Abstract: Embodiments of the present disclosure relate to a new approach for sensor-based authentication to enhance mobile security. In the computer-implemented method, motion related sensor data is obtained. A label of a behavior is determined wherein the behavior has a time information of the behavior. The label is associated with at least part of the motion related sensor data based on the time information of the behavior and the time information of the motion. At least one comparable motion is determined from the associated part of motion related sensor data. At least one motion passcode based on the determined comparable motion is identified.

Abstract: Provided are exosomes sourced from a granulocyte myeloid-derived suppressor cell and an application thereof. The exosomes are named as G-MDSC exo. Also provided is a use of the exosomes in preparing a drug used for suppressing autoimmune diseases. The G-MDSC exo can effectively suppress proliferation of CD4+T cells in vitro, promote induced proliferation of T regulatory (Treg) cells, alleviate foot swelling of model mice having delayed-type hypersensitivity, and suppress attacks of inflammatory bowel disease (IBD) and collagen-induced arthritis (CIA) of the mice.

Abstract: A method for device-to-device (D2D) communications by a user device includes transmitting a first message including a proximity services (ProSe) buffer status report (BSR) to a communications controller, receiving a second message including information regarding a D2D resource grant scheduled for the user device by the communications controller, and canceling all pending ProSe BSRs in accordance with the D2D resource grant.

Abstract: Present invention relates to a use of Radix Salviae Miltiorrhizae (Danshen) or its preparations in preparation of drugs for treating disease related to hepatic fibrosis.

Abstract: An imaging lens is disclosed and has an optical axis. The image lens includes a lens barrel having a lens barrel wall arranged around the optical axis and forming an accommodation space; an imaging module including a plurality of near object units and near image units separated from each other and arranged in an order from an object side to an image side in the accommodation space; and a spacing part sandwiched between the near object units and the near image units. The spacing part includes a first reflecting surface facing the near image units and a second reflecting surface connected with the first reflecting surface, the light from the near image units is reflected two times by the first reflecting surface and the second reflecting surface.

Abstract: An imaging lens is disclosed and has an optical axis. The image lens includes a lens barrel having a lens barrel wall arranged around the optical axis and forming an accommodation space; an imaging module including a plurality of near object units and near image units separated from each other and arranged in an order from an object side to an image side in the accommodation space; and a spacing part sandwiched between the near object units and the near image units. The spacing part includes a first reflecting surface facing the near image units and a second reflecting surface connected with the first reflecting surface, the light from the near image units is reflected two times by the first reflecting surface and the second reflecting surface.

Abstract: Embodiments of the present invention are applicable to the field of the Internet of Vehicles, and provides a method for controlling DSRC resource allocation, a base station, and a vehicle communications terminal. The vehicle communications terminal includes a dedicated short range communications (DSRC) processor and a cellular mobile communications processor. The DSRC processor and the cellular mobile communications processor are connected to each other by an interface. The DSRC processor is configured to be in a wireless connection to a DSRC processor in another vehicle communications terminal to implement wireless communication between vehicles. The cellular mobile communications processor is configured to send and receive messages for the DSRC processor. According to the present invention, a base station can control a DSRC resource, and flexibly adjust a resource configuration parameter, thereby implementing DSRC congestion control, and adjusting a configuration according to a scenario.

Abstract: A single photons communication method and system is provided. In an example, an information loading module in a transmitting terminal of the single photons communication system may code to-be-sent target information as a corresponding target modulation frequency according to a pre-saved relationship between information and modulation frequency, and perform frequency modulation on a quantum state of communication light generated by a light source by using the target modulation frequency so that the transmitting terminal may send out modulated target communication light.

Abstract: The present disclosure discloses a lens module. The lens module includes a lens barrel and a lens group. The lens group is installed inside the lens barrel. The lens barrel includes a first barrel wall extended horizontally and a second barrel wall bended and extended from the first barrel wall. The lens module also includes a stop and a press ring. The stop is fixed on the first barrel wall. The press ring is located on the stop and presses on the stop. The stop and the lens group are lined up in turn from object side to image side. The length of the lens barrel is reduced due to the stop and the press ring, when shaping of lens barrel is being done, production difficulty of shaping is decreased, and the yield of qualified lens barrel is increased.

Abstract: The present disclosure provides a message processing method, an in-vehicle terminal, and a base station. The method executed by a first in-vehicle terminal includes: first, generating a safety message, where the safety message includes message content and a message type; then, determining, according to the message content and the message type, a priority value corresponding to the safety message; finally, sending, according to the priority value corresponding to the safety message, the safety message by using a vehicle direct communication physical VDC PHY layer or separately by using a cellular physical cellular PHY layer and a VDC PHY layer, so that a base station and/or a second in-vehicle terminal receive/receives the safety message, and the first in-vehicle terminal can send, under a preset delay requirement, the safety message to another in-vehicle terminal in a distance range that needs to be covered by the safety message.

