Additional examples are adjusted to the entries in an automated way - we cannot guarantee that they are correct.
None means that no parity bit is sent at all.
If a parity bit is used, it would be placed after all of the data bits.
If the total is even, the parity bit is set to 0.
In retrospect a solution could have been to add a parity bit to each number as written.
A parity bit tells whether a group of bits is even or odd.
If all parity bits are correct, there is no error.
The parity bit is an example of a single-error-detecting code.
Bit 8 is the even parity bit of bits 0-7.
When the data is read back out of the bits, the total is added up again and compared to the parity bit.
In a hamming code, each bit of data is covered by several parity bits.
An even parity bit follows, then a stop bit at 1200 Hz.
To check for errors, check all of the parity bits.
The parity bit is even parity over all data bits from 1 through 74.
For example, a parity bit or other error management method can be inserted into the signal path.
A parity bit can help to reduce this.
Each burst may contain up to two megabits of data (including parity bits).
Parity bits are used as the simplest form of error detecting code.
Words were 24 bits plus a parity bit.
Memory was in the form of 13-bit "syllables", each with a 14th parity bit.
In this notation, the parity bit is not included in the data bits.
The simplest error detection code is the Parity bit.
A parity bit is only guaranteed to detect an odd number of bit errors.
It may also send a parity bit.
The shortest possible Hamming code is (3,1), 2 parity bits are used for one data bit.
Data is stored as 8-bit characters, spanning the full width of the tape (including the parity bit).