XRT83SL28IV-F

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The XRT83SL28IV-F is a low-cost digital pin-programmable quad T1/E1 framer with Link Interface capabilities. It acts as the interface between the Digital Signal Processor (DSP) or CMOS Framer and the physical transmission medium. The XRT83SL28IV-F is designed primarily for use in public switched telephone networks (PSTN), Packet Networks and Radio Network applications.

The XRT83SL28IV-F is a pin-programmable integrated framing solution providing four full-duplex T1/E1 ports with both transmit and receive synchronous clock support on all ports. The XRT83SL28IV-F supports up to 8000 frames per second (kf/s) on all active ports. The XRT83SL28IV-F incorporates direct connection to the backplane and provides ten MGIF send/receive ports for interfacing to the external digital transmission systems.

The XRT83SL28IV-F is fully compatible with industry standard equivalent digital T1/E1 framers, meaning it can be used interchangeably with digital systems from other vendors. The XRT83SL28IV-F is also backward compatible with major PSTN, Radio and Packet networks, making it ideal for both retrofit and new installations.

The XRT83SL28IV-F is designed to provide a high level of integration and high reliability in a compact size. It supports full diagnostic capability including error-performance monitoring and debugging. It also supports a wide range of communication protocols including HDLC, GigaLink, x25 and V.35.

The XRT83SL28IV-F is suitable for a variety of applications from Voice over IP (VoIP) to conference calling, video conferencing, Internet access and T1/E1 data processing applications.

The XRT83SL28IV-F also supports a range of high-speed data processing applications, such as voice/data integration, voice/video integration, voice/data switching and dynamic bandwidth allocation. It can be used to provide Layer-2 and Layer-3 switching, as well as WAN acceleration.

The XRT83SL28IV-F is designed to provide efficient and reliable packet switching capabilities. Its innovative architecture allows it to provide traffic shaping and switching capabilities at rates up to 10 Gbps. The XRT83SL28IV-F also supports multiprotocol label switching (MPLS) protocols.

The XRT83SL28IV-F’s working principle is based on the transmittal of frames from the source to the destination. Frames, which are packets of data, are transmitted and received to and from the various endpoints via a number of protocols, such as HDLC, GigaLink, x25 and V.35. These frames are sent to the destination in the same order that they were sent from the source. At the beginning of each frame, a special signaling message is transmitted which indicates the start of that frame. After the frame is successfully transmitted and received, the same signaling message is sent, which indicates the end of the frame.

In order to ensure that the data contained within the frame is not corrupted, it is necessary to apply error checking and correction techniques. This is done by using Forward Error Correction (FEC) and Cyclic Redundancy Check (CRC) algorithms. These algorithms ensure that any errors detected are corrected, and that the data contained within the frame is received correctly.

The XRT83SL28IV-F also supports a wide range of communication protocols and traffic handling techniques, such as queuing and traffic shaping. Queuing techniques allow multiple incoming and outgoing frames to be handled in an organized fashion, while traffic shaping techniques ensure that frames that have higher priority are sent first. This helps to ensure that the data is delivered to the destination within a reasonable amount of time.

In summary, the XRT83SL28IV-F is a low-cost, pin-programmable quad T1/E1 framer with Link Interface capabilities. It is ideal for both retrofit and new installations, supporting a range of voice and data applications. The XRT83SL28IV-F’s working principle is based on transmittal of frames, with error-checking and correction being handled by FEC and CRC algorithms. It also supports a wide range of communication protocols and traffic handling techniques.

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