Chips & SupplyUnited States
AI Hardware’s Hidden Cost: Between Orders and Output

Alphabet’s TPU inventory, Intel’s manufacturing tradeoffs, and equipment suppliers’ balance sheets show how capital builds up along the path to usable AI computing capacity.
Alphabet’s inventory rose from $2.4 billion at the end of 2025 to $13.3 billion in September 2026, reflecting in part Google’s expanding role as an AI hardware supplier.
Google now sells complete Tensor Processing Unit (TPU) systems for deployment in customer facilities, alongside the computing capacity it provides through Google Cloud. Selling hardware brings a different set of working capital demands.
During Alphabet’s third-quarter earnings call, CFO Anat Ashkenazi described the process: Customers sign contracts, orders enter backlog, and Google begins building the systems ahead of delivery and billing. Google Cloud CEO Thomas Kurian confirmed that components are procured after contracts are signed.
The contracts provide demand visibility. Alphabet, however, does not disclose how much of its inventory consists of TPU systems or how quickly those systems will be delivered.
That leaves an increasingly relevant measure of the AI buildout: the time between committing capital and putting hardware to work.
Intel’s manufacturing tradeoffs
Intel’s third-quarter disclosures show how difficult that conversion can become.
CFO David Zinsner confirmed that manufacturing capacity in Oregon originally planned for Intel 18A-based Panther Lake processors is being redirected toward Intel 3 to support demand for Granite Rapids server CPUs.
The additional Intel 3 capacity is expected in the second half of 2027. Intel continues to develop and manufacture products on 18A, but the reallocation shows how changes in demand can force manufacturers to revisit capacity plans across process generations.
Increasing wafer output is only part of Intel’s challenge.
CEO Lip-Bu Tan also identified shortages of advanced organic substrates used in EMIB packaging as a constraint on scaling production. The company is working to improve yields and cycle times while securing additional substrate supply.
Following the quarter, Intel entered two agreements to secure future substrates, with estimated funding requirements of $5.3 billion to $6.1 billion. Approximately $3.3 billion is expected through the end of 2027, although some contractual terms remained unfinished.
The wafer capacity decision and EMIB substrate constraints affect different parts of Intel’s manufacturing operations. Both illustrate how production plans depend on capacity beyond the fabrication process itself.
Meanwhile, Intel recorded higher inventory-related charges in its client computing business as it adjusted product mix to demand.
Server products faced supply constraints while other products generated inventory charges. The aggregate inventory balance reveals little about which components can be turned into shipments.
A fabricated die still requires packaging and testing. Substrates are engineered for specific electrical, thermal, and mechanical requirements. Components intended for one processor cannot necessarily be redirected to another.
AI accelerators face similar dependencies. TSMC’s CoWoS packaging technology and high-bandwidth memory integration add manufacturing stages that must scale alongside wafer production.
More wafer starts do not automatically produce more shippable processors.
Inventory moves upstream
Lam Research ended September with $4.55 billion in inventory, up from $4.28 billion in June. Nearly the entire increase came from raw materials. Work in process declined slightly, while finished goods remained largely unchanged.
KLA’s inventory increased from $3.65 billion to $4.09 billion over the same period, with increases in raw materials and work in process.
The composition matters. Components and partially assembled equipment absorb capital before completed systems can be delivered. Their accumulation may reflect production plans, supplier lead times, or changes in customer requirements.
Neither company’s figures establish that finished machines are stranded by shortages.
Semiconductor manufacturing equipment contains highly specialized components that must meet demanding optical, mechanical, electrical, and process specifications. Suppliers may need to secure those components well before a machine reaches the customer.
Changes in delivery schedules can therefore affect working capital long before they appear in revenue.
More output from installed equipment
ASML reported €3.29 billion in third quarter installed-base management sales, above guidance, partly driven by demand for productivity upgrades. The figure also includes services and other activities.
For chipmakers, improving the throughput of equipment already installed can provide capacity without waiting for another machine to be manufactured, delivered, and qualified.
But a faster lithography system increases completed wafer output only when the rest of the production line can accommodate it.
Deposition, etch, metrology, and inspection capacity must keep pace. Yield losses and downtime can erase gains in nominal equipment speed.
The economics of an upgrade depend on whether it addresses the operation limiting production. A relatively modest improvement at that point can be more useful than additional capacity elsewhere in the fab.
From packaging to power
The same dependencies continue beyond semiconductor manufacturing.
AI accelerators must be integrated with memory, networking, power delivery, and cooling. Completed systems then need data centers capable of operating them.
Grid connections, transformers, substations, and cooling infrastructure follow development schedules that can differ substantially from semiconductor production cycles.
A system may be ready for installation before the facility intended to operate it is ready to receive it.
Alphabet’s September filing shows the scale of the associated commitments. The company disclosed $924.4 billion in future purchase commitments covering technical infrastructure, inventory, energy, content, and other requirements. It also reported $130.5 billion in future payments for leases that had not commenced, primarily associated with data center and energy infrastructure.
These are different contractual arrangements, including commitments unrelated to AI. They are neither a single capital expenditure forecast nor amounts already spent.
They do, however, illustrate how far ahead companies must plan and commit resources.
A processor generation can change while the buildings, electrical systems, and supply agreements intended to support computing demand remain in place. Compatibility and flexibility become important when assets have such different useful lives.
The timing has financial consequences as well. Hardware suppliers commit working capital before delivery, while cloud operators and AI developers make long-term commitments to future computing capacity.
Signed contracts may improve revenue visibility, but they cannot shorten equipment qualification, grid connections, or facility commissioning.
The longer the interval between capital commitment and productive use, the greater the pressure on working capital and investment returns.
Follow the conversion
The next earnings reports should help establish how quickly the industry’s commitments are becoming productive assets.
At Alphabet, the measures are TPU system deliveries, inventory conversion, and operating cash flow.
At Intel, the test is whether additional Intel 3 capacity translates into server shipments, alongside progress on substrate availability and manufacturing yields.
For Lam and KLA, inventory composition should be assessed against equipment deliveries, customer commitments, and inventory provisions.
At fabs, installed equipment must translate into qualified capacity and completed wafers. For data center operators, the corresponding measures include facility commissioning and utilization of installed computing systems.
A wafer can be finished while its package remains unavailable. A machine can be installed without increasing fab output. A completed AI system can wait for power.
The capital has already been committed at each stage. The financial return depends on when the entire system can operate.
Disclosure: The author previously held finance and operations roles at Intel. This analysis is based on publicly available company filings and earnings disclosures.
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RELATED TOPICS: AI HARDWARE, CHIP MANUFACTURING, COMPUTE, SEMICONDUCTORS, WAFER FABS
COMPANIES: ALPHABET, ASML, GOOGLE, INTEL, KLA, LAM
Ron Honig is co-CEO of From Honig Family Office. He previously spent more than two decades in the technology industry, including at Intel, with a long-standing focus on the semiconductor sector. Follow Ron on LinkedIn