Abstract: A spacer insertion device is disclosed. The spacer insertion device comprises a spacer insertion mechanism fixed on a base body of a core detection device of a coring instrument, wherein the spacer insertion mechanism comprises a slider and a cylinder body, an output end of the cylinder body is connected with the slider, and the slider is slidably connected with the base body to push a spacer to the a core channel provided in the base body and in communication with a core barrel.

Abstract: The disclosure relates to a Lidar apparatus. The Lidar apparatus includes an area array light source, an emitting lens group, a receiving lens group, and an area array detector, where the area array light source is located in the front focal plane of the emitting lens group, and the area array detector is located in the back focal plane of the receiving lens group; a laser beam emitted from the area array light source is transmitted, through the emitting lens group, to an object to be detected and reflected by the object to be detected, and a reflected laser beam is transmitted to the area array detector through the receiving lens group; and an F-Theta lens is used for each of the emitting lens group and the receiving lens group, and the image height of the F-Theta lens is directly proportional to a field of view, such that angular resolutions of the Lidar apparatus are approximately distributed evenly. The disclosure further relates to a Lidar device and a vehicle.

Abstract: The disclosure relates to a Lidar apparatus. The Lidar apparatus includes an area array light source, an emitting lens group, a receiving lens group, and an area array detector, where the area array light source is located in the front focal plane of the emitting lens group, and the area array detector is located in the back focal plane of the receiving lens group; a laser beam emitted from the area array light source is transmitted, through the emitting lens group, to an object to be detected and reflected by the object to be detected, and a reflected laser beam is transmitted to the area array detector through the receiving lens group; and a foveated optical system is used for each of the emitting lens group and the receiving lens group, and the image height of the foveated optical system is directly proportional to a tangent value of a field of view, such that angular resolutions of the Lidar apparatus are approximately distributed evenly. The disclosure further relates to a Lidar device and a vehicle.

Abstract: The disclosure comprises a vehicle-mounted sensing system and a vehicle with the vehicle-mounted sensing system. The vehicle-mounted sensing system comprises: a plurality of sensor assemblies provided at the specific positions of a vehicle to enable sensing of a specific range around the vehicle, the specific range depending on the purpose of sensing and/or characteristics of the sensor assemblies; and a processing unit configured to process sensing data from the plurality of sensor assemblies to generate sensing results; wherein the sensor assemblies are three-dimensional sensing assemblies. With the vehicle-mounted sensing assembly according to the disclosure, a three-dimensional environment around the vehicle can be accurately sensed, and the sensing results can be applied to operations such as parking.

Abstract: The disclosure relates to a data processing device for driving assisting, a data processing method for driving assisting, and associated storage medium and vehicle. The data processing device for driving assisting includes: a data processing system configured to receive and process a plurality of vehicle data; and a processing control system configured to perform degradation control under the condition that the data processing system is degraded, to receive and process the plurality of vehicle data in a degradation mode. The data processing device for driving assisting, the data processing method for driving assisting, and the associated storage medium and vehicle perform reasonable division of processing task and degradation control on the data processing system and the processing control system, thereby under the condition that modules in the data processing device stop operating, other modules can be allocated to take over the task timely and effectively.

Abstract: The application proposes a bracket, a bracket assembly, a device arranged on vehicle roof and a vehicle, which are applied in the field of automobile technology. The bracket comprises: a first bracket body mounted to the top of the vehicle; and a connecting body comprising: a first connecting piece arranged on the left side of the first bracket body and mounted with a first image sensor, and a second connecting piece arranged on the right side of the first bracket body and mounted with a second image sensor, wherein the first connecting piece and the second connecting piece are arranged above A pillars of the vehicle.

Abstract: The invention relates to an automated driving control system, including: a data exchange unit configured to obtain video data streams and distribute the video data streams to at least one computing unit; the at least one computing unit configured to compute perception result data based on the video data streams; a sensor fusion unit configured to fuse the perception result data and sensor data, to obtain fusion result data; and a planning control unit configured to generate a driving control instruction based on the fusion result data, where the planning control unit or the sensor fusion unit is configured to provide a bypass of the data exchange unit. When anomalies occur in any of the units, the automated driving control system may provide a corresponding bypass to keep an automated driving function going.

Abstract: Embodiments provides a side structure of a fence frame, a fence frame, and a folding method. In the embodiments, the side structure includes two vertical struts, between which is provided: two upper rods provided horizontally, adjacent ends of them can be connected relatively rotatably, and remote ends of them are respectively detachably provided above the two vertical struts, the two upper rods are rotated downward to approach each other after disassembly; two lower rods provided horizontally provided, adjacent ends of them can be connected relatively rotatably, remote ends of them are rotated downward relative to the lower ends of the two vertical struts to approach each other; two diagonal struts, adjacent ends of them are rotatably connected to the intersection of the two upper rods, and remote ends of them can rotate upward relative to the lower ends of the vertical struts to approach each other.

Abstract: A core detection device of a coring instrument includes a base body and a core switch mechanism provided on the base body. The base body is provided with a core channel communicated with a core barrel. The core switch mechanism includes a detection portion, a connecting rod assembly and a travel switch which are sequentially arranged and connected along a length direction of the coring instrument. The detection portion is rotatably installed on the base body and one end thereof is extended into the core channel, so that a core passing through the core channel pushes the detection portion to rotate. The connecting rod assembly can be pulled by the rotating detection portion to trigger the travel switch to operate. The core switch mechanism adopts a slider-connecting rod structure, and the kinematic pairs are mainly a sliding pair and a rotating pair.

Abstract: Embodiments of the present invention disclose an AI processing method and an AI processing apparatus. The method is applied to the AI processing apparatus. An AI processor has at least two working modes, and security of the at least two working modes is different. The method includes: processing, by the AI processor, an AI processing request in a target mode. The target mode is one of the at least two working modes, and the target mode is a working mode determined based on the AI processing request. The AI processor has at least two working modes with different security, and may switch between different working modes.

Abstract: The present invention provides a power allocation method for an electric vehicle, which comprises: obtaining parameters for estimation from a power management system of the vehicle; b) estimating an available discharge power of the battery based on the obtained parameters for estimation; c) based on the available discharge power and power demands from a plurality of electric power demanding components of the vehicle, determining the power to be allocated for each of the plurality of power demanding components; d) outputting the allocated power to the electric power demanding components, and in the case the power is required to be converted into a torque, converting the allocated power into a torque and outputting the torque. A power allocation system is also provided.

Abstract: An example operation metrics collection and processing system is to mine a data set including patient and exam workflow data from information source(s) according to an operational metric for a workflow of interest. An example healthcare workflow performance monitoring system includes a contextual analysis engine to mine a data set to identify patterns based on current and historical healthcare data for a healthcare workflow and extract context information from the identified patterns and data mined information. The example system includes a statistical modeling engine to dynamically create contextual performance indicators based on the context and pattern information including a contextual ordering of events in the healthcare workflow.

Abstract: Embodiments of the present technology provide a system and method for dynamically generating locations for charting assessments. The system includes a user-operated location authoring tool, an authoring dictionary service, a runtime dictionary service, a database, and a location selector. The method includes creating at least one user-manipulated image; associating at least one location with each of the user-manipulated images; associating each of the user-manipulated image(s) and associated location(s) with at least one knowledge identifier; storing the user-manipulated image(s), associated location(s) and associated knowledge identifier(s); and retrieving the user-manipulated image(s) and associated location(s) relating to a user-selected one of the knowledge identifiers. The present technology also includes a computer-readable medium having a set of instructions for execution by a computer, the set of instruction capable of carrying out the current method.