5results about How to "Secure space" patented technology

The utility model relates to a stator and motor. Prevent the space of coil from being smaller. The first coil has first winding part and second winding part. The second winding part is arranged on the first winding part or is arranged on the radial outer side relative to the first winding part. The second coil has third winding part and fourth winding part. The fourth winding part is arranged on the third winding part or is arranged on the radial outer side relative to the third winding part. The connecting part has first jumper wire and second jumper wire. The first jumper wire connects the first winding part and third winding part. The second jumper wire connects the second winding part and fourth winding part. The second jumper wire is arranged on the radial outer side relative to the first jumper wire.

The present application relates to the technical field of welding control, in particular to a large plate welding equipment control system, comprising a space normalization module, an address generation module, a path screening module, a structure verification module and an interconnection output module.In the present application, in the multi-machine collaborative working environment under strong electromagnetic interference of arc welding, the three-dimensional coordinates of the welding torch contact point are collected with high precision and space normalization processing is performed, which fundamentally eliminates the process data differences caused by different welding postures, a unified sequence number is constructed in combination with the starting timing of the core equipment of the welding power source and the wire feeder, a unique control address is generated by fusing the sequence identifier, the accurate mapping of the physical location of the equipment and the network address is realized, the logical connection sequence is intelligently constructed according to the proximity of the coordinate space, the node and path binding is completed synchronously, the rationality of the connection path and the stability of the communication structure are significantly improved, and the logical order, spatial clarity and control uniformity of the arc welding equipment group collaborative work are ensured.

This application relates to the field of printed circuit board technology, and in particular to a high-precision micro-blind via processing method for optical modules. The method includes: acquiring the stack-up structure information of the substrate of the optical module to be processed, the position of the target conductive layer, and the micro-blind via design requirements; establishing a target via digital template corresponding to the via position to be processed; performing pre-forming rough processing based on the target via digital template while simultaneously acquiring online feature signals; identifying material layers and determining the remaining thickness state based on the online feature signals; switching to a low-damage interlayer transition processing state when entering the target termination region; comparing the actual via information with the target via digital template to generate a compensation control quantity; performing fine-tuning processing based on the compensation control quantity to complete the micro-blind via termination depth control and via shape correction, and performing post-processing corresponding to the via wall quality state. This application solves the problem that it is difficult to simultaneously achieve ideal conditions for via depth endpoint control and via shape consistency during micro-blind via processing.

The X-ray diagnostic device provided by the present invention is characterized by comprising: a support portion fixed to the ground; a tilting portion fixed to the support portion; a bed movably disposed on the support portion via the tilting portion, having a top plate for placing a subject; an X-ray imaging portion movably disposed on the bed via an arm; and a cable connected to the X-ray imaging portion and configured to pass through the interior of at least one of the support portion and the tilting portion.

This application provides a multimodal data processing method and system for postprandial blood glucose prediction. The method includes: acquiring static biometric data of users and generating static biometric vectors; collecting blood glucose response data of users to a standardized test meal through standardized dietary intervention and calculating a standardized metabolic correction factor for individual baseline calibration; acquiring dynamic physiological data of users in a free-living scenario and spatiotemporally aligning it with the free-diet data to construct a dynamic context dataset; fusing the above multimodal data to construct a multimodal feature matrix for training a postprandial blood glucose prediction model, thereby outputting personalized postprandial blood glucose response prediction values. This application significantly improves the individualized accuracy of blood glucose prediction and the robustness of the model in real-world scenarios by integrating multi-omics static features, dynamic physiological context, and standardized metabolic correction.