Evidence brief · Criticality of AI Upskilling

Human review is the control. Who qualifies the reviewer?

Every plan to use generative AI in regulated life-sciences work rests on a qualified person reviewing the output. Regulators, quality authors, practitioners and AI researchers now agree on that point. This brief collects what they have said and what the research shows, and explains why the Academy treats review competence as a skill to be trained and demonstrated before anyone relies on it.

Key findings

  1. Enforcement has started. In April 2026, FDA cited a manufacturer for using AI to create specifications, procedures and master production or control records that were not reviewed for accuracy and CGMP compliance.
  2. Quality authors call unqualified review a weak control. Writers in the PDA Letter and ISPE's Pharmaceutical Engineering say review fails when the reviewer lacks the domain fluency to see what the AI got wrong.
  3. Experts defer without noticing. In a randomized trial run by Anthropic researchers, professional analysts went with an AI agent's randomly assigned lean 86 percent of the time, and most called the result their own.
  4. The regulations already require competence. 21 CFR 211.25 requires training and experience for assigned functions, and the EU AI Act keeps a duty to train staff for human oversight of high-risk systems.
  5. Review is most of the cost. McKinsey analyses put checking and oversight at most of an AI agent's running cost, so a review that misses errors is expensive as well as risky.

The control every AI plan depends on

Validation strategies, risk assessments and inspection answers for generative AI in GxP work share one sentence: a qualified human reviews the output. That sentence assumes the reviewer can find what the system got wrong, including what it left out. When an organization records tool-use training and accepts a signature without testing review performance, the reviewer’s ability to detect defects remains an assumption.

The enforcement record shows where that leads. On April 2, 2026, FDA issued Warning Letter 320-26-58 to Purolea Cosmetics Lab, citing a firm that "used AI to create drug product specifications, procedures, and master production or control records" and did not review them for accuracy and CGMP compliance, as 21 CFR 211.22(c) requires of the quality unit (FDA, 2026).

David Hubmayr of Takeda, writing in the PDA Letter, named the missing control:

"no one had enough cGMP fluency to recognise the errors"

Hubmayr, n.d., PDA Letter

He also explained why polished output gets less scrutiny: reviewers relax "because the surface signals of error are absent." A generative system writes fluent, well-organized text whether its reasoning is sound or not, so a defect can look exactly like correct work.

What quality professionals are saying

The PDA Letter published an article whose title states the Academy's premise, "AI Upskilling Is Now a GMP Capability." It argues that "AI literacy must include critical review skills, not only tool usage," and that upskilling "acts as a control mechanism" (PDA, n.d.).

Frank Henrichmann and Oliver Herrmann, writing for ISPE, reached the same conclusion from the control side. They found that "human oversight under real-world working conditions is not inherently reliable," and that automation bias, cognitive ease and review fatigue "can reduce HITL to a formal gesture without ensuring meaningful detectability." Their definition of human-in-the-loop names the people the control depends on: it is a control "whereby qualified personnel are explicitly integrated into automated or AI-supported processes to review, approve, or override outcomes" (Henrichmann and Herrmann, 2026).

Robert Stoop and Gaurav Walia of PQE Group describe guardrails that let users "critically evaluate" AI recommendations and "maintain expertise, rather than deferring blindly to AI," and a design in which junior investigators keep conducting investigations, "learning root cause methodologies with AI assistance rather than AI replacement" (Stoop and Walia, 2026).

The same theme ran through the 2026 conference season. Janeen Skutnik-Wilkinson's reports from the ISPE Annual Meeting and the PDA/FDA Joint Regulatory Conference include these points Reported

  • From a CIMCON session: "If an AI tool is 80% right and you don't know which 20% is wrong, you haven't saved 80% of your review time." The same session described an AI check of an SOP against a regulation that covered 14 of 17 requirements and never flagged the other three (Skutnik-Wilkinson, 2026a).
  • An FDA speaker cautioned against using AI for anything you are not qualified to check yourself (Skutnik-Wilkinson, 2026b).
  • A session on the nuclear industry described teaching the reason behind every procedure, so that people can adapt when a procedure does not fit the situation (Skutnik-Wilkinson, 2026b).

