Let's Program the Transistors
An innovative architecture was only the beginning. Discover how Federico Faggin and Intel’s engineering team transformed a bold idea into the Intel 4004—the world’s first commercially available microprocessor.
Ted Hoff’s simple question challenged the way electronic systems had always been designed. Discover how a new way of thinking transformed a complex calculator project into the architectural foundation of the world’s first commercially available microprocessor.
Before the Intel 4004 became the world’s first commercially available microprocessor, it was simply an ambitious calculator project. Discover how Busicom’s challenge and Ted Hoff’s unconventional thinking laid the foundation for one of the greatest breakthroughs in semiconductor history.
China remains one of the most important regions for PCB manufacturing, PCB assembly, and full electronic manufacturing services. From prototype circuit boards to high-volume PCBA production, Chinese PCB manufacturers serve customers in consumer electronics, industrial control, medical devices, automotive electronics, IoT products, and many other industries. However, choosing the right PCB manufacturer is not only…
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This roadmap is created to give aspirants a practical and updated view of the VLSI landscape in 2026 – covering not only mainstream tracks like RTL and UVM, but also specialized and high-growth domains like STA/timing closure, low power, power integrity, DFT/ATPG/BIST, FPGA prototyping & emulation, analog/layout, memory & IO libraries, PDK enablement, and the rising influence of AI/ML and agentic EDA workflows.
As AI models grow in complexity, efficient hardware for larger matrix operations becomes essential. In this article, we guide you through scaling a pipelined Matrix Multiply Unit (MMU) from 2×2 to 4×4 matrices in Verilog. You’ll learn about the architectural considerations, step-by-step implementation, and verification strategies needed to build high-performance, scalable MMUs for modern AI accelerators.
Pipelining is a powerful technique for boosting the performance of digital circuits, especially in AI hardware. In this article, you’ll learn how to design a pipelined 2×2 Matrix Multiply Unit (MMU) in Verilog, step by step. We’ll show you how to implement pipelining for higher throughput, and guide you through verifying your design with a practical testbench.
Matrix multiplication is at the heart of modern AI hardware, and building an efficient Matrix Multiply Unit (MMU) is a foundational skill for digital designers. In this article, we walk you through the implementation of a simple yet important 2×2 MMU in Verilog, and creation of a robust testbench for thorough verification. Whether you’re a student or a seasoned engineer, you’ll gain hands-on insights into designing reliable, scalable hardware for AI applications.
The Matrix Multiply Unit (MMU) is the computational powerhouse at the core of every AI accelerator, enabling the rapid execution of neural network operations that drive today’s intelligent systems. In this article, we unravel the architectural choices, design strategies, and rigorous verification methods that go into building a high-performance MMU. Whether you’re a hardware designer, verification engineer, or AI enthusiast, you’ll gain practical insights into optimizing matrix multiplication for speed, efficiency, and reliability – empowering your next AI hardware project.
Artificial Intelligence (AI) accelerators are specialized hardware optimized for AI computations, significantly improving performance and energy efficiency. They perform essential tasks like matrix multiplications and convolutions, freeing general-purpose CPUs for other operations. Understanding their design and components is crucial for anyone involved in modern digital design, enhancing capabilities in AI applications.