Huawei Technologies Co., Limited

Honeywell International Inc.

Cytocares (Shanghai) Inc.

Huawei Cloud Computing Technologies Co., Ltd.

Shuai Chen

Wei Zhu Chen

Xiaojun Zheng

Yang Liu

Xiaolong Zhu

Quanzhong Gao

Tao Jin

Bin Xiong

Yu Wu

Huaxing Zhu

Yuanping Liao

Lei Zhang

Yong Wang

Jing Huang

Liwen Zhang

Lin Zhou

Cong Xu

Xiaodong Chen

Rong Wan

Jianhua Zhou

Alan Bruce Hickman

Rui Tong

Guo Qing Wang

Wenwan Feng

Chaobin Yang

Yuefei Xu

Yunfei Zou

This disclosure belongs to the field of biomedical technology, and particularly refers to a bifunctional molecule and the application thereof. The structure of the bifunctional molecule includes a first functional domain and a second functional domain. These domains are capable of simultaneously binding to T cells, thereby producing the first and second signals required for T cell activation. The bifunctional molecule is a recombinant protein-peptide, which can be produced by a eukaryotic cell expression system. The product has a single structure, simple purification process, high protein yield, and stable preparation process and product. The bifunctional molecule is superior to the current techniques in expanding T cells in vitro with lower protein dosage and simpler use procedure. It can be directly supplemented as soluble form without optimizing the relative ratio of full-length antibodies.

Bifunctional molecule and use thereof

A data transfer method and a virtual switch, where when receiving a data packet, the virtual switch extracts characteristic information of the data packet, and determines, based on the extracted characteristic information of the data packet, whether an expedited forwarding rule is configured for a data stream to which the data packet belongs. If the expedited forwarding rule is configured for the data stream to which the data packet belongs, the virtual switch bypasses a LINUX bridge to directly send the data packet to a receive end, thereby reducing times of data packet switching between a kernel mode and a user mode, and improving data packet forwarding efficiency.

Data transfer method and virtual switch

This disclosure belongs to the field of biomedical technology, and particularly refers to a trifunctional molecule and the application thereof. The structure of the trifunctional molecule includes a first functional domain, a second functional domain and a third functional domain. These domains are capable of simultaneously binding to CD19, CD3, and T cell positive (negative) costimulatory factors, thereby producing the first and second signal required for T cell activation. The trifunctional molecule is a recombinant protein peptide chain, which can be produced by a eukaryotic cell expression system. The product has a single structure, simple purification process, high protein yield, and preparation process and product stability. The trifunctional molecule is superior to the anti-CD19/anti-CD3 BiTE bispecific antibody in killing CD19-positive target cells. Compared with the CAR-T technology targeting CD19, the trifunctional molecule is more convenient to use, the dose is controllable, and the side effects of CAR-T are avoided.

Trifunctional molecule and application thereof

A communications apparatus includes a phase correction unit, a first radio frequency channel, a first analog bridge, a second radio frequency channel, and a second analog bridge. A first signal is sent to a first input end using the first radio frequency channel, and is divided into at least two channels of first sub-signals by using the first analog bridge. The at least two channels of first sub-signals are respective output from at least two first output ends to at least two first antenna arrays. Similarly, a second signal is divided into at least two channels of second sub-signals by using the second analog bridge, and the at least two channels of second sub-signals are output to at least two second antenna arrays. A first channel of first sub-signal and a first channel of second sub-signal are coupled to the phase correction unit by using a coupler.

Communication method and apparatus with reduced power consumption in a multi-antenna environment

Embodiments of this application relate to the field of wireless communications technologies, and provide an access method, a switch method, and an apparatus. The access method includes: receiving, by a terminal, a system message via a downlink carrier, where the system message includes information used to indicate a frequency channel number of a second uplink carrier; and initiating, by the terminal, random access via the second uplink carrier, where a frequency channel number of the downlink carrier belongs to a first frequency band, and a frequency channel number of the second uplink carrier belongs to a second frequency band.

