Given a flow network as below with S and T as source and sink (destination). The pair of integers on each edge corresponds to he flow value and the capacity of that edge. For instance, the edge (S,A) has capacity 16 and currently is assigned a flow of 5 units). Assume that we are using the Ford-Fullkerson's method to find a maximum flow for this problem. Fill in the blanks below with your answers. a) An augmenting path in the corresponding residual network is Note: give you answer by listing the vertices along the path, starting with S and ending with T, e.g., SADT (note that this is for demonstration purpose only and may not be a valid answer), with no spaces or punctuation marks, i.e., no commas "," or full tops ".". If there are more than one augmenting path, then you can choose one arbitrarily. >) The maximum increase of the flow value that can be applied along the augmenting path identified in Part a) is c) The value of a maximum flow is

Given a flow network as below with S and T as source and sink (destination). The pair of integers on each edge corresponds to he flow value and the capacity of that edge. For instance, the edge (S,A) has capacity 16 and currently is assigned a flow of 5 units). Assume that we are using the Ford-Fullkerson's method to find a maximum flow for this problem. Fill in the blanks below with your answers. a) An augmenting path in the corresponding residual network is Note: give you answer by listing the vertices along the path, starting with S and ending with T, e.g., SADT (note that this is for demonstration purpose only and may not be a valid answer), with no spaces or punctuation marks, i.e., no commas "," or full tops ".". If there are more than one augmenting path, then you can choose one arbitrarily. >) The maximum increase of the flow value that can be applied along the augmenting path identified in Part a) is c) The value of a maximum flow is

Operations Research : Applications and Algorithms

4th Edition

ISBN:9780534380588

Author:Wayne L. Winston

Publisher:Wayne L. Winston

Chapter11: Nonlinear Programming

Section11.10: Quadratic Programming

Problem 7P

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