MC100LVEP11DTR2G

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Product information on the MC100LVEP11DTR2G reveals that it is a low-skew dual differential 2:1 multiplexer clock buffer that is designed for clock or high-speed data signal routing applications. It is part of ON Semiconductor\'s robust product portfolio of Frequency Control and Clock Management devices that are ideal for improving system performance through the better management of clock and timing signals. The MC100LVEP11DTR2G is designed to support Set-Top Box, Digital TV and Broadband access applications, where it is required to route one of two input frequencies up to a single output.

The MC100LVEP11DTR2G is based on a low voltage differential signaling (LVDS) technology. This revolutionary type of cable and connector refers to a system that enables the transmission of data signals between two components at very high speed with very low power consumption. The main advantage of using an LVDS connector system is that it greatly reduces signal loss and noise, improving the accuracy and reliability of signal routing.

Furthermore, the MC100LVEP11DTR2G utilizes advanced integrated circuit design techniques and technologies allowing it to process clock and signal routing functions at speeds up to 350 MHz. This results in minimal signal propagation delay, offering optimum performance in various types of signal routing and conditioning applications. In addition, the integrated differential pair output driver on the device is designed to provide high-speed operation and lower power consumption over other LVDS-based technology.

In terms of its application field, the MC100LVEP11DTR2G is commonly used in a range of digital signal routing and conditioning applications, such as clocking for high-performance embedded processors and low-jitter clocking in high-speed serial digital interfaces. The device is also well-suited to use in Spread-Spectrum clocking networks, and other Clock Network applications.

Discussion of the MC100LVEP11DTR2G\'s working principle necessitates further explanation of the principles behind an LVDS system. Signaling in LVDS operates in a \"push-pull\" mode, meaning that two data lines, a source (S) and a sink (R), transfer relatively low-amplitude differential signals. The S line push, which is the differential signal sent from the transmitter, is negatively charged, and the R line pull, which is the differential signal sent from the receiver, is positively charged. These signals are then compared to each other on the receiving side, thereby providing resistance to electro-magnetic interference (EMI).

The MC100LVEP11DTR2G houses two independent 2:1 multiplexers, allowing it to route one of two input frequencies up to a single output. Each multiplexer is controlled by two independent control pins, so the routing of each individual frequency can be completely independent. Furthermore, they both also feature built-in output circuits which add a further level of signal conditioning and protection against EMI.

The MC100LVEP11DTR2G operates by utilizing a power efficient P&R cell technique, which means that no external components are required for its operation. This results in a much lower power consumption than other LVDS-based technology, which means that the device is able to perform its duties with a minimal amount of energy.

In summary, the MC100LVEP11DTR2G is a low-skew dual differential 2:1 multiplexer clock buffer designed for clock or high-speed data signal routing applications. It is based on a revolutionary LVDS technology and features an advanced IC design to support data speeds up to 350 MHz with low signal propagation delay. The device is ideal for a wide range of digital signal routing and conditioning applications, including high-performance embedded processors, Spread-Spectrum Clocking networks, and other Clock Network applications. Finally, its power efficient P&R cell technique ensures that no external components are required for its operation, resulting in an incredibly low power consumption.

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