over coupling=overcoupling

简明释义

过耦合

英英释义

Over coupling refers to a situation in systems or processes where components are excessively linked or interconnected, leading to inefficiencies or potential failures.

过度耦合指的是在系统或过程中的组件之间过度链接或相互连接的情况,这会导致效率低下或潜在的故障。

例句

1.During the review, it was noted that the team had created over coupling 过度耦合 between modules.

在审查过程中,注意到团队在模块之间创建了过度耦合 over coupling

2.The project manager warned against over coupling 过度耦合 different components of the system.

项目经理警告不要将系统的不同组件进行过度耦合 over coupling

3.The design of the machinery suffered from over coupling 过度耦合, leading to frequent breakdowns.

机械的设计遭受了过度耦合 over coupling,导致频繁故障。

4.Reducing over coupling 过度耦合 can enhance the flexibility of the application.

减少过度耦合 over coupling可以增强应用程序的灵活性。

5.In software development, over coupling 过度耦合 can make the codebase difficult to maintain.

在软件开发中,过度耦合 over coupling会使代码库难以维护。

作文

In the realm of engineering and systems design, the concept of over coupling=overcoupling is pivotal for understanding how different components interact within a system. Over coupling refers to a situation where components are too tightly linked or dependent on each other, which can lead to a variety of issues including reduced flexibility, increased complexity, and difficulties in maintenance. When components are over coupled, changes made to one part of the system may necessitate changes in other parts, leading to a cascading effect that can complicate updates and repairs. This is particularly problematic in software development, where modularity and separation of concerns are crucial for creating maintainable and scalable applications.The implications of over coupling=overcoupling extend beyond mere technical challenges; they also impact project management and team dynamics. For instance, when teams are organized around highly coupled components, communication becomes more difficult as developers must coordinate with multiple stakeholders whenever changes are required. This can slow down the development process and lead to frustration among team members.To mitigate the risks associated with over coupling=overcoupling, engineers and designers often strive for loose coupling. Loose coupling allows components to operate independently, reducing dependencies and making it easier to modify or replace individual parts without affecting the entire system. This principle is not only applicable in software engineering but also in hardware design, organizational structures, and even social systems. By promoting loose coupling, organizations can enhance their adaptability and resilience in the face of change.One common strategy to achieve loose coupling is through the use of interfaces or APIs (Application Programming Interfaces). By defining clear boundaries and interactions between components, developers can ensure that changes in one area do not ripple throughout the system. This approach encourages innovation and experimentation, as teams can work on different components simultaneously without fear of disrupting others.Furthermore, adopting design patterns such as the Observer pattern or the Mediator pattern can help manage interactions between components effectively. These patterns promote a level of abstraction that reduces direct dependencies, thereby decreasing the likelihood of over coupling=overcoupling. In essence, recognizing and addressing the risks of over coupling is essential for creating robust and efficient systems.In conclusion, the concept of over coupling=overcoupling serves as a critical reminder of the importance of balance in system design. While interconnections between components can enhance functionality, excessive dependency can lead to significant challenges. By striving for loose coupling and adopting best practices in design, engineers and project managers can create systems that are not only effective but also adaptable to future needs. Understanding this concept is essential for anyone involved in system design, as it lays the groundwork for sustainable and scalable solutions.

在工程和系统设计领域,过度耦合=overcoupling的概念对于理解不同组件在系统中的相互作用至关重要。过度耦合指的是组件之间的联系或依赖关系过于紧密,这可能导致多种问题,包括灵活性降低、复杂性增加以及维护困难。当组件过度耦合时,对系统某一部分所做的更改可能需要对其他部分进行更改,从而导致连锁反应,使得更新和修复变得复杂。这在软件开发中尤为突出,因为模块化和关注分离对于创建可维护和可扩展的应用程序至关重要。过度耦合=overcoupling的影响不仅限于技术挑战;它们还影响项目管理和团队动态。例如,当团队围绕高度耦合的组件组织时,沟通变得更加困难,因为开发人员在需要更改时必须与多个利益相关者协调。这可能会减慢开发进程,并导致团队成员之间的挫败感。为了减轻与过度耦合=overcoupling相关的风险,工程师和设计师通常努力实现松耦合。松耦合允许组件独立运行,减少依赖关系,使得在不影响整个系统的情况下更容易修改或替换单个部分。这个原则不仅适用于软件工程,也适用于硬件设计、组织结构甚至社会系统。通过促进松耦合,组织可以增强其适应能力和面对变化的韧性。实现松耦合的一种常见策略是使用接口或API(应用程序编程接口)。通过定义组件之间的明确边界和交互,开发人员可以确保某一领域的更改不会波及整个系统。这种方法鼓励创新和实验,因为团队可以同时在不同组件上工作,而不必担心干扰其他人。此外,采用观察者模式或中介者模式等设计模式可以有效管理组件之间的交互。这些模式促进了一种抽象层次,减少了直接依赖,从而降低了过度耦合=overcoupling的可能性。总之,认识到并解决过度耦合的风险对于创建强大且高效的系统至关重要。最后,过度耦合=overcoupling的概念提醒我们在系统设计中保持平衡的重要性。虽然组件之间的相互连接可以增强功能,但过度依赖可能导致重大挑战。通过努力实现松耦合并采用最佳设计实践,工程师和项目经理可以创建不仅有效而且适应未来需求的系统。理解这一概念对于任何参与系统设计的人来说都是必不可少的,因为它为可持续和可扩展的解决方案奠定了基础。

相关单词

over

over详解:怎么读、什么意思、用法