Bytes (B) | Terabits (Tb) |
---|---|
0 | 0 |
1 | 8e-12 |
2 | 1.6e-11 |
3 | 2.4e-11 |
4 | 3.2e-11 |
5 | 4e-11 |
6 | 4.8e-11 |
7 | 5.6e-11 |
8 | 6.4e-11 |
9 | 7.2e-11 |
10 | 8e-11 |
20 | 1.6e-10 |
30 | 2.4e-10 |
40 | 3.2e-10 |
50 | 4e-10 |
60 | 4.8e-10 |
70 | 5.6e-10 |
80 | 6.4e-10 |
90 | 7.2e-10 |
100 | 8e-10 |
1000 | 8e-9 |
Bytes and Terabits represent different magnitudes of digital information. Converting between them involves understanding the scaling factors in both base 10 (decimal) and base 2 (binary) systems.
The key to converting between Bytes and Terabits lies in recognizing the prefixes and their corresponding values. Because computers operate in binary, and humans often prefer decimal, the interpretation of prefixes like "Tera" can differ. The IEC has proposed new prefixes (kibi, mebi, gibi, tebi, etc.) for binary multiples, but the industry hasn't universally adopted them. As a result, there is often a marketing advantage to using base 10 as it gives higher numbers than base 2.
In base 10, the prefixes adhere to powers of 10.
Therefore, 1 Terabit (Tb) = bits. Since 1 Byte = 8 bits:
Converting 1 Byte to Terabits (Base 10):
Converting 1 Terabit to Bytes (Base 10):
In base 2, the prefixes adhere to powers of 2. The IEC has proposed "kibi," "mebi," "gibi," and "tebi" prefixes to specifically denote powers of 2.
Therefore, 1 Tebibit (Tib) = bits. Since 1 Byte = 8 bits:
Converting 1 Byte to Tebibits (Base 2):
Converting 1 Tebibit to Bytes (Base 2):
Claude Shannon, an American mathematician, electrical engineer, and cryptographer is known as "the father of information theory". Shannon is famed for having founded information theory with his 1948 paper "A Mathematical Theory of Communication". From the work of Claude Shannon, Information can be expressed as bits.
See below section for step by step unit conversion with formulas and explanations. Please refer to the table below for a list of all the Terabits to other unit conversions.
Bytes are fundamental units of digital information, representing a sequence of bits used to encode a single character, a small number, or a part of larger data. Understanding bytes is crucial for grasping how computers store and process information. This section explores the concept of bytes in both base-2 (binary) and base-10 (decimal) systems, their formation, and their real-world applications.
In the binary system (base-2), a byte is typically composed of 8 bits. Each bit can be either 0 or 1. Therefore, a byte can represent different values (0-255).
The formation of a byte involves combining these 8 bits in various sequences. For instance, the byte 01000001
represents the decimal value 65, which is commonly used to represent the uppercase letter "A" in the ASCII encoding standard.
In the decimal system (base-10), the International System of Units (SI) defines prefixes for multiples of bytes using powers of 1000 (e.g., kilobyte, megabyte, gigabyte). These prefixes are often used to represent larger quantities of data.
It's important to note the difference between base-2 and base-10 representations. In base-2, these prefixes are powers of 1024, whereas in base-10, they are powers of 1000. This discrepancy can lead to confusion when interpreting storage capacity.
To address the ambiguity between base-2 and base-10 representations, the International Electrotechnical Commission (IEC) introduced binary prefixes. These prefixes use powers of 1024 (2^10) instead of 1000.
Here are some real-world examples illustrating the size of various quantities of bytes:
While no single person is exclusively associated with the invention of the byte, Werner Buchholz is credited with coining the term "byte" in 1956 while working at IBM on the Stretch computer. He chose the term to describe a group of bits that was smaller than a "word," a term already in use.
Terabits (Tb or Tbit) are a unit of measure for digital information storage or transmission, commonly used in the context of data transfer rates and storage capacity. Understanding terabits involves recognizing their relationship to bits and bytes and their significance in measuring large amounts of digital data.
A terabit is a multiple of the unit bit (binary digit) for digital information. The prefix "tera" means in the International System of Units (SI). However, in computing, prefixes can have slightly different meanings depending on whether they're used in a decimal (base-10) or binary (base-2) context. Therefore, the meaning of terabits depends on the base.
In a decimal context, one terabit is defined as:
In a binary context, the prefix "tera" often refers to rather than . This leads to the term "tebibit" (Tib), though "terabit" is sometimes still used informally in the binary sense. So:
Note: For clarity, it's often better to use the term "tebibit" (Tib) when referring to the binary value to avoid confusion.
Terabits are formed by aggregating smaller units of digital information:
Terabits to Terabytes (TB):
Terabits to Tebibytes (TiB):
Convert 1 B to other units | Result |
---|---|
Bytes to Bits (B to b) | 8 |
Bytes to Kilobits (B to Kb) | 0.008 |
Bytes to Kibibits (B to Kib) | 0.0078125 |
Bytes to Megabits (B to Mb) | 0.000008 |
Bytes to Mebibits (B to Mib) | 0.00000762939453125 |
Bytes to Gigabits (B to Gb) | 8e-9 |
Bytes to Gibibits (B to Gib) | 7.4505805969238e-9 |
Bytes to Terabits (B to Tb) | 8e-12 |
Bytes to Tebibits (B to Tib) | 7.2759576141834e-12 |
Bytes to Kilobytes (B to KB) | 0.001 |
Bytes to Kibibytes (B to KiB) | 0.0009765625 |
Bytes to Megabytes (B to MB) | 0.000001 |
Bytes to Mebibytes (B to MiB) | 9.5367431640625e-7 |
Bytes to Gigabytes (B to GB) | 1e-9 |
Bytes to Gibibytes (B to GiB) | 9.3132257461548e-10 |
Bytes to Terabytes (B to TB) | 1e-12 |
Bytes to Tebibytes (B to TiB) | 9.0949470177293e-13 |