Run Dijkstra's algorithm on the following graph, starting from vertex A. Wheneverthere are multiple choices of vertex at the same time, choose the one that isalphabetically first. You are expected to show how you initialize the graph, how youpicked a vertex and update the d values at the each, and what is final shortestdistance of each vertex from A.B11AFE

The question asks to work out Dijkstra's algorithm with the given graph & find the shortest path…

Answered: Run Dijkstra's algorithm on the…

Database System Concepts

7th Edition

ISBN:9780078022159

Author:Abraham Silberschatz Professor, Henry F. Korth, S. Sudarshan

Publisher:Abraham Silberschatz Professor, Henry F. Korth, S. Sudarshan

Chapter1: Introduction

Section: Chapter Questions

Problem 1PE

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Suppose you have a graph with 100 nodes and 500 edges and you want to find the shortest path between two nodes using Dijkstra's algorithm. What is the time complexity of this operation?
Run BFS algorithm on the following graph starting with vertex s. Whenever there is a choice of vertices, choose the one that is alphabetically first. What is the order that the vertices are visited? What is the shortest path from vertex s to vertex b?
You are given a connected, undirected graph G. Devise an algorithm that produces a path that traverses each edge in G exactly once in each direction. A vertex may occur multiple times on the path. Provide a short justification about why your algorithm is correct, and analyze its efficiency.
Run the Bellman-Ford Algorithm on the graph below to find the shortest path distances from the vertex S to all other vertices. Make sure that you give the initialization and show all the steps of the algorithm. 10 A 1 2 1 1 -2 -7 3. -1 8. F.
5. Fleury's algorithm is an optimisation solution for finding a Euler Circuit of Euler Path in a graph, if they exist. Describe how this algorithm will always find a path or circuit if it exists. Describe how you calculate if the graph is connected at each edge removal. Fleury's Algorithm: The algorithm starts at a vertex of v odd degree, or, if the graph has none, it starts with an arbitrarily chosen vertex. At each step it chooses the next edge in the path to be one whose deletion would not disconnect the graph, unless there is no such edge, in which case it picks the remaining edge (a bridge) left at the current vertex. It then moves to the other endpoint of that edge and adds the edge to the path or circuit. At the end of the algorithm there are no edges left ( or all your bridges are burnt). (NOTE: Please elaborate on the answer and explain. Please do not copy-paste the answer from the internet or from Chegg.)
Given a graph that is a tree (connected and acyclic). (I) Pick any vertex v.(II) Compute the shortest path from v to every other vertex. Let w be the vertex with the largest shortest path distance.(III) Compute the shortest path from w to every other vertex. Let x be the vertex with the largest shortest path distance. Consider the path p from w to x. Which of the following are truea. p is the longest path in the graphb. p is the shortest path in the graphc. p can be calculated in time linear in the number of edges/vertices
Draw a simple, connected, weighted graph with 8 vertices and 16 edges, each with unique edge weights. Identify one vertex as a “start” vertex and illustrate a running of Dijkstra’s algorithm on this graph. Problem R-14.23 in the photo
Dijkstra's shortest path algorithm is run on the graph, starting at vertex B. When a vertex is dequeued, 0 or more adjacent vertices' distances are updated. For each iteration of the while loop in Dijkstra's algorithm, find the vertex dequeued and the adjacent vertices updated. Enter updated vertices as A, B, C or "none" if no adjacent vertices are updated. 9 B 3 A 8 5 10 E C 2 D Iteration Vertex dequeued Adjacent vertices updated 1 Ex: C Ex: A, B, C or none 2 3 + LO 5
Dijkstra's shortest path algorithm is run on the graph, starting at vertex C. When a vertex is dequeued, 0 or more adjacent vertices' distances are updated. For each iteration of the while loop in Dijkstra's algorithm, find the vertex dequeued and the adjacent vertices updated. Enter updated vertices as A, B, C or "none" if no adjacent vertices are updated. 3 A E 2 10 4 D 8 B 6 C Iteration Vertex dequeued Adjacent vertices updated 1 Ex: C Ex: A, B, C or none 2 3 A 5
Dijkstra's shortest path algorithm is run on the graph, starting at vertex A. When a vertex is dequeued, 0 or more adjacent vertices' distances are updated. For each iteration of the while loop in Dijkstra's algorithm, find the vertex dequeued and the adjacent vertices updated. Enter updated vertices as A, B, C or "none" if no adjacent vertices are updated. 9 D E 8 5 6 3 C 2 B 1 A Iteration Vertex dequeued Adjacent vertices updated 1 Ex: C Ex: A, B, C or none 2 3 4 5
Bellman-Ford algorithm Draw a graph G with weights of edges ranging from 3 to 9, is it possible to calculate the LONGEST PATH without altering the algorithm at all? Justify your answer by providing solid reasons.
One can manually count path lengths in a graph using adjacency matrices. Using the simple example below, produces the following adjacency matrix: A B A 1 1 B 1 0 This matrix means that given two vertices A and B in the graph above, there is a connection from A back to itself, and a two-way connection from A to B. To count the number of paths of length one, or direct connections in the graph, all one must do is count the number of 1s in the graph, three in this case, represented in letter notation as AA, AB, and BA. AA means that the connection starts and ends at A, AB means it starts at A and ends at B, and so on. However, counting the number of two-hop paths is a little more involved. The possibilities are AAA, ABA, and BAB, AAB, and BAA, making a total of five 2-hop paths. The 3-hop paths starting from A would be AAAA, AAAB, AABA, ABAA, and ABAB. Starting from B, the 3-hop paths are BAAA, BAAB, and BABA. Altogether, that would be eight 3-hop paths within this graph. Write a program…

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