amplitude of wave-exited ship bending

简明释义

波浪引起的船体弯矩幅值

英英释义

The amplitude of wave-excited ship bending refers to the maximum extent of deformation or bending experienced by a ship's structure when subjected to the forces generated by ocean waves.

波浪激发的船舶弯曲幅度是指船舶结构在受到海浪产生的力作用时所经历的最大变形或弯曲程度。

例句

1.Understanding the amplitude of wave-exited ship bending is crucial for designing safer ships.

理解波浪引起的船只弯曲幅度对于设计更安全的船只至关重要。

2.Technicians monitored the amplitude of wave-exited ship bending using advanced sensors during the test voyage.

技术人员在试航期间使用先进传感器监测波浪引起的船只弯曲幅度

3.The engineers calculated the amplitude of wave-exited ship bending to ensure the vessel's structural integrity during rough seas.

工程师计算了波浪引起的船只弯曲幅度以确保船只在恶劣海况下的结构完整性。

4.The research focused on the amplitude of wave-exited ship bending to improve maritime safety standards.

研究集中在波浪引起的船只弯曲幅度上,以提高海事安全标准。

5.The simulation predicted the amplitude of wave-exited ship bending under various sea conditions.

模拟预测了在不同海况下的波浪引起的船只弯曲幅度

作文

Understanding the structural integrity of ships is crucial in naval architecture and marine engineering. One of the key factors that influence a ship's performance in rough seas is the amplitude of wave-exited ship bending. This term refers to the degree to which a ship bends or flexes as it encounters waves, and understanding this phenomenon is vital for ensuring the safety and durability of marine vessels.When a ship sails through turbulent waters, it is subjected to various forces generated by the waves. These forces can cause the hull of the ship to bend, leading to what is known as bending moments. The amplitude of wave-exited ship bending specifically describes the maximum extent of this bending that occurs when the ship is subjected to wave action. It is a critical parameter that engineers must consider when designing ships to withstand the harsh conditions at sea.To comprehend the significance of the amplitude of wave-exited ship bending, one must first appreciate the dynamics of wave interaction with the ship's structure. Waves exert pressure on the hull, and depending on their size and frequency, they can induce different bending patterns. For instance, larger waves can lead to greater bending amplitudes, which may increase the risk of structural failure if the ship is not designed to handle such stress.Engineers use sophisticated modeling techniques to predict the amplitude of wave-exited ship bending during the design phase. By simulating various sea conditions, they can assess how different hull shapes and materials will respond to wave action. This predictive analysis allows them to optimize the design for strength and flexibility, ensuring that the ship can navigate through challenging environments without sustaining damage.Moreover, understanding the amplitude of wave-exited ship bending is not only important for new ship designs but also for the maintenance and inspection of existing vessels. Over time, repeated exposure to bending stresses can lead to fatigue and deterioration of materials. Regular monitoring of a ship's bending behavior can help identify potential issues before they escalate into serious problems, thereby prolonging the vessel's lifespan and enhancing safety.In conclusion, the amplitude of wave-exited ship bending is a fundamental concept in maritime engineering that reflects the interaction between waves and ship structures. By accurately predicting and analyzing this amplitude, engineers can design safer, more resilient ships capable of withstanding the unpredictable nature of the sea. As technology advances, the methods for measuring and analyzing ship bending will continue to improve, leading to even greater innovations in ship design and marine safety practices. Ultimately, a deeper understanding of the amplitude of wave-exited ship bending will contribute to the development of more robust and efficient vessels, ensuring safe passage for those who traverse the world's oceans.

理解船舶的结构完整性对于海洋建筑和海洋工程至关重要。影响船舶在恶劣海况下性能的关键因素之一是波浪引起的船体弯曲幅度。这个术语指的是船舶在遇到波浪时弯曲或弯折的程度,理解这一现象对确保海洋船只的安全性和耐久性至关重要。当船舶航行于动荡水域时,会受到波浪产生的各种力的作用。这些力量会导致船体弯曲,形成所谓的弯曲力矩。波浪引起的船体弯曲幅度专门描述了在船舶受到波浪作用时,发生的最大弯曲程度。这是工程师在设计船舶以承受海上恶劣条件时必须考虑的关键参数。要理解波浪引起的船体弯曲幅度的重要性,首先必须欣赏波浪与船体结构相互作用的动态。波浪对船体施加压力,取决于波浪的大小和频率,它们可以引发不同的弯曲模式。例如,更大的波浪可能会导致更大的弯曲幅度,如果船舶未能设计以应对这种压力,则可能增加结构失效的风险。工程师使用复杂的建模技术来预测设计阶段的波浪引起的船体弯曲幅度。通过模拟各种海洋条件,他们可以评估不同船体形状和材料如何响应波浪作用。这种预测分析使他们能够优化设计,以确保强度和灵活性,确保船舶能够在挑战性环境中航行而不会遭受损坏。此外,理解波浪引起的船体弯曲幅度不仅对新船设计重要,对现有船舶的维护和检查也同样重要。随着时间的推移,反复暴露于弯曲应力下可能导致材料疲劳和退化。定期监测船舶的弯曲行为可以帮助识别潜在问题,在问题升级为严重问题之前,从而延长船舶的使用寿命并提高安全性。总之,波浪引起的船体弯曲幅度是海洋工程中的一个基本概念,反映了波浪与船舶结构之间的相互作用。通过准确预测和分析这一幅度,工程师可以设计出更安全、更具韧性的船舶,能够承受海洋的不确定性。随着技术的进步,测量和分析船体弯曲的方法将继续改进,从而推动船舶设计和海洋安全实践的进一步创新。最终,对波浪引起的船体弯曲幅度的深入理解将有助于开发出更坚固、更高效的船舶,确保那些横渡世界海洋的人们的安全通行。

相关单词

amplitude

amplitude详解:怎么读、什么意思、用法