Found 3614 Results

FLIT (Flow Control Unit)

https://www.rambus.com/chip-interface-ip-glossary/flit/

A FLIT (Flow Control Unit) is the smallest unit of data transmission in packet-switched networks, particularly in high-speed interconnect protocols like Compute Express Link (CXL) and PCI Express (PCIe). FLITs are fixed-size segments that encapsulate portions of a larger packet, enabling efficient and deterministic data flow across complex interconnect fabrics.

Endpoint Switch

https://www.rambus.com/chip-interface-ip-glossary/endpoint-switch/

An Endpoint Switch is a network or system component that connects multiple endpoint devices, such as processors, memory modules, or peripherals, to a shared communication fabric. In high-speed interconnect architectures like PCI Express (PCIe) or Compute Express Link (CXL), endpoint switches enable scalable, low-latency data exchange between devices by routing traffic intelligently across multiple lanes or ports.

End-to-End Data Parity

https://www.rambus.com/chip-interface-ip-glossary/end-to-end-data-parity/

End-to-End Data Parity is a data integrity mechanism used in digital systems to detect errors across the entire transmission path, from the source to the final destination. Unlike link-level parity checks that only validate data between adjacent components, end-to-end parity ensures that data remains uncorrupted throughout its journey across multiple hops or layers in a system. This is especially critical in high-performance computing, networking, and storage systems where undetected errors can lead to data corruption or system failures.

ECRC (End-to-End CRC)

https://www.rambus.com/chip-interface-ip-glossary/ecrc/

End-to-End CRC (ECRC) is a data integrity feature used in PCI Express (PCIe) systems to detect transmission errors across the entire communication path, from the source to the destination. It supplements the Link CRC (LCRC), which only covers the physical link between adjacent PCIe devices, by ensuring that data remains uncorrupted throughout the full transaction route.

ECC (Error Correction Code)

https://www.rambus.com/chip-interface-ip-glossary/ecc/

Error Correction Code (ECC) is a method of detecting and correcting data corruption in digital systems. It ensures data integrity by adding redundant bits to data transmissions or storage, allowing the system to identify and correct errors without needing retransmission. ECC is widely used in memory modules, storage devices, communication systems, and high-reliability computing environments.

Meeting the Demands of Next-Gen Client Computing with a High-Performance, High-Reliability SPD Hub

https://www.rambus.com/blogs/meeting-the-demands-of-next-gen-client-computing-with-a-high-performance-high-reliability-spd-hub/

As the world of client computing rapidly evolves, the demand for higher memory performance is at a premium. Gaming, AI, and other advanced applications are pushing DDR5 data rates to 6400 MT/s and beyond. While these advancements unlock new possibilities, they also introduce new challenges for memory module makers, PC OEMs, and motherboard manufacturers. The […]

DSI

https://www.rambus.com/chip-interface-ip-glossary/dsi/

Display Serial Interface (DSI) is a high-speed serial interface standard developed by the MIPI Alliance for connecting processors to display modules in mobile and embedded systems. It is designed to reduce pin count, power consumption, and electromagnetic interference (EMI) while supporting high-resolution displays. DSI is widely used in smartphones, tablets, automotive displays, and other compact devices.

DisplayPort​

https://www.rambus.com/chip-interface-ip-glossary/displayport/

DisplayPort is a digital display interface developed by the Video Electronics Standards Association (VESA) to transmit high-resolution video and audio from a source device (like a computer) to a display (such as a monitor). Unlike older standards like VGA or DVI, DisplayPort uses packetized data transmission similar to Ethernet, USB, and PCI Express, allowing for higher performance and scalability.

Design Failure Mode and Effects Analysis (DFMEA)

https://www.rambus.com/chip-interface-ip-glossary/dfmea/

Design Failure Mode and Effects Analysis (DFMEA) is a structured risk management methodology used in semiconductor design to proactively identify potential failure modes in integrated circuits (ICs), assess their impact on system performance, and implement mitigation strategies before fabrication. It is especially critical in high-reliability applications such as automotive electronics, data centers, and secure communications.

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