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The AI Resilience Report helps you understand how AI is likely to impact your current or future career. Drawing on data from over 1,500 occupations, it provides a clear snapshot to support informed career decisions.
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The AI Resilience Report is a project from CareerVillage®, a registered 501(c)(3) nonprofit.
Last Update: 5/19/2026
Your role’s AI Resilience Score is
Median Score
Meaningful human contribution
Measures the parts of the occupation that still require a human touch. This score averages data from up to four AI exposure datasets, focusing on the role’s resilience against automation.
Med
Long-term employer demand
Predicts the health of the job market for this role through 2034. Using Bureau of Labor Statistics data, it balances projected annual job openings (60%) with overall employment growth (40%).
Low
Sustained economic opportunity
Measures future earning potential and career flexibility. This score is a blend of total projected labor income (67%) and the role’s inherent ability to adapt to economic and technological shifts (33%).
Low
This reflects the reliability of your score based on the number of data sources available for this career and how closely those sources agree on the outlook. A higher confidence means more consistent evidence from labor experts and AI models.
There are a reasonable number of sources for this result, but there is some disagreement between them.
Contributing sources
Model Makers, Metal and Plastic are less resilient to AI impacts than most occupations, according to our analysis of 5 sources.
Model Makers in metal and plastic are labeled "Not Very Resilient" because a growing number of the tasks that once defined this job — like design iteration, simulation testing, quoting, scheduling, and even some machine programming — are increasingly being handled or accelerated by AI-powered tools. While hands-on work like assembling parts, building jigs, and marking layouts is still hard for machines to replicate, those tasks make up a shrinking slice of the overall workflow as shops adopt smarter software and more capable robots.
Read full analysisLearn more about how you can thrive in this position
Learn more about how you can thrive in this position
This role is not very resilient
Model Makers in metal and plastic are labeled "Not Very Resilient" because a growing number of the tasks that once defined this job — like design iteration, simulation testing, quoting, scheduling, and even some machine programming — are increasingly being handled or accelerated by AI-powered tools. While hands-on work like assembling parts, building jigs, and marking layouts is still hard for machines to replicate, those tasks make up a shrinking slice of the overall workflow as shops adopt smarter software and more capable robots.
Read full analysisAnalysis of Current AI Resilience
Metal/Plastic Model Maker
Updated Quarterly • Last Update: 5/14/2026

If you're thinking about a future as a model maker, the good news is that AI mostly shows up as a helper, not a replacement. In machine shops today, most AI is "behind the scenes" software — things like ERP analytics, quoting software automation, smart scheduling tools, machine monitoring, and predictive maintenance platforms — many of which are already AI-powered even if they're just labeled "smart". On the design side, AI is speeding up the early steps of prototyping: AI can surface logic gaps, refactor functions, propose test scaffolds, and quickly pinpoint problems in code or designs, and additive manufacturing is starting to use AI across the whole workflow — design ideas get tested in simulation, results guide how the part is printed, the printer collects data during the build, and that data improves the next build.
Robots are also getting smarter: with "Physical AI," industrial robots are gaining the ability to perceive, learn and respond to more complex environments, supporting a wider range of tasks beyond fixed, repetitive jobs. But the most hands-on tasks — assembling parts, building jigs and fixtures, marking layouts — remain hard to automate, which matches their low automation scores. As McKinsey notes in its 2025 innovation report [1], AI's biggest impact in R&D is doubling the pace of innovation, not eliminating the people doing it.

Adoption is happening, but it's gradual. NTMA expects AI will help machinists rather than replace them, because modern CNC shops still depend heavily on experienced machinists, programmers, and engineers whose craftsmanship AI cannot replicate. AI is more likely to remove tedious paperwork and quoting so humans can focus on judgment-heavy work.
Cost is another speed bump: shops also have to think about cybersecurity, since AI systems interact with digital infrastructure and shops working toward frameworks like CMMC need to establish protocols and monitor outputs. On the upside, manufacturers are motivated to adopt AI because they're navigating rising costs, workforce shortages and shifting customer expectations, and design-software companies are racing to embed AI — Protolabs' Innovation in Manufacturing 2026 report [2] highlights how digital tools now stretch across every stage of the product life cycle. The bottom line for young people: skilled hands, sharp eyes, and creative problem-solving in the shop are still in demand — but learning to work alongside AI design tools, simulation software, and smart machines will make you stand out.

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They create detailed models and prototypes using metal and plastic to help design and test new products before they are made on a large scale.
Median Wage
$62,700
Jobs (2024)
3,200
Growth (2024-34)
-18.2%
Annual Openings
300
Education
High school diploma or equivalent
Experience
None
Source: Bureau of Labor Statistics, Employment Projections 2024-2034
AI-generated estimates of task resilience over the next 3 years
Devise and construct tools, dies, molds, jigs, and fixtures, or modify existing tools and equipment.
Wire and solder electrical and electronic connections and components.
Assemble mechanical, electrical, and electronic components into models or prototypes, using hand tools, power tools, and fabricating machines.
Cut, shape, and form metal parts, using lathes, power saws, snips, power brakes and shears, files, and mallets.
Lay out and mark reference points and dimensions on materials, using measuring instruments and drawing or scribing tools.
Align, fit, and join parts, using bolts and screws or by welding or gluing.
Set up and operate machines such as lathes, drill presses, punch presses, or bandsaws to fabricate prototypes or models.
Tasks are ranked by their AI resilience, with the most resilient tasks shown first. Core tasks are essential functions of this occupation, while supplemental tasks provide additional context.

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