Will AI replace semiconductor processing technicians?

Some tasks are already handled by AI or machines; the rest still needs a person. About 4h 44m of an 8-hour shift goes to tasks that AI or robots largely take over. The other 3h 16m (41%) stays with people. Separately, BLS expects about 8.2% more of these jobs by 2035 (all jobs: +3.5%).

Time card for semiconductor processing technicians showing a typical 8-hour shift: 3h 16m done by people, 4h 44m by robots.
Each mark is 5 minutes of a typical shift for semiconductor processing technicians, colored by who does that task today. Estimates from O*NET tasks and Anthropic Economic Index data. How it's made

Home / Production & factory / Semiconductor Processing Technicians

Perform any or all of the following functions in the manufacture of electronic semiconductors: load semiconductor material into furnace; saw formed ingots into segments; load individual segment into crystal growing chamber and monitor controls; locate crystal axis in ingot using x-ray equipment and saw ingots into wafers; and clean, polish, and load wafers into series of special purpose furnaces, chemical baths, and equipment used to form circuitry and change conductive properties.

Time card

Untick tasks you don't do, or set your own times.
MineTask, by time spentHumanWith AIAIRobot
Load and unload equipment chambers and transport finished product to storage or to area for further processing.59m a shift · Robots deployed · e.g. Daifuku / Muratec OHT AMHS in 300 mm fabs
Monitor operation and adjust controls of processing machines and equipment to produce compositions with specific electronic properties, using computer terminals.53m a shift · No AI or robot evidence found
Manipulate valves, switches, and buttons, or key commands into control panels to start semiconductor processing cycles.47m a shift · Robots deployed · e.g. Bosch Dresden wafer fab (fully automated 300mm line)
Maintain processing, production, and inspection information and reports.41m a shift · No AI or robot evidence found
Inspect materials, components, or products for surface defects and measure circuitry, using electronic test equipment, precision measuring instruments, microscope, and standard procedures.41m a shift · Robots deployed · e.g. KLA broadband plasma (BBP) patterned wafer inspection systems (KLA 2020 through current BBP line, e.g. C205, 8935)
Clean and maintain equipment, including replacing etching and rinsing solutions and cleaning bath containers and work area.36m a shift · Robots only in factory cells
Clean semiconductor wafers using cleaning equipment, such as chemical baths, automatic wafer cleaners, or blow-off wands.24m a shift · Robots deployed · e.g. SCREEN SU-3300 / SU-3400 single wafer cleaners, batch cleaners, spin scrubbers
Place semiconductor wafers in processing containers or equipment holders, using vacuum wand or tweezers.24m a shift · Robots only in factory cells
Set, adjust, and readjust computerized or mechanical equipment controls to regulate power level, temperature, vacuum, and rotation speed of furnace, according to crystal growing specifications.24m a shift · Robots deployed · e.g. Smart vision control solution for crystal-growing systems (Beijing Tu Zhi Tian Xia, Basler 12MP cameras)
Inspect equipment for leaks, diagnose malfunctions, and request repairs.24m a shift · Robots deployed · e.g. ANYmal (ANYbotics)
Study work orders, instructions, formulas, and processing charts to determine specifications and sequence of operations.18m a shift · No AI or robot evidence found
Etch, lap, polish, or grind wafers or ingots to form circuitry and change conductive properties, using etching, lapping, polishing, or grinding equipment.18m a shift · Robots deployed · e.g. Daifuku Cleanway AMHS (OHT / clean stocker)
Align photo mask pattern on photoresist layer, expose pattern to ultraviolet light, and develop pattern, using specialized equipment.18m a shift · Robots deployed · e.g. ASML TWINSCAN (dual-stage DUV/EUV lithography scanner)
Load semiconductor material into furnace.12m a shift · Robots deployed · e.g. Vertical thermal batch furnace (generic industry-standard tool, MKS Semiconductor Handbook)
Count, sort, and weigh processed items.12m a shift · Robots deployed · e.g. Spartan Sorter
Calculate etching time based on thickness of material to be removed from wafers or crystals.6m a shift · No AI or robot evidence found
Stamp, etch, or scribe identifying information on finished component according to specifications.6m a shift · Robots only in factory cells
Scribe or separate wafers into dice.6m a shift · Robots deployed · e.g. KUKA LBR iiwa CR / KMR iiwa cleanroom cobots at Infineon Villach
Connect reactor to computer, using hand tools and power tools.6m a shift · Robots only in factory cells
Measure and weigh amounts of crystal growing materials, mix and grind materials, load materials into container, and monitor processing procedures to help identify crystal growing problems.6m a shift · Robots only in factory cells

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Ask the clock

Will AI replace semiconductor processing technicians?

Some tasks are already handled by AI or machines; the rest still needs a person. About 4h 44m of an 8-hour shift goes to tasks that AI or robots largely take over. The other 3h 16m (41%) stays with people. Separately, BLS expects about 8.2% more of these jobs by 2035 (all jobs: +3.5%).

What can AI already do for semiconductor processing technicians?

None of this job's tasks show regular AI use yet. That can mean the work is hands-on or in person, or simply that it rarely comes up in AI usage data.

Where do robots fit in?

For some tasks, yes. Robots have done 11 of this job's tasks in workplaces like this one, about 4h 44m of a typical shift. 5 more tasks have only been done in factory setups built around the machine, so they stay with people here.

