Update (2026): How This Played Out
This article was published in July 2025 forecasting targeted shortages concentrated in mature-node MCUs, analog ICs, and PMICs rather than a repeat of the broad 2020–21 crisis. That is broadly what happened. S&P Global has forecast a shortage of 40nm-and-above capacity extending into late 2026, with 8-inch wafer utilization among leading foundries approaching 90% and mature-node wafer pricing rising again [1]. On the specific categories flagged below, 32-bit MCUs and high-current PMICs have seen lead times reach 52 weeks [2]. The memory side ran hotter than forecast.
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FAQs
Lead times for high-risk components are highly volatile and change on a daily basis depending on the specific part, manufacturer, and global demand. Currently, many mature-node components are already seeing extended lead times. As the market tightening predicted for late 2025 and 2026 approaches, we anticipate these lead times could extend significantly further.
Just like lead times, pricing is subject to significant market fluctuations. The core issue is a structural imbalance between surging demand and a chronically underfunded supply base for mature-node chips. This dynamic will inevitably lead to price increases. While it’s impossible to predict exact percentages, the trend points toward a notable rise in costs for high demand components.
The most effective first step is to conduct a comprehensive risk assessment of your key products. This involves a detailed review of your Bill of Materials (BOM) to identify single-source components, parts with historically long lead times, and any components flagged as high-risk in the blog post (MCUs, Analog ICs, PMICs).
The primary risks when qualifying an alternative component fall into three categories: form, fit, and function compatibility; potential differences in performance and reliability; and ensuring the part is authentic and not counterfeit.
There isn’t a single universal answer, as the optimal amount of buffer stock depends on several factors: the component’s criticality to your final product, its price volatility, and its projected lead time. A general guideline might range from three to nine months of supply for your most critical parts.
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References
[1] S&P Global and TrendForce (via thesynthesis.ai). “The Mature Node” Available at: https://thesynthesis.ai/journal/the-mature-node
[2] Utmel. “MCU/Power Management Availability Forecast 2026” Available at: https://www.utmel.com/blog/categories/semiconductor/mcu-power-management-availability-forecast-2026-lead-time-risks-and-alternatives
[3] Tom’s Hardware. “Samsung and SK hynix warn AI-driven memory shortages could last until 2027 and beyond, as HBM demand explodes — customers already reserving supply years ahead, while the wider DRAM market begins to tighten” Available at: https://www.tomshardware.com/tech-industry/artificial-intelligence/samsung-and-sk-hynix-warn-ai-driven-memory-shortages-could-last-until-2027-and-beyond-as-hbm-demand-explodes-customers-already-reserving-supply-years-ahead-while-the-wider-dram-market-begins-to-tighten
[4] SIA / Oxford Economics workforce study. “America Faces Significant Shortage of Tech Workers in Semiconductor Industry and Throughout U.S. Economy” Available at: https://www.semiconductors.org/america-faces-significant-shortage-of-tech-workers-in-semiconductor-industry-and-throughout-u-s-economy/


