reducing coupling

简明释义

异径联结器

英英释义

例句

1.Implementing interfaces is a great way of reducing coupling between different classes in object-oriented programming. 减少耦合

在面向对象编程中，实现接口是减少耦合不同类之间耦合的好方法。减少耦合

2.One of the key principles in software design is reducing coupling, which means 减少耦合 between modules to improve maintainability.

软件设计中的一个关键原则是减少耦合，这意味着减少模块之间的耦合以提高可维护性。

3.The team focused on reducing coupling during the refactoring process to enhance code readability and reusability. 减少耦合

团队在重构过程中专注于减少耦合，以增强代码的可读性和可重用性。减少耦合

4.In microservices architecture, reducing coupling allows services to operate independently, leading to faster deployment cycles. 减少耦合

在微服务架构中，减少耦合使服务能够独立运行，从而导致更快的部署周期。减少耦合

5.By reducing coupling in our system architecture, we can ensure that changes in one component do not affect others, which is essential for scalability. 减少耦合

通过在我们的系统架构中减少耦合，我们可以确保一个组件的更改不会影响其他组件，这对于可扩展性至关重要。减少耦合

作文

In the field of software engineering, one of the key principles that developers strive to achieve is the concept of modularity. Modularity allows for a system to be broken down into smaller, manageable components that can be developed and maintained independently. A crucial aspect of achieving modularity is by reducing coupling, which refers to minimizing the dependencies between these components. When components are loosely coupled, it becomes easier to modify, test, and reuse them without affecting other parts of the system. This not only enhances the maintainability of the software but also increases its scalability. Reducing coupling can be approached in various ways. One effective method is through the use of interfaces. By defining clear interfaces for components, developers can ensure that each component communicates with others in a well-defined manner. This means that changes made to one component will have minimal impact on others, thus reducing coupling significantly. For example, if a data processing module needs to be updated, as long as it adheres to the established interface, the other modules that rely on it will remain unaffected.Another strategy for reducing coupling is the implementation of design patterns, such as the Observer or Strategy patterns. These patterns promote loose coupling by allowing objects to interact without needing to know the specifics of each other's implementations. For instance, in an Observer pattern, a subject maintains a list of observers that are notified of any changes, without the observers needing to be tightly integrated with the subject. This dynamic relationship fosters flexibility and adaptability within the system.Moreover, applying the principle of Dependency Injection can also aid in reducing coupling. This technique involves providing a component with its dependencies from an external source rather than having the component create them itself. By doing so, the component becomes less reliant on specific implementations and can work with any suitable alternative. This not only promotes reusability but also facilitates testing, as mocks or stubs can easily replace real dependencies during unit tests.Furthermore, reducing coupling contributes to the overall quality of the software. When components are tightly coupled, a change in one part of the system can lead to a ripple effect, causing unexpected issues in other areas. This can result in increased debugging time and reduced confidence in the stability of the application. Conversely, when coupling is minimized, the system becomes more robust, as developers can make changes with greater assurance that they will not inadvertently disrupt other functionalities.In conclusion, reducing coupling is a fundamental practice in software development that leads to improved modularity, maintainability, and scalability of systems. By employing techniques such as interfaces, design patterns, and Dependency Injection, developers can create applications that are not only easier to manage but also more resilient to change. As technology continues to evolve, the importance of reducing coupling will only grow, making it an essential consideration for any software engineer aiming to deliver high-quality solutions.

在软件工程领域，开发人员努力实现的关键原则之一是模块化的概念。模块化允许将系统分解为较小、可管理的组件，这些组件可以独立开发和维护。实现模块化的一个重要方面是通过减少耦合，即最小化这些组件之间的依赖关系。当组件之间的耦合较松时，修改、测试和重用它们变得更加容易，而不会影响系统的其他部分。这不仅增强了软件的可维护性，还提高了其可扩展性。减少耦合可以通过多种方式来实现。一种有效的方法是使用接口。通过为组件定义清晰的接口，开发人员可以确保每个组件以明确的方式与其他组件进行通信。这意味着对一个组件所做的更改将对其他组件产生最小影响，从而显著地减少耦合。例如，如果数据处理模块需要更新，只要它遵循已建立的接口，依赖于它的其他模块将保持不受影响。另一种减少耦合的策略是实施设计模式，例如观察者模式或策略模式。这些模式通过允许对象相互作用而不需要了解彼此的具体实现来促进松散耦合。例如，在观察者模式中，主题维护一个观察者列表，观察者在任何变化时会收到通知，而观察者不需要与主题紧密集成。这种动态关系促进了系统的灵活性和适应性。此外，应用依赖注入原则也有助于减少耦合。这种技术涉及从外部源提供组件的依赖项，而不是让组件自己创建它们。通过这样做，组件对特定实现的依赖性降低，可以与任何合适的替代品一起工作。这不仅促进了重用，还便于测试，因为在单元测试期间，可以轻松用模拟或存根替换真实的依赖项。此外，减少耦合有助于提高软件的整体质量。当组件紧密耦合时，系统中一个部分的更改可能导致涟漪效应，造成其他区域出现意想不到的问题。这可能导致调试时间增加，并降低对应用程序稳定性的信心。相反，当耦合最小化时，系统变得更加健壮，因为开发人员可以更有把握地进行更改，而不会无意中破坏其他功能。总之，减少耦合是软件开发中的一项基本实践，它提高了系统的模块化、可维护性和可扩展性。通过采用接口、设计模式和依赖注入等技术，开发人员可以创建更易于管理且更能抵御变化的应用程序。随着技术的不断发展，减少耦合的重要性只会增加，使其成为任何旨在交付高质量解决方案的软件工程师必须考虑的因素。