Why is impostant to study the fiber reinforcement polymer in different solution like water, sea water?
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Studying fiber-reinforced polymer (FRP) composites in solutions like water and seawater is crucial due to their extensive use in marine structures, where they face challenges like seawater aging. Exposure to dual environments like seawater and sea sand concrete can impact the durability of FRP composites, with different fiber types showing varying degrees of degradation. The corrosive marine environment necessitates understanding the effects of prolonged moisture absorption on FRP composites, highlighting the importance of predicting long-term performance in such conditions. Realistic tests in sea environments reveal changes in mass, microbiology growth, and tensile strength of FRP composites, providing essential input parameters for structural modeling and failure prediction in marine structures. Overall, studying FRP composites in different solutions is vital for enhancing their performance and longevity in marine applications.
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| Papers (5) | Insight |
|---|---|
| Studying Fiber Reinforced Polymer (FRP) in water and seawater is crucial to assess its corrosion resistance, durability, and potential as a replacement for steel in marine environments. | |
| Studying fiber-reinforced polymers in various solutions like seawater is crucial to assess durability and degradation effects, aiding in understanding their performance in different environmental conditions. | |
2 Citations | Studying FRP composites in water, especially seawater, is crucial for predicting marine structure failures accurately, considering mass absorption, microbiology growth, and tensile strength changes in real marine conditions. |
| Studying fiber-reinforced polymers in water and seawater is crucial due to potential moisture absorption leading to degraded mechanical properties, impacting their performance and longevity in marine environments. | |
| Studying fiber-reinforced polymer composites in seawater is crucial due to their extensive marine applications, where understanding aging effects, mechanical properties, and life prediction aids in enhancing durability and performance. |
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