The state of the line code could be in any one of these three states.

In a line code, these may be M different voltage levels.

You'll need the office and my personal line codes.

Line codes are used to represent the digital information in form of pulses.

Sometimes the characteristics of two very different-seeming channels are similar enough that the same line code is used for them.

It is also preferred for the line code to have a structure that will enable error detection.

Most line codes are designed to be self-clocking.

The clock rate of an incoming T-carrier is extracted from its bipolar line code.

Differential Manchester encoding has the following advantages over some other line codes:

For this reason, most modern line codes are designed to produce DC-balanced waveforms.

Other line codes that have 3 states:

Most line codes use either a paired disparity code or a constant-weight code.

In the case of a line code, the symbol rate is the pulse rate in pulses/second.

A scrambler is therefore not a good substitute for a line code, which, through a coding step, removes unwanted sequences.

It is analogous to unipolar encoding line code.

Later the line code used was B8ZS.

A line code will typically reflect technical requirements of the transmission medium, such as optical fiber or shielded twisted pair.

In order to avoid these kinds of bit errors, most line codes are designed to produce DC-balanced waveforms.

For most line codes and modulation methods:

Unipolar encoding is a line code.

Due to the Manchester line code, each bit is represented by two pulses, resulting in a pulse rate of 20 Mbaud.

The simplest possible line code, called unipolar because it has an unbounded DC component, gives too many errors on such systems.

(see main article line code)

Optical line codes:

These circuits were originally carried using a line code called alternate mark inversion (AMI).