SN65LVDS17DRFT

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SN65LVDS17DRFT is a low-voltage differential signaling (LVDS) transmitter specifically designed to support low-power operation while simultaneously driving up to 17 channels. It is manufactured by Texas Instruments and is rated to operate between -40C and +85C, with a maximum power supply voltage range of 3.135V up to 3.465V. SN65LVDS17DRFT is widely used in applications that require digital signals over short distances such as computer motherboards, backplanes, displays, servers, and digital video equipment. As it uses differential signaling, it increases signal integrity and noise immunity.

SN65LVDS17DRFT can be classified under the Interface - Signal Buffers, Repeaters, Splitters category. It acts as a repeater in the sense that it takes existing data from a host device and then repeats it after a slight delay. This is done by buffering and amplifying the data signal and transmitting it as a differential signal. This provides better noise immunity and signal integrity than single ended signals.

The working principle behind the SN65LVDS17DRFT is based on differential signaling. This method of sending data makes use of two data wires, one carrying the true data value, and the other carrying the inverse of the same data value. It is then transmitted over the wire as an amplitude differential signal. The signal is received at the other end and then converted back to the original data value.

In the case of the SN65LVDS17DRFT, the signal is received by an LVDS receiver. The signal is amplified, buffered and then inverted before being sent to the next device via 17 channels. The signal is then received at the other end, inverted and decoded back to the original signal. This allows the SN65LVDS17DRFT to provide a reliable connection over long distances.

In conclusion, the SN65LVDS17DRFT is a reliable low-voltage transmitter that can be used to connect digital devices over short distances. It is highly noise immune and offers better signal integrity than single ended signals. The signal is transmitted using differential signaling, with the signal being buffered, inverted, and decoded at the receiving end.

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