close coupling
简明释义
强耦合
英英释义
例句
1.In software development, close coupling(紧密耦合) can lead to difficulties in maintaining and updating code.
在软件开发中,close coupling(紧密耦合)可能导致维护和更新代码的困难。
2.The success of the project relied on the close coupling(紧密耦合) between the design and engineering teams.
项目的成功依赖于设计和工程团队之间的close coupling(紧密耦合)。
3.The close coupling(紧密耦合) of various systems ensures seamless communication.
各种系统的close coupling(紧密耦合)确保了无缝的沟通。
4.In a manufacturing process, close coupling(紧密耦合) between machines can improve efficiency.
在制造过程中,机器之间的close coupling(紧密耦合)可以提高效率。
5.The close coupling(紧密耦合) of theory and practice is essential in education.
理论与实践的close coupling(紧密耦合)在教育中至关重要。
作文
In the realm of engineering and technology, the term close coupling refers to a design principle where components are positioned very close to each other to enhance performance and efficiency. This concept is particularly relevant in various fields such as mechanical engineering, software development, and systems engineering. By minimizing the distance between interacting parts, close coupling can lead to improved response times, reduced energy loss, and greater overall effectiveness of the system.For example, in mechanical systems, close coupling can be observed in the design of gears and motors. When these components are closely aligned, they can transfer power more efficiently, thereby increasing the speed and performance of the machine. This principle is not only applicable to physical components but also extends to software architecture. In programming, close coupling often describes a scenario where modules or classes are highly dependent on one another. While this can lead to streamlined communication and functionality, it also poses risks; if one component fails, it can cause cascading failures throughout the system.On the other hand, while close coupling has its advantages, it is essential to recognize the potential downsides. Systems that are too tightly coupled may lack flexibility and adaptability. For instance, in the context of software development, tightly coupled code can make it challenging to implement changes or updates without affecting other parts of the system. This can lead to increased maintenance costs and longer development cycles.To mitigate these issues, many engineers and developers advocate for a balanced approach. They suggest implementing close coupling where it is beneficial, while also allowing for some degree of loose coupling to maintain flexibility. Loose coupling refers to a design strategy where components are more independent from one another, facilitating easier modifications and enhancements. By striking a balance between close coupling and loose coupling, systems can achieve optimal performance while remaining adaptable to future needs.In conclusion, the concept of close coupling plays a vital role in various domains, offering significant benefits in terms of efficiency and performance. However, it is crucial to understand its implications and to apply it judiciously, considering the trade-offs involved. Whether in mechanical systems or software engineering, the careful application of close coupling can lead to innovative solutions that meet the demands of modern technology. By fostering a deeper understanding of this principle, engineers and developers can create systems that not only perform well but are also resilient and adaptable in the face of change.
在工程和技术领域,术语紧密耦合指的是一种设计原则,其中组件被放置得非常接近,以提高性能和效率。这个概念在机械工程、软件开发和系统工程等多个领域尤其相关。通过最小化相互作用部件之间的距离,紧密耦合可以导致改进的响应时间、减少能量损失以及系统的整体有效性。例如,在机械系统中,紧密耦合可以在齿轮和电动机的设计中观察到。当这些组件紧密对齐时,它们可以更有效地传递动力,从而提高机器的速度和性能。这个原则不仅适用于物理组件,还扩展到软件架构。在编程中,紧密耦合通常描述模块或类之间高度依赖的情况。虽然这可以导致流畅的通信和功能,但它也带来了风险;如果一个组件失败,可能会导致整个系统的级联故障。另一方面,虽然紧密耦合有其优势,但认识到潜在的缺点也至关重要。过于紧密耦合的系统可能缺乏灵活性和适应性。例如,在软件开发的背景下,紧密耦合的代码可能使得在不影响系统其他部分的情况下实施更改或更新变得困难。这可能导致维护成本增加和开发周期延长。为了减轻这些问题,许多工程师和开发人员主张采取平衡的方法。他们建议在有利的地方实施紧密耦合,同时允许一定程度的松散耦合以保持灵活性。松散耦合指的是一种设计策略,其中组件彼此更加独立,从而便于修改和增强。通过在紧密耦合和松散耦合之间取得平衡,系统可以实现最佳性能,同时保持适应未来需求的能力。总之,紧密耦合的概念在各个领域发挥着至关重要的作用,在效率和性能方面提供了显著的好处。然而,理解其影响并明智地应用它是至关重要的,考虑到涉及的权衡。无论是在机械系统还是软件工程中,紧密耦合的谨慎应用可以导致满足现代技术需求的创新解决方案。通过加深对这一原则的理解,工程师和开发人员可以创建不仅性能良好而且在变化面前具有弹性和适应性的系统。
相关单词