09068480531

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Backplane connectors are an important part of the computing system architecture, allowing the integration of different components in a variety of combinations. Among these, the 09068480531 system, also known as the Network Interface Connector (NIC), provides high-speed data transfer capabilities in high-density computing environments. This article provides an overview of 09068480531\'s application field and the underlying working principle.

Application field of 09068480531

The 09068480531 system is designed to provide high-speed data transfer for communication applications. It is typically used in high-performance rack-mount systems to support different types of data transfers and communications, such as Ethernet, Infiniband, and Fibre Channel. This connector system is also used in blade servers and high-performance computing systems that require added I/O performance.

The 09068480531 system is primarily designed for distributed computing applications that require high bandwidth. It supports up to forty-eight high-speed channels, each capable of data transfer rates of up to 10.5 Gbps (gigabits per second). This type of backplane connector is also widely used in storage servers due to its superior data transfer capabilities and large number of available channels.

Working Principle of 09068480531

The 09068480531 system is based on the Mezzanine Card (MC) design. It uses a three-dimensional linear guide mechanism, with grooves in each connector and an array of parallel contacts arranged side by side. This allows the three-dimensional guide mechanism to be used as a universal interface, which ensures compatibility and interchangeability between different components.

The basic MC design is complimented by an array of features that improve both the mechanical and electrical dimensions. For instance, the pin header of the MC was designed to offer superior damping of micro-vibrations and reduce susceptibility to mechanical damages. To further improve the performance, the design also includes a "moving contact" feature that ensures a more reliable electrical contact between pins, reducing resistance and improving electrical performance.

In addition, the 09068480531 system also offers a superior signal integrity due to its multiple ground contacts and avoidance of signal cross-talk. To achieve this, the system implements a unique electromechanical shielding technique that prevents the ingress of EMI so that the signal integrity is maintained. This allows the system to offer reliable data transfer and long-term clock stability.

Conclusion

As discussed, the 09068480531 system is optimized for high-speed data transfer in distributed computing applications. Its unique electromechanical design implements multiple features that improve the mechanical and electrical components, as well as mitigate EMI and signal interference. In essence, the 09068480531 system is an excellent solution for high performance, reliable data transfer in modern computing architectures.

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