technologybriefs
10:16in productionCh. 1 · What it supplies/ 10:16 · ceiling 15 min
Semiconductors

Applied Materials

1967

Applied Materials doesn’t make chips—it makes the machines that force atoms into place, one layer at a time.

Applied Materials is a semiconductor equipment supplier founded in 1967. It builds integrated manufacturing systems—not chips—but its machines define what is physically possible in chipmaking. Its Precision 5000 CVD platform introduced multi-chamber process integration in 1987. Its acquisitions of Orbot and Opal added inline inspection and metrology. It is headquartered in Santa Clara and ranks second globally by revenue. No performance specs, costs, or limitations are stated in the source material.

SemiconductorsSemiconductorsEngineeringMaterialsSemiconductors across the network →
Chapters & takeaways4
  1. 0:58
    What it supplies

    It supplies hardware and software for making chips, displays, solar cells, and functional coatings—not end products.

  2. 2:32
    How it restructured deposition

    The Precision 5000 replaced single-process tools with a multi-chamber platform that ran diverse CVD steps in sequence or parallel.

  3. 4:51
    How it embedded inspection and metrology

    Orbot finds defects on wafers and masks; Opal measures feature sizes—both embedded in the manufacturing flow, not lab benches.

  4. 6:18
    Why the Precision 5000 mattered

    Its 1993 Smithsonian induction confirms the Precision 5000 was recognised as a pivotal shift in process integration—not just incremental improvement.

Worth your time?

Yes. Study the whole thing.

4/ 5
What works
  • multi-chamber CVD integration
  • inline wafer and mask inspection
  • high-speed critical dimension metrology
What does not
  • performance metrics
  • cost of ownership
  • power consumption
  • software architecture
Study it if
  • semiconductor process engineers
  • fab capital planners
  • equipment procurement teams
Skip it if
  • chip designers
  • software developers
  • end-product marketers
The written brief1 min read

What it is and the problem it solves

Applied Materials is a U.S.-based supplier of manufacturing equipment and services for semiconductors, displays, and solar products. It solves the problem of scaling chip fabrication by integrating deposition, inspection, and measurement into physical and operational systems.

How it works

Applied Materials builds machines that deposit, inspect, and measure thin-film layers during semiconductor, display, and solar manufacturing. Its Precision 5000 CVD machine used multiple process chambers to run diverse chemical vapor deposition steps in one tool. It acquired Orbot to add wafer and mask inspection, and Opal to add critical dimension metrology.

What works

The Precision 5000’s multi-chamber CVD architecture enabled concurrent or sequential process steps without breaking vacuum—verified by its 1993 induction into the Smithsonian’s Information Age collection. Orbot’s wafer and mask inspection, and Opal’s high-speed critical dimension metrology, directly support yield analysis and process correction.

What does not

The material states no performance metrics, adoption rates, failure modes, cost of ownership, or operational limits for any system. It says nothing about software architecture, automation level, power consumption, or compatibility with newer node technologies.

What it changes

It changes fab layout by consolidating processes: fewer tools, less floor space, tighter process control across chamber-to-chamber transfers. It shifts inspection and metrology from offline labs into the production line.

Is it worth your time

Yes—if you work in semiconductor equipment procurement, process engineering, or capital planning for fabs. Its scale and integration depth matter where yield, throughput, and tool footprint constrain production decisions.

Same field · Semiconductors4 of 53
10:55
Samsung Electronics1969Samsung Electric Industries was founded in 1969 to assemble electronics in South Korea. It entered semiconductors in 1974 via acquisition, licensed Micron’s DRAM technology in 1983, and delivered a working 64 kb DRAM in 1984—cutting the global technology gap to four years. Samsung Electronics did not exist until its 1988 merger. This is not the story of an origin myth—it is the story of deliberate, imported, incremental catch-up.
9:33
EUV lithographyEUV lithography replaces transmissive deep-UV optics with reflective Mo/Si mirrors, tin-plasma light sources, and vacuum operation to pattern sub-7 nm semiconductor features. It works — but only after decades of co-development across continents, and only where photon budget, thermal drift and stochastic noise can be managed. It is necessary, not optional, for leading-edge logic — but it does not generalise, simplify or cheapen.
9:34
Broadcom1961Broadcom is a semiconductor and infrastructure software supplier—not a pure-play chipmaker or SaaS vendor.
8:33
ThermistorSamuel Ruben · 1833The thermistor is a semiconductor resistor whose resistance changes strongly with temperature. Michael Faraday discovered its NTC behaviour in silver sulfide in 1833. Commercial production did not begin until the 1930s due to manufacturing difficulty and limited applications. Samuel Ruben invented a commercially viable version in 1930.
Up next in Technology

Arduino

· 9:20

Arduino didn’t democratise hardware — it outsourced the hard parts to hobbyists.

Play nextBack to Semiconductors
9:20