buffered input/output channel

简明释义

缓冲胔入胔出通道;

英英释义

A buffered input/output channel is a communication pathway that temporarily stores data being transferred between a source and a destination to improve efficiency and manage differences in processing speed.

缓冲输入/输出通道是一种通信通道,临时存储在源和目的地之间传输的数据,以提高效率并管理处理速度的差异。

例句

1.The buffered input/output channel allows for smoother data transfer between devices.

这个缓冲输入/输出通道允许设备之间更顺畅的数据传输。

2.When working with large files, using a buffered input/output channel can significantly improve performance.

在处理大文件时,使用缓冲输入/输出通道可以显著提高性能。

3.Using a buffered input/output channel helps reduce the number of read/write operations.

使用缓冲输入/输出通道有助于减少读写操作的次数。

4.The buffered input/output channel is essential for applications that require high throughput.

对于需要高吞吐量的应用程序来说,缓冲输入/输出通道是必不可少的。

5.In Java, you can create a buffered input/output channel to handle streams efficiently.

在Java中,你可以创建一个缓冲输入/输出通道来高效处理流。

作文

In the realm of computer science and programming, the concept of a buffered input/output channel plays a crucial role in enhancing the efficiency of data processing. When we think about how computers handle data, it is essential to understand the difference between buffered and unbuffered input/output operations. A buffered input/output channel essentially acts as a temporary storage area that holds data before it is processed or sent to its final destination. This mechanism allows for smoother and faster data transfer, which is particularly important in scenarios where large volumes of data are being handled.For instance, consider the process of reading a file from a disk. If the system were to read each byte of data one at a time, it would be incredibly slow and inefficient. Instead, by using a buffered input/output channel, the system can read chunks of data into a buffer. This means that the program can continue executing while the data is being loaded into memory, thereby improving overall performance. Once the buffer is filled, the program can then process the data in larger blocks rather than byte by byte.Moreover, the use of a buffered input/output channel is not limited to just reading data; it also applies to writing data. When a program writes data to a file, instead of sending each piece of data immediately, it can store the data in a buffer first. Once the buffer reaches a certain size or the program signals that it is done writing, the entire buffer can be flushed to the disk in one go. This reduces the number of write operations and significantly speeds up the process.The advantages of using a buffered input/output channel extend beyond mere speed. It also helps in managing resources more effectively. For example, when dealing with network communications, buffering can help in smoothing out the differences in data transmission rates between sender and receiver. If the sender transmits data faster than the receiver can process it, the buffer will temporarily hold the excess data until the receiver is ready to handle it. This prevents data loss and ensures a more stable communication channel.However, it is important to note that while buffering improves performance, it also introduces complexity. Developers must manage the buffer's size and ensure that it does not overflow, which could lead to data loss or corruption. Additionally, there may be scenarios where immediate data processing is required, making the use of a buffered input/output channel less appropriate. In such cases, unbuffered I/O operations may be preferred despite their slower performance.In conclusion, the buffered input/output channel is an indispensable concept in modern computing that enhances data handling efficiency. By allowing data to be temporarily stored before processing, it enables programs to run faster and more smoothly. Understanding how to implement and manage buffered I/O operations is essential for any programmer aiming to optimize their applications. As technology continues to evolve, the principles behind buffering will remain fundamental in ensuring effective data management and processing.

在计算机科学和编程领域,缓冲输入/输出通道的概念在提高数据处理效率方面发挥着至关重要的作用。当我们思考计算机如何处理数据时,理解缓冲和非缓冲输入/输出操作之间的区别是必不可少的。缓冲输入/输出通道本质上充当一个临时存储区,在数据被处理或发送到最终目的地之前保存数据。这种机制允许更顺畅、更快速的数据传输,这在处理大量数据的场景中尤为重要。例如,考虑从磁盘读取文件的过程。如果系统一次只读取一个字节的数据,它将变得极其缓慢和低效。相反,通过使用缓冲输入/输出通道,系统可以将数据块读取到缓冲区。这意味着程序可以在数据加载到内存时继续执行,从而提高整体性能。一旦缓冲区填满,程序就可以以较大的块处理数据,而不是逐字节处理。此外,使用缓冲输入/输出通道不仅限于读取数据;它也适用于写入数据。当程序向文件写入数据时,它可以先将数据存储在缓冲区中,而不是立即发送每一条数据。一旦缓冲区达到一定大小或程序发出信号表示完成写入,整个缓冲区就可以一次性刷新到磁盘。这减少了写操作的次数,并显著加快了处理速度。使用缓冲输入/输出通道的好处不仅限于速度。它还有助于更有效地管理资源。例如,在处理网络通信时,缓冲可以帮助平衡发送方和接收方之间的数据传输速率。如果发送方以比接收方处理的速度更快地传输数据,缓冲区将暂时保存多余的数据,直到接收方准备好处理。这可以防止数据丢失,并确保更稳定的通信通道。然而,重要的是要注意,尽管缓冲提高了性能,但它也引入了复杂性。开发人员必须管理缓冲区的大小,并确保它不会溢出,这可能导致数据丢失或损坏。此外,可能会出现需要立即处理数据的情况,这使得使用缓冲输入/输出通道不太合适。在这种情况下,尽管性能较慢,非缓冲I/O操作可能更为合适。总之,缓冲输入/输出通道是现代计算中不可或缺的概念,它提高了数据处理效率。通过允许数据在处理之前暂时存储,它使程序能够更快、更顺畅地运行。理解如何实现和管理缓冲I/O操作对于任何希望优化其应用程序的程序员来说都是至关重要的。随着技术的不断发展,缓冲背后的原则仍将是确保有效数据管理和处理的基础。

相关单词

buffered

buffered详解:怎么读、什么意思、用法