Static Structural Simulation on Horse Shoes from Polymeric Foam Reinforced Fiber Glass Using Software ANSYS

Oct 13, 2025 by miodeya.com 83 views

Static Structural Simulation on Horse Shoes from Polymeric Foam Reinforced Fiber Glass Using Software ANSYS

Introduction

Horse shoes are an essential piece of equipment for horses, serving as a protective barrier for their hooves from the impact of nails and extreme use due to contact with soil. The current market offers a wide range of horse shoes made from various materials, with the majority still utilizing raw materials such as iron or steel. This research focuses on developing horse shoes from polymeric foam composite materials reinforced with glass fiber, with the aim of examining the effect of polymer composite material on the static response of horse shoes with three variations of different material compositions.

Background and Significance

Horse shoes are a crucial component of a horse's equipment, and their design and materials play a significant role in ensuring the comfort and safety of the animal. The traditional materials used in horse shoe manufacturing, such as iron and steel, have been widely used due to their durability and strength. However, these materials have several limitations, including their high weight, which can affect the horse's performance and mobility. The use of polymeric foam composite materials reinforced with glass fiber offers a promising alternative, as it can provide a lighter and stronger horse shoe.

Materials and Methods

The materials used in this study include Polyester BQTN 157 EX, Blowing Agent, Mekpo catalyst, and glass fiber resin. Each variation of the composition of horse shoes was then simulated with a fixed load of a horse reaching 300 kg. The simulation process of the characteristics of horse shoes was done using Ansys software, a widely used engineering simulation tool. The results of this study indicate that the burden of horses and variations in the composition of materials have a significant effect on the voltage response of horse shoes.

Simulation Results

Through simulations on the full surface of the three compositions, it was found that the maximum voltage occurs at PF B with a value of 1.528 MPa, while the minimum voltage is recorded at PF C of 1.129 MPa. In the simulation of the front surface, PF B again shows a maximum voltage of 2,461 MPa, while PF A has a minimum voltage of 1.824 MPa. At the back, PF B also records the highest maximum voltage of 3.602 MPa, with PF C at 2,652 MPa.

Analysis of Results and Implications

The simulation results show that the composition of the material used can affect the strength and durability of horse shoes. By using polymeric foam reinforced glass fiber, horse shoes not only become lighter but also stronger than traditional horse shoes that use metal material. This is important especially for horses used in sports or competition activities, where fast and accurate movements are needed.

One thing to note is that although the load applied is constant, variations in the composition of the material have a different impact on the voltage response. This shows the importance of further research to determine the optimal combination of these materials so that horse shoes can provide the best protection and comfort for horses.

Conclusion

The use of Ansys in this simulation provides a deep insight about material behavior under significant load conditions, and this can be the first step for further innovation in the design of horse shoes. This kind of research is not only beneficial for the horse equipment industry, but also contributes to the development of composite materials in other fields, including automotive and civil engineering.

Future Directions

With the increasing demand for innovation in horse equipment, this research opens the way for the development of products that are more efficient, environmentally friendly, and high quality. In the future, it can be expected more research on a combination of new materials and more sophisticated simulation techniques to produce better products.

Recommendations

Based on the results of this study, it is recommended that further research be conducted to determine the optimal combination of polymeric foam reinforced glass fiber materials for horse shoes. Additionally, the use of Ansys software and other simulation tools can be explored to further optimize the design of horse shoes and improve their performance.

Limitations

This study has several limitations, including the use of a fixed load and the limited number of material compositions tested. Future studies can build upon this research by exploring a wider range of material compositions and loads, as well as using more sophisticated simulation techniques.

Conclusion

In conclusion, this study demonstrates the potential of polymeric foam reinforced glass fiber materials for the development of horse shoes. The use of Ansys software provides a valuable tool for simulating the behavior of these materials under significant load conditions, and this can be the first step for further innovation in the design of horse shoes.
Q&A: Static Structural Simulation on Horse Shoes from Polymeric Foam Reinforced Fiber Glass Using Software ANSYS

Q: What is the purpose of this research?

A: The purpose of this research is to examine the effect of polymer composite material on the static response of horse shoes with three variations of different material compositions.

Q: What materials were used in this study?

A: The materials used in this study include Polyester BQTN 157 EX, Blowing Agent, Mekpo catalyst, and glass fiber resin.

Q: How were the simulations conducted?

A: The simulation process of the characteristics of horse shoes was done using Ansys software, a widely used engineering simulation tool.

Q: What were the results of the simulations?

A: Through simulations on the full surface of the three compositions, it was found that the maximum voltage occurs at PF B with a value of 1.528 MPa, while the minimum voltage is recorded at PF C of 1.129 MPa.

Q: What are the implications of this research?

A: The simulation results show that the composition of the material used can affect the strength and durability of horse shoes. By using polymeric foam reinforced glass fiber, horse shoes not only become lighter but also stronger than traditional horse shoes that use metal material.

Q: Why is this research important?

A: This research is important because it can contribute to the development of composite materials in other fields, including automotive and civil engineering. Additionally, it can lead to the development of products that are more efficient, environmentally friendly, and high quality.

Q: What are the limitations of this study?

A: This study has several limitations, including the use of a fixed load and the limited number of material compositions tested. Future studies can build upon this research by exploring a wider range of material compositions and loads, as well as using more sophisticated simulation techniques.

Q: What are the future directions of this research?

A: With the increasing demand for innovation in horse equipment, this research opens the way for the development of products that are more efficient, environmentally friendly, and high quality. In the future, it can be expected more research on a combination of new materials and more sophisticated simulation techniques to produce better products.

Q: How can this research be applied in real-world scenarios?

A: This research can be applied in real-world scenarios by using polymeric foam reinforced glass fiber materials for the development of horse shoes. Additionally, the use of Ansys software and other simulation tools can be explored to further optimize the design of horse shoes and improve their performance.

Q: What are the potential benefits of this research?

A: The potential benefits of this research include the development of horse shoes that are lighter, stronger, and more durable than traditional horse shoes. Additionally, this research can contribute to the development of composite materials in other fields, including automotive and civil engineering.

Q: How can readers learn more about this research?

A: Readers can learn more about this research by contacting the author or by accessing the full text of the study. Additionally, readers can explore the use of Ansys software and other simulation tools to further optimize the design of horse shoes and improve their performance.