Stmicroelectronics (beijing) R&d Company Ltd.

Institute of Animal Sciences of Caas

Beijing Baidu Netcom Science Technology Co., Ltd

Stmicroelectronics R&d Co. Ltd. (beijing)

Hongfei Zhu

Guobin Sun

Yanling Yao

Hong Jia

Qianqian Feng

Weifeng Yuan

Zhaoyang Wang

Peng Yang

Ting Xin

Shaohua Hou

Yitong Jiang

Xiaoyu Guo

Zhongbao Pang

Tingting Zhai

Liangliang Ning

A heavy-chain variable region sequence of the nanobody CPV-VHH-H1 has the amino acid sequence set forth in SEQ ID NO: 1; and a gene encoding the nanobody CPV-VHH-H1 has the nucleotide sequence set forth in SEQ ID NO: 2. A nanobody immune library of the CPV is constructed by a phage display technology, a specific anti-CPV nanobody CPV-VHH-H1 is obtained by screening, and it is verified by experiments that the nanobody may specifically bind to the CPV. A new nanobody preparation for use in clinical diagnosis and treatment of the CPV can be developed, and a certain theoretical reserve is provided for applying the nanobody to the field of veterinary biological products.

Canine parvovirus (CPV) nanobody CPV-VHH-H1 and use thereof

The present disclosure provides a method for generating navigation information, an apparatus for generating navigation information, a device, a medium, and a product. The present disclosure relates to the technical field of computers, and specifically relates to the technical field of artificial intelligence, and the present disclosure may be applied to a map navigation scenario. A specific implementation includes: acquiring intersection feature information; determining a set of a complex intersection based on the intersection feature information; determining intersection type information corresponding to the complex intersection in the set of the complex intersection; and generating navigation information corresponding to the complex intersection in the set of the complex intersection based on the intersection type information.

Method for generating navigation information, apparatus for generating navigation information, device, medium, and product

Provided are a canine parvovirus (CPV) nanobody CPV-VHH-E3 and application thereof, belonging to the technical field of immunology. The nanobody CPV-VHH-E3 includes heavy chain variable region with amino acid sequence as shown in SEQ ID NO: 1, and a nucleotide sequence of a gene encoding the nanobody CPV-VHH-E3 is shown in SEQ ID NO: 2. The present application constructs a nanobody immune library for CPV by phage-display technology, and obtains specific anti-CPV nanobody CPV-VHH-E3 by screening, which is verified to specifically bind CPV through experiments, and is applicable to develop a nanobody preparation for clinical diagnosis and treatment of CPV, providing a certain theoretical support for the application of nanobodies in the field of veterinary biological products.

Canine parvovirus nanobody CPV-VHH-E3 and application thereof

Consideration of Quality of Service is taken into account during the establishment of a sleep cycle in a mobile station providing real-time services. Upon the mobile station's identification of a need for a real-time service to enter into sleep mode, a request conveying that need is sent to the base station. The base station replies with a start frame number and other sleep parameters. Thereafter the mobile station enters sleep mode comprising sleep intervals interleaved with listening intervals. To prevent transmission packets from being buffered at the mobile station for an excessive period of time due to attempts to transmit packets to the base station during a sleep interval, the length of the sleep interval is set so as not to exceed the maximum latency value reflecting the QoS of the real-time service negotiated during establishment of the real-time services.

Sleep mode control for real-time services in broadband wireless access communication systems

A mobile device includes a communications protocol stack including a MAC layer and TCP layer separated by an IP layer. A cross-layer coordination module parallel to the communications protocol stack is coupled to both the MAC layer and TCP layer. The MAC layer generates a message sent to the cross-layer coordination module indicating that the mobile device is about to engage in a communications handover from a first base station to a second base station. The cross-layer coordination module passes handover information to the TCP layer so as to inform the TCP layer of the communications handover. If the mobile device is operating as a TCP sender, the TCP layer freezes its connection and state during the communications handover. If the mobile device is operating as a TCP receiver, the TCP layer sends a TCP ACK message to a TCP sender having an advertised window size set to a zero value so as to cause the TCP sender to freeze a connection and state during communications handover.

MAC and TCP coordination approach for performance improvement in IEEE 802.16e mobile broadband access systems

MAC and TCP coordination approach for performance improvement in IEEE 802.16E mobile broadband access systems

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Beijing, China

Hongfei Zhu