Shanghai Tianma Micro-electronics Co., Ltd.

Tianma Micro-electronics Co., Ltd.

Micron Technology Incorporated

Delta Electronics (shanghai) Co., Ltd

Chinese Academy of Sciences

Shanghai Tianma Am-oled Co., Ltd.

Fudan University

Shanghai University

Bliss Biopharmaceutical (hangzhou) Co., Ltd.

Liang Liu

Qijun Yao

Feng Lu

Shaolong Ma

Xingyao Zhou

Conghua Ma

Yan Shen

Yang Zeng

Huafeng Bian

Dong Pan

Jun Ma

Yi Zhang

Jian-Ping Ying

Lihua Wang

Yingteng Zhai

Hao Chen

Yoshinori Fujiwara

Yoshiro Riho

Hong Ding

Hiroshi Akamatsu

Hong-Jian Gan

Kevin Gustav Werhane

Beau D Barry

Zaiwen Zhu

Bo-Yu Pu

Zhiwei Zhou

Jian Long

Yong Yuan

Kang Yang

Yihua Zhu

Lingxiao Du

Qing Shan Zhang

Yuheng Zhang

Jennifer E Taylor

Raghukiran Sreeramaneni

Fan Yang

Zhonglan Cai

Xia Li

Zhen Zhang

Gujun Li

Shui He

Chuanli Leng

Ke Yu

Shoujin Cai

Qitai Ji

Zhongming Ren

Xuening Liu

Yujia Zhang

Yuanhang Li

Jianbo Yu

Zhengkui Dong

Rui Jin

Desheng Lv

Xinwen Wang

Wei Ren

Xiangkai Peng

Kangkang Liu

Jingfeng Xiang

Xuan Lu

Yang Kong

Zuoyin Li

According to one or more embodiments, an apparatus comprising a plurality of dice latches, dice latch control logic, and a plurality of data input logic is provided. The dice latches are coupled in parallel and latch respective data. The dice latch control logic receives a load control signal and a reset control signal, provides a reset signal and further provides first and second load signals to the dice latches. The reset signal is based on the reset control signal. The first and second load signals are based on the load control signal and the reset control signal. The data input logic each are coupled to a respective one of the dice latches. Each of the data input logic receives a precharge control signal and respective input data and further provides data and complementary data to the respective one of the dice latches.

Apparatuses and methods including dice latches in a semiconductor device

Devices and methods include generating biases for input buffers of a semiconductor device. In some embodiments, the semiconductor device includes an input buffer that buffer datas and biasing generation and distribution circuitry that generates and distributes a bias current to the input buffer based at least in part on a reference voltage. The biasing generation and distribution circuitry includes dynamic voltage bias circuitry that adjusts the bias current and reference voltage tracking circuitry that controls operation of the dynamic voltage bias circuitry based on the reference voltage.

Input buffer bias current control

Disclosed by the present invention are a targeted CD73 antibody and an antibody-drug conjugate (ADC), and a preparation method therefor and application thereof. Further disclosed is a method for preparing the described monoclonal antibody and ADC. The monoclonal antibody and the corresponding ADC disclosed by the present invention can be efficiently and highly specifically combined with purified CD73 protein and CD73 on the surfaces of multiple tumor cells to block the catalytic activity of CD73 enzyme, and have high affinity, low immunogenicity and significant anti-tumor effect.

Targeted CD73 antibody and antibody-drug conjugate, and preparation method therefor and uses thereof

Latch circuits with improved single event upset immunity and related systems, apparatuses, and methods are disclosed. An apparatus includes a fuse, a first driver circuit, and a second driver circuit. The fuse is configured to store a bit of information. The first driver circuit includes a first input terminal electrically connected to the fuse and a first output terminal electrically connected to a first latch input terminal. The second driver circuit includes a second input terminal electrically connected to the fuse and a second output terminal electrically connected to a second latch input terminal. The second latch input terminal is electrically isolated from the first latch input terminal by the first driver circuit and the second driver circuit.

Latch circuits with improved single event upset immunity and related systems, apparatuses, and methods

A multi-mode voltage pump may be configured to select an operational mode based on a temperature of a semiconductor device. The selected mode for a range of temperature values may be determined based on process variations and operational differences caused by temperature changes. The different selected modes of operation of the multi-mode voltage pump may provide pumped voltage having different voltage magnitudes. For example, the multi-mode voltage pump may operate in a first mode that uses two stages to provide a first VPP voltage, a second mode that uses a single stage to provide a second VPP voltage, or a third mode that uses a mixture of a single stage and two stages to provide a third VPP voltage. The third VPP voltage may be between the first and second VPP voltages, with the first VPP voltage having the greatest magnitude. Control signal timing of circuitry of the multi-mode voltage pump may be based on an oscillator signal.

