The Boring Chips Running the AI Revolution: The Analog Chip Stocks Powering the AI Data Center Boom

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Aadi Bihani

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Analog Chips & AI: The Power Layer Of The AI Boom
Table Of Contents
  • Why Analog Chips Are Critical to AI Data Centers
  • Wait, Texas Instruments? That Company On Your CFA Calculator?
  • The AI Data Center Power Bottleneck Driving Analog Chip Demand
  • Best Analog and Embedded Chip Stocks to Watch in the AI Boom
  • The Three-Layer AI Hardware Stack: Compute, Memory and Power
  • Analyst Outlook for Analog Semiconductors in AI Data Centers
  • Key Risks for Analog Chip Stocks in the AI Boom
  • What Analog Chip Stocks Mean for AI Investors
  • Final View: Are Analog Chip Stocks a Hidden AI Opportunity?

Every conversation you've had with ChatGPT, or any AI tool was likely powered by Nvidia's GPUs, that much everyone knows. But here is what almost no one noticed: before a single GPU can fire, dozens of analog and embedded chips have to regulate voltage, manage heat, convert signals, and keep the whole system from burning itself to the ground. The AI hardware race is not just a GPU story. It never was. And the companies that make the unglamorous "control layer" chips, companies like Texas Instruments, Analog Devices, NXP, ON Semiconductor, Microchip Technology, etc. are now sitting on very clean structural tailwinds.

Let's break down why analog and embedded chips are becoming mission-critical infrastructure in the AI era, which companies are best positioned to capture this shift, and what could still go wrong with this thesis.

Why Analog Chips Are Critical to AI Data Centers

Think of an AI data center like a major surgery in an operation theatre. Nvidia's GPUs are the surgeon; brilliant, expensive, and the reason the procedure is happening at all. But without the anaesthesiologist monitoring vital signs, the biomedical equipment regulating power to every device, and the real-time monitoring systems tracking temperature, oxygen, and electrical output second by second, the surgeon cannot operate. Take any one of those support systems away and it does not matter how skilled the surgeon is. The patient does not survive. Analog and embedded chips are everything in that operation theatre that is not the surgeon: invisible to the outside world, absolutely non-negotiable to the outcome. 

They manage power delivery, convert AC power from the grid to usable DC voltage inside the rack, regulate temperatures, translate real-world physical signals (heat, current, voltage) into digital data, and act as the supervisory control layer that keeps thousands of chips running together without failure.

This has always been true. What is different now is the scale of the problem.

Traditional server racks in data centers consumed approximately 10-15 kilowatts of power. AI racks running Nvidia's latest GPUs already run at 50-100 kilowatts per rack. Bank of America's research team projects that by 2030, with Nvidia's next-generation Feynman platform, rack power consumption could reach 1.5 megawatts, a nearly 100-fold increase from where data centers started. Every step on that power escalation curve requires more, better, and more sophisticated analog power management silicon.

The BofA research estimates the total addressable market for analog semiconductors in AI data centers will expand from approximately $7.9 billion in 2025 to $27 billion by 2030, a compound annual growth rate of roughly 28%. That is not a market many investors have priced in yet.

Wait, Texas Instruments? That Company On Your CFA Calculator?

Here is a fun one for those who have sat through all three levels of the CFA exams like me: the company whose BA II Plus financial calculator you probably know better than your own handwriting, the one with the NPV, IRR, and bond duration functions burned into your memory, is the same Texas Instruments (TXN) now posting 90% year-on-year data center revenue growth.

From punching in cash flow streams in a testing hall to powering the infrastructure of the AI age. The journey is not without irony.

Texas Instruments has been making analog and embedded chips for industrial, automotive, and consumer markets for decades. It is a different kind of semiconductor company, it does not chase the latest AI GPU node. It quietly operates its own 300mm analog fabs (with a new one opened in Sherman, Texas in December 2025), sells to over 100,000 customers, and makes chips that almost every electronic system in the world touches in some form.

For years, TI traded at a discount because its end markets like industrial, automotive, were cyclical and uninspiring. Then something changed.

