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Generative AI/LLMs for Plain Language Medical Information for Patients, Caregivers and General Public: Opportunities, Risks and Ethics
Authors Pal A
, Wangmo T, Bharadia T
, Ahmed-Richards M
, Bhanderi MB
, Kachhadiya R
, Allemann SS
, Elger BS
Received 16 March 2025
Accepted for publication 28 June 2025
Published 31 July 2025 Volume 2025:19 Pages 2227—2249
DOI https://doi.org/10.2147/PPA.S527922
Checked for plagiarism Yes
Review by Single anonymous peer review
Peer reviewer comments 3
Editor who approved publication: Dr Johnny Chen
Avishek Pal,1 Tenzin Wangmo,1 Trishna Bharadia,2,3 Mithi Ahmed-Richards,4,5 Mayank Bhailalbhai Bhanderi,6 Rohitbhai Kachhadiya,6 Samuel S Allemann,7 Bernice Simone Elger1,8
1Institute for Biomedical Ethics, University of Basel, Basel, Switzerland; 2Patient Author, The Spark Global, Buckinghamshire, UK; 3Centre for Pharmaceutical Medicine Research, King’s College London, London, UK; 4Current Medical Research & Opinion, Taylor & Francis Group, London, UK; 5Patient Author, Scleroderma and Raynauds UK, London, United Kingdom; 6Innomagine Consulting Private Limited, Hyderabad, India; 7Department of Pharmaceutical Sciences, University of Basel, Basel, Switzerland; 8Center for Legal Medicine, University of Geneva, Geneva, Switzerland
Correspondence: Avishek Pal, Institute for Biomedical Ethics, University of Basel, Bernoullistrasse 28, Basel, 4056, Switzerland, Tel +41 79 835 0983, Email [email protected]
Abstract: Generative artificial intelligence (gAI) tools and large language models (LLMs) are gaining popularity among non-specialist audiences (patients, caregivers, and the general public) as a source of plain language medical information. AI-based models have the potential to act as a convenient, customizable and easy-to-access source of information that can improve patients’ self-care and health literacy and enable greater engagement with clinicians. However, serious negative outcomes could occur if these tools fail to provide reliable, relevant and understandable medical information. Herein, we review published findings on opportunities and risks associated with such use of gAI/LLMs. We reviewed 44 articles published between January 2023 and July 2024. From the included articles, we find a focus on readability and accuracy; however, only three studies involved actual patients. Responses were reported to be reasonably accurate and sufficiently readable and detailed. The most commonly reported risks were oversimplification, over-generalization, lower accuracy in response to complex questions, and lack of transparency regarding information sources. There are ethical concerns that overreliance/unsupervised reliance on gAI/LLMs could lead to the “humanizing” of these models and pose a risk to patient health equity, inclusiveness and data privacy. For these technologies to be truly transformative, they must become more transparent, have appropriate governance and monitoring, and incorporate feedback from healthcare professionals (