The AI trade is widening beyond headline GPU makers, and investors are asking whether lesser-known semiconductor names now sit in the slipstream. This piece breaks down the roles of MaxLinear, Microchip Technology, and FormFactor in the data center buildout, what has changed in 2026, and how to separate durable catalysts from narrative noise.
You will learn how each company touches the AI stack, the most recent datapoints that matter, where the biggest risks live, and which signals could confirm a real breadth phase instead of a fleeting rotation.
Nothing here is financial advice. AI infrastructure is cyclical and volatile; position sizing and risk controls matter.
Yes—there are credible signs that second-tier chip stocks are becoming part of the AI breadth trade, but the case is uneven across names and still contingent on continued non-GPU spending by hyperscalers. Recent announcements and analyst actions suggest traction in storage acceleration (MaxLinear), data center solutions (Microchip), and HBM-related test demand (FormFactor). The durability of this breadth will depend on order visibility, margin follow-through, and how hyperscalers allocate capex across networking, memory, storage, and power.
“Breadth” refers to upside extending beyond a concentrated handful of GPU leaders into the broader supply chain—networking, storage acceleration, power, memory, testing, and packaging. In 2024–2025, investors largely chased the compute core. In 2026, the emerging debate is whether hyperscalers are now widening budgets to de-bottleneck their racks: moving more data, feeding larger memory pools (HBM), testing and qualifying yields at scale, and wringing out power and thermals.
Practically, breadth looks like order growth landing in companies that enable throughput and reliability: accelerators that offload I/O and compression from CPUs, controllers that harden storage fabrics, power management and timing devices that keep signal integrity in denser racks, and test equipment that ensures advanced memory stacks meet quality targets. This is where companies like MaxLinear, Microchip Technology, and FormFactor intersect the AI narrative.
If breadth is real, it should show up as sequential order acceleration, better utilization, and improving gross margins in these adjacencies—not just in GPUs. If it isn’t, you’ll see episodic pops on news, followed by digestion and air pockets.
Each of these companies sits in a different layer of the data center. Understanding those layers helps investors judge the persistence of demand.
MaxLinear has long built connectivity and mixed-signal silicon. In June 2026, it spotlighted storage acceleration by offloading OpenZFS compression to its Panther SoCs, demonstrating about 47 GB/s write and 57 GB/s read with GZIP L9 in a lab setup with Los Alamos National Laboratory—roughly 39x and 7x speedups versus CPU-bound paths (BusinessWire). That points squarely at AI data plumbing, not just compute.
Microchip Technology’s Data Center Solutions business encompasses components that underpin storage, networking, compute subsystems, and power/timing control. The company reported $302.7 million in 2025 revenue for this segment and expects about 65% growth in 2026 to roughly $500 million—an explicit AI-adjacent guide as hyperscalers scale non-GPU infrastructure (Microchip press release / GlobeNewswire).
FormFactor is squarely in test and measurement—wafer probe cards and related systems critical to advanced memory (HBM) and logic. Analyst upgrades in June 2026 cited growing AI/HBM-driven test intensity and improving margins (Evercore ISI to Outperform, B. Riley to Buy) (MarketScreener), implying the HBM capacity build is still migrating through back-end tooling and qualification.
Company AI stack role 2026 catalysts Key sensitivities MaxLinear Storage acceleration, connectivity, offload SoCs enabling higher I/O throughput and compression LANL OpenZFS demo showing ~39x write and ~7x read speedups; focus on Panther storage accelerators (BusinessWire) Adoption timing in HPC/enterprise storage, competition from NIC/DPU offload paths, hyperscaler in-house designs Microchip Technology Data center controllers, power/timing, interconnect building blocks across storage/network subsystems Data Center Solutions revenue guide from $302.7M (2025) to roughly $500M in 2026 (~65% growth) (GlobeNewswire) Mix/price in cyclical semi markets, inventory digestion, competitor pricing, capex phasing FormFactor Probe cards and test systems essential for HBM and advanced nodes, impacting yield/throughput Analyst upgrades (Evercore ISI, B. Riley) on AI/HBM test demand and margin setup (MarketScreener) HBM cycle velocity, customer concentration, tool qualification cycles, downstream memory pricing
They materially strengthen the bull case, but they do not close the book. For MaxLinear, the LANL collaboration and the OpenZFS acceleration results validate a use case where storage offload can become a first-class citizen in AI pipelines. That said, enterprise qualification and hyperscaler procurement cycles take time, and adoption depends on how solutions compare with alternatives like DPUs, SmartNICs, or CPU instruction set improvements.