In its Q1 2026 earnings call, Texas Instruments CEO Haviv Ilan said data center revenue had grown approximately 90% year-on-year, with the industrial segment up 30%. The company reported Q1 2026 revenue of $4.83 billion, up 19% year-on-year, handily beating analyst estimates of $4.53 billion (as per LSEG data cited by CNBC). TI stock surged 19% in a single day, its best single-session performance since the year 2000. For the year to date through that earnings release, the stock was up approximately 63%.

And then Ilan said six words that told investors everything: "We are prepared. We are ready."

The AI Data Center Power Bottleneck Driving Analog Chip Demand

To understand why analog chips suddenly matter so much more, you need to understand the core constraint facing AI infrastructure today. It is not GPUs. TSMC can ramp GPU production in 12-18 months. It is not software. The constraint is power, specifically, delivering clean, stable, dense electricity to increasingly power-hungry AI chips without wasting energy, tripping protection systems, or frying hardware.

Consider how the numbers have moved:

GPU GenerationPower Per ChipYear
Traditional CPU~150-200 wattsPre-2020
Early AI GPU~400 wattsPre-2022
2023 GenAI GPU~700 watts2023
Nvidia H100/B200~700-1,200 watts2024-2025
Projected (2030)~1,200+ watts2030

Source: Deloitte Technology Predictions 2025, KAIST TeraLab

Each of those power increases does not just mean more electricity from the grid. It means the architecture of how power is delivered, converted, protected, and controlled inside the rack has to be redesigned from scratch. That redesign requires analog power management ICs, DC-DC converters, digital isolators, gate drivers, and supervisory controllers, all squarely in the wheelhouse of the companies below.

Bank of America's analysts specifically called out that cumulative new power demand from AI data centers between 2025 and 2030 will reach approximately 233 gigawatts, far exceeding prior IEA forecasts. They noted that 800-volt DC architecture is likely to replace traditional 48V/54V power distribution inside data centers, creating fresh demand for entirely new categories of analog power silicon.

Think of it like India's transition from analog electricity meters to smart meters. The hardware underneath every wall socket had to be replaced, upgraded, and redesigned. The AI data center is going through an equivalent transition, only at a far larger scale and on a much faster timeline.

Best Analog and Embedded Chip Stocks to Watch in the AI Boom

Here is where the opportunity translates into specific investment themes. None of these are pure-play AI names, and that, as we will argue, is precisely the point.

Company (Ticker)Key AI AngleRecent Data Point
Texas Instruments (TXN)Power management for data center racks, embedded MCUsData center revenue +90% YoY, Q1 2026
Analog Devices (ADI)Power delivery, optical connectivity, ATEData center revenue +50% in FY2025; Q2 2026 revenue +37% YoY
NXP Semiconductors (NXPI)Edge AI, automotive compute, data center board mgmtData center revenue guided to $500M+ in 2026 from $200M in 2025
ON Semiconductor (ON)Intelligent power, SiC/GaN, EV + AI data centerTargeting leadership in automotive, industrial & AI data center power
Microchip Technology (MCHP)Embedded MCUs, FPGAs, timing + controlDiversified exposure across industrial, auto & data center control

Sources: Earnings releases and calls, Reuters, CNBC, Yahoo Finance, Motley Fool transcripts

Texas Instruments (TXN): TI's strategic moat is manufacturing. Its 300mm analog fabs give it a cost advantage of roughly 40% over competitors using older 200mm wafers. The company recently broke out "data center" as a separate reporting segment, a signal that this is no longer a rounding error. CEO Haviv Ilan said at the Goldman Sachs Technology Conference in September 2025 that the data center business was growing above 50%, before that pace accelerated further to 70% in Q4 2025 and 90% in Q1 2026. TI has also been expanding capacity with $11 billion allocated to its Utah complex, with the potential to triple analog output by 2030, as per Mordor Intelligence data.

Analog Devices (ADI): ADI's CEO Vincent Roche described power delivery as "the vascular system" and power control as "the brain" of AI data centers, one of the cleaner analogies any semiconductor CEO has offered about their own positioning. ADI's data center business grew approximately 50% in fiscal 2025 and accelerated further in early 2026. The company's most recent Q2 FY2026 results showed revenue of $3.62 billion, up 37% year-on-year. In May 2026, ADI announced the acquisition of Empower, an AI power delivery specialist, for $1.5 billion, directly targeting the power bottleneck in AI racks. ADI noted that data centers now account for more than three-quarters of its communications revenue, and that power and optical were roughly equal growth drivers.

