inputoutput register

简明释义

输入—输出寄存器

英英释义

An input-output register is a type of storage location in a computer or microcontroller that temporarily holds data being transferred between the CPU and peripheral devices.

输入输出寄存器是计算机或微控制器中的一种存储位置,临时保存在CPU与外部设备之间传输的数据。

例句

1.You can manipulate the inputoutput register directly to control the LED lights.

您可以直接操作输入输出寄存器来控制LED灯。

2.The microcontroller uses the inputoutput register to read sensor data.

微控制器使用输入输出寄存器来读取传感器数据。

3.To send a signal, you need to write to the inputoutput register first.

要发送信号,您需要首先写入输入输出寄存器

4.In embedded systems, the inputoutput register is crucial for real-time data processing.

在嵌入式系统中,输入输出寄存器对于实时数据处理至关重要。

5.The inputoutput register allows for bidirectional communication between the CPU and peripherals.

输入输出寄存器允许CPU与外设之间进行双向通信。

作文

In the world of computer architecture and digital systems, understanding the role of various components is crucial for both hardware designers and software developers. One such important component is the inputoutput register, which plays a vital role in facilitating communication between the CPU and peripheral devices. The inputoutput register can be defined as a storage location within the computer that temporarily holds data being transferred to or from an input or output device. This register acts as a buffer, ensuring that data is properly managed during the transfer process.To better appreciate the significance of the inputoutput register, it is essential to explore its functions and how it interacts with other components of the computer system. When a user inputs data through a keyboard or mouse, this information is sent to the CPU for processing. However, before the CPU can access this data, it must first pass through the inputoutput register. This register holds the incoming data until the CPU is ready to process it, preventing data loss or corruption.Similarly, when the CPU needs to send data to an output device, such as a printer or monitor, it again utilizes the inputoutput register. The CPU places the data into the register, and from there, it is transmitted to the output device. This two-way communication facilitated by the inputoutput register is critical for the overall functionality of the computer system.Another aspect to consider is the efficiency of data transfer. The use of the inputoutput register helps streamline the process, allowing the CPU to work on other tasks while waiting for data to be read from or written to the register. This multitasking capability enhances the performance of the computer, making it more responsive to user inputs and commands.In addition to its buffering capabilities, the inputoutput register also plays a role in managing control signals. These signals are essential for coordinating the timing of data transfers between the CPU and peripheral devices. For instance, when a device is ready to send data, it will signal the CPU, which then uses the inputoutput register to prepare for the incoming data. This synchronization ensures that the data transfer occurs smoothly and efficiently.Furthermore, the design of the inputoutput register can vary depending on the specific architecture of the computer system. Some systems may implement multiple registers to handle different types of input and output operations simultaneously, while others may utilize a single register for all tasks. Regardless of the design, the fundamental purpose of the inputoutput register remains the same: to facilitate communication between the CPU and external devices.In conclusion, the inputoutput register is a critical component in computer architecture that enables efficient data transfer between the CPU and peripheral devices. Its role as a temporary storage location for incoming and outgoing data, along with its function in managing control signals, underscores its importance in maintaining the overall performance of the computer system. Understanding the workings of the inputoutput register not only benefits hardware designers but also enhances the knowledge of software developers, leading to more optimized applications and improved user experiences.

在计算机架构和数字系统的世界中,理解各种组件的角色对硬件设计师和软件开发人员来说至关重要。其中一个重要组件是输入输出寄存器,它在促进CPU与外部设备之间的通信方面发挥着重要作用。输入输出寄存器可以定义为计算机内部的一个存储位置,暂时保存正在传输到或从输入或输出设备的数据。这个寄存器充当缓冲区,确保在传输过程中数据得到妥善管理。为了更好地理解输入输出寄存器的重要性,有必要探讨它的功能以及它如何与计算机系统的其他组件互动。当用户通过键盘或鼠标输入数据时,这些信息会被发送到CPU进行处理。然而,在CPU能够访问这些数据之前,它必须首先通过输入输出寄存器。这个寄存器保存传入的数据,直到CPU准备好进行处理,从而防止数据丢失或损坏。同样,当CPU需要将数据发送到输出设备(如打印机或显示器)时,它再次利用输入输出寄存器。CPU将数据放入寄存器,然后从那里将其传输到输出设备。这种由输入输出寄存器促进的双向通信对于计算机系统的整体功能至关重要。另一个需要考虑的方面是数据传输的效率。使用输入输出寄存器有助于简化过程,使CPU能够在等待从寄存器读取或写入数据时处理其他任务。这种多任务处理能力提升了计算机的性能,使其对用户输入和命令更加响应。除了缓冲能力之外,输入输出寄存器还在管理控制信号方面发挥作用。这些信号对于协调CPU与外部设备之间的数据传输时序至关重要。例如,当设备准备好发送数据时,它会向CPU发出信号,CPU随后利用输入输出寄存器为即将到来的数据做好准备。这种同步确保数据传输顺利高效地进行。此外,输入输出寄存器的设计可能因计算机系统的具体架构而异。一些系统可能实现多个寄存器,以同时处理不同类型的输入和输出操作,而其他系统可能仅使用一个寄存器来处理所有任务。无论设计如何,输入输出寄存器的基本目的始终相同:促进CPU与外部设备之间的通信。总之,输入输出寄存器是计算机架构中的一个关键组件,使CPU与外部设备之间能够高效地传输数据。它作为进出数据的临时存储位置的角色,以及在管理控制信号方面的功能,强调了它在维持计算机系统整体性能中的重要性。理解输入输出寄存器的工作原理不仅有利于硬件设计师,也增强了软件开发人员的知识,从而导致更优化的应用程序和改善的用户体验。