3results about How to "Reduce misreading rate" patented technology

The invention discloses an intelligent checking vehicle control system and checking method for a stereoscopic warehouse, and the system comprises a four-direction moving chassis, a data processing and transmission module, a power supply and battery management module, and an ultrahigh frequency RFID recognition system. The ultrahigh-frequency RFID identification system comprises an antenna array consisting of four groups of ultrahigh-frequency antennas of which the angles can be independently adjusted, and an RFID reader-writer connected with the antenna array; the four-way mobile chassis is in communication connection with a path planning and navigation module, and the path planning and navigation module plans a driving path for the four-way mobile chassis based on a pre-established warehouse digital twin model and sensor data; a charging contact of the autonomous charging module is arranged on the four-direction moving chassis; the data processing and transmission module is in communication connection with the ultrahigh frequency RFID identification system, the path planning and navigation module and the autonomous charging module; and the power supply and battery management module supplies power to the system. The problems that in the prior art, efficiency is low, recognition is limited, and algorithm adaptability is poor are solved.

This application relates to an antenna deployment method, apparatus, computer equipment, and storage medium. The method includes: acquiring operating parameter data of each component in a radio frequency identification (RFID) system; wherein the components include antenna clusters and electronic tags; the antenna clusters include at least two antennas forming a through-beam architecture; determining the target distribution layout of each antenna based on the operating parameter data; wherein the target distribution layout includes the target antenna angle and target antenna spacing between antennas in each antenna cluster; establishing a spatial energy distribution model based on the target distribution layout; and determining the target electric field intensity after the interference superposition of the radiation fields between each antenna in the antenna cluster based on the spatial energy distribution model. Thus, by optimizing the layout of multiple antenna clusters, the directivity of the main beam can be effectively controlled, sidelobe radiation reduced, and the misread rate to adjacent areas lowered; by employing a through-beam architecture or multi-antenna collaborative operation, electronic tags can be covered from different angles.

The utility model discloses an RFID label detection device which comprises a detection base, the detection base is provided with a detection mechanism, the detection mechanism comprises a main control board, the main control board is connected with a plurality of sensors, the sensors are electrically connected with the main control board through wires and radio, the detection base is provided with a segmentation mechanism, and the segmentation mechanism is connected with the main control board. The sectioning mechanism comprises sectioning push rods movably arranged on the detection base, the sectioning push rods are located on the two sides of the detection base, and the sectioning push rods block materials on the detection base in the stretching-out state; through the structural design of the segmentation mechanism, materials are accurately controlled to enter a detection area one by one, overlapping of multi-label signals is avoided, the misreading rate is reduced, meanwhile, unqualified materials can be rapidly removed, early warning is conducted on abnormity through sound-light alarm, and manual intervention is reduced.