracy can be improved, and the OLED component can be easily manufactured. Meanwhile, a cell thickness uniformity of a large-sized panel can be maintained, and occurrence of Newton rings can be avoided.

Abstract: Disclosed is a flexible OLED component which includes a flexible substrate, an OLED component provided on the flexible substrate, and an encapsulation film encapsulating the OLED component. The flexible substrate and the flexible encapsulation film contain a shape memory material. When an external environment changes, the flexible OLED component deforms accordingly, and therefore it has good deformation characteristics.

Abstract: The disclosure provides a color filter substrate and an OLED display device. The color filter substrate sets a first black matrix and a second black matrix that serve to together shelter against light, and can reduce the risk of displaying color mixing; sets a first bank in the first black matrix and a second bank in a dam layer that jointly receive and hold the printing ink required to produce a color photoresist layer, and the surface of the first bank has hydrophilicity and the surface of the second bank has hydrophobicity, and can improve evenness and film thickness uniformity of the color photoresist layer; applies the color filter substrate that can upgrade the display quality of the OLED display device; sets the dam layer and the second black matrix for replacing photo spacers in the prior art to simplify the production process.

Abstract: A method for manufacturing a color filter substrate is provided in the present disclosure, that includes providing a substrate; forming a plurality of RGB color resists on the substrate, an upper surface of each of the RGB color resists forming a plurality of light emitting regions; forming a black matrix on the surface of each of the RGB color resists, wherein the black matrix covers a portion of the surface of each of the RGB color resists except the light emitting regions; forming a plurality of photo spacers on a surface of the black matrix in a plurality of empty areas within each of the RGB color resists, wherein the adjacent photo spacers are separated by one of the color resist regions; and forming a protective layer over the substrate.

Abstract: A lamp is disclosed, which includes a barrel, a light emitting component, a switching assembly and a circuit component. The light emitting includes a lamp panel group, multiple far-shot lamp beads and a near-shot lamp bead. The circuit component includes a master control circuit, a switching circuit and a circuit for regulating a poly floodlight state; the switching circuit is connected with the switching assembly and the master control circuit, and transmits triggering signals, which characterize that the switching assembly is pressed down or released, to the master control circuit; the circuit for regulating a poly floodlight state is connected with the master control circuit and the light emitting component, and regulates luminous power of the far-shot lamp beads and the near-shot lamp bead in the light emitting component. And the lamp is capable of conveniently realizing regulation of a poly floodlight state.

Abstract: A thin-film package structure and an OLED component are disclosed. The present disclosure aims to solve the technical problem of a low light-emitting efficiency of an OLED display device and a poor package effect in the prior art. The thin-film package structure includes at least two organic material film layers, and at least two inorganic material film layers. An organic material film layer and an inorganic material film layer are arranged in an alternate manner. The inorganic material film layer includes a magnetic material film layer and a non-magnetic material film layer. The OLED component packaged by the thin-film package structure includes a substrate, and an OLED component that is formed on the substrate. A magnetic field generated by the magnetic material in the thin-film layers can act on the OLED, and thus a light-emitting efficiency of the OLED display device can be improved.

Abstract: The present application provides an encapsulation method for an OLED and an encapsulation structure of an OLED. In the encapsulation method for an OLED of the present application, by disposing the UV light absorbing layer on the surface of the OLED device, in one aspect, the UV light absorbing layer has a low UV transmittance. Therefore, UV light can be blocked from being directed to the TFT during UV curing of the encapsulation material and the sealant to reduce or eliminate the influence of UV light on the TFT; on the other hand, the UV light absorbing layer has high visible light transmittance and therefore does not reduce the light intensity of the OLED device. The encapsulation structure of the OLED of the present application is fabricated by the above encapsulation method. The TFT has excellent electrical performance and the OLED device thereof has strong light intensity.

Abstract: An organic light emitting diode panel, a gate driver circuit and a gate driver circuit unit are disclosed, where the gate driver circuit includes a scanning signal generating unit for generating a scanning signal, transmitting a first clock signal to a scanning signal output terminal under the control of a pulse signal, and pulling down and maintaining the voltage of the scanning signal output terminal at a low voltage level under the control of a second clock signal. The gate driver circuit unit also includes a light emitting signal generating unit for generating a light emitting signal, pulling down the voltage of the light emitting signal output terminal under the control of the pulse signal, and charging the light emitting signal output terminal under the control of the second clock signal.

Abstract: A biometric sensing chip includes a biometric sensing die including a memory circuit for saving data and an electrostatic conductor set above the memory circuit for discharging static electricity. An electronic device includes the biometric sensing chip described above is also provided.

Abstract: An OLED packaging method and an OLED package structure are disclosed. The OLED packaging method combines a dam packaging technology and a thin film encapsulation technology. A dam is used to coffer an organic layer and limit a size thereof to ensure that each organic layer is completely covered an inorganic layer disposed thereon to improve a packaging effect. One mask can be used to produce multiple inorganic layers so an amount of masks is decreased to save costs. The OLED packaging structure combines a dam packaging structure and a thin film encapsulation structure. A dam is used to coffer an organic layer and limit a size thereof to ensure that each organic layer is completely covered an inorganic layer disposed thereon to improve a packaging effect. One mask can be used to produce multiple inorganic layers so an amount of masks is decreased to save costs.