These points are her accounts of sessions. The speakers and exact wording have not been confirmed against recordings or slides.

What the research shows

The strongest evidence comes from an AI developer. In a pre-registered randomized trial, Anthropic researchers gave 50 professional causal-inference practitioners an AI coding agent and an analysis task that ended in a policy recommendation (Herdağdelen, Joren, and Tamkin, 2026). The agent was instructed to hold and voice a view. On each of four analytical decisions, a coin flip the participant never saw set which of two defensible options it favored. The agent made the best honest case for its side and did not mislead.

86%
of analytical decisions matched the agent's randomly assigned lean, against 50% by chance
77%
of participants justified their choices with the agent's talking points
15%
mentioned the agent in any of their justifications
91%
of 123 runs with no assigned lean produced the same five choices

More than half of the participants rated the final recommendation as more their own than the agent's. Those who followed the agent on all four decisions were as confident as everyone else. In exploratory analyses, the authors found no evidence that years of experience, self-rated expertise, education or a skills-quiz score changed how often participants followed the lean.

The authors trace the effect to how the agent argued. It "rarely explained why a competent expert could pick the other option," and it voiced its side first on 77 percent of decisions, often before the participant had formed a view. Their conclusion speaks directly to quality systems:

"Institutions often treat an expert's sign-off as evidence of independent judgment, and as AI does more of the work, that assumption becomes shakier."

Herdağdelen, Joren, and Tamkin, 2026, Anthropic

Many GxP decisions have the same structure as the study's judgment calls: the most probable root cause, a severity rating, the scope of a CAPA, the conclusion of an impact assessment. A competent reviewer could defend more than one answer. On calls like these, an AI's lean can settle the outcome without producing any error a reviewer could catch, and the record will still show a qualified person's signature. The 91 percent figure adds a second concern. When many reviewers use the same model, their conclusions can converge on that model's preferences, and agreement between two investigators stops being independent confirmation.

The study also shows the value. Serious methodological or coding errors occurred in 6 percent of AI-assisted sessions, against 55 percent in a smaller group that worked without the agent. That comparison was not randomized, but it points the same way as most practitioner experience: these tools improve verifiable work. The risk sits in the judgment calls and in the reviewer's ability to tell the two apart.

The study has limits its authors state plainly: one task in one domain, synthetic data, participants who were new to that domain, and an agent prompted to hold a view more firmly than a stock agent might. It does not show that GxP reviewers behave the same way. It does show that a sign-off can look independent while the judgment came from the system, and that subject knowledge alone did not appear to prevent it.

What the regulations already expect

No new rule is needed to require competent review. Under 21 CFR 211.25, each person engaged in drug manufacture must have the education, training and experience to perform their assigned functions. Reviewing and approving AI-supported quality work is an assigned function. Its proficiency requirements are rarely defined.

The industry already knows what demonstrated proficiency looks like. EU GMP Annex 1 lets personnel work unsupervised in Grade A and B areas only after they have passed a gowning assessment and taken part in a successful aseptic process simulation (European Commission, 2022, paragraph 7.4). Operators prove they can do the work before they touch the product.

In Europe, the AI Act adds a direct obligation. Article 4 requires providers and deployers to take measures on AI literacy for their staff. Amendments under the Digital Omnibus on AI, which the Commission reports entered into force in mid-July 2026, removed the requirement for a specific "sufficient" level, and national supervision and enforcement apply from August 2, 2026. For deployers of high-risk AI systems, the Commission states that "the obligation to ensure that their staff is trained to ensure human oversight remains in place" under Article 26 (European Commission, n.d.). Many GMP uses of AI may not be high-risk under the Act, so the general literacy duty is the one most sites will meet. Henrichmann and Herrmann note that the draft EU GMP Annex 22 also identifies human oversight as a key control mechanism.

