Chiplets keep the scaling of integrated circuits (ICs) rolling
As data grows at an accelerating pace, more compute power and bandwidth are required to process this data, driving the need for larger and more complex system on chips (SoCs). This is particularly true at a time when our old friend Moore’s Law has lost a step.
However, as the complexity of SOCs increases, so do the costs to manufacture in leading-edge FinFET geometries. As misery loves company, achieving first-time-right silicon has become more difficult as well. Additionally, there are greater challenges for power scaling and yield. In other words, everything gets harder.
Chip disaggregation, or chiplets, offers an alternative to the traditional monolithic SoC scaling approach. Aggregating multiple chiplets to perform the function of a single monolithic IC de-risks the overall system by reducing complexity and increasing yields.
For applications like artificial intelligence (AI), where there is a “Cambrian explosion” in the number of SoCs and architectural approaches under development, chiplets are an ideal solution. Greater experimentation, and faster time to market are possible when a designer can revise a single chiplet as opposed to having to re-spin an entire SoC.
To read the full article, click here
Related Semiconductor IP
- 1G to 100G Single-Port MACsec Engine
- 1.6T/3.2T Multi-Channel MACsec Engine with TDM Interface (MACsec-IP-364)
- Fast NIST ESV certified, FIPS (SP800-90A/B/C) True Random Number Generator
- Programmable Root of Trust Family With DPA & Quantum Safe Cryptography
- AES XTS/GCM Accelerators
Related Blogs
- Ultra Ethernet Consortium Set to Enable Scaling of Networking Interconnects for AI and HPC
- The Evolution of AI and ML- Enhanced Advanced Driver Systems
- Scaling for Success: How Weebit is Preparing for its Next Phase of Growth
- MIPS and GlobalFoundries: Powering the Next Wave of Physical AI
Latest Blogs
- UALink Under the Hood: Why Full-Stack Verification Wins
- How to design secure SoCs Part IV: Runtime Integrity Protection
- High-Speed SerDes Design: Architecture, Equalization, and CDR Circuits
- NVMe 2.0 Explained: What’s New and Why It Matters
- Understanding USB4 Retimers and Their Role in Gen2 and Gen3 - Link Training