Communication method and apparatus

A fixed wing unmanned aircraft and a method for operating the same are provided. The fixed wing unmanned aircraft may include, but is not limited to, a failure detection system configured to detect faults in one or more of the plurality of components, a capability evaluation system communicatively coupled to the failure detection system, the capability evaluation system configured to determine a capability level of the fixed wing unmanned aerial vehicle based upon the faults in the one or more of the plurality of components, and a trajectory generation system communicatively coupled to the failure detection system and the capability evaluation system, the trajectory generation system configured to generate a touch down trajectory for the fixed wing unmanned aerial vehicle based upon the determined capability level of the fixed wing unmanned aerial vehicle, wherein when the determined capability level is below a predetermined threshold, the touch down trajectory comprising a stall maneuver configured to minimize a lateral energy of the fixed wing unmanned aerial vehicle.

Unmanned aerial vehicle off-site landing system

Embodiments of this application disclose a cross-standard scheduling method and a base station, used for unified scheduling of UEs in different standards by using a unified scheduler, to achieve space division multiplexing of a spectrum resource, where different standards may share the spectrum resource. A unified scheduler is disposed in the base station in the embodiments of this application. The method and the base station may obtain downlink channel information of UEs operating using different standards and in overlapping coverage range. The method and the base station may determine a scheduling result using the unified scheduler based on the obtained downlink channel information of the UEs. The method and the base station may schedule the UEs based on the scheduling result.

Cross-standard scheduling method and base station

An antenna system, including an antenna element, a feeding network, and a radio frequency module, where the radio frequency module includes m transmitters and n receivers, the m transmitters and the n receivers are separately connected to the feeding network, and a set of then frequency bands is a subset of a set of the m frequency bands; and the feeding network is further connected to the antenna element, feeds transmit signals generated by the m transmitters to the antenna element, and/or feeds receive signals of the antenna element to the n receivers, where m and n are positive integers, and n is less than m.

Antenna system, base station, and communications system

A computing system for controlling a plurality of exterior lights on a flying vehicle is disclosed. The computing system is configured to: determine a flying vehicle status for the flying vehicle; determine an environment status for the flying vehicle; determine a current flight phase for the flying vehicle; determine, for each of a plurality of the exterior lights that is in an automatic lighting control mode, a desired lighting state for the exterior light by applying a predefined lighting pattern that identifies, based on the flying vehicle status, environmental status, and the current flight phase, a first subset of the exterior lights to cause to enter a first lighting state and a second subset of the exterior lights to cause to enter a second lighting state; and cause the first subset of exterior lights to be in the first lighting state and the second subset of exterior lights to be in the second lighting state.

Flying vehicle automatic lighting control system and method

A signal transmission method is performed by a base station. The method includes: determining, a first carrier signal that is to be sent in a first cell on a first carrier and a second carrier signal that is to be sent in a second cell on a second carrier; mapping, the first carrier signal and the second carrier signal to N physical ports of an RRU, so that within a same OFDM symbol, a type B symbol used to transmit a pilot in the first carrier signal and a type B symbol used to transmit a pilot in the second carrier signal are mapped to different physical ports, and a total power of signals sent on each of N physical channels is not greater than a rated power of the RRU; and sending, the first carrier signal and the second carrier signal through the N physical ports.

Signal transmission method and base station

A signal transmission method includes: processing, by a base station, a first baseband signal, a second baseband signal, a third baseband signal, and a fourth baseband signal by using a VAM matrix, to obtain four processed signals; performing precoding processing on the four processed signals to obtain four coded signals; and sending the four coded signals to a mobile terminal by using four radio frequency ports. The four radio frequency ports are in a one-to-one correspondence with the four coded signals. A first processed signal is the same as a third processed signal, a second processed signal is the same as a fourth processed signal. The first processed signal is obtained by performing superposition on the first baseband signal and the third baseband signal, and the second processed signal is obtained by performing superposition on the second baseband signal and the fourth baseband signal.

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Shanghai, China

Shuai Chen