NXP Semiconductors (NXPI): NXP is the edge AI play in this group. It acquired Kinara, an edge AI NPU specialist, for $307 million in 2025, and launched the eIQ Agentic AI Framework in January 2026. The company's new CEO, Rafael Sotomayor, told investors on the Q1 2026 earnings call that data center revenue, previously unreported separately, was approximately $200 million in 2025 and is expected to exceed $500 million in 2026, more than doubling in a single year. NXP's strength is in "system cooling, power supply, board management, and control plane switching", the embedded intelligence layer running underneath the GPU clusters.

ON Semiconductor (ON): ON Semiconductor is the power semiconductor specialist, increasingly focused on silicon carbide (SiC) and gallium nitride (GaN), two newer materials that dramatically improve power conversion efficiency at high voltages. CEO Hassane El-Khoury stated in the Q4 2025 earnings release that the company continues to "invest in intelligent power and sensing technologies that position us to win in the most critical technology transitions shaping our industry," specifically naming automotive, industrial, and AI data center power as its three pillars. Its acquisition of Aura Semiconductor's Vcore power technologies was flagged as a direct play on next-generation AI data center architecture.

Microchip Technology (MCHP): Microchip is the recovery story of the group. It spent much of 2024 and early 2025 working through a painful inventory correction, revenue fell roughly 46% year-on-year at one point, but its most recent Q4 FY2026 results (March 2026 quarter) showed revenue of $1.31 billion, up 35% year-on-year and beating the high end of its own guidance. What gives it a seat at the AI table is its embedded controller and connectivity portfolio. In January 2026, Microchip released custom firmware for Nvidia's DGX Spark platform through its MEC1723 embedded controllers, a direct design win inside an Nvidia AI system. COO Rich Simoncic flagged "strong customer engagement and expanding design activity in data center and AI applications," specifically calling out its Gen6 PCIe retimer solutions and growing design wins.

The Three-Layer AI Hardware Stack: Compute, Memory and Power

Most talks around AI hardware stops at Layer 1, the compute layer. But there are actually three distinct hardware layers, each with different economics and different investment profiles:

LayerWhat It DoesWho DominatesCyclicality
Layer 1: ComputeTraining & inference (GPUs, TPUs, ASICs)Nvidia, AMD, Broadcom, custom siliconHigh, tied to hyperscaler capex cycles
Layer 2: Memory & BandwidthStoring and moving data at speed (HBM, DRAM, SSDs)SK Hynix, Samsung, MicronHigh, as memory prices are notoriously volatile. Although that might change with Micron’s LTAs update.
Layer 3: Control & PowerRegulating power, signals, heat, embedded controlTI, ADI, NXP, ON Semiconductor, MicrochipLower, more diversified, multi-market exposure

The key insight here is that Layer 3 is structurally less cyclical than Layers 1 and 2, for a simple reason: these chips go into automotive, industrial, factory automation, medical devices, and home appliances; not just data centers. So even when the AI capex cycle cools, demand from other end markets provides a cushion.

This is both a strength and a limitation, more on that shortly.

The second insight: Layer 3 benefits from AI regardless of which GPU platform wins. Whether hyperscalers ultimately settle on Nvidia, AMD, custom ASICs, or some future architecture, the power management and embedded control layer underneath all of them will still need to be redesigned and scaled. Texas Instruments does not care whether your rack runs Blackwell or whatever comes after. It still needs clean power delivered at scale.

Analyst Outlook for Analog Semiconductors in AI Data Centers

The analyst community has been moving quickly on this thesis through 2025 and into 2026.

Stifel analyst Tore Svanberg wrote, following TI's Q4 2025 results, that "with the inventory correction that has plagued the industry during the last two years essentially complete, we believe the company is well positioned to see acceleration of growth as we move throughout 2026."

Bank of America's semiconductor research specifically named the power bottleneck in AI data centers as the most durable secular growth driver for analog chips, projecting a 28% CAGR for the analog AI data center TAM through 2030, and calling out silicon carbide and gallium nitride as the two fastest-growing sub-segments with projected CAGRs of 63% and 69% respectively.

