Nuclear medicine technologists

20,000 jobs in the US · AI exposure 4/10 · AI opportunity 5.5/10

What AI will never replace

Physically positioning a claustrophobic, elderly patient inside a gamma camera while keeping them calm and still enough for a usable scan requires hands-on patient handling no robot currently performs. Preparing and handling radioactive tracers—drawing up precise doses of technetium-99m, verifying radiopharmaceutical purity, and managing spill protocols in real time—demands manual dexterity and safety judgment in a high-stakes physical environment.

AI exposure: 4/10

The role requires significant physical presence to prepare and administer radiopharmaceuticals, operate heavy machinery, and physically assist or position patients. While AI will likely automate the digital aspects of the job—such as optimizing image quality, calculating dosages, and streamlining record-keeping—the core clinical and manual tasks remain insulated from full automation.

AI advantage: 5/10

The role involves a significant physical component, including patient handling and the manual preparation of radiopharmaceuticals, which AI cannot replace. However, AI tools can dramatically improve the 'desk' portions of the job, such as optimizing image quality, automating radiation dose calculations, and streamlining the detailed record-keeping required for safety compliance.

Job growth outlook: 6/10

AI is significantly enhancing the precision and speed of nuclear imaging (PET/CT/SPECT), which lowers radiation doses and improves diagnostic yield, thereby increasing the clinical utility and volume of these procedures. While AI automates some image processing, the physical requirements of handling radiopharmaceuticals, ensuring radiation safety, and managing patient care remain human-centric, leading to a net growth in demand as the technology becomes more accessible and effective.

Career details

  • Typical education: Associate's degree
  • Median annual pay: $97,020
  • 10-year outlook: As fast as average