A fault-tolerant Manhattan routing method for networks with monotonically changing routing directions
A monotonically changing and routing technology, applied in data exchange networks, digital transmission systems, electrical components, etc., can solve problems such as low universality, high complexity, and complex algorithms, and achieve improved universality, wide applicability, low-complexity effects
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Embodiment 1
[0036] Such as figure 1 As shown, the fault-tolerant Manhattan routing method for a network with monotonically changing routing directions provided in this embodiment is applied to a 2D Mesh network using a fully adaptive minimum routing strategy and where routing directions are monotonically changing. The method includes the following steps:
[0037] S1. Determine whether the source node S and the destination node D are error nodes. If at least one of them is an error node, it means that there is no fault-tolerant Manhattan path between the source node S and the destination node D, and the process ends; if both are not errors node, then go to step S2;
[0038] S2. When the positions of the source node S and the destination node D in the network are known, determine the next-hop node of each intermediate node between the source node S and the destination node D, which is allowed by the minimum routing policy, and record The last hop node allowed by the minimum routing strateg...
Embodiment example 2
[0088] The fault-tolerant Manhattan routing method for a network with monotonically changing routing directions provided in this embodiment is applied to a 2D Mesh network that uses a partially adaptive minimum routing strategy and whose routing direction is monotonically changing. The method includes the following steps:
[0089] S1. Determine whether the source node S and the destination node D are error nodes. If at least one of them is an error node, it means that there is no fault-tolerant Manhattan path between the source node S and the destination node D, and the process ends; if both are not errors node, then go to step S2;
[0090] S2. When the positions of the source node S and the destination node D in the network are known, execute an existing partial adaptive minimum routing algorithm such as partial adaptation based on the odd-even turn model or the negative priority turn model or other turn models The minimum routing algorithm judges the "all next-hop nodes allo...
Embodiment example 3
[0143] The fault-tolerant Manhattan routing method for a network with monotonically changing routing direction provided in this embodiment is applied to a 3D Mesh network using a fully adaptive minimum routing strategy and routing direction is monotonically changing. The method includes the following steps:
[0144] S1. Determine whether the source node S and the destination node D are error nodes. If at least one of them is an error node, it means that there is no fault-tolerant Manhattan path between the source node S and the destination node D, and the process ends; if both are not errors node, then go to step S2;
[0145] S2. When the positions of the source node S and the destination node D in the network are known, determine the next hop of each intermediate node (intermediate router) between the source node S and the destination node D, which is allowed by the minimum routing policy node, and record the last hop node allowed by the minimum routing policy of each interme...
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