machine-oriented language

简明释义

面向机器语言

英英释义

例句

1.Assembly language is often considered a type of machine-oriented language 机器导向语言 because it provides a close representation of the machine's instruction set.

汇编语言通常被认为是一种机器导向语言 machine-oriented language，因为它提供了与机器指令集的紧密对应。

2.Developers often write low-level code in machine-oriented language 机器导向语言 to optimize performance.

开发者通常用机器导向语言 machine-oriented language编写低级代码以优化性能。

3.The efficiency of machine-oriented language 机器导向语言 makes it suitable for systems programming.

由于机器导向语言 machine-oriented language的高效性，它适合用于系统编程。

4.When learning about computer architecture, understanding machine-oriented language 机器导向语言 is essential.

在学习计算机架构时，理解机器导向语言 machine-oriented language是非常重要的。

5.Debugging a program written in machine-oriented language 机器导向语言 can be more challenging than in high-level languages.

调试用机器导向语言 machine-oriented language编写的程序可能比高级语言更具挑战性。

作文

In the realm of computer science, programming languages play a crucial role in bridging the gap between human logic and machine execution. One of the fundamental categories of these languages is known as machine-oriented language, which refers to programming languages that are closely aligned with the architecture of a specific computer or processor. These languages are designed to enable direct communication with the hardware, allowing programmers to write instructions that the machine can execute efficiently. Understanding machine-oriented language is essential for anyone looking to delve deeper into the mechanics of computing and software development.The primary characteristic of machine-oriented language is its low-level nature. Unlike high-level programming languages, which abstract away the complexities of the hardware, machine-oriented language provides a more granular control over system resources. This means that developers can manipulate memory addresses, manage registers, and perform operations that are directly tied to the physical components of the computer. As a result, programs written in machine-oriented language tend to run faster and more efficiently, making them ideal for performance-critical applications such as operating systems, device drivers, and embedded systems.Historically, machine-oriented language was synonymous with assembly language, which is a human-readable representation of the binary code understood by the processor. Each instruction in assembly language corresponds directly to a specific operation in machine code, allowing programmers to write code that translates almost one-to-one into machine instructions. This close relationship between machine-oriented language and hardware makes it an invaluable tool for systems programming and optimization.However, working with machine-oriented language comes with its own set of challenges. The complexity and intricacy of low-level programming can be daunting for many developers, particularly those who are accustomed to the simplicity and ease of use offered by high-level languages like Python or Java. Writing in machine-oriented language requires a deep understanding of the underlying hardware architecture, including memory management, CPU instruction sets, and data representation. As a result, it often demands more time and effort to develop and maintain software compared to higher-level counterparts.Despite these challenges, the importance of machine-oriented language cannot be overstated. In an era where performance and efficiency are paramount, many applications still rely on the precision and control provided by low-level programming. For instance, game engines, real-time systems, and applications that require direct hardware access often utilize machine-oriented language to achieve optimal performance. Furthermore, the knowledge of low-level programming concepts enhances a developer's overall skill set, allowing them to better understand how high-level languages operate under the hood.In conclusion, machine-oriented language serves as a foundational aspect of computer programming that enables developers to harness the full potential of hardware. While it may pose challenges in terms of complexity and learning curve, the benefits of mastering machine-oriented language are significant, especially for those interested in systems programming and performance optimization. As technology continues to evolve, the relevance of machine-oriented language remains steadfast, reminding us of the intricate relationship between software and hardware in the world of computing.

在计算机科学领域，编程语言在弥合人类逻辑与机器执行之间的差距中发挥着至关重要的作用。这些语言的基本类别之一被称为面向机器的语言，指的是与特定计算机或处理器的架构紧密对齐的编程语言。这些语言旨在使程序员能够直接与硬件通信，从而编写机器可以高效执行的指令。理解面向机器的语言对于任何希望深入了解计算机和软件开发机制的人来说都是至关重要的。面向机器的语言的主要特征是其低级性质。与抽象掉硬件复杂性的高级编程语言不同，面向机器的语言提供了对系统资源的更细粒度控制。这意味着开发人员可以操作内存地址、管理寄存器，并执行与计算机物理组件直接相关的操作。因此，用面向机器的语言编写的程序往往运行得更快、更高效，使其成为操作系统、设备驱动程序和嵌入式系统等性能关键应用的理想选择。历史上，面向机器的语言与汇编语言同义，汇编语言是机器代码的可读表示。汇编语言中的每条指令与处理器理解的特定操作直接对应，使程序员能够编写几乎逐一转换为机器指令的代码。面向机器的语言与硬件之间的这种紧密关系使其成为系统编程和优化的宝贵工具。然而，使用面向机器的语言也带来了自己的挑战。低级编程的复杂性和精细性对许多开发人员来说可能是令人生畏的，特别是那些习惯于使用Python或Java等高级语言的开发人员。用面向机器的语言编写代码需要对底层硬件架构有深刻的理解，包括内存管理、CPU指令集和数据表示。因此，与高级语言相比，开发和维护软件通常需要更多的时间和精力。尽管存在这些挑战，面向机器的语言的重要性不容小觑。在性能和效率至关重要的时代，许多应用程序仍然依赖于低级编程提供的精确性和控制。例如，游戏引擎、实时系统和需要直接硬件访问的应用程序通常利用面向机器的语言来实现最佳性能。此外，掌握低级编程概念的知识增强了开发人员的整体技能，使他们能够更好地理解高级语言在幕后如何运作。总之，面向机器的语言作为计算机编程的基础方面，使开发人员能够充分利用硬件的潜力。尽管在复杂性和学习曲线方面可能会带来挑战，但掌握面向机器的语言的好处是显著的，特别是对于那些对系统编程和性能优化感兴趣的人。随着技术的不断发展，面向机器的语言的相关性依然坚定，提醒我们在计算机世界中软件与硬件之间的复杂关系。