limit of wear

简明释义

磨损限度

英英释义

The maximum amount of wear that a material or component can endure before it is considered unusable or requires replacement.

材料或组件在被认为不可用或需要更换之前可以承受的最大磨损量。

例句

1.Every part has a specific limit of wear that must be monitored during operation.

每个部件都有一个特定的磨损极限,在操作过程中必须进行监控。

2.Before using the machinery, check the limit of wear to avoid any operational failures.

在使用机器之前,请检查磨损极限以避免任何操作故障。

3.The manufacturer states that the limit of wear is crucial for maintaining the safety of the equipment.

制造商表示,磨损极限对保持设备的安全至关重要。

4.The technician explained that exceeding the limit of wear can lead to expensive repairs.

技术人员解释说,超过磨损极限可能会导致昂贵的维修费用。

5.Regular maintenance helps identify when the limit of wear has been reached.

定期维护有助于识别何时达到了磨损极限

作文

In the world of engineering and manufacturing, understanding the concept of limit of wear is crucial for ensuring the longevity and reliability of machinery. The limit of wear refers to the maximum amount of material that can be worn away from a component before it becomes ineffective or unsafe for use. This concept is particularly important in industries where equipment is subjected to constant friction, pressure, and various forms of stress. For instance, in automotive engineering, the limit of wear on brake pads determines when they need to be replaced to ensure the safety of the vehicle and its passengers.When designing components, engineers must take into account the expected lifespan and performance requirements of the part. By identifying the limit of wear, they can establish maintenance schedules and replacement intervals that help prevent catastrophic failures. For example, if a gear in a machine has a limit of wear of 2 millimeters, regular inspections can be scheduled to measure the wear and tear on the gear. If the wear reaches 1.5 millimeters, the maintenance team can plan for a replacement before reaching the critical limit.Moreover, the limit of wear is not a static number; it can change based on operating conditions. Factors such as temperature, humidity, and the type of materials in contact can all influence how quickly a component will reach its limit of wear. Therefore, it is essential for engineers to conduct thorough testing under various conditions to accurately determine these limits. This testing often involves simulating real-world scenarios to observe how materials behave over time.In addition to mechanical applications, the limit of wear also has implications in other fields, such as construction and consumer goods. For instance, in the construction industry, understanding the limit of wear on tools and machinery can help companies avoid costly downtime and ensure projects are completed on schedule. Similarly, in consumer products, manufacturers must consider the limit of wear of items like electronics and appliances to provide warranties and customer satisfaction.Education about the limit of wear is essential for future engineers and technicians. By instilling a deep understanding of wear limits in engineering curricula, institutions can prepare students to tackle real-world problems effectively. This knowledge not only enhances their technical skills but also promotes a culture of safety and reliability in engineering practices.In conclusion, the limit of wear is a fundamental concept that plays a vital role in the design, maintenance, and efficiency of various systems across multiple industries. By understanding and applying this concept, engineers can create safer, more reliable products that stand the test of time. As technology continues to evolve, the importance of recognizing and respecting the limit of wear will only grow, making it an indispensable part of modern engineering practices.

在工程和制造的世界中,理解“磨损极限”的概念对于确保机械的耐久性和可靠性至关重要。“磨损极限”指的是一个部件可以磨损掉的最大材料量,超过这个量后,它将变得无效或不安全。这个概念在设备经受持续摩擦、压力和各种形式应力的行业中特别重要。例如,在汽车工程中,刹车片的“磨损极限”决定了何时需要更换,以确保车辆及其乘客的安全。在设计部件时,工程师必须考虑部件的预期使用寿命和性能要求。通过识别“磨损极限”,他们可以建立维护计划和更换间隔,帮助防止灾难性故障。例如,如果机器中的齿轮的“磨损极限”为2毫米,则可以定期安排检查以测量齿轮的磨损情况。如果磨损达到1.5毫米,维护团队可以在达到临界极限之前规划更换。此外,“磨损极限”并不是一个静态的数字;它可能会根据操作条件而变化。温度、湿度和接触材料的类型等因素都可以影响组件达到“磨损极限”的速度。因此,工程师进行全面的测试以准确确定这些极限是至关重要的。这些测试通常涉及模拟现实场景,以观察材料随时间的表现。除了机械应用外,“磨损极限”在其他领域也有影响,例如建筑和消费品。例如,在建筑行业,了解工具和机械的“磨损极限”可以帮助公司避免昂贵的停工,并确保项目按时完成。同样,在消费产品中,制造商必须考虑电子产品和家电的“磨损极限”,以提供保修和客户满意度。关于“磨损极限”的教育对于未来的工程师和技术人员至关重要。通过在工程课程中灌输对磨损极限的深刻理解,院校可以为学生有效解决现实问题做好准备。这种知识不仅增强了他们的技术技能,还促进了工程实践中的安全和可靠文化。总之,“磨损极限”是一个基本概念,在多个行业的设计、维护和效率中发挥着重要作用。通过理解和应用这一概念,工程师可以创造出更安全、更可靠的产品,经得起时间的考验。随着技术的不断发展,认识和尊重“磨损极限”的重要性只会增加,使其成为现代工程实践中不可或缺的一部分。