The economics of review

Two McKinsey analyses describe where the money goes in agentic AI work. In the first, "the expensive part is not the first answer generated but the checking, repairing, and reverifying that follows," and about 60 percent of an agentic task's cost is tied to refining answers, a figure drawn from software engineering (Hämäläinen et al., 2026). In the second, a banking customer-service example, human oversight made up 70 to 75 percent of an agent's variable cost (Asif et al., 2026).

Neither example comes from pharma, and neither measures first-pass accuracy. The implication for regulated work follows from their figures: if review is most of the cost, the first review has to be right. An error that clears review and enters a GxP record costs more to find, investigate and correct later. A qualified reviewer is an economic control as well as a compliance one.

Where industry leadership is today

Senior leaders are investing in AI skills, mostly framed as adoption.

  • Johnson & Johnson's CIO, Jim Swanson, described having to "create a curriculum and a mindset around upskilling" (Kell, 2025).
  • Eli Lilly's Diogo Rau told employees "you need to use it," with the rule "Don't put anything in there that you don't want to get out" (Kell, 2025). That pairs an adoption mandate with a data-protection rule; the article reports no review-competence requirement.
  • AstraZeneca reports that over 12,000 employees have taken part in its AI upskilling and literacy programme, which encourages them to "be curious, think critically, ask questions, speak up" (Hoots et al., 2025).
  • Parexel's Tala Fakhouri, who previously wrote AI policy at FDA (Trang, 2026), criticized rollouts in which a company deploys an AI assistant and "staff are supposed to figure it out" (Parrish, 2026).
  • In ZS's 2026 survey of pharma and biotech technology executives, 58 percent said talent and skills were under pressure to change. ZS describes the role of domain experts as being to "validate AI recommendations and step in when guidance is needed," and quotes one CIO: "The true value of agentic AI comes into process reengineering. We don't have enough people to understand the end-to-end process" (ZS, 2026).

Few of these statements connect training to the reliability of human review. That connection is the one the evidence above supports, and it is the gap the Academy was built to address.

What qualification has to include

Taken together, the evidence sets requirements for any program that claims to prepare people to review AI-supported GxP work. A course on responsible use and an acceptable-use policy do not meet them.

  • Teach the failure modes before the tool.Fluent output that omits a record, confident claims with no source, a true statement about the wrong product, and a one-sided case for a defensible option. Teach the reason behind each requirement, so a reviewer can see when output satisfies the wording and misses the purpose.
  • Qualify by role, system and task.Qualification attaches to a person, a configured system, a version and a defined task, the way operator qualification attaches to a process and its equipment.
  • Assess on representative work.Real-format cases with seeded defects and correct outputs mixed in, so that blanket rejection fails as surely as blanket acceptance. Pass criteria are fixed in advance, and missing a critical omission cannot be offset by easy items.
  • Practice independent judgment.For decisions with no single right answer, the reviewer records their own position before seeing the AI's and states the strongest case for the option the AI did not choose. The Anthropic results suggest it has to be practiced and assessed directly, because subject knowledge alone did not appear to prevent deferral.
  • Design the process to require it.Independent findings before AI output, defined minimum review times, and a system log of who proposed each judgment call and which alternative was recorded, so deferral can be trended across investigations, sites and model versions.
  • Requalify on change and on evidence.A model update, a new retrieval source or new authority changes the job. So does an error found later in a record.

The Life Sciences AI Academy grew out of this same concern: AI governance cannot be effective without a workforce capable of recognizing when its controls fail. Its current curriculum addresses AI failure modes, role-based learning, human oversight, documentation, and competency assessment. The next step is more demanding: translating those foundations into system-specific qualification, independently evaluated performance assessments, and requalification when AI capabilities or operating conditions change. That distinction matters. Training prepares people to perform the work; operational qualification must establish that they can perform it reliably under the conditions in which the system will actually be used.

