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[Live on April 8 at 11am PT] Join Rambus for a technical deep dive into HBM4E and the industry-leading HBM4E Memory Controller IP. In this webinar, Nidish Kamath from Rambus will walk through the key requirements driving HBM4E adoption and introduce Rambus’ newly announced HBM4E Memory Controller IP.
Download the product to learn about the Rambus HBM4E Controller. Our HBM4E Controller is designed to support customers with deploying a new generation of HBM memory for cutting-edge AI accelerators, graphics and high-performance computing (HPC) applications.
Rambus offers the industry’s fastest HBM4E Controller IP core designed to support customers with deploying a new generation of HBM memory for cutting-edge AI accelerators, graphics and high-performance computing (HPC) applications.
Highlights: Built on a proven track record of over one hundred HBM design wins to ensure first-time silicon success Delivers up to 16 Gigabits per second per pin at low latency to meet the demands of next-generation AI and High-Performance Computing (HPC) workloads Expands industry-leading silicon IP portfolio of high-performance memory solutions SAN JOSE, Calif. […]
AI/ML’s demands for greater bandwidth are insatiable driving rapid improvements in every aspect of computing hardware and software. HBM memory is the ideal solution for the high bandwidth requirements of AI/ML training, but it entails additional design considerations given its 2.5D architecture. Now we’re on the verge of a new generation of HBM that will […]
[Updated on March 4, 2026] In an era where data-intensive applications, from AI and machine learning to high-performance computing (HPC) and gaming, are pushing the limits of traditional memory architectures, High Bandwidth Memory (HBM) has emerged as a high-performance, power-efficient solution. As industries demand faster, higher throughput processing, understanding HBM’s architecture, benefits, and evolving role […]
A System on Chip (SoC) is an integrated circuit that consolidates all essential components of a computer or electronic system, including CPU, GPU, memory controllers, I/O interfaces, and often specialized accelerators, onto a single chip
Reorder Functionality refers to the capability within high-speed data transmission systems, such as memory controllers, interconnect protocols (e.g., PCIe, CXL), and network-on-chip (NoC) architectures, to restore the correct sequence of data packets or memory transactions that arrive out of order.
A Multi-Port Front-End is a hardware or logic interface within a memory controller or data processing unit that enables simultaneous access to multiple data streams or clients. It acts as a high-bandwidth gateway, managing concurrent read/write requests from various sources—such as CPUs, GPUs, accelerators, or I/O subsystems—while maintaining data integrity, prioritization, and protocol compliance.
Look-ahead Activate, Precharge, and Auto Precharge logic are advanced memory controller techniques used in DRAM systems (e.g., DDR4, DDR5, LPDDR5) to optimize memory access timing and throughput. These mechanisms anticipate future memory operations and prepare memory banks accordingly, reducing latency and improving overall system performance—especially in high-bandwidth applications like AI/ML, gaming, and high-performance computing (HPC).
