Abstract: Provided are a guide vane body with a vortex suppression structure ring and an axial-flow nuclear reactor coolant pump (RCP), including a rim cover plate, a hub cover plate, guide vane blades and a diffuser, where the hub cover plate is coaxially arranged in the rim cover plate, and a flow channel is placed between the hub cover plate and the rim cover plate, and a plurality of guide vane blades are placed in the flow channel in an array; and an outlet end of the hub cover plate is connected with the diffuser, and an outer wall of the diffuser gradually expands along a fluid flow direction; a diversion ring is arranged circumferentially on an inner wall at the outlet side of the rim cover plate, and the vortex suppression structure ring is placed at an outlet edge of the diversion ring.

Abstract: Systems and methods for preprocessing large inference files in a cluster environment prior to transmission to one or more downstream applications. The inference files are processed using templates that correspond to particular downstream applications, allowing for optimized transmission and optimized processing by each downstream application.

Abstract: Systems and methods for optimizing multi-stage data machine learning model processing, by providing an intermediate processing step to identify or filter records in voluminous inference data that meet a predetermined threshold. Multiple downstream processes can be optimized by applying multiple thresholds to the voluminous inference data.

Abstract: A binding registration method includes: an SDN controller receiving a first bearer message that is forwarded by a first MAG in multiple MAGs and that carries a first L2 attach request message; sending, to each of the first MAG and an LMA, a message for establishing a tunnel between the first MAG and the LMA; sending, to each of the first MAG and the LMA, a message for adjusting a flow entry of an MN; configuring an HNP(s) for the MN, and encapsulating the HNP(s) into an RA message; and sending the RA message to the first MAG.

Abstract: The present disclosure provides an electronic device. The electronic device may include a flexible support and a control unit electrically coupled to the flexible support. The control unit receives a trigger signal, and generates a corresponding control signal according to the trigger signal. The flexible support is correspondingly deformed according to the control signal. The electronic device provided in an embodiment of the present disclosure generates, according to the trigger signal, the control signal for controlling deformation of the flexible support, thereby achieving electrically controlled deformation, and improving the intellectualization of electronic equipment.

Abstract: Disclosed are a supporting structure having a variable form and an electronic device having the same. A supporting structure may include a fixing module, a tail end module, and a flexible module connecting the fixing module and the tail end module. The flexible module may include multiple chain units. The chain unit may include a support plate having a support surface and a lower surface opposite to the support surface, and a driving portion extending along from a side of the support plate away from the lower surface of the support plate. The chain units are hingedly connected in series. Adjacent chain units may drive the support surfaces to construct different forms through interaction between the driving portions, thereby forming the supporting structure whose form can be flexibly changed.

Abstract: The present disclosure provides an electronic device. The electronic device may include a flexible support and a control unit electrically coupled to the flexible support. The control unit receives a trigger signal, and generates a corresponding control signal according to the trigger signal. The flexible support is correspondingly deformed according to the control signal. The electronic device provided in an embodiment of the present disclosure generates, according to the trigger signal, the control signal for controlling deformation of the flexible support, thereby achieving electrically controlled deformation, and improving the intellectualization of electronic equipment.

Abstract: Disclosed are a supporting structure having a variable form and an electronic device having the same. A supporting structure may include a fixing module, a tail end module, and a flexible module connecting the fixing module and the tail end module. The flexible module may include multiple chain units. The chain unit may include a support plate having a support surface and a lower surface opposite to the support surface, and a driving portion extending along from a side of the support plate away from toward the lower surface of the support plate. The chain units are hingedly connected in series. Adjacent chain units may drive the support surfaces to construct different forms through interaction between the driving portions, thereby forming the supporting structure whose form can be flexibly changed.

Abstract: A binding registration method, a data forwarding method, a related device, and a network system are disclosed. An SDN controller includes: a first receiving unit, configured to receive a first bearer message that is forwarded by a first MAG in multiple MAGs and that carries a first L2 attach request message; a first sending unit, configured to send, to each of the first MAG and an LMA, a message for establishing a tunnel between the first MAG and the LMA; a second sending unit, configured to send, to each of the first MAG and the LMA, a message for adjusting a flow entry of an MN; a configuration and encapsulation unit, configured to: configure an HNP(s) for the MN, and encapsulate the HNP(s) into an RA message; and a third sending unit, configured to send the RA message to the first MAG.