Abstract: The present invention provides a resource allocation method, a base station, and user equipment. The method includes: receiving, by a second base station, resource configuration information of a first base station; and sending, by the second base station, the resource configuration information of the first base station to user equipment (UE), where the resource configuration information of the first base station is used to configure a resource for device-to-device (D2D) communication between the UE and the second base station. According to the method provided in embodiments of the present invention, the UE can perform D2D communication with the second base station or a core network by using the resource configured by using the resource configuration information of the first base station. Therefore, an uplink resource or a downlink resource of the first base station can be reused by the UE, thereby improving resource utilization of a communications system.

Abstract: A lens module is disclosed. The lens module includes a lens barrel including a first barrel wall extended horizontally and a second barrel wall extended from the first barrel wall; a lens group including at least one lens, the lens includes a first slope; and a stop on the first barrel wall and forming a light hole for the lens. The first barrel wall of the lens barrel includes a second slope abutting against the first slope for ensuring the concentricity.

Abstract: A lens module is disclosed. The lens module includes a lens barrel including a first barrel wall extended horizontally and a second barrel wall extended from the first barrel wall; a lens group including at least one lens, the lens includes a first slope; a stop on the first barrel wall and forming a light hole for the lens, and a pressing ring attached to the stop. The first barrel wall of the lens barrel includes a second slope abutting against the first slope for ensuring the concentricity.

Abstract: A lens module is disclosed. A lens module includes a lens barrel including a first barrel wall extended horizontally and a second barrel wall extended from the first barrel wall; a lens group including at least one lens located in the lens barrel, the lens comprising a first surface close to the first barrel wall and a second surface opposite to the first surface; and a stop clamped between the lens barrel and the lens. The first surface of the lens is provided with a first slope, an inner surface of the first barrel wall of the lens barrel is provided with a second slope abutting against first slope, and the stop creates a light hole for the lens.

Abstract: A method for managing uplink carrier frequencies is provided, which is applicable to the field of communication. The method includes the following steps: A state switching response message sent by a UE is received, where the state switching response message includes a result of state switching performed by on a secondary uplink carrier serving cell; The result of the state switching is notified to a secondary uplink carrier non-serving cell in a secondary carrier active set through an RNC. A device and a system for managing uplink carrier frequencies are further provided. Through the method, device, and system provided in embodiments of the present invention, the uplink carrier frequencies are managed, so as to facilitate transmission of uplink data during multi-cell collaboration.

Abstract: Disclosed are liquid surface detection methods and devices, and immunoassay analyzers. By changing the power source input of a signal drive circuit, an effective voltage of a drive signal applied by the signal drive circuit on a liquid dispensing probe is a negative voltage, so that the liquid dispensing probe is protected as the cathode in an electrolytic cell formed between the liquid dispensing probe and the cleaning fluid, and is prevented from being corroded by the cleaning fluid and rusting. Moreover, the intrinsic detection flexibility and performance of the liquid surface detection device can be ensured, and the requirements on the material and process of the liquid dispensing probe are not high, thereby effectively controlling the cost.

Abstract: A coexistence apparatus, method, and system for a discovery signal and a cellular signal. The coexistence apparatus receives a communications mode request indication sent by user equipment UE, where the communications mode request indication is used to indicate a communications mode that the UE needs to use, and the communications mode includes device-to-device D2D communication or cellular communication. The apparatus determines, according to the communications mode request indication, a communications mode used by the UE, and sends, to the UE, information about the determined communications mode used by the UE.

Abstract: A VDC resource request method, user equipment, and a base station, where the VDC resource request method includes sending, by user equipment, a VDC resource request message to a base station when the user equipment needs to request a VDC resource for sending vehicle service information, where the VDC resource request message includes at least one piece of the following information: a VDC resource status list, or travel information of the user equipment, and an available VDC resource is indicated in the VDC resource status list, receiving a VDC resource allocation indication message from the base station, and sending the vehicle service information by using the VDC resource indicated by the VDC resource allocation indication message.

Abstract: Embodiments provide a resource allocation method, apparatus and system. The resource allocation method is used for a base station. The method includes acquiring a current resource indication of a cell, and generating a resource adjustment indication according to the current resource indication of the cell. The resource adjustment indication is used for instructing a mobility management entity MME to adjust a discovery resource allocated to the cell. The method also includes generating a resource adjustment request, where the resource adjustment request includes the resource adjustment indication. The method also includes sending the resource adjustment request, so that the MME adjusts the discovery resource of the cell according to the resource adjustment request.

Abstract: The present disclosure provides an organic light-emitting diode (OLED) touch display panel. The OLED touch display panel includes a packaging substrate, having a touch sensing region and a touch pin line region on a first surface of the packaging substrate, the touch sensing region including a plurality of touch electrodes, the touch pin line region including a plurality of touch lines forming one-to-one electrical connections with the touch electrodes; and an array substrate, having a display region, a connecting region, and a packaging region on a first surface of the array substrate, the display region having an OLED structure, the connecting region having a plurality of conductive lines connectable to a touch control chip. The first surface of the packaging substrate and the first surface of the array substrate are facing each other, the conductive lines forming one-to-one connection with the touch lines through a plurality of via holes.