See the curriculum, the credential standards and the methodology.

What this evidence does not show

The research on training itself is sobering. In a field experiment with 758 BCG consultants, participants given instructional material on how to use an AI tool did worse on a task the AI got wrong than colleagues who used the tool without it. From a baseline of 84.5 percent correct without AI, correct answers fell 24.5 percentage points in the trained group and 13.9 points in the untrained AI group, a difference the authors report as significant at the 10 percent level (Dell'Acqua et al., 2026). A widely cited review of automation research concludes that automation bias "occurs in both naive and expert participants, cannot be prevented by training or instructions, and can affect decision making in individuals as well as in teams" (Parasuraman and Manzey, 2010). In a pre-registered experiment, raising awareness of deepfakes did not improve people's ability to detect them (Köbis, Doležalová, and Soraperra, 2021).

These studies tested tool-use instruction, general training and awareness messages. None tested qualification built around verification: practice on seeded defects, forming a position before seeing the AI's, and assessment on representative work. That is the kind of qualification this brief argues for.

The sources above establish that human review of AI output is the control regulators and practitioners rely on, that it can fail when the reviewer lacks competence, and that even experts defer on judgment calls without noticing. None of them tests whether a training program reduces that deferral. This brief makes no claim that the Academy's training has been shown to do so. That claim requires a separate evaluation of reviewer performance on representative work.

Evidence table

SourceTypeWhat it supportsHow checked
FDA Warning Letter 320-26-58Regulator, enforcementUnreviewed AI-generated CGMP documents are a cited violationQuoted text checked on fda.gov
Hubmayr, PDA LetterPractitioner, TakedaMissing reviewer fluency was the failed controlQuotes checked on source page
PDA, "AI Upskilling Is Now a GMP Capability"Quality journalUpskilling as a control; review skills beyond tool useQuotes checked on source page; author not listed
Henrichmann and Herrmann, ISPEQuality authorsHuman oversight is unreliable without designed safeguards; "qualified personnel" in the definitionQuotes checked on source page
Stoop and Walia, Pharmaceutical EngineeringQuality authors, PQE GroupGuardrails against blind deference; expertise retentionFull text read; quotes checked
Skutnik-Wilkinson, conference reportsPractitioner accountsSession examples: the 80% line, 14 of 17 requirements, FDA cautionReported; speakers not confirmed
Herdağdelen, Joren, and Tamkin, AnthropicPre-registered randomized trialExperts defer to an AI's lean on judgment calls without noticingFull paper read; figures checked against text
21 CFR 211.25; EU GMP Annex 1, 7.4RegulationTraining for assigned functions; demonstrated proficiency before unsupervised workChecked against regulatory text
European Commission, AI literacy Q&ARegulator guidanceAI Act Article 4 literacy duty; Article 26 training for oversightQuoted text checked on source page
McKinsey (two articles)Management analysisReview is most of the cost of agentic workQuotes checked; non-pharma examples
Dell'Acqua et al.; Parasuraman and Manzey; Köbis et al.Field experiment, review, pre-registered experimentTool-use training, instructions and awareness messages did not prevent AI-related errorsAbstracts checked on PubMed; Dell'Acqua figures confirmed on the full-text PDF by fetch check
Kell; Hoots et al.; Parrish; Trang; ZSExecutive statements, surveyLeaders frame AI skills mainly as adoptionQuotes checked on source pages

Build the foundations for qualified AI review

Start with AI Fundamentals at no cost, find the pathway for your role, or scope a role-based program for your team.

