loose coupling

简明释义

1. 弱耦合; 2. 疏耦合; 3. 松联轴节; 4. 松偶合; 5. 松耦合;

英英释义

例句

1.A well-designed API can provide loose coupling (松耦合) between the frontend and backend systems.

一个设计良好的API可以为前端和后端系统提供松耦合（松耦合）。

2.Implementing event-driven architecture facilitates loose coupling (松耦合) among components.

实施事件驱动架构促进了组件之间的松耦合（松耦合）。

3.Using interfaces allows for loose coupling (松耦合) in object-oriented programming.

使用接口可以实现面向对象编程中的松耦合（松耦合）。

4.By utilizing dependency injection, we achieve loose coupling (松耦合) in our applications.

通过使用依赖注入，我们在应用程序中实现了松耦合（松耦合）。

5.In microservices architecture, we aim for loose coupling (松耦合) between services to enhance scalability.

在微服务架构中，我们追求服务之间的松耦合（松耦合）以增强可扩展性。

作文

In the realm of software architecture and design, the concept of loose coupling plays a crucial role in creating flexible and maintainable systems. At its core, loose coupling refers to a design principle that minimizes the dependencies between components or modules within a system. This means that changes made to one component have little to no impact on others, allowing for easier updates, testing, and scalability.When we think about traditional software systems, they often exhibit tight coupling, where components are heavily interdependent. In such systems, a change in one module necessitates changes in others, leading to a domino effect that complicates maintenance and increases the risk of introducing bugs. For instance, if a developer needs to modify a function in a tightly coupled system, they must ensure that all other related functions are also updated accordingly, which can be time-consuming and error-prone.On the other hand, systems designed with loose coupling allow developers to work on individual components independently. This independence is achieved through well-defined interfaces and communication protocols. For example, in a microservices architecture, each service operates as a separate entity, communicating with others via APIs. This setup exemplifies loose coupling because services can be modified, replaced, or scaled without affecting the entire system. If one service encounters an issue, it can be isolated and fixed without bringing down the whole application.The benefits of loose coupling extend beyond just ease of maintenance. It also enhances the system's adaptability to change. In today's fast-paced technological landscape, businesses need to pivot quickly to meet new demands. Systems that embrace loose coupling can integrate new features or technologies with minimal disruption. For example, if a company decides to adopt a new payment processing system, a loosely coupled architecture allows developers to implement this change in one part of the system without requiring extensive rewrites elsewhere.Furthermore, loose coupling promotes better collaboration among development teams. In larger organizations, different teams may be responsible for different components of a system. With loose coupling, these teams can work on their respective modules simultaneously without stepping on each other's toes. This parallel development not only speeds up the overall project timeline but also fosters innovation as teams can experiment with new ideas independently.However, achieving loose coupling does come with its challenges. It requires careful planning and design, as well as a strong understanding of the interactions between components. Developers must strike a balance between independence and cohesion, ensuring that while components are loosely coupled, they still function effectively together as a whole.In conclusion, the principle of loose coupling is essential for modern software development. It enables flexibility, enhances maintainability, and supports rapid adaptation to changing requirements. As technology continues to evolve, embracing loose coupling will be vital for organizations aiming to stay competitive and responsive in the marketplace. By prioritizing this design principle, developers can create systems that are not only robust but also capable of evolving in tandem with the ever-changing technological landscape.

在软件架构和设计领域，松耦合的概念在创建灵活和可维护的系统中发挥着至关重要的作用。松耦合的核心是指一种设计原则，旨在最小化系统中组件或模块之间的依赖关系。这意味着对一个组件所做的更改对其他组件几乎没有影响，从而使更新、测试和扩展变得更加容易。当我们考虑传统的软件系统时，它们通常表现出紧耦合的特征，其中组件之间高度相互依赖。在这样的系统中，对一个模块的更改需要对其他模块进行更改，导致多米诺效应，这使得维护变得复杂，并增加了引入错误的风险。例如，如果开发人员需要修改紧耦合系统中的一个函数，他们必须确保所有相关的函数也相应更新，这可能既耗时又容易出错。另一方面，采用松耦合设计的系统允许开发人员独立地处理各个组件。这种独立性通过明确定义的接口和通信协议实现。例如，在微服务架构中，每个服务作为一个独立的实体运作，通过API与其他服务进行通信。这种设置充分体现了松耦合的特点，因为服务可以在不影响整个系统的情况下进行修改、替换或扩展。如果一个服务遇到问题，可以将其隔离并修复，而不会导致整个应用程序崩溃。松耦合的好处不仅限于维护的便利性。它还增强了系统对变化的适应能力。在当今快速发展的技术环境中，企业需要快速调整以满足新的需求。采用松耦合的系统可以在最小干扰的情况下集成新功能或技术。例如，如果一家公司决定采用新的支付处理系统，松耦合架构允许开发人员在系统的一个部分实现这一更改，而无需在其他地方进行大量重写。此外，松耦合还促进了开发团队之间更好的协作。在较大的组织中，不同的团队可能负责系统的不同组件。通过松耦合，这些团队可以同时独立工作，而不必相互干扰。这种并行开发不仅加快了整体项目进度，还促进了创新，因为团队可以独立尝试新想法。然而，实现松耦合也面临一些挑战。它需要仔细的规划和设计，以及对组件之间交互的深入理解。开发人员必须在独立性和内聚性之间找到平衡，确保虽然组件是松散耦合的，但它们仍然能够有效地作为一个整体运作。总之，松耦合原则对于现代软件开发至关重要。它使灵活性成为可能，增强了可维护性，并支持快速适应不断变化的需求。随着技术的不断发展，拥抱松耦合将是希望在市场上保持竞争力和响应能力的组织的关键。通过优先考虑这一设计原则，开发人员可以创建不仅稳健而且能够与不断变化的技术环境共同发展的系统。