Multi-mode voltage pump and control

Apparatuses and methods including dice latches in a semiconductor device are disclosed. Example dice latches have a circuit arrangement that include a reduced number of circuits, such as transistors, and provides a compact layout. Operation of example dice latches and other dice latches may be controlled by separately provided control signals for loading and latching of data, and in some examples, for a reset operation. Example layouts include circuit elements aligned along a direction with at least one other circuit element offset from the other aligned circuit elements.

Latch circuits with improved single event upset immunity and related systems, apparatuses, and methods are disclosed. An apparatus includes a dual interlock storage cell (DICE) latch circuit including a first input node corresponding to a first path and a second input node corresponding to a second path. The first input node is electrically isolated from the second input node.

A display panel and a display apparatus. The display panel includes at least one first region, at least two second regions, and a detection layer. The first region and the second region are adjacently arranged along a first direction, and the first region is located between adjacent second regions. The first region is bent, and the second region is not bent, in a case that the display panel is bent. The detection layer includes at least one detection unit, the detection unit is located in the second region, the detection unit does not overlap with the first region, and the detection unit is configured to detect bending of the first region. The display panel has high detection accuracy and strong detection capability.

Bendable display panel having bending detection unit, and display apparatus comprising the same

A touch display panel and a display device are provided. The touch display panel includes a display area and a non-display area around the display area. The non-display area includes a plurality of pressure sensors. At least one of the plurality of pressure sensors is located a distance of H away from a closest corner of the touch display panel, where H satisfies: 2.5 mm&#x3c;H&#x3c;42.5 mm. The touch display panel and the display device are provided to improve the pressure detection of the touch display panel.

Touch display panel and display device

The present invention discloses a device for plasma arc melting through magnetostatic soft-contact stirring and compounding, which includes a furnace body, where a water-cooled copper crucible and a tungsten electrode are mounted in the furnace body, the tungsten electrode is located above the water-cooled copper crucible, and a groove for containing a metal raw material is opened in the water-cooled copper crucible; and a drive shaft penetrates through a side wall of the water-cooled copper crucible, one end, located at the exterior of the water-cooled copper crucible, of the drive shaft is connected with a stepper motor, one end, located in the water-cooled copper crucible, of the drive shaft is sleeved with two rotary tables, magnets having reverse magnetisms are interleaved in the rotary table, and the rotary tables are located on two sides of the groove.

Device and method for plasma arc melting through magnetostatic soft-contact stirring and compounding

Disclosed are a display panel and a touch display device. The display panel comprises: a first substrate and a second substrate provided opposite to each other, which are adhered to each other via a sealant; a plurality of pressure sensors, which are provided on one side of the first substrate facing the second substrate or on one side of the second substrate facing the first substrate, wherein, the pressure sensor comprises plurality of resistors, and a projection of the sealant in a direction vertical to the display panel covers at least one resistor in the pressure sensor. In the embodiments of the disclosure, the projection of the sealant adhering the first substrate to the second substrate in the direction vertical to the display panel covers at least one resistor in the pressure sensor.

Display panel and touch display device

A touch panel is disclosed. The panel has a substrate having a touch region with a plurality of touch areas, a touch position detection apparatus, at least one pressure sensor group and a processor. The at least one pressure sensor group is disposed on the substrate. The pressure sensor group includes a first-type pressure sensor and a second-type pressure sensor. The first-type pressure sensor is located on a first side of the touch region and the second-type pressure sensor is located on a second side opposite to the first side of the touch region so that the first-type pressure sensor and the second-type pressure sensor of the same pressure sensor group are symmetric about the centerline of the touch panel. Each of the plurality of touch areas is associated with one of the at least one pressure sensor group.

Touch panel, touch display device and touch pressure detection method

A microwave resonant cavity for laser cooling, microwave interrogation, and atomic state detection, comprising a microwave resonant cavity body, two cutoff waveguide end covers, and four waveguides for laser beams and microwave coupling. The cavity feeds not only microwave but also laser beams into the center of the cavity. In a vacuum chamber with target atoms, the target atoms may be trapped and cooled in the center of the cavity. By sequential operation of the resonant microwave and lasers, the microwave resonant cavity of the present invention may manipulate and detect the atomic state population and interrogate the energy level of the cold atoms in situ. The invention may be applied to the fields of atomic frequency standard, interferometer and atomic gyro for developing the miniaturized cold atoms related precision measurement equipment.

Microwave resonant cavity for laser cooling, microwave interrogation and atomic state detection in situ

Disclosed are a touch display panel and a touch display device. The touch display panel comprises a display region and a non-display region surrounding the display region, the non-display region is provided with at least one pressure-sensitive touch unit; the display region is provided with a plurality of touch location detection electrodes; the touch display panel further comprises a plurality of touch location wirings; each of the touch location wirings is electrically connected with the corresponding touch location detection electrode of the plurality of touch location detection electrodes; in the pressure-sensitive detection stage, at least one of the touch location wirings is reused as a signal line of the pressure-sensitive touch unit, and the pressure-sensitive touch unit is configured to detect the magnitude of the touch pressure.

Touch display panel, touch display device and drive method

Growing community of inventors

Shanghai, China

Liang Liu