Integration of Other Factors

Oct 13, 2025 by pynkocean.com 26 views

Implementation of Dijkstra Algorithm to Determine the Shortest Route of the Tsunami Evacuation Route on the Beautiful Tourism Beach, Sibolga City

Introduction

Tsunamis, large sea waves triggered by disturbances in the seabed such as earthquakes, are deadly natural disasters that can cause widespread destruction and loss of life. Underwater earthquakes, especially in the subduction zone with a magnitude scale of 7.0 or more, are the main causes of the tsunami. To minimize fatalities due to the tsunami, effective evacuation route planning is very important. The best evacuation route is safe and has the shortest route. In this study, we will discuss the implementation of the Dijkstra algorithm to determine the shortest evacuation route on the beautiful tourism beach in Sibolga City.

Background

Tsunamis are natural disasters that can cause significant damage and loss of life. The impact of a tsunami can be devastating, and it is essential to have a well-planned evacuation route to minimize the risk of injury or death. The Dijkstra algorithm, which is designed to find the shortest path based on the smallest weight from one point to another, can be used to determine the shortest evacuation route. In this study, we will use the Dijkstra algorithm to model the beautiful tourist beach area in Sibolga City as a directed graph, where each intersection of the road in the area is represented as a vertex (vertex) on the graph, with the weight of each road representing the distance or travel time.

Methodology

The application of the Dijkstra algorithm in this graph model will produce output in the form of the shortest route from each point in the coastal area to the specified evacuation point. The author uses Matlab, a matrix-based program, to implement the Dijkstra algorithm and obtain an optimal solution. The Dijkstra algorithm works by maintaining a list of unvisited vertices and iteratively selecting the vertex with the minimum distance from the starting point. The algorithm continues until all vertices have been visited, and the shortest path from the starting point to each vertex is determined.

Benefits of Application of Dijkstra Algorithm in Determination of Tsunami Evacuation Pathways

The implementation of the Dijkstra algorithm in determining the shortest evacuation route has several benefits, including:

Optimal Evacuation Route

The Dijkstra algorithm guarantees the shortest and safest route to save themselves from the tsunami. By using the Dijkstra algorithm, residents can determine the optimal evacuation route, which can help to minimize the risk of injury or death.

Time Savings

The shortest evacuation route allows residents to reach a safe place with a shorter time, increasing safety opportunities. By using the Dijkstra algorithm, residents can determine the shortest evacuation route, which can help to save time and increase safety.

Increasing Preparedness

Accurate evacuation route map, resulting from the implementation of the Dijkstra algorithm, will increase community preparedness in dealing with the tsunami disaster. By having a well-planned evacuation route, residents can be better prepared to respond to a tsunami disaster.

Resource Efficiency

By knowing the optimal evacuation route, the rescue team can optimize the use of their resources, increase efficiency in the evacuation process. By using the Dijkstra algorithm, the rescue team can determine the shortest evacuation route, which can help to optimize the use of their resources.

Conclusion

Implementation of the Dijkstra Algorithm in the Graph Model of the Beautiful Tourism Beach area in Sibolga City provides an effective solution to determine the shortest tsunami evacuation pathway. This helps in increasing preparedness and minimizing fatalities due to the tsunami disaster. The use of Matlab in implementing the Dijkstra algorithm makes it easier for the calculation process and produces accurate and easy to understand output.

Suggestion

Further research can be done to consider other factors that can affect the choice of evacuation routes, such as road conditions, terrain, and population density. In addition, it is necessary to socialize and simulate evacuation to the public so that they understand and can use the optimal evacuation route correctly.

Future Research Directions

There are several future research directions that can be explored, including:

Integration of Other Factors: The Dijkstra algorithm can be integrated with other factors that can affect the choice of evacuation routes, such as road conditions, terrain, and population density.
Simulation and Socialization: The optimal evacuation route can be simulated and socialized to the public so that they understand and can use the optimal evacuation route correctly.
Real-Time Evacuation Planning: The Dijkstra algorithm can be used to determine the shortest evacuation route in real-time, taking into account the current traffic conditions and other factors.

Limitations of the Study

There are several limitations of the study, including:

Simplification of the Graph Model: The graph model used in this study is a simplification of the real-world scenario, and it does not take into account other factors that can affect the choice of evacuation routes.
Assumption of Equal Weights: The Dijkstra algorithm assumes that all weights are equal, which may not be the case in real-world scenarios.
Limited Scope: The study only considers the beautiful tourism beach area in Sibolga City and does not take into account other areas that may be affected by a tsunami disaster.

Conclusion

In conclusion, the implementation of the Dijkstra algorithm in determining the shortest evacuation route has several benefits, including optimal evacuation route, time savings, increasing preparedness, and resource efficiency. The use of Matlab in implementing the Dijkstra algorithm makes it easier for the calculation process and produces accurate and easy to understand output. Further research can be done to consider other factors that can affect the choice of evacuation routes, such as road conditions, terrain, and population density.
Q&A: Implementation of Dijkstra Algorithm to Determine the Shortest Route of the Tsunami Evacuation Route on the Beautiful Tourism Beach, Sibolga City

Frequently Asked Questions

Q: What is the Dijkstra algorithm and how does it work?

A: The Dijkstra algorithm is a graph search algorithm that finds the shortest path between two nodes in a graph. It works by maintaining a list of unvisited nodes and iteratively selecting the node with the minimum distance from the starting node.

Q: Why is the Dijkstra algorithm useful in determining the shortest evacuation route?

A: The Dijkstra algorithm is useful in determining the shortest evacuation route because it guarantees the shortest and safest route to save oneself from the tsunami. By using the Dijkstra algorithm, residents can determine the optimal evacuation route, which can help to minimize the risk of injury or death.

Q: What are the benefits of using the Dijkstra algorithm in determining the shortest evacuation route?

A: The benefits of using the Dijkstra algorithm in determining the shortest evacuation route include optimal evacuation route, time savings, increasing preparedness, and resource efficiency.

Q: How does the Dijkstra algorithm take into account the current traffic conditions and other factors?

A: The Dijkstra algorithm can take into account the current traffic conditions and other factors by using real-time data and incorporating it into the graph model.

Q: What are the limitations of the study?

A: The limitations of the study include simplification of the graph model, assumption of equal weights, and limited scope.

Q: How can the Dijkstra algorithm be integrated with other factors that can affect the choice of evacuation routes?

A: The Dijkstra algorithm can be integrated with other factors that can affect the choice of evacuation routes, such as road conditions, terrain, and population density, by using real-time data and incorporating it into the graph model.

Q: What are the future research directions for the implementation of the Dijkstra algorithm in determining the shortest evacuation route?

A: The future research directions for the implementation of the Dijkstra algorithm in determining the shortest evacuation route include integration of other factors, simulation and socialization, and real-time evacuation planning.

Q: How can the optimal evacuation route be simulated and socialized to the public?

A: The optimal evacuation route can be simulated and socialized to the public by using visual aids, such as maps and videos, and by conducting evacuation drills and exercises.

Q: What are the implications of the study for disaster preparedness and response?

A: The study has implications for disaster preparedness and response by providing an effective solution to determine the shortest tsunami evacuation pathway, which can help to increase preparedness and minimize fatalities due to the tsunami disaster.

Additional Resources

Dijkstra Algorithm Tutorial: A tutorial on the Dijkstra algorithm, including its implementation and applications.
Graph Theory: A resource on graph theory, including its concepts and applications.
Disaster Preparedness and Response: A resource on disaster preparedness and response, including its concepts and applications.