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Article Highlights:
The year 2026 has seen a unique confluence of factors come together to make semiconductors harder to make, harder to source, and harder to import from foreign producers.
Almost certainly the most influential force in the current semiconductor squeeze is the rise of artificial intelligence and the hardware needed to power it. The most powerful AI models require enormous amounts of infrastructure to run effectively, and that requirement has driven a data center buildout boom the likes of which the U.S. has never seen.
Complications with raw materials are also beginning to influence the production and availability of semiconductors and other electronic components.
By any number of indicators, 2026 has been an extreme year for the semiconductor market. Due to a variety of factors, the prices of commodities like memory, discretes, and programmable logic have increased dramatically, with lead times surging at a similar rate. This explosion in demand hasn’t necessarily caught the world completely by surprise; plenty of industry insiders, supply chain risk firms, and businesses that source semiconductors saw some version of this landscape taking shape in 2025. But when you look at many of the current lead times—and just how sharply they diverge from those under typical market conditions—it drives home the wildly incongruent supply and demand dynamics currently shaping the market.
In this article, we’ve curated a selection of Z2 market data to illustrate just how unparalleled lead times have become in 2026. First, however, it’s worth taking some time to sort through how we got to this point.
The Forces Pushing Up Prices and Lead Times in 2026
The year 2026 has seen a unique confluence of factors come together to make semiconductors harder to make, harder to source, and harder to import from foreign producers.
The AI Buildout
Almost certainly the most influential force in the current semiconductor squeeze is the rise of artificial intelligence and the hardware needed to power it. The most powerful AI models require enormous amounts of infrastructure to run effectively, and that requirement has driven a data center buildout boom the likes of which the U.S. has never seen. While there are currently around 3,300 operational data centers currently in the U.S.—many of which were built in recent years—there are another 1,500 or so in various stages of development.
All these data centers require a lot of memory—specifically, high-bandwidth memory (HBM). As AI companies have started ordering more and more HBM from memory manufacturers like Micron, Samsung, and SK Hynix, those companies have needed to allocate increasing amounts of their production capacity to this highly niche memory commodity. For chipmakers, manufacturing HBM is more lucrative than other memory products, with a higher average selling price (ASP) and greater revenue potential. Suffice it to say, this difference in ASP has dramatically reduced any potential friction that might have otherwise slowed this transition.
The unsurprising outcome of these strategic capacity decisions is that top memory producers are manufacturing less traditional memory, including DDR3, DDR4, DDR5, and NAND flash, because they simply no longer have the capacity to make those products at the same scale they once did.
These manufacturers’ swift pivot to high-bandwidth memory has reverberated through the memory market. Manufacturers in industries ranging from automotive to aerospace to medical technology to consumer electronics are all now competing over the same shrinking pool of memory chips. The result has been a memory supercycle, with prices surging to all-time highs and lead times stretching to eight months, nine months, or even a year. While original equipment manufacturer (OEM) customers with direct contractual relationships with memory producers may not be forced into the same protracted lead times as the rest of the market, many are in allocation and often receiving only 60% to 70% of their orders.
Raw Material Shortages
Considerably less-discussed than the downstream impacts of the nationwide AI buildout, complications with raw materials are also beginning to influence the production and availability of semiconductors and other electronic components.
CCL and PPE Resin
Copper clad laminate (CCL) serves as the main substrate for printed circuit boards (PCBs), and the materials that go into these copper-and-fiberglass sheets are facing significant challenges. Copper has seen record prices in 2026, and the low-CTE fiberglass used in CCL is not being manufactured at a scale proportionate to demand, leading to physical shortages. In addition, Iran carried out missile strikes in April that struck Saudi Arabia’s SABIC manufacturing facilities, where much of the world’s high-purity polyphenylene ether (PPE) resin is produced. With PPE resin critical to the manufacturing of board laminates, and SABIC still offline, this is yet another material chokepoint impacting the global semiconductor manufacturing ecosystem.
Oil and Helium
The U.S. conflict in Iran, which started on February 28 and shows few signs of a clear exit six months later, has driven up oil prices. While those levels tapered considerably over the second half of August, they remain meaningfully elevated from pre-war figures. Because many Asian countries integral to global chip production rely on Middle Eastern nations for their energy products, these price increases are making energy both more expensive to purchase and more expensive to transport for these manufacturers.
The conflict has also impacted the production and export of helium. Qatar, in particular, is responsible for a third of the total global helium production, and retaliatory strikes by Iran have significantly impacted multiple facilities in the nation.
Helium is a key component in semiconductor fabrication, and the production bottleneck in Qatar is an ongoing risk to chip manufacturing globally. While semiconductor manufacturers and their fabrication sites had a certain degree of helium on hand during the early months of the war, that inventory may now be close to drying up, putting a strain on this indispensable thread of the raw material supply chain for chipmakers.
Gases and Metals
In addition to the helium bottleneck, another armed conflict is impacting the production and availability of neon, krypton, and xenon. Ukraine is one of the world’s largest producers of these gases, and is responsible for around 90% of the high-purity neon gas used in semiconductor manufacturing. Russia’s invasion of Ukraine and the subsequent war that followed have impacted the country’s top producers, knocking out their facilities and forcing a number of them to intermittently shut down their operations. The result has been a dramatically altered sourcing landscape for these gases. Chipmakers are now laboring to recycle their own supplies of the gases for reuse, while countries like China and Japan are striving to fill in the breach left by Ukraine’s leading producers.