  • Load and unload equipment chambers and transport finished product to storage or to area for further processing. (59m a shift; e.g. Daifuku / Muratec OHT AMHS in 300 mm fabs, in use)
  • Manipulate valves, switches, and buttons, or key commands into control panels to start semiconductor processing cycles. (47m a shift; e.g. Bosch Dresden wafer fab (fully automated 300mm line), in use)
  • Inspect materials, components, or products for surface defects and measure circuitry, using electronic test equipment, precision measuring instruments, microscope, and standard procedures. (41m a shift; e.g. KLA broadband plasma (BBP) patterned wafer inspection systems (KLA 2020 through current BBP line, e.g. C205, 8935), in use)
  • Clean semiconductor wafers using cleaning equipment, such as chemical baths, automatic wafer cleaners, or blow-off wands. (24m a shift; e.g. SCREEN SU-3300 / SU-3400 single wafer cleaners, batch cleaners, spin scrubbers, in use)
What still needs a person?

3h 16m of a typical shift, or 41%, goes to tasks with no AI or robot evidence yet. No AI usage or robot deployment has shown up for these so far. The biggest:

  • Monitor operation and adjust controls of processing machines and equipment to produce compositions with specific electronic properties, using computer terminals. (53m a shift)
  • Maintain processing, production, and inspection information and reports. (41m a shift)
  • Clean and maintain equipment, including replacing etching and rinsing solutions and cleaning bath containers and work area. (36m a shift)
  • Place semiconductor wafers in processing containers or equipment holders, using vacuum wand or tweezers. (24m a shift)
  • Study work orders, instructions, formulas, and processing charts to determine specifications and sequence of operations. (18m a shift)
Why is that work hard to automate?

Much of it comes down to where and how the work happens. In-person, hands-on and high-stakes work is where AI and robots have made the least headway so far. In the official O*NET survey of people in this job:

  • 70% use their hands on tools, objects or controls more than half the time
  • 68% spend more than half the day walking or moving
  • 63% carry high or very high responsibility for other workers' safety
Are employers still hiring semiconductor processing technicians?

On Indeed, job postings in the Production & Manufacturing sector are at 124% of their February 2020 level (all U.S. postings: 104%), up 12.6% from a year earlier, as of Oct 9, 2026. BLS separately expects about 3,400 openings a year in this job through 2035. Across all U.S. postings, 7.3% now mention AI skills. Sector postings cover more than this one job and move for many reasons besides AI.

How much do semiconductor processing technicians make?

The median pay is about $51,430 a year ($24.73 an hour), 1% above the median for all U.S. jobs ($50,980). Most people in this job earn between $37,690 and $82,540 a year; that range covers the middle 80%. Pay figures are from BLS, May 2025, and vary a lot by state and employer. Pick a state to compare:

Is this job growing or shrinking?

BLS projects growth of 8.2% from 2025 to 2035, compared with 3.5% growth for all jobs. That's about 34,000 jobs in 2035. It expects about 3,400 openings a year, mostly from people retiring or changing careers. These projections don't single out AI as a cause.

How many semiconductor processing technicians are there in the U.S.?

About 31,000 people in the U.S., roughly 0.02% of all workers (BLS, May 2025). That makes it the 470th largest of the 796 jobs on this site. BLS expects about 34,000 in 2035.

What training do semiconductor processing technicians need?

The most common requirement is a high school diploma: about 84% of people in the job said so in the official O*NET survey. O*NET rates the job at level 2 of 5 for preparation, which usually means: high school diploma, some training. Requirements vary by state and employer, especially for licensed work.

What should I learn to stay ahead of AI?

These come from the job's official skill ratings and from the tasks that AI and robots touch least today. Building them keeps you strong in the parts of the work that still need a person:

  • Skills that matter more here than in most jobs: Operations Monitoring, Quality Control Analysis, Monitoring, Reading Comprehension
  • Get strong at the parts of the job that stay with people (listed above), which take 3h 16m of a typical shift
  • Tools employers list: Python, Microsoft PowerPoint, Microsoft Office software, Microsoft Excel, Microsoft Word
What other jobs could semiconductor processing technicians move into?

These use similar skills, with less of a typical shift touched by AI or robots. Matches come from 109 official ratings of skills, knowledge and work activities, and each needs the same or less preparation unless the official list relates the jobs directly:

  • Adhesive Bonding Machine Operators and Tenders (1h 8m touched, $46k median pay)
  • Textile Knitting and Weaving Machine Setters, Operators, and Tenders (3h 1m touched, $40k median pay)
  • Molding, Coremaking, and Casting Machine Setters, Operators, and Tenders, Metal and Plastic (2h 12m touched, $44k median pay)
  • Furnace, Kiln, Oven, Drier, and Kettle Operators and Tenders (1h 31m touched, $48k median pay)
  • Forging Machine Setters, Operators, and Tenders, Metal and Plastic (17m touched, $49k median pay)
How solid are these numbers?

Each task carries its own evidence label. For this job: 11 with robots in real deployments, 9 with no AI or robot evidence found. The minutes per task are estimates, not measured hours, and "no evidence" doesn't prove a task is safe.

Tools in demand

  • Python
  • Microsoft PowerPoint
  • Microsoft Office software
  • Microsoft Excel
  • Microsoft Word
  • SAP software

Also called

Charge Preparation Technician, Chemical Etch Operator, Circuit Recorder, Crystal Cutter, Crystal Finisher, Crystal Grower, Crystal Growing Technician, Crystal Lapper, Crystal Machining Coordinator, Crystal Mounter, Crystal Slicer, Device Processing Engineer, Die Attacher, Diffusion Furnace Operator