MAX13083EESD+T

Interface - Drivers, Receivers, Transceivers

The MAX13083EESD+T is a monolithic, low-noise, low-distortion, data transmitter and receiver for high-speed, high-resolution imaging systems; such as USB 2.0, SCSI, SDIO, and SATA applications. The MAX13083EESD+T is designed to convert digital data into high-bandwidth, low-noise analog signals, providing up to 200 Mbps of data rate while consuming less than 3.2 mA of quiescent current. The MAX13083EESD+T also features an integrated DC blocking capacitor, eliminating the need for external capacitors in many high-speed, high-resolution applications.

The MAX13083EESD+T is a high-speed, low-power interface IC; it supports digital interface communication, such as USB, SATA and SDIO. Its application fields includes those in the automotive, consumer, and communications markets, which require the sensitive data transmission. The MAX13083EESD+T has the capability to drive and construct of high-speed physical layers. This chip is an essential part of the serial interface unit in cutting-edge high-speed data transmission systems.

The MAX13083EESD+T provides three distinct ports (signal A, signal B, and direction control port) to handle data lanes between two devices. The signal A port is used to send and receive data. Signal B port is used to detect the presence or absence of a connected device, while providing 6-bitbidirectional data bus. This makes the MAX13083EESD+T suitable for various data transmission and reception requirements in high-bandwidth, high-resolution applications.

The MAX13083EESD+T features integrated differential transceivers and two low-noise, low-distortion on-chip DC blocking capacitors. These capacitors are ideal for multi-lane high-speed data transmission systems, allowing serial data stream to be transmitted at speeds of up to 200Mbps. The chips also feature a useful Sleep mode to reduce power consumption when idle.

In addition, the MAX13083EESD+T features internal loopback feature for self-testing, Transistor-Transistor Logic (TTL) logic levels for more reliable interfacing, fast response time to reduce data latency, and higher noise immunity for greater reliability in data transfer. The chip optimizes the transmission of data in various high-bandwidth, high-resolution applications, making it an ideal choice for a wide variety of applications, such as automotive electronics, consumer electronics, industrial instrumentation and avionics systems.