Abstract:
An apparatus and system are described for power control transmission for multiple physical random access channel (PRACH) transmissions. The systems include repetition level ramping for the PRACH transmissions, as well as power control mechanisms for PRACH transmissions that use identical transmission (Tx) beams and that use different Tx beams. The number of repetition attempts for a PRACH transmission increases when a random access response (RAR) is not received or does not pass contention resolution for a maximum number of attempts. A PRACH transmission within one or more transmission occasions is cancelled if the power exceeds a maximum power for PRACH transmissions.
Abstract:
An apparatus and system of physical downlink control channel (PDCCH) monitoring above 52.6 GHz using a multi-slot PDCCH monitoring capability are described. The PDCCH monitoring capability has a group of X consecutive non-overlapping slots. A first group of search space (SS) sets are monitored within Y consecutive slots within a slot group. The location of the Y slots within a slot group is maintained across different slot groups. The first group of SS sets include a UE specific SS (USS) set, a Type3 CSS set and/or a Type 1 CSS set with dedicated RRC configuration.
Abstract:
A handrail belt disinfection machine for escalators includes a base and a rolling device having a first support arm and a second support arm on both sides of the base respectively, and both sides of the rolling device are connected to the first support arm and the second support arm respectively, and the rolling device has a disinfection device and drives the operation of the disinfection device. During the use of this machine with novel structure and clever design, the rolling device is contacted with a handrail belt of an escalator, and the movement of the handrail belt drives the rolling device to rotate and further drive the disinfection device to disinfect the handrail belt. When the escalator is not in use, the disinfection device will stop working, so as to achieve energy saving and environmental protection effects.
Abstract:
The present disclosure generally relates to methods and systems for identifying objects from a 3D point cloud and a 2D image. The method may include determining a first set of 3D proposals using Euclidean clustering on the 3D point cloud and determining a second set of 3D proposals from the 3D point cloud based on a 3D convolutional neural network. The method may include pooling the first and second sets of 3D proposals to determine a set of 3D candidates. The method may include projecting the first set of 3D proposals onto the 2D image and determining a first set of 2D proposals using 2D convolutional neural network. The method may include pooling the projected first set of 3D proposals and the first set of 2D proposals to determine a set of 2D candidates then pooling the set of 3D candidates and the set of 2D candidates.
Abstract:
The present disclosure generally relates to methods and systems for identifying objects from a 3D point cloud and a 2D image. The method may include determining a first set of 3D proposals using Euclidean clustering on the 3D point cloud and determining a second set of 3D proposals from the 3D point cloud based on a 3D convolutional neural network. The method may include pooling the first and second sets of 3D proposals to determine a set of 3D candidates. The method may include projecting the first set of 3D proposals onto the 2D image and determining a first set of 2D proposals using 2D convolutional neural network. The method may include pooling the projected first set of 3D proposals and the first set of 2D proposals to determine a set of 2D candidates then pooling the set of 3D candidates and the set of 2D candidates.
Abstract:
The present invention proposes a method, including in a communication network area constituted by a plurality of transmission points configured for coordinated transmissions to at least one target, each transmission point being identified by an individual identifier, each transmission point being configured to transmit common reference signals on common channels and dedicated reference signals on dedicated channels to said at least one target device, assigning the respective individual identifier of each transmission point to the common reference signals on the common channels of the respective transmission point, and allocating, to the dedicated reference signals on the dedicated channels of respective plural transmission points, an identifier unrelated to the individual identifiers. Also, corresponding devices are addressed.
Abstract:
Provided is a projection device, comprising a light-emitting apparatus, a spatial light modulator, a pixel shifting apparatus, a projection lens, and a control processor; the light-emitting apparatus comprises an excitation light source, a colored-light generating apparatus, and a drive apparatus; the control processor is separately connected to the drive apparatus, the light source, the spatial light modulator, and the pixel shifting apparatus, and is used for: controlling the frequency of periodic motion of the drive apparatus; while the drive apparatus moves the conversion area of the colored-light generating apparatus to pass across the position illuminated by the excitation light, shutting off the light source or controlling the spatial light modulator to enter a non-projecting state. No light passes through the pixel shifting apparatus when it is changing states, thus it is prevented from affecting the contrast. Also provided are a projection control system and a projection control method.
Abstract:
A method for producing multiple temporal frames of a time-resolved contrast enhanced magnetic resonance angiogram from a subject using an MR contrast agent by repeatedly applying RF pulses and sampling data in the corresponding image k-space along spiral trajectories that start at the k-space center and spiral outward toward the k-space edge.
Abstract:
A network connection module, a computer program, and a network connection method thereof are disclosed. The method is used for allowing a portable electronic device to connect to a node in a mesh network environment. The method includes the steps of: searching a plurality of nodes; determining whether there is a specific node in the plural of nodes; if yes, setting the specific node as a bridging point; if not, setting a node with the strongest signal strength in the plurality of nodes as the bridge point; and broadcasting to the other nodes via the bridge point under the mesh network environment.