Shenzhen China Star Optoelectronics Technology Co., Ltd.

Shenzhen China Star Optoelectronics Semiconductor Display Technology Co., Ltd.

Shenzhen First Union Technology Co., Ltd.

Soltrium Advanced Materials Technology

Shenzhen Jdl Environmental Protection Ltd.

Zte Corporation

Wen Shi

Yonghai Li

Zhongli Xu

Tao Li

Wenhui Li

Yu Huang

Delin Li

Jing Guo

Tao Sun

Shimin Ge

Baoling Lei

Zhi Chen

Jun Yuan

Fengzhen Sun

Zhi Liao

Yanhong Meng

Qigen Wang

Rui Zhi Dai

Jian Zhong Xiong

Hai Ying Ji

Jing Zou

Xingbao Xu

Yuwei Ma

Shoutao Zhu

An atomizer and an electronic cigarette are provided. The atomizer comprises an outer housing, and an e-liquid storage chamber and an atomization assembly are disposed in the outer housing. The atomization assembly comprises a porous element and a heating element. The porous element comprises an e-liquid absorbing surface. A bubble guiding element opposite to the e-liquid absorbing surface is further provided in the outer housing, and comprises a bubble guiding surface opposite to the e-liquid absorbing surface. At least a portion of the bubble guiding surface is obliquely configured in a direction facing away from the e-liquid absorbing surface, such that bubbles emerging from the e-liquid absorbing surface of the porous element are guided toward the direction facing away from the e-liquid absorbing surface.

Atomizer and electronic cigarette

An epoxy conductive paste is disclosed, based on 100 parts by total mass, comprising the following raw material components: 30˜81 parts of conductive particles, 16˜30 parts of epoxy, 0.2˜3 parts of acrylic, 1˜15 parts of reactive diluent, 1˜15 parts of toughening agent, 0.4˜5 parts of silane coupling agent, and 0.4˜5 parts of cationic curing agent; wherein, the conductive particles include conductive particles with a three-dimensional dendritic microstructure. The conductive paste of the disclosure has the characteristics of good conductivity, short curing time, strong adhesion, and capability for long-term operation at room temperature.

Epoxy conductive paste and preparation method and application thereof

The present disclosure relates to an active illuminating display panel and a manufacturing method thereof. The light-emitting layer is configured to emit the red light or the green light instead of the blue light. The energy of the red light photons and the green light photons is lower than the energy of the blue light photons. As such, the high molecular organic material in the light-emitting layer may not decay easily and the lifecycle of the active illuminating display panel may be extended.

Active illuminating display panels and manufacturing methods thereof comprising plural illuminating patterns providing plural color lights

The present invention provides a color film substrate and display device. The color film substrate comprises a bottom substrate; a black matrix disposed on the bottom substrate and a plurality of opening areas arranged in matrix at intervals are formed in the black matrix to be sub-pixel areas of the color film substrate; and a first conversion material layer formed within a first sub-pixel area of the sub-pixel areas, wherein the first conversion material layer converts an incident light with a first wavelength into a first emitting light with a second wavelength, and the first wavelength is greater than the second wavelength. The performance and lifetime of a display panel can be improved by this technique solution.

Color film substrate and display device

The present invention provides a method for manufacturing flexible display substrate, comprising: providing a carrier substrate and depositing a layer of soluble polymer on the carrier substrate; fabricating a flexible substrate on the soluble polymer; fabricating a display component on the other surface of the flexible substrate opposite to the soluble polymer and performing a package process; and, peeling off the flexible substrate from the carrier substrate by dissolving the soluble polymer to obtain the flexible display substrate. The method for manufacturing flexible display substrate of the present invention simplifies the manufacture process and avoids damage to the flexible substrate during the peeling process.

Method for manufacturing flexible display substrate

A flexible display panel fabrication method and a flexible display panel where the method first subjects a photoresist layer to patterning to form a plurality of mutually spaced photoresist zones, a through hole being formed between every two adjacent ones of the photoresist zones; and then, subjecting the flexible backing plate to cavity formation with the photoresist zones as a mask so as to form a plurality of mutually parallel backing cavities respectively at locations corresponding to the through holes; and then, depositing a metal film and subsequently removing the photoresist zones and portions of the metal layer located thereon to form a plurality of metal patterns embedded in the plurality of mutually parallel backing cavities, each of the metal patterns including a scan line and a plurality of gate electrodes; and then, forming a plurality of TFTs arranged in an array and OLED light emissive elements.

Flexible display panel fabrication method and flexible display panel

An OLED display device includes an assisting conductive layer formed on a bottom surface of an upper substrate in such a way that the assisting conductive layer is in direct contact with and electrically connected to a second electrode that is located on a top surface of a lower substrate so that electrical conduction capability of the second electrode is enhanced and the electrical resistance of the second electrode is reduced to thereby make in-plane voltage homogenous, improve consistency of displaying, and alleviate the issues of non-uniform panel brightness and mura and also help reduce the thickness of the second electrode for saving material of the second electrode and increase light transparency of the second electrode.

OLED display device

The present invention provides an OLED display device, which includes an assisting conductive layer formed on a bottom surface of an upper substrate in such a way that the assisting conductive layer is in direct contact with and electrically connected to a second electrode that is located on a top surface of a lower substrate so that electrical conduction capability of the second electrode is enhanced and the electrical resistance of the second electrode is reduced to thereby make in-plane voltage homogenous, improve consistency of displaying, and alleviate the issues of non-uniform panel brightness and mura and also help reduce the thickness of the second electrode for saving material of the second electrode and increase light transparency of the second electrode.

A method of fabricating a thin film transistor structure is described. An oxide semiconductor layer is fabricated by a self-aligned method and a lift-off process, and a source electrode and a drain electrode are fabricated by another lift-off process, so as to solve a problem in the conventional technology, wherein a semiconductor channel is damaged when an etching is performed, and a problem of raising a process cost due to the increasing complexity of the process.

Method of fabricating thin film transistor structure

The present invention provides a flexible OLED and a manufacture method thereof. The flexible OLED is capable of decreasing the resistance of the second electrode () and increasing the conducting ability to even the voltages of respective pixels, to improve the display homogeneity, and meanwhile, capable of reducing the thickness of the second electrode () and saving the material of the second electrode () by covering the auxiliary conducting layer () on the second electrode (). The manufacture method of the flexible OLED is capable of decreasing the resistance of the second electrode () and increasing the conducting ability to even the voltages of respective pixels, to improve the display homogeneity, and meanwhile, capable of reducing the thickness of the second electrode () and saving the material of the second electrode () by forming the auxiliary conducting layer () on the second electrode () to cover the second electrode ().

Flexible OLED and manufacture method thereof

Methods for treating landfill leachate taught herein comprise: (a) coagulatively settling leachate; (b) filtering the resultant supernatant liquid through multistage cartridges; (c) filtering the filtered liquid by reverse osmosis; and (d) treating the resultant liquid with chlorine-based oxidant. These methods provide the advantages of efficient wastewater treatment, compact equipment size, short process flow, and low startup and operational costs.

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Shenzhen, China

Wen Shi