Abstract: Disclosed herein is a method for improving the health of animal or human microflora using aloe vera. The method may induce the beneficial effect of activation of natural killer T cells. A method of purifying decolorized dried aloe vera leaf juice is also disclosed.

Abstract: For the battery capable of bidirectional output in the embodiments, the two ends of the battery are both provided with a battery anode and a battery cathode respectively, such that any end of the battery can provide an anode output terminal and a cathode output terminal simultaneously. Circuit wiring of the battery can be optimized during use, and the first end of the battery capable of bidirectional output is provided with a first battery anode which protrudes outwards, and the second end thereof is provided with a second battery cathode which protrudes outwards. The battery in has a structure which is similar to that of a common battery, thus the battery can be charged with a common charger, then short circuiting is prevented, and no charger needs to be specially designed.

Abstract: A headset for panoramic photography, including a left receiver body and a right receiver body for being mounted on the left ear and the right ear of a user. A side of the left receiver body away from the left ear of a user is provided with a left camera, and a side of the right receiver body away from the right ear of the user is provided with a right camera. The cameras are ultra-wide-angle with a field angle of at least 180°, and optical axes of the cameras are perpendicular to optical axes of eyes of the user. User can listen, speak, and shoot photos or videos without hand-holding the camera. By shooting within a field angle of 180° at the left and right sides of a human body, a 360° panoramic image is obtained by merging the acquired images, thus produces simulated images and Virtual Reality environment.

Abstract: The present application provides an encapsulation method for an OLED and an encapsulation structure of an OLED. In the encapsulation method for an OLED of the present application, by disposing the UV light absorbing layer on the surface of the OLED device, in one aspect, the UV light absorbing layer has a low UV transmittance. Therefore, UV light can be blocked from being directed to the TFT during UV curing of the encapsulation material and the sealant to reduce or eliminate the influence of UV light on the TFT; on the other hand, the UV light absorbing layer has high visible light transmittance and therefore does not reduce the light intensity of the OLED device. The encapsulation structure of the OLED of the present application is fabricated by the above encapsulation method. The TFT has excellent electrical performance and the OLED device thereof has strong light intensity.

Abstract: The present application provides an encapsulation structure of OLED and a method for encapsulation an OLED. The encapsulation structure of OLED includes a TFT substrate, an encapsulation substrate disposed opposite to the TFT substrate, an OLED device disposed on a side of the TFT substrate close to the encapsulation substrate in an effective active area of the OLED, and a sealant disposed between the TFT substrate and the encapsulation cover plate on a periphery of the effective active area of the OLED; the encapsulation cover plate including an encapsulation substrate and a UV blocking layer disposed on a side of the encapsulation substrate close to the TFT substrate and corresponding to the effective active area of the OLED; wherein the UV blocking layer is a transparent thin film with low UV light transmittance and high visible light transmittance; which can reduce the influence on the electrical of the TFT.

Abstract: A multi-function car-mounted charger comprises a main housing, a lighting housing, a power input portion, a main circuit, a rechargeable battery, a magnet, a power output portion and a lighting portion; the power input portion, the main circuit, the rechargeable battery, the magnet, and the power output portion are disposed in the main housing; the lighting portion is disposed in the lighting housing; the power input portion, the rechargeable battery, the power output portion, and the lighting portion are electrically connected with the main circuit respectively; the power input portion comprises a first electrode and a second electrode, both of which are electrically connected with the main circuit respectively; and the first electrode is provided with a cone body. The car-mounted charger is diverse in function and may be attracted onto a car shell through the magnet.

Abstract: The present application discloses a shift register and units thereof, wherein low voltage level maintaining module (30) includes: a first maintaining unit (31) and a second maintaining unit (32), configured to maintain a signal output terminal and/or the controlling terminal (Q) of the driving module (20) at low voltage level when an effective level is received. A threshold voltage sensing module (40) is coupled between the first maintaining unit (31) and the second maintaining unit (32), the threshold voltage sensing module (40) is configured to control its signal output terminal to provide an effective level to the second maintain-enabling terminal (P2) according to threshold voltage shift of the first maintaining unit (31) sensed. Therefore, low voltage maintaining module (30) may endure a greater threshold voltage shift, and the life span of the circuit is extended. The present application further discloses a display device and a voltage regulating circuit.

Abstract: In an organic electroluminescent display apparatus of the present disclosure, a pixel definition layer has an opening region and a non-opening region and a first electrode layer is arranged on the opening region of the pixel definition layer. A light-emitting function layer is arranged on the first electrode layer and a second electrode layer is arranged on the pixel definition layer and the light-emitting function layer. A first passivation layer is arranged on the second electrode layer. A black matrix is arranged on the first passivation layer and is arranged opposite to the non-opening region of the pixel definition layer. A color resistance unit is arranged on the first passivation layer and is adjacent to the black matrix.