69 in decimal = 1000101 in binary.

not the same

Binary coded decimal (BCD) is easier to convert between displayed or printed form than is pure binary.

-1111111

It is decimal 35.

11110110100110110101

79 = 1001111

429 = 110101101

binary-coded decimal

Binary coded decimal. Each decimal digit is represented by its binary equivalent.

39 = 100111

extended binary coded decimal interchange code

All I know is that when a number is negative, you convert the decimal into binary and if it is negative you put 1111 before the binary digits.

111010001001000

Extended binary coded decimal interchange code

312

Extended Binary Coded Decimal Interchange Code

It's 8. (Next time you can use calc.exe of your windows.)

234 in BCD is 0010 0011 0100

Many non-integral values, such as decimal 0.2, have an infinite place-value representation in binary (.001100110011...) but have a finite place-value in binary-coded decimal (0.0010)[bcd]. Consequently a system based on binary-coded decimal representations of decimal fractions avoids errors representing and calculating such values.

Rounding at a decimal digit boundary is simpler in BCD. Addition and subtraction in decimal does not require rounding.

BCD is used for binary output on devices that only display decimal numbers.

32 in binary is 10 0000

32 in BCD (Binary Coded Decimal) is 0011 0010

BCD (binary coded decimal) - 4 bit Byte - 8 bit

Byte

EBCDIC code stands for extended binary coded decimal interchange code....it is an 8 bit code and can provide 256 different characters..it is used on ibm mainframes and on other large computers.. EBCDIC code stands for extended binary coded decimal interchange code....it is an 8 bit code and can provide 256 different characters..it is used on ibm mainframes and on other large computers..

192.168.1.1

Extended Binary Coded Decimal Code

and

American Standard Code for information Interchange.

In Cobol, they had a serious concern for memory size. So they came up with a method known as BCD (Binary Coded Decimal), where a decimal value was converted to binary to save space.

Check this link out. It will break down the details.

BCD (Binary Coded Decimal) output can be generated using decimal-to-BCD conversion algorithms. One common method involves dividing the decimal number by 10 and storing the remainder as the Binary Coded Decimal digit. This process is repeated until all decimal digits are converted into BCD form. Alternatively, some microcontrollers have built-in instructions to directly convert decimal numbers to BCD format.

The Extended Binary Coded Decimal Interchange Code (EBCDIC)

BCD, which stands for Binary Coded Decimal. 4 bits are used to code each decimal digit. So we have 0000 for zero, up to 0111 for seven, then 1000 for eight and 1001 for nine.

The others {ten through fifteen} are not used, as those numbers are formed from additional decimal digits. So if you wanted to form twelve, in BCD it is 0001 0010, for 12{base ten}

Binary.

Binary 10000111 = Decimal 135

Decimal 30 = binary 11110. The decimal binary code (BCD), however, is 11 0000.

Decimal 181 in binary is 10110101

decimal [ 123 ] = binary [ | | | | 0 | | ]

Decimal 4 is binary 100.

Decimal 11 = binary 1011

BAD16:

Binary = 10111010110100010110

Decimal = 765206

Binary 100 is 4 in decimal.

1111 in binary is 15 in decimal.

1111 in decimal is 10001010111‬ in binary.

Invalid binary!

The true answer is yes and no

Yes: in binary coded decimal and hexadecimal each byte is 4 bits long;

in octal each byte is three bits long.

No: in true binary theoretically there is no "last bit".

The binary value of the decimal number 57 (fifty seven) is 00111001According to three different decimal to binary converters I tried, the decimal number 57 is expressed in binary as 111001. Being able to convert to binary is important because binary is what computers work in.

Decimal (more formally, binary coded decimal) values store numeric information as digits encoded using the four bit binary equivalents: 0 (0000) to 9 (1001). That means a single byte can hold values between 0 and 99. But simply using the same byte to hold a binary value will yield values between 0 and 255 (or –128 and +127).

The binary number 11.1 in decimal would be 3.5

The binary equivalent of the decimal number 245 is 11110101.

Converted from binary to decimal, 100000 is equal to 32.

Binary 110111 is equivalent to decimal 55.