# Prefix Following Giga Tera Peta

Source: bing.com

When it comes to measuring data, we often hear the terms kilo, mega, giga, tera, and peta. These prefixes denote the amount of data that can be stored or transferred in a unit of time. While most of us are familiar with the first three prefixes, what comes after giga, tera, and peta?

## Giga

Source: bing.com

The prefix giga denotes a factor of one billion, or 109. It is commonly used to measure computer memory and data transfer rates. For example, a gigabyte (GB) is equivalent to one billion bytes of data, and a gigabit (Gb) refers to one billion bits per second of data transfer speed.

## Tera

Source: bing.com

Tera denotes a factor of one trillion, or 1012. It is used to measure data on a larger scale than giga. For example, a terabyte (TB) is equal to 1,000 GB of data, and a teraflop refers to one trillion floating-point operations per second, which is used to measure the performance of supercomputers.

## Peta

Source: bing.com

Peta denotes a factor of one quadrillion, or 1015. It is used to measure data on an even larger scale than tera. For example, a petabyte (PB) is equal to 1,000 TB of data, and a petaflop refers to one quadrillion floating-point operations per second.

## Exa

Source: bing.com

Exa denotes a factor of one quintillion, or 1018. It is used to measure data on a scale larger than peta. For example, an exabyte (EB) is equal to 1,000 PB of data, and an exaflop refers to one quintillion floating-point operations per second.

## Zetta

Source: bing.com

Zetta denotes a factor of one sextillion, or 1021. It is used to measure data on a scale larger than exa. For example, a zettabyte (ZB) is equal to 1,000 EB of data.

## Yotta

Source: bing.com

Yotta denotes a factor of one septillion, or 1024. It is used to measure data on a scale larger than zetta. However, currently, there are no practical applications that require yotta-scale measurements.

## Conclusion

Understanding data prefixes is essential for understanding the capacity and speed of digital devices and networks. While most of us are familiar with the first three prefixes, understanding the ones that come after them can be useful in various fields, such as data storage and supercomputing.