Last Update: 11/21/2025
Your role’s AI Resilience Score is
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These roles are shifting as AI becomes part of everyday workflows. Expect new responsibilities and new opportunities.
AI Resilience Report for
They study tiny organisms like bacteria and viruses to understand how they affect our health and environment, helping to develop medicines and solutions to problems.
Summary
A career in microbiology is labeled as "Evolving" because AI is increasingly taking over routine tasks like processing samples and scanning microscope images. This means microbiologists need to adapt by learning to work alongside these new tools.
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Learn more about how you can thrive in this position
Summary
A career in microbiology is labeled as "Evolving" because AI is increasingly taking over routine tasks like processing samples and scanning microscope images. This means microbiologists need to adapt by learning to work alongside these new tools.
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AI Resilience
All scores are converted into percentiles showing where this career ranks among U.S. careers. For models that measure impact or risk, we flip the percentile (subtract it from 100) to derive resilience.
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Medium Demand
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Analysis of Current AI Resilience
Microbiologists
Updated Quarterly • Last Update: 11/21/2025

State of Automation & Augmentation
In microbiology labs, new machines and AI tools are helping with some routine work. For example, hospitals now often use automated systems to process samples. Machines can streak and incubate plates, take digital images, and even do some “reading” of cultures on a computer screen [1].
Powerful instruments like mass spectrometers (MALDI-TOF) and genetic sequencers can “chemically analyze” bacteria very quickly. On the image side, AI-based software can scan microscope pictures (like Gram stains or agar plates) to flag which samples have growth and suggest the microbe type [2] [1]. Studies show AI tools can separate positive from negative culture plates and count colonies almost as well as humans [1] [1].
These advances mean tasks like examining many slides or tracking growth over time are increasingly handled by machines, freeing up scientists’ time.
However, many tasks still rely on human skill. Writing reports, giving advice to doctors, and supervising lab teams are still done by people. So far, AI mainly speeds up routine data tasks.
For instance, AI can suggest a first draft of a report, but experts must check and edit it carefully [1]. Likewise, isolating tricky cultures or studying unusual microbes still needs a scientist’s judgment. In short, AI and robots can do a lot of the “busy work” (like running many tests quickly) [3] [2], but humans are still key for decision-making, creativity, and oversight.

AI Adoption
Why will labs use more AI -- or not? One big reason to adopt AI is efficiency. Microbiology labs face heavy workloads (testing water, food, patient samples) and need fast results.
Automated systems can process samples 24/7 and greatly cut labor time. In fact, full lab automation has been shown to slash the cost per specimen by 15–47% and let labs handle more tests [1]. With many experienced lab workers retiring or moving on, AI tools offer a way to keep up when there aren’t enough people.
A recent survey found over 75% of science labs plan to add AI within two years, seeking faster, more accurate testing [4]. In cases like diagnosing infections, faster results save lives, so hospitals are eager to use any safe technology that helps doctors.
On the other hand, using AI in microbiology isn’t instant or free. New equipment and software can be very costly, and hospitals must validate (test) any AI tools before trusting them with patient samples [1] [1]. Labs need trained staff to run and maintain these systems; in fact, many labs say a lack of AI skills is a “main obstacle” to adoption [4].
There are also rules: medical labs follow strict regulations (like CLIA in the U.S.) to ensure patient safety. Regulators are still figuring out how AI fits those rules, so many labs move carefully.
Overall, experts say we will see gradual growth in AI use. Many repetitive tasks (spotting microbe colonies, running standard tests) will keep moving towards automation. But the need for human insight remains high.
Lab scientists will still train the machines, double-check their results, and design new experiments. For students worried about the future: learning to work with these tools can make you even more valuable. The computers handle routine data processing; people focus on the interesting science, problem-solving, and patient care.
With the right training, microbiologists will be able to use AI as a helpful partner, not a replacement [1] [1].

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Median Wage
$87,330
Jobs (2024)
20,700
Growth (2024-34)
+4.1%
Annual Openings
1,700
Education
Bachelor's degree
Experience
None
Source: Bureau of Labor Statistics, Employment Projections 2024-2034
AI-generated estimates of task resilience over the next 3 years
Supervise biological technologists and technicians and other scientists.
Study growth, structure, development, and general characteristics of bacteria and other microorganisms to understand their relationship to human, plant, and animal health.
Provide laboratory services for health departments, for community environmental health programs and for physicians needing information for diagnosis and treatment.
Observe action of microorganisms upon living tissues of plants, higher animals, and other microorganisms, and on dead organic matter.
Investigate the relationship between organisms and disease including the control of epidemics and the effects of antibiotics on microorganisms.
Study the structure and function of human, animal and plant tissues, cells, pathogens and toxins.
Use a variety of specialized equipment such as electron microscopes, gas chromatographs and high pressure liquid chromatographs, electrophoresis units, thermocyclers, fluorescence activated cell sorte...
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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