Review status: Academy commentary by the author; no independent subject-matter reviewer is claimed. The evidence table records the author’s source checks. No independent source audit is claimed. Revision history: v1.0, dated and source-checked October 30, 2026. v1.1, October 30, 2026: added counter-evidence on training, a statement of what the Academy curriculum currently covers, LinkedIn post links, and undated-source citations. v1.2, October 30, 2026: integrated with Academy navigation, added a prominent current-capability statement, narrowed the commercial wording and separated proposed performance qualification from current assessment. v1.3, October 30, 2026: moved to the standalone Criticality of AI Upskilling page with separate navigation and layout. Report an error through corrections.

References

  1. Asif, C., Kiewell, D., Olanrewaju, T., Hämäläinen, L., and Kolaja, T. (2026, August 24). Where AI agents pay off: A practical guide to the economics of agentic workflows. McKinsey & Company.
  2. Dell'Acqua, F., McFowland, E., III, Mollick, E., Lifshitz, H., Kellogg, K. C., Rajendran, S., Krayer, L., Candelon, F., and Lakhani, K. R. (2026). Navigating the jagged technological frontier: Field experimental evidence of the effects of artificial intelligence on knowledge worker productivity and quality. Organization Science, 37(2), 403-423.
  3. European Commission. (2022). EudraLex Volume 4, Annex 1: Manufacture of sterile medicinal products, paragraph 7.4.
  4. European Commission. (n.d.). AI literacy: Questions and answers. Retrieved October 30, 2026.
  5. FDA. (2026, April 2). Warning Letter 320-26-58, Purolea Cosmetics Lab (MARCS-CMS 722591).
  6. Hämäläinen, L., Patel, M., Blumberg, S., Catlin, T., and Lala, W. (2026, July 13). Is that AI agent worth it? Agentic economics and the modern operating model. McKinsey Quarterly.
  7. Henrichmann, F., and Herrmann, O. (2026, September 4). Human-in-the-loop as an illusion of control? ISPE Pharmaceutical Engineering, iSpeak.
  8. Herdağdelen, A., Joren, H., and Tamkin, A. (2026, October 27). Who's aligned to whom? How AI agents shape experts' research judgment calls. Anthropic. Pre-registration: osf.io/t3q59.
  9. Hoots, C., Dummann, B., and Szymaszek, M. (2025, April 11). How we’re upskilling and preparing our workforce to thrive in the age of AI. AstraZeneca.
  10. Hubmayr, D. (n.d.). When the AI never told you. PDA Letter.
  11. Kell, J. (2025, March 10). How pharmaceutical companies are training their workers on AI. Business Insider.
  12. Köbis, N. C., Doležalová, B., and Soraperra, I. (2021). Fooled twice: People cannot detect deepfakes but think they can. iScience, 24(11), Article 103364.
  13. Parasuraman, R., and Manzey, D. H. (2010). Complacency and bias in human use of automation: An attentional integration. Human Factors, 52(3), 381-410.
  14. Parrish, M. (2026, June 26). BIO 2026: Where pharma leaders say AI hasn't delivered. PharmaVoice.
  15. PDA. (n.d.). AI upskilling is now a GMP capability: Why drug makers must train employees before scaling AI. PDA Letter. Author not listed on the page.
  16. Skutnik-Wilkinson, J. (2026a, October 28). Human-in-the-loop review came up in almost every AI session I attended at ISPE 2026 [Post]. LinkedIn.
  17. Skutnik-Wilkinson, J. (2026b, October 30). What builds judgment when AI does the easy work? [Post]. LinkedIn.
  18. Stoop, R., and Walia, G. (2026, July/August). Transforming pharmaceutical quality with GAMP AI guardrails. Pharmaceutical Engineering.
  19. Trang, B. (2026, July 2). A former AI regulator, now in industry, says biopharma is reading FDA's guidance wrong. STAT.
  20. U.S. Code of Federal Regulations. 21 CFR 211.22, Responsibilities of quality control unit; 21 CFR 211.25, Personnel qualifications.
  21. ZS. (2026). Scaling AI in pharma and biotech: 2026 outlook from ZS’s CDIO research. ZS.