Microchip’s ~65% growth outlook for Data Center Solutions in 2026 is a more direct top-line signal from a diversified portfolio (GlobeNewswire). It says spend is expanding into the connective tissue of AI racks. Investors still need to watch mix, pricing, and execution because data center is one part of a broader semi cycle for the company.
FormFactor’s upgrades point to an HBM buildout still in motion and to operating leverage potential as utilization improves (MarketScreener). But test intensity can fluctuate with memory pricing, yields, and customer capex timing. Sustained orders and margin expansion will be the next proof points.
On the sentiment side, Stifel’s price target hike on MaxLinear to $105, citing AI/datacenter momentum, underscores market willingness to broaden AI exposure—especially after outsized prior-year gains (Investing.com). Analyst enthusiasm helps, but earnings follow-through will decide if this is a durable breadth phase.
Look for operating signals before stock signals. Durable breadth should show up as multi-quarter order visibility, higher utilization, and margin expansion as mix improves toward AI-related products. Watch whether management teams guide conservatively and then beat, or if they front-load optimism and slip on deliveries.
Cross-check with hyperscaler commentary. If cloud providers talk about alleviating networking/storage bottlenecks, expanding high-bandwidth memory capacity, or deploying more test infrastructure, adjacent suppliers stand to benefit. Conversely, if budgets re-concentrate around GPUs due to supply constraints or ROI calculus, non-GPU lanes may lag.
Use a simple checklist to track confirmation or failure of the breadth thesis:
Additionally, watch the competitive map. If DPUs or SmartNICs from incumbents displace standalone accelerators, the offload opportunity could consolidate. If memory and packaging constraints ease faster than expected, test intensity could normalize sooner.
First, cyclicality and inventory digestion can blur signals. A generic semi upcycle can look like AI breadth on the surface. Disentangle product-mix commentary from channel restocking. Second, hyperscaler in-house silicon efforts create design risk for component vendors, especially in areas where block-level functions can be integrated.
Third, standardization risk: as storage stacks evolve (e.g., new compression, erasure coding, or offload paradigms), some accelerators may face shorter product cycles. Fourth, export controls and geopolitical constraints can alter end-market access and mix at short notice.
From a portfolio perspective, consider position sizing that acknowledges name-specific risks and different operating leverage profiles. Lean on catalysts that can be validated—customer announcements, multi-quarter backlog, or explicit segment guides like Microchip’s 2026 outlook (GlobeNewswire).
The further you get from the compute core, the more timing risk you inherit. Adjacent categories often lag GPU capex by a few quarters as bottlenecks become visible and procurement cycles kick in. Stocks can front-run these cycles on headlines—like MaxLinear’s LANL results or analyst target increases (BusinessWire; Investing.com), then consolidate while orders filter through.
Without anchoring on any single multiple, the safeguard is to watch revisions. If consensus revenue and gross margin estimates grind higher for multiple quarters—especially in named AI segments—that’s the cleanest sign that breadth is real. If revisions stall or guideposts slip, a rotation can quickly unwind.
Finally, be transparent with your own time horizon. Near-term traders may key off event catalysts and supply-chain datapoints; long-term holders may prefer diversified, cash-generative models (e.g., Microchip) over more concentrated bets.
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No. Each has AI-adjacent exposure, but also broader end markets. Microchip, for example, serves many embedded and industrial verticals beyond data centers. That diversification can cushion cycles but may also dilute AI operating leverage compared to pure plays.
HBM introduces more layers and complexity, increasing test intensity and tooling requirements. If memory suppliers expand HBM capacity or push to higher stacks, probe card demand and utilization can rise. The reverse is also true if yields improve faster than expected or pricing weakens.
It depends on workload and architecture. DPUs and SmartNICs can offload networking, security, and storage tasks, but specialized SoCs can outperform on specific functions or integrate more tightly with certain file systems. Customer preferences, software ecosystems, and TCO will decide.
It’s an important signal from a diversified supplier, but not definitive. Investors should watch subsequent quarters for bookings, revenue mix, and margin trends in the Data Center Solutions segment to confirm that demand is sustained, not just front-loaded.
Not necessarily. A pause in GPUs can shift focus to de-bottlenecking existing fleets—benefiting networking, storage, and memory. But a deep or prolonged GPU slowdown would likely pressure adjacent spend and sentiment across the stack.
Broad semiconductor or infrastructure ETFs can offer diversified exposure to AI-adjacent categories, albeit with diluted impact from any single catalyst. Single-name positions require more research and risk management.
There’s some overlap in power, cooling, and networking, but AI clusters prioritize high-bandwidth memory, fast storage fabrics, and low-latency interconnects. Lessons from one domain can inform the other, yet hardware choices and economics differ materially.
Disclaimer: This article is provided for informational purposes only. It is not offered or intended to be used as legal, tax, investment, financial, or other advice.

