The Need for Alternative Solutions

Oct 13, 2025 by orovajewels.com 134 views

Time History Analysis of Earthquake Resistant Buildings with Placement of Rubber Damper between Bracing and Beams: Literature Studies

Introduction

Indonesia is a country that is highly vulnerable to earthquakes, which often causes significant damage to buildings, loss of lives, and material losses. The damage to buildings due to earthquakes can be prevented through strengthening structures specifically designed to deal with earthquake forces. However, many of the existing solutions often do not provide satisfying results. This is due to damage, both in structural and non-structural elements, is generally caused by significant differences in deviations. To overcome this problem, lateral reinforcement in buildings becomes important. However, this often causes an increase in earthquake force that works on the structure.

The Need for Alternative Solutions

Researchers have been looking for alternative solutions that are more effective and simple, namely by reducing earthquake energy to a level that does not endanger the structure of the building. In the context of the development of material technology, a damper device is found known as a rubber damper, which uses Lead Rubber Bearing (LRB) material. Earthquake resistant structural planning methods can be divided into two categories: conventional methods, which prioritize rigid structural forms and have high ductility, as well as technological methods that add earthquake damper devices to the structure.

The Role of Rubber Damper

Rubber Damper works by anticipating the energy produced by the earthquake through the deformation of the damper material, namely LRB. LRB is a type of damper consisting of a layer of rubber and steel, with tin core. The use of rubber damper in earthquake resistant structures has been studied extensively in recent years, and the results have shown that it can be an effective way to reduce earthquake energy. In this study, the nonlinear time history method was used with the help of SAP 2000 version 11 software to analyze the structure. With this method, data can be obtained about displacement, moment, latitude, and normal force.

The Analyzed Structure

The analyzed structure is a steel structure with an IWF profile, which is conventionally built with the addition of bracing and rubber damper. The structure is designed to withstand earthquake forces, and the rubber damper is placed between the bracing and the beams to reduce the energy produced by the earthquake. The results of the analysis showed that the use of rubber damper can reduce earthquake acceleration in buildings compared to structures without damper. Thus, differences in deviations between levels can be minimized and the safety of buildings can be increased.

The Results of the Analysis

As a result of the analysis, it was found that the use of rubber damper can reduce the moment by around 45.5%, the latitude of around 45.7%, and the normal force around 16.1% compared to conventional structures and structures that only use bracing. This shows that the placement of rubber damper between bracing and blocks not only increases building resistance to earthquakes, but also contributes significantly in reducing the force acting on the structure.

Conclusion

Thus, innovation in structural design using rubber damper is a positive step in reducing the risk of earthquake damage, especially in areas prone to earthquakes such as Indonesia. Through this approach, it is hoped that we can build buildings that are safer and resistant to natural disasters, and minimize the negative impacts that may be caused. The use of rubber damper in earthquake resistant structures has been shown to be an effective way to reduce earthquake energy, and it is hoped that this technology will be widely adopted in the future.

Recommendations

Based on the results of this study, it is recommended that the use of rubber damper be considered in the design of earthquake resistant structures. The placement of rubber damper between bracing and blocks has been shown to be an effective way to reduce earthquake energy, and it is hoped that this technology will be widely adopted in the future. Additionally, further research is needed to fully understand the effects of rubber damper on earthquake resistant structures, and to develop new technologies that can be used to reduce earthquake energy.

Limitations of the Study

This study has several limitations that should be noted. Firstly, the study only analyzed a single type of structure, and further research is needed to determine the effectiveness of rubber damper in different types of structures. Secondly, the study only considered the effects of rubber damper on earthquake resistant structures, and further research is needed to determine the effects of rubber damper on other types of structures. Finally, the study only considered the effects of rubber damper on earthquake resistant structures in a single location, and further research is needed to determine the effects of rubber damper on earthquake resistant structures in different locations.

Future Research Directions

Based on the results of this study, several future research directions can be identified. Firstly, further research is needed to determine the effectiveness of rubber damper in different types of structures. Secondly, further research is needed to determine the effects of rubber damper on other types of structures. Finally, further research is needed to determine the effects of rubber damper on earthquake resistant structures in different locations.

Conclusion

In conclusion, the use of rubber damper in earthquake resistant structures has been shown to be an effective way to reduce earthquake energy. The placement of rubber damper between bracing and blocks has been shown to be an effective way to reduce earthquake energy, and it is hoped that this technology will be widely adopted in the future. Further research is needed to fully understand the effects of rubber damper on earthquake resistant structures, and to develop new technologies that can be used to reduce earthquake energy.
Frequently Asked Questions (FAQs) about Time History Analysis of Earthquake Resistant Buildings with Placement of Rubber Damper between Bracing and Beams

Q: What is the main purpose of this study?

A: The main purpose of this study is to investigate the effectiveness of using rubber damper in earthquake resistant structures, specifically in reducing earthquake energy and increasing the safety of buildings.

Q: What is a rubber damper?

A: A rubber damper is a type of damper device that uses Lead Rubber Bearing (LRB) material to reduce earthquake energy. It works by anticipating the energy produced by the earthquake through the deformation of the damper material.

Q: How does the rubber damper work?

A: The rubber damper works by absorbing the energy produced by the earthquake through the deformation of the damper material. This reduces the energy that is transmitted to the structure, making it safer and more resistant to earthquakes.

Q: What are the benefits of using rubber damper in earthquake resistant structures?

A: The benefits of using rubber damper in earthquake resistant structures include reducing earthquake energy, increasing the safety of buildings, and minimizing the negative impacts of earthquakes.

Q: What type of structure was analyzed in this study?

A: The structure analyzed in this study was a steel structure with an IWF profile, which is conventionally built with the addition of bracing and rubber damper.

Q: What were the results of the analysis?

A: The results of the analysis showed that the use of rubber damper can reduce earthquake acceleration in buildings compared to structures without damper. The moment, latitude, and normal force were also reduced by around 45.5%, 45.7%, and 16.1% respectively.

Q: What are the limitations of this study?

A: The limitations of this study include only analyzing a single type of structure, only considering the effects of rubber damper on earthquake resistant structures, and only considering the effects of rubber damper on earthquake resistant structures in a single location.

Q: What are the future research directions?

A: The future research directions include determining the effectiveness of rubber damper in different types of structures, determining the effects of rubber damper on other types of structures, and determining the effects of rubber damper on earthquake resistant structures in different locations.

Q: What are the implications of this study?

A: The implications of this study are that the use of rubber damper in earthquake resistant structures can be an effective way to reduce earthquake energy and increase the safety of buildings. This technology has the potential to be widely adopted in the future, especially in areas prone to earthquakes such as Indonesia.

Q: What are the recommendations of this study?

A: The recommendations of this study are that the use of rubber damper be considered in the design of earthquake resistant structures. Further research is also needed to fully understand the effects of rubber damper on earthquake resistant structures and to develop new technologies that can be used to reduce earthquake energy.

Q: What are the potential applications of this study?

A: The potential applications of this study include designing earthquake resistant structures, reducing earthquake energy, and increasing the safety of buildings. This technology can also be applied to other types of structures, such as bridges and buildings in areas prone to earthquakes.

Q: What are the potential benefits of this study?

A: The potential benefits of this study include reducing the risk of earthquake damage, increasing the safety of buildings, and minimizing the negative impacts of earthquakes. This technology can also lead to cost savings and reduced maintenance costs for buildings and structures.