all-welded structure

简明释义

全焊接结构

英英释义

例句

1.In the construction of the tank, we opted for an all-welded structure to prevent leaks.

在水箱的建设中，我们选择了全焊接结构以防止泄漏。

2.The new bridge was designed with an all-welded structure to enhance its durability.

新桥的设计采用了全焊接结构以增强其耐久性。

3.Engineers prefer an all-welded structure for industrial equipment due to its resistance to fatigue.

工程师更喜欢工业设备采用全焊接结构，因为它对疲劳的抵抗力更强。

4.The all-welded structure of the ship provides greater strength and stability in rough waters.

船只的全焊接结构在恶劣水域中提供更大的强度和稳定性。

5.The use of an all-welded structure in the framework ensures a seamless finish.

框架中使用全焊接结构确保了无缝的外观。

作文

The concept of an all-welded structure has become increasingly significant in modern engineering and construction. This term refers to a type of structural design where all components are joined together using welding techniques, eliminating the need for bolts or rivets. The advantages of employing an all-welded structure are manifold, including enhanced strength, reduced weight, and improved durability. In this essay, we will explore the benefits, applications, and considerations related to all-welded structures in various fields.One of the primary benefits of an all-welded structure is its superior strength. When components are welded together, they form a continuous joint that can withstand higher loads compared to bolted connections. This characteristic is particularly important in applications such as bridges, cranes, and high-rise buildings, where structural integrity is paramount. Furthermore, welded joints are less susceptible to fatigue and failure over time, making all-welded structures a reliable choice for long-term use.Another advantage of all-welded structures is their reduced weight. By eliminating the need for additional fasteners, engineers can design lighter structures without compromising safety. This reduction in weight can lead to lower material costs and easier transportation and installation. For instance, in the aerospace industry, where every gram counts, the use of all-welded structures allows for the creation of lightweight aircraft frames that improve fuel efficiency.In addition to strength and weight considerations, all-welded structures also offer improved durability. Welding creates a seamless bond between materials, which minimizes the risk of corrosion and wear over time. This is especially beneficial in environments exposed to harsh conditions, such as marine or chemical industries. Structures designed with an all-welded structure approach require less maintenance and have a longer lifespan, ultimately leading to cost savings for companies.However, despite the numerous advantages, there are certain challenges associated with all-welded structures. One significant concern is the quality of the welds. Poorly executed welds can lead to catastrophic failures, making it crucial for engineers to ensure high standards of workmanship and quality control during the fabrication process. Additionally, the heat generated during welding can cause distortion in the materials, which may require further adjustments and precision in design.The applications of all-welded structures are vast and varied. In the construction industry, they are commonly used in the fabrication of steel frames for buildings and bridges. In the automotive sector, manufacturers often utilize all-welded structures for chassis and body components to enhance performance and safety. Moreover, in the field of manufacturing, equipment such as tanks, pressure vessels, and pipelines frequently employ this structural design to ensure reliability and efficiency.In conclusion, the use of all-welded structures presents numerous benefits, including enhanced strength, reduced weight, and improved durability. While there are challenges to be addressed, the advantages often outweigh the drawbacks, making all-welded structures a popular choice in various industries. As technology continues to advance, we can expect to see even more innovative applications of this structural design, further solidifying its importance in modern engineering and construction.

“全焊接结构”的概念在现代工程和建筑中变得越来越重要。这个术语指的是一种结构设计，其中所有组件都通过焊接技术连接在一起，消除了螺栓或铆钉的需要。采用“全焊接结构”的优势是多方面的，包括增强的强度、减轻的重量和改善的耐用性。在这篇文章中，我们将探讨与各个领域的“全焊接结构”相关的好处、应用和考虑因素。“全焊接结构”的主要好处之一是其优越的强度。当组件焊接在一起时，它们形成了一个连续的接头，可以承受比螺栓连接更高的负载。这一特性在桥梁、起重机和高层建筑等应用中尤为重要，因为结构完整性至关重要。此外，焊接接头不易受到疲劳和故障的影响，使得“全焊接结构”成为长期使用的可靠选择。“全焊接结构”的另一个优势是其减轻的重量。通过消除对额外紧固件的需求，工程师可以设计出更轻的结构，而不会妥协安全性。这种重量的减少可以导致材料成本降低，以及更容易的运输和安装。例如，在航空航天工业中，每克都至关重要，使用“全焊接结构”可以制造出轻量化的飞机框架，从而提高燃油效率。除了强度和重量的考虑外，“全焊接结构”还提供了改善的耐用性。焊接在材料之间形成无缝的结合，这在很大程度上减少了腐蚀和磨损的风险。这在暴露于恶劣环境的行业（例如海洋或化学工业）中特别有益。采用“全焊接结构”设计的结构需要更少的维护，并且使用寿命更长，最终为公司节省了成本。然而，尽管有许多优点，与“全焊接结构”相关的某些挑战仍然存在。其中一个主要问题是焊接质量。焊接不良可能导致灾难性故障，因此工程师必须确保在制造过程中保持高标准的工艺和质量控制。此外，焊接过程中产生的热量可能导致材料变形，这可能需要进一步的调整和设计精度。“全焊接结构”的应用非常广泛。在建筑行业，它们通常用于建筑物和桥梁的钢框架制造。在汽车行业，制造商经常利用“全焊接结构”来增强底盘和车身部件的性能和安全性。此外，在制造领域，罐、压力容器和管道等设备通常采用这种结构设计以确保可靠性和效率。总之，使用“全焊接结构”带来了许多好处，包括增强的强度、减轻的重量和改善的耐用性。尽管存在需要解决的挑战，但这些优势往往超过缺点，使“全焊接结构”成为各个行业的热门选择。随着技术的不断进步，我们可以期待看到这种结构设计的更多创新应用，进一步巩固其在现代工程和建筑中的重要性。