E limber kentledge

简明释义

压载铁块

英英释义

例句

1.The engineer explained how to use E limber kentledge for stabilizing the structure during construction.

工程师解释了如何使用E limber kentledge在施工期间稳定结构。

2.During the meeting, we discussed the importance of E limber kentledge in marine engineering.

在会议上，我们讨论了E limber kentledge在海洋工程中的重要性。

3.Using E limber kentledge can significantly reduce the risk of structural failure.

使用E limber kentledge可以显著降低结构失效的风险。

4.The team decided to incorporate E limber kentledge to improve the safety of the project.

团队决定加入E limber kentledge以提高项目的安全性。

5.The contractor recommended E limber kentledge as a solution for the unstable ground conditions.

承包商推荐使用E limber kentledge作为不稳定地面条件的解决方案。

作文

In the world of engineering and construction, understanding the concept of E limber kentledge is crucial for ensuring the stability and safety of structures. E limber kentledge refers to a type of weight or ballast that is used to provide stability to floating structures, such as barges or offshore platforms. The term 'kentledge' itself originates from the combination of 'ken' meaning to know and 'ledge' which refers to a ledge or a shelf. Therefore, E limber kentledge can be understood as a knowledgeable way to distribute weight effectively to counteract forces acting on a structure.When constructing any floating or semi-submerged structure, engineers must consider the forces of buoyancy, wind, and waves. These forces can cause significant movements and instability if not properly managed. This is where E limber kentledge plays a vital role. By strategically placing weights at specific points on the structure, engineers can create a balance that minimizes tipping and enhances overall stability.For instance, in the design of offshore wind turbines, the application of E limber kentledge is essential. The turbines are subjected to strong winds and ocean currents, which can lead to extreme tilting if not countered with adequate weight. Engineers utilize E limber kentledge by placing heavy materials at the base of the turbine, ensuring that it remains upright even under adverse conditions.Moreover, the use of E limber kentledge extends beyond marine engineering. In civil engineering projects, such as bridges or high-rise buildings, similar principles apply. The concept of using weighted supports to enhance stability can be observed in the construction of tall structures, where the center of gravity must be carefully calculated and maintained. Engineers often employ E limber kentledge techniques when designing foundations that require additional support against lateral forces caused by wind or seismic activity.In summary, the significance of E limber kentledge in engineering cannot be overstated. It serves as a fundamental principle for ensuring the safety and functionality of various structures, particularly those that are designed to float or withstand dynamic forces. As we continue to innovate and develop new technologies in construction, the understanding and application of E limber kentledge will remain a pivotal aspect of creating resilient and stable designs. The future of engineering lies in our ability to harness such concepts to build safer and more efficient structures that can withstand the tests of nature and time.

在工程和建筑的世界中，理解E limber kentledge的概念对于确保结构的稳定性和安全性至关重要。E limber kentledge指的是一种用于为漂浮结构（如驳船或海上平台）提供稳定性的重量或压载物。术语“kentledge”本身源于“ken”（意为了解）和“ledge”（指架子或边缘）的组合。因此，E limber kentledge可以理解为一种有效分配重量以抵消作用于结构上的力的知识性方式。在建造任何漂浮或半沉没结构时，工程师必须考虑浮力、风和波浪的力量。这些力量如果没有得到妥善管理，会导致显著的运动和不稳定。这就是E limber kentledge发挥重要作用的地方。通过在结构的特定点上战略性地放置重物，工程师可以创造出一种平衡，最小化倾斜并增强整体稳定性。例如，在海上风电涡轮机的设计中，应用E limber kentledge至关重要。这些涡轮机受到强风和海流的影响，如果没有足够的重量来对抗，就可能导致极端倾斜。工程师利用E limber kentledge，在涡轮机的基础上放置重材料，确保其在不利条件下保持直立。此外，E limber kentledge的使用不仅限于海洋工程。在土木工程项目中，如桥梁或高层建筑，类似的原则也适用。使用加重支撑以增强稳定性的概念可以在高大结构的建设中观察到，在这些结构中，重心必须经过仔细计算和维护。工程师在设计需要额外支持以抵御由风或地震活动引起的横向力的基础时，常常采用E limber kentledge技术。总之，E limber kentledge在工程中的重要性不可低估。它作为确保各种结构安全性和功能性的基本原则，尤其是那些设计为漂浮或承受动态力量的结构。随着我们继续创新和开发建筑新技术，对E limber kentledge的理解和应用将始终是创造韧性和稳定设计的重要方面。工程的未来在于我们利用这样的概念来建立更安全、更高效的结构，以抵御自然和时间的考验。