The broader analog semiconductor market, which includes automotive, industrial, and consumer applications beyond AI, is projected by multiple research firms at a CAGR of approximately 4.5% to 7.2% through 2033, reaching roughly $148-$153 billion. The AI-specific slice of this, as per Technavio, is growing at a 23.1% CAGR through 2029.

Worth noting for context: these are research firm projections, which should be treated as directional indicators rather than precise forecasts. The actual trajectory will depend heavily on hyperscaler capex cycles, technology architecture choices, and broader macroeconomic conditions.

Market Segment2025 Size (Est.)2030 ProjectedCAGR
Broad analog semiconductor~$107B~$130B+~4.5%
Analog chips in AI data centers~$7.9B~$27B~28%
Analog AI chip (pure-play)~$250M~$2.45B~25.6%

Sources: Bank of America Research, Mordor Intelligence, Precedence Research, Technavio: all figures approximate; investors should verify from primary sources

Key Risks for Analog Chip Stocks in the AI Boom

We would be doing you a disservice if we only made the bull case. Here is where this investment story could break down:

1. The inventory overhang risk is real and has happened before. Analog chips saw a brutal two-year correction from late 2022 through 2024, driven by the post-pandemic inventory glut. Customers over-ordered during the shortage, then cancelled orders when they found themselves overstocked. If hyperscalers slow their capex plans, because of a macro downturn, regulatory intervention, or simply because AI monetisation disappoints, the same cycle could repeat. TI stock fell roughly 40% from its 2021 peak to its 2024 trough during that correction. Investors who bought the thesis early paid a significant price.

2. Competition is intensifying from unexpected directions. Nvidia is increasingly building custom power management solutions into its platforms, potentially displacing third-party analog vendors. Monolithic Power Systems (MPWR) and other focused power management specialists are aggressively targeting AI data center sockets. The large incumbents are not the only ones with a seat at the table.

3. AI itself may be more energy-efficient than feared. There is a meaningful school of thought, supported by early data from inference models like DeepSeek and others, that AI workloads will become substantially more efficient per token over the next few years. If the power-per-rack trajectory flattens out rather than continuing its steep climb, some of the projected growth in power management demand does not materialise on the expected timeline.

4. Valuation has already been re-rated. TI, ADI, and NXP have all seen significant stock appreciation over the past 12-18 months. ADI, for example, trades at approximately 33x forward earnings as of May 2026, roughly 34% above its sector average and nearly 30% above its own five-year historical average, as per TipRanks data. Much of the good news is already priced in for the near term. An investor entering now is paying for a thesis that has already begun to play out.

5. Geopolitical disruption. A significant share of semiconductor demand comes from China. NXP in particular has material China exposure in its automotive business. US-China trade tensions, export controls, or retaliatory tariffs could materially disrupt the supply chains and revenue lines of all companies in this sector.

What Analog Chip Stocks Mean for AI Investors

Analog and embedded chips are not going to give you Nvidia-style returns. That is not the point. The point is that they are clearly a structural beneficiary of AI infrastructure spending, not a peripheral one, and they come with a materially different risk profile than pure-play compute names.

For investors who want AI exposure but are uncomfortable with the valuation multiples or concentration risk in GPU stocks, this is worth serious examination. The companies in this space are not startups. They have decades of operating history, strong free cash flow generation (TI had $4.6 billion in operating cash flow for FY2025; ON Semiconductor achieved a record 24% free cash flow margin in 2025), and they pay dividends. TI has raised its dividend for 22 consecutive years.

The lens we would apply here is: these are not AI momentum plays. They are infrastructure compounders that AI has given a second growth vector.

The GPU builds the highway. The analog chip is the traffic light, the fuel gauge, and the voltage regulator that keeps the whole thing running. Neither one works without the other.

Final View: Are Analog Chip Stocks a Hidden AI Opportunity?

FactorAssessment
Structural tailwind clarityStrong, power demand in AI data centers is not speculative
Near-term earnings momentumStrong, TI +90% DC revenue, ADI +37% overall revenue in Q2 FY2026
Valuation comfortModerate, stocks have already re-rated significantly
Thesis durabilityHigh, multi-decade transition across data center, auto, industrial
Key risk to watchInventory cycles, AI efficiency gains, Nvidia vertical integration

The analog and embedded chip story is not glamorous. It never will be. But in a market where every obvious AI play is already priced for perfection, the unglamorous often turns out to be the most enduring.

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