2
Binary bits are necessary to represent 748 different numbers in the sense that binary bits are represented in digital wave form. Binary bits also have an exponent of one.
31 - it's binary equivalent is 11111
24, or 16 (0 through 15) One binary digit (bit) can have 21 values (0 or 1). Two bits can have 22 values. Three bits can have 23 values. A five-bit number can have 25 values... and so on...
24 = 16
Straight binary coding is a method of representing numerical values using a binary format, where each decimal digit is represented by a fixed number of binary bits. In this system, digits 0 through 9 are typically encoded in 4 bits, allowing for 16 possible combinations, which is sufficient to represent all decimal digits. This coding is straightforward and ensures that each decimal digit corresponds directly to its binary equivalent, facilitating easy conversion between binary and decimal systems.
Binary bits are necessary to represent 748 different numbers in the sense that binary bits are represented in digital wave form. Binary bits also have an exponent of one.
With 8 bits, each bit can be either 0 or 1, leading to 2 possibilities for each bit. Therefore, the total number of different binary codes that can be generated with 8 bits is calculated as (2^8), which equals 256. Thus, there are 256 different binary codes that can be made with 8 bits.
A 10-bit binary number can represent (2^{10}) different combinations. This is because each bit can be either 0 or 1, leading to (2) choices for each of the (10) bits. Therefore, (2^{10} = 1024) different combinations can be represented by 10 bits.
Binary is easier for the computer to understand. It is also easier to handle and is not costly.
4
23 can be represented in binary as 10111 and would therefore require 5 bits to represent.
16 Mb in binary notation can be refered to as 16*1024 bits. A bit is represented with a lower case "b".
31 - it's binary equivalent is 11111
Binary codes for colors represent colors using a combination of bits, typically in the RGB (Red, Green, Blue) color model. In this model, each color is defined by three components, each ranging from 0 to 255, which can be expressed in binary as 8 bits each, resulting in a 24-bit color code. For example, pure red is represented as 11111111 00000000 00000000 in binary, while white is 11111111 11111111 11111111. This binary representation allows computers to process and display a wide range of colors.
In binary data, the letter "A" is represented by the ASCII code 65, which translates to the binary value 01000001. Each character in binary data is typically represented using 8 bits (1 byte), so "A" is stored as the sequence of bits 01000001. In other encoding systems, such as UTF-8, it remains the same since it is a standard ASCII character.
All code and data in a computer system is represented in binary. Characters are represented in a few different ways depending on the language. For the English language, the ASCII character set is perhaps the most common. Using this character set, normally each character is represented by 1 byte (8 bits (8 binary digits)). As an example, a value of 65 is used for A which in binary is 01000001.
24, or 16 (0 through 15) One binary digit (bit) can have 21 values (0 or 1). Two bits can have 22 values. Three bits can have 23 values. A five-bit number can have 25 values... and so on...