Finally, over the past few months export restrictions have been imposed on other raw materials critical to semiconductor fabrication. The Democratic Republic of Congo (DRC), one of the world’s foremost producers of cobalt and copper, imposed a ban on the export of some forms of these minerals on June 29, 2026. While the DRC is still able to ship out most of the copper and cobalt it produces domestically—the ban only affects partially processed versions of the materials—because of the country’s prominence in producing these metals, even modest restrictions can ripple across global semiconductor manufacturing.
Sanctions and Other Trade Restrictions
While subtler in their overall impact, several key trade complications may also be affecting the semiconductor supply chain, lead times, and prices.
The Nexperia ownership crisis has yet to be completely resolved, and the chipmaker is currently operating as two distinct entities—a Dutch company (Nexperia is headquartered in the Netherlands), and a Chinese supplier (much of Nexperia’s manufacturing facilities are based in China). Though many businesses have found a way to continue sourcing from Nexperia, some European manufacturers are taking intricate steps to work directly with the company’s Dutch arm, while still sending those shipments to China to be packaged and assembled (70% of Nexperia’s chips undergo their final manufacturing stages in China). These complex manufacturing trajectories are likely not helping the lead times and prices for the discrete semiconductors Nexperia specializes in, including MOSFETs, BJTs, and diodes.
Another trade restriction is also rippling through specific segments of the global chip ecosystem. Earlier this year, the European Union sanctioned Yangzhou Yangjie Electronic Technology Co.—a Chinese supplier that makes diodes, MOSFETs, bridge rectifiers, transistors, and voltage regulators—because the Chinese manufacturer is believed to be supplying components to Russia. While the EU deciding to sanction a manufacturer for supplying goods to Russia is hardly unique, Yangzhou Yangjie’s ownership structure is: the business is the parent company of Micro Commercial Components (MCC), a California-based producer of diodes, transient voltage suppressors, and rectifiers, among other components.
This legal relationship, which caught many original equipment manufacturers (OEMs) that source from MCC by surprise earlier this year, is forcing businesses to make modifications to their sourcing networks. With OEMs and tier 1 suppliers operating in the EU only able to continue sourcing from Yangzhou Yangjie and MCC through December 31, 2026, the global semiconductor supply chain is facing yet another challenge to its stability and continuity.
9 Revealing Semiconductor Lead Times
Memory
1. DDR2/DDR3
Normal Lead Time: 8 Weeks
March 2026 Lead Time: 14 Weeks
August 2026 Lead Time: 27 Weeks
Percentage Increase From Normal Market Conditions: 237.5%
2. DDR4
Normal Lead Time: 8 Weeks
March 2026 Lead Time: 23 Weeks
August 2026 Lead Time: 29 Weeks
Percentage Increase From Normal Market Conditions: 262.5%
3. DDR5
Normal Lead Time: 6 Weeks
March 2026 Lead Time: 17 Weeks
August 2026 Lead Time: 50 Weeks
Percentage Increase From Normal Market Conditions: 733%
4. NAND
Normal Lead Time: 9 Weeks
March 2026 Lead Time: 18 Weeks
August 2026 Lead Time: 33 Weeks
Percentage Increase From Normal Market Conditions: 267%
Programmable Logic
5. Field-Programmable Gate Arrays (FPGAs)
Normal Lead Time: 13 Weeks
March 2026 Lead Time: 15 Weeks
August 2026 Lead Time: 35 Weeks
Percentage Increase From Normal Market Conditions: 169%
Embedded Processors
6. Microprocessors (MPUs)
Normal Lead Time: 13 Weeks
March 2026 Lead Time: 13 Weeks
August 2026 Lead Time: 28 Weeks
Percentage Increase From Normal Market Conditions: 115%
Discrete Semiconductors
7. GP BJTs
Normal Lead Time: 10 Weeks
March 2026 Lead Time: 16 Weeks
August 2026 Lead Time: 23 Weeks
Percentage Increase From Normal Market Conditions: 130%
8. MOSFETs
Normal Lead Time: 14 Weeks
March 2026 Lead Time: 20 Weeks
August 2026 Lead Time: 26 Weeks
Percentage Increase From Normal Market Conditions: 86%
9. Zener Diodes
Normal Lead Time: 10 Weeks
March 2026 Lead Time: 16 Weeks
August 2026 Lead Time: 24 Weeks
Percentage Increase From Normal Market Conditions: 140%
The Great Semiconductor Squeeze
As the data above demonstrates, the lead time increases that began during the second half of 2025 have not only persisted through 2026, but in some cases have accelerated over the course of the summer and into the third quarter. Memory commodities, in particular, have seen staggering increases in their lead times in recent months. Top memory chipmakers Samsung, SK Hynix, and Micron, meanwhile, have effectively sold out of all their DRAM and HBM through 2027. Taken in full, these overlapping variables make now an extremely difficult time to source semiconductors. OEMs are currently being forced to accept six-month lead times, unprecedented price increases, and allocation arrangements for the most high-demand commodities.
Businesses finding themselves struggling to navigate the current semiconductor supply chain might want to consider leveraging the data and insights of a supply chain risk management (SCRM) tool. Z2 offers users access to a database of over one billion electronic components, including 1,000+ commodity types organized by technical attributes. Z2 features detailed part profiles that include:
Parametric features
Manufacturing data
Regulatory compliance information
Lifecycle status and forecast
Product change notifications (PCNs)
Crosses
In addition to its component database, Z2 also tracks other aspects of the electronic supply chain, including market availability, pricing, lead time, and inventory, giving OEMs and other businesses the visibility to make informed, strategic decisions about how to source effectively in this highly competitive environment.
To learn more about Z2’s electronic supply chain solution and all the market data it provides, schedule a free trial with one of our product experts.
