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33 results about "Fault tolerant architecture" patented technology

Fault-tolerant architecture and method for complex convolutional neural network

The invention relates to the technical field of network data communication fault tolerance, and discloses a complex convolutional neural network-oriented fault tolerance architecture and method.The complex convolutional neural network-oriented fault tolerance architecture comprises an AET brain-like fault tolerance architecture and a convolutional neural network, the AET brain-like fault tolerance architecture comprises an AET cluster, the AET cluster comprises a plurality of nodes which are connected together, and the convolutional neural network is connected with the AET cluster. A volume base layer, a pooling layer and a full connection layer of the convolutional neural network are mapped to different nodes in a chain structure to form chain mapping nodes, nodes without a mapping relation are used as idle nodes, and when the nodes with the mapping relation have errors, the idle nodes close to the nodes with the mapping relation take over the errors to perform operation and communication tasks; according to the architecture, when an error node occurs, a nearby idle node substitutes for the error node, so that data delay caused by excessive data transmission when the idle node is searched for is avoided, substitution from the idle node to the mapping node can be quickly completed, a new connection architecture is formed, time sequence stability of a network is ensured, and data communication is completed more efficiently.
Owner:FUDAN UNIV

A 3D chip redundant TSV fault-tolerant structure with the function of transferring signals

The invention discloses a three-dimensional chip redundant TSV fault-tolerant structure with the function of transferring a signal. A three-dimensional chip comprises an upper-layer wafer and a lower-layer wafer. The upper-layer wafer and the lower-layer wafer are respectively provided with circular holes which are vertically and horizontally arrayed to form multiple rows and columns. Each circular hole in the upper-layer wafer and the corresponding circular hole in the lower-layer wafer are connected through a TSV. On the upper-layer wafer and the lower-layer wafer, the ends of all the TSVs are respectively connected with a signal transmission terminal through a multi-way selector. The upper-layer wafer and the lower-layer wafer are respectively provided with two crossbar switches, and all the crossbar switches are connected with the multi-way selectors. The crossbar switches of the upper-layer wafer are correspondingly connected with the crossbar switches of the lower-layer wafer through two redundant TSVs. The three-dimensional chip redundant TSV fault-tolerant structure has the advantages that the problem that a signal cannot be transmitted normally due to a TSV failure can be solved, the yield of the chip is effectively improved, hardware cost is low, the structure is simple, and the fault-tolerant capacity is high.
Owner:HEFEI UNIV OF TECH

Multi-machine time scale simulation method suitable for multi-machine fault-tolerant architecture of attitude and orbit control system

According to the multi-machine time scale simulation method suitable for the multi-machine fault-tolerant architecture of the attitude and orbit control system, independent and mutually exclusive data spaces are designed in a shared memory of multiple machines, a data basis is provided for unified management of time scales, a mode of multiple times of time scale synchronization is adopted, the data exchange and transmission process in the shared memory of the multiple machines is subjected to stage division, multiple machines are in a synchronous state in different data processing stages, non-synchronous data are prevented from being introduced into calculation, task-level multi-machine time scale unification is achieved, then a synchronous controller is designed, the synchronous controller is used for communicating with all the machines, synchronization is carried out with simulation time as a control reference, high-priority synchronous parameters are designed, the single-machine debugging process and the multi-machine time mark unification are no longer contradictory, and the system-level multi-machine time mark unification is realized. Finally, the problem of multi-machine time scale unification under a fault-tolerant architecture is solved, the simulation method not only realizes task-level time scale unification, but also realizes system-level time scale unification, and is successfully applied in a space station simulation environment at present.
Owner:BEIJING INST OF CONTROL ENG
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