IXF1104 4-Port Gigabit Ethernet Media Access Controller

4.0Ball Assignments and Signal Descriptions

4.1Naming Conventions

4.1.1Signal Name Conventions

Signal names begin with a Signal Mnemonic, and can also contain one or more of the following designations: a differential pair designation, a serial designation, a port designation (RGMII interface), and an active low designation. Signal naming conventions are as follows:

Differential Pair + Port Designation. The positive and negative components of differential pairs tied to a specific port are designated by the Signal Mnemonic, immediately followed by an underscore and either P (positive component) or N (negative component), and an underscore followed by the port designation. For example, SerDes interface signals for port 0 are identified as TX_P_0 and TX_N_0.

Serial Designation. A set of signals that are not tied to any specific port are designated by the Signal Mnemonic, followed by a bracketed serial designation. For example, the set of 11 CPU Address Bus signals is identified as UPX_ADD[10:0].

Port Designation. Individual signals that apply to a particular port are designated by the Signal Mnemonic, immediately followed by an underscore and the Port Designation. For example, RGMII Transmit Control signals are identified as TX_CTL_0, TX_CTL_1, TX_CTL_2, and so on.

Port Bus Designation. A set of bus signals that apply to a particular port are designated by the Signal Mnemonic, immediately followed by a bracketed bus designation, followed by an underscore and the port designation. For example, RGMII transmit data bus signals are identified as TD[3:0]_0, TD[3:0]_1, TD[3:0]_2, and so on.

Active Low Designation. A control input or indicator output that is active Low is designated by a final suffix consisting of an underscore followed by an upper case “L”. For example, the CPU cycle complete identifier is shown as UPX_RDY_L.

4.1.2Register Address Conventions

Registers located in on-chip memory are accessed using a register address, which is provided in Hex notation. A Register Address is indicated by the dollar sign ($), followed by the memory location in Hex.

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Datasheet

Document Number: 278757

Revision Number: 007

Revision Date: March 25, 2004

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Intel IXF1104 manual Ball Assignments and Signal Descriptions, Naming Conventions
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IXF1104 specifications

The Intel IXF1104 is a cutting-edge Network Interface Controller (NIC) designed to meet the needs of high-speed communication in modern networking environments. As the demand for bandwidth-intensive applications continues to grow, Intel's IXF1104 is engineered to deliver exceptional performance, reliability, and scalability, making it an ideal choice for data centers and enterprise networks.

One of the main features of the IXF1104 is its support for high-speed Ethernet connectivity, providing up to 100 Gbps throughput. This capability allows organizations to handle large amounts of data traffic efficiently, accommodating everything from cloud computing to big data analytics. The NIC utilizes advanced packet processing technology which ensures minimal latency, enhancing the overall user experience.

The IXF1104 is built on a robust architecture that integrates Intel's latest processing technologies. It incorporates a multi-core processing engine that allows for parallel processing of network packets, improving the handling of simultaneous network requests. This architecture also supports offloading features, freeing up CPU resources for other critical tasks, which optimizes system performance.

In terms of technologies, the IXF1104 supports a variety of standards including Ethernet and Fiber Channel, making it versatile across different networking environments. Its compatibility with industry-standard networking protocols ensures that it can easily integrate into existing frameworks, facilitating seamless upgrades and expansions.

Another significant characteristic of the IXF1104 is its energy efficiency. With Intel’s focus on sustainability, this NIC is designed to consume less power relative to its performance output, thereby reducing overall operational costs for organizations. It employs dynamic power management features that adjust power usage based on demand, which is especially beneficial in large-scale deployments.

Additionally, security features are woven into the IXF1104 design, protecting sensitive data from potential threats. Hardware-based security functions, including encryption capabilities and secure boot processes, ensure that the NIC can safeguard data integrity against unauthorized access.

Overall, the Intel IXF1104 stands out in the crowded NIC market by offering high-performance capabilities, energy efficiency, and robust security features. Its combination of advanced technologies and characteristics positions it as a strategic asset for modern networks, empowering organizations to achieve their connectivity and performance goals in an increasingly data-driven world.
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