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Occupation deep dive / O*NET-SOC 29-2034.00 / Last verified June 2026

Will AI replace radiologic technologists?

ILO 2025 places radiologic technologists in the low exposure gradient. The core work (positioning patients and equipment, radiation safety, and patient monitoring during scans) is embodied and patient-facing, which current generative AI does not perform. The exposed layer is image-quality and dose optimisation, which AI augments. Image interpretation, the exposed diagnostic task, belongs to the radiologist, not the technologist.

AI impact on radiologic technologist jobs in 2025-2026

The direct answer: AI is changing radiologic technologist work at task level, not eliminating the occupation outright. ILO 2025 places radiologic technologists in the low generative-AI exposure gradient, 0 of the top 5 O*NET tasks are classified displaceable, and BLS projects employment to grow 5% through 2034.

ILO 2025 exposure

LowFour-band gradient, refined index

Displaceable top tasks

0 of 5Brookings 2024 task rubric

BLS 2024-2034

+5%Faster than average, projected employment change

Will radiologic technologists jobs grow or shrink by 2034?

The BLS Employment Projections 2024-2034 put radiologic technologists at +5% projected employment change, classified faster than average. This is the official US decade projection from the National Employment Matrix, distinct from the ILO 2025 AI-exposure gradient above. Source: BLS Employment Projections 2024-2034.

In its Occupational Outlook Handbook summary, BLS rounds this to +5% (faster than average) and reports a median annual wage of $77,660 (May 2024). Source: BLS Occupational Outlook Handbook.

personalise this exposure

The ILO national-average exposure for Radiologic Technologists is 20%. Adjust the four inputs below to see how your specific role characteristics shift the number up or down.

Years in this kind of role

5 years

Your current AI-tool usage

% of work that is routine / repeatable

50%

% of work requiring judgement / relationships

30%

LOWER EXPOSURE

16%

personalised AI exposure score ยท -4% vs ILO baseline (20%)

adjustment breakdown

Years experience adjustment0%
AI tooling (moderate)-4%
Routine work share0%
Judgement / relational work share0%

Heavy AI tooling adoption reduces personalised exposure (you're already augmenting). Routine fractions above 50% raise exposure. Years of experience modestly insulate (institutional knowledge, judgement). Judgement / relational fractions reduce exposure most. The model adjusts the ILO baseline by these factors; treat as a personalised reading, not a precise forecast.

Panel 1 / Exposure

Low exposure

LOWMODERATEHIGHVERY HIGHILO 2025 EXPOSURE GRADIENT

ILO 2025 places radiologic technologists in the low exposure gradient. The core work (positioning patients and equipment, radiation safety, and patient monitoring during scans) is embodied and patient-facing, which current generative AI does not perform. The exposed layer is image-quality and dose optimisation, which AI augments. Image interpretation, the exposed diagnostic task, belongs to the radiologist, not the technologist.

Source: ILO 2025 refined Generative AI Occupational Exposure Index. ISCO-08 mapping 3211. View methodology.

Panel 2 / Tasks

Top tasks for this role

  • Position imaging equipment and adjust controls to set exposure time and distance, according to specification of examination.

    AI-assisted protocol and dose-optimisation tools support exposure settings, but the physical positioning and final control of the equipment remain human-led.

  • Position patient on examining table and set up and adjust equipment to obtain optimum view of specific body area as requested by physician.

    Physical patient handling and equipment set-up are embodied tasks current generative AI cannot perform.

  • Monitor patients' conditions and reactions, reporting abnormal signs to physician.

    Clinical vigilance and in-room judgement about a patient's condition are augmentation-prone rather than displaceable.

  • Explain procedures and observe patients to ensure safety and comfort during scan.

    Patient communication and comfort during a procedure are interpersonal tasks that remain human.

  • Use radiation safety measures and protection devices to comply with government regulations and to ensure safety of patients and staff.

    AI dose-management systems assist with monitoring and optimisation, but responsibility for radiation-safety compliance and its physical execution stays with the technologist.

Source: O*NET 30.2 task list (CC-BY 4.0); Brookings 2024 task-level rubric. View methodology.

Panel 3 / What is growing

Growth and skills outlook

BLS 2024-2034

Faster than average

+5% projected change (no published figure jobs).

WEF 2025 / Top growing skills relevant to this role

  • Technological literacy (Technology)
  • AI and big data (Technology)
  • Empathy and active listening (Self-efficacy)

Brookings 2024 treats imaging as an exposed pattern-recognition domain, but the exposed task is interpretation, performed by the radiologist. The technologist's image-acquisition, radiation-safety, and patient-care tasks are embodied and augmentation-prone rather than displaceable.

Source: BLS Employment Projections 2024-2034; WEF Future of Jobs Report 2025. View methodology.

What this occupation does

Radiologic technologists operate imaging equipment (X-ray, CT, mammography, and fluoroscopy systems) to produce the diagnostic images physicians use to diagnose and treat patients. The role covers positioning patients and equipment, applying radiation-safety and dose protocols, monitoring patients during scans, and maintaining image quality. It is distinct from the radiologist, who is the physician that interprets and diagnoses from the images the technologist acquires.

The exposure score in context

The ILO 2025 refined Generative AI Occupational Exposure Index places radiologic technologists in the low exposure gradient. ILO 2025 places radiologic technologists in the low exposure gradient. The core work (positioning patients and equipment, radiation safety, and patient monitoring during scans) is embodied and patient-facing, which current generative AI does not perform. The exposed layer is image-quality and dose optimisation, which AI augments. Image interpretation, the exposed diagnostic task, belongs to the radiologist, not the technologist.

The mapping uses ISCO-08 code 3211 (BLS-published SOC-to-ISCO crosswalk). The full methodology, including the dominant-match rule for one-to-many crosswalks, is at /methodology/#algorithm.

The top five tasks, classified

The top five O*NET 30.2 tasks for this occupation, each tagged Displaceable / Changing / Growing per the Brookings 2024 task-level rubric. The tag definitions are at /glossary/#displaceable-task, /glossary/#changing-task, and /glossary/#growing-task.

  1. Changing: Position imaging equipment and adjust controls to set exposure time and distance, according to specification of examination. AI-assisted protocol and dose-optimisation tools support exposure settings, but the physical positioning and final control of the equipment remain human-led.
  2. Growing: Position patient on examining table and set up and adjust equipment to obtain optimum view of specific body area as requested by physician. Physical patient handling and equipment set-up are embodied tasks current generative AI cannot perform.
  3. Growing: Monitor patients' conditions and reactions, reporting abnormal signs to physician. Clinical vigilance and in-room judgement about a patient's condition are augmentation-prone rather than displaceable.
  4. Growing: Explain procedures and observe patients to ensure safety and comfort during scan. Patient communication and comfort during a procedure are interpersonal tasks that remain human.
  5. Changing: Use radiation safety measures and protection devices to comply with government regulations and to ensure safety of patients and staff. AI dose-management systems assist with monitoring and optimisation, but responsibility for radiation-safety compliance and its physical execution stays with the technologist.

What is growing in this role

The BLS Employment Projections 2024-2034 outlook for radiologic technologists is faster than average (+5% projected change, no published absolute figure). Source: BLS Employment Projections 2024-2034.

Per the WEF Future of Jobs Report 2025, the top three growing skills relevant to this role are: Technological literacy, AI and big data, Empathy and active listening. The skills are mapped to the occupation's O*NET skills profile.

Brookings 2024 treats imaging as an exposed pattern-recognition domain, but the exposed task is interpretation, performed by the radiologist. The technologist's image-acquisition, radiation-safety, and patient-care tasks are embodied and augmentation-prone rather than displaceable.

Similar occupations

O*NET 30.2 lists the following related roles. Each links to its own deep dive where one is published.

Industry context

This role sits primarily in the Healthcare industry. The industry-level rollup includes the cross-occupation exposure profile and the BLS-published industry-level outlook.

How this assessment was made

The full methodology is at /methodology/: ILO 2025 refined index for the gradient, Brookings 2024 rubric for the task tags, BLS 2024-2034 for the growth outlook, WEF 2025 for the skills demand. The pre-empted critiques are at /how-to-argue-with-this/.

AI impact on radiologic technologist jobs: frequently asked questions

Will AI replace radiologic technologists in 2025-2026?

Not outright. The ILO 2025 refined Generative AI Occupational Exposure Index places radiologic technologists in the low exposure gradient, and none of the top 5 O*NET 30.2 tasks are classified fully displaceable: the exposed tasks are changing rather than disappearing. AI is changing radiologic technologist work at task level in 2025-2026 rather than eliminating the occupation.

Are radiologic technologist jobs growing or declining?

The US Bureau of Labor Statistics projects employment for radiologic technologists to grow 5% (faster than average) between 2024 and 2034. Source: BLS Employment Projections 2024-2034, National Employment Matrix.

What does BLS project for radiologic technologists, 2024-2034?

The BLS Occupational Outlook Handbook projects employment of radiologic technologists to grow 5% (faster than average) from 2024 to 2034, and reports a median annual wage of $77,660 (May 2024). Source: BLS Occupational Outlook Handbook.

What skills are growing for radiologic technologists?

Per the WEF Future of Jobs Report 2025, the top growing skills relevant to this role are Technological literacy, AI and big data, Empathy and active listening.

From the cluster