Most conversations about eFPGA and timing stop at reassurance: the fabric is hardened, the timing is characterized, trust the .lib file. That’s true, but it skips the question ASIC architects actually need answered when they sit down to close STA: how does the handoff work, and who owns which part of it? That’s the piece […]
Read More… from Simple Mode, Advanced Mode: A Clear Path to Closing Timing Around eFPGA
As organizations prepare for the transition to post-quantum cryptography (PQC), SoC designers face a significant challenge: how to build hardware that can evolve as cryptographic standards and threats continue to change. Traditional cryptographic engines are implemented in fixed silicon. While they deliver excellent performance, updating them typically requires an expensive silicon redesign. As NIST continues […]
Read More… from Reprogrammable Post-Quantum Security for SoCs: Why Crypto-Agility Matters
How Open-Source Toolchains Secure the 30-Year Defense Supply Chain When procurement officers and system engineers select components for next-generation defense systems, they are not just looking at today’s technical benchmarks. They are planning decades into the future. Defense acquisition programs operate on timeline scales completely alien to the commercial silicon sector: a fighter jet, an […]
In semiconductor design, there is a persistent misconception that adding an embedded FPGA (eFPGA) to an SoC is simply a way to “shrink” a standalone FPGA onto your die. If you view eFPGA merely as a substitute for a Commercial Off-The-Shelf (COTS) FPGA, you’re overlooking its broader architectural and lifecycle advantages. From a Product Management […]
Read More… from eFPGA: The ASIC Power-Up, Not an Off-the-Shelf Substitute
As we gather at IP-SoC 2026, the industry consensus is clear: the monolithic SoC is no longer the only game in town. With the rise of chiplet-based architecture and Edge Generative AI, we are integrating more “black boxes” than ever. In this hyper-modular world, the “Second Design” problem isn’t just a nuisance. It’s a tape-out killer. For embedded FPGA (eFPGA), the stakes are […]
Read More… from Verification Sanity in Chiplets & Edge AI: Avoid the “Second Design” Trap
In the high-stakes world of aerospace and defense (A&D) microelectronics, the primary currency isn’t just performance—it’s predictability. When architecting a new ASIC, the specter of “unknown unknowns” is what keeps Program Managers awake at night. A common friction point in adopting embedded FPGA (eFPGA) technology is the perceived schedule risk associated with integration overhead. Critics […]
Read More… from Bridging the Gap: Why eFPGA Integration is a Managed Reality, Not a Schedule Risk
In the high-stakes world of modern SoC development, predictability is the ultimate currency. As design cycles shrink and the cost of a 5nm or 3nm mask set climbs into the tens of millions, the pressure to hit a tapeout date—and ensure first-pass silicon success—has never been higher. For architects, adding flexibility via embedded FPGA (eFPGA) […]
Read More… from Tapeout Predictability with Hardened eFPGA IP Blocks
In the world of defense acquisition, flexibility is often viewed with some skepticism. While the strategic value of updating an algorithm in theater without a hardware re-spin is undeniable, defense programs are built on the bedrock of assurance, predictability, and configuration control. When a program office asks, “Can we control the bitstream and toolchain over […]
Read More… from Accreditation Without Compromise: Making eFPGA Assurable for Decades
This blog reframes the “flexibility vs. cost” debate in modern SoC design, positioning eFPGA not as a luxury feature, but as a critical financial hedge against the rising costs of advanced silicon nodes. In the world of commercial silicon, flexibility is often treated like a high-end trim package on a luxury car: nice to have, but it […]
Read More… from Silicon Insurance: Why eFPGA is Cheaper Than a Respin
Summary: As chip architecture evolves toward heterogeneous SoCs and chiplets, engineers face a growing challenge: balancing flexibility with efficiency. Traditional FPGAs remain essential for rapid prototyping and field reconfigurability, but embedded FPGAs (eFPGAs) are increasingly becoming a smart choice for adding flexibility to ASIC and SoC devices. This article breaks down the key differences between […]
Read More… from FPGAs vs. eFPGAs: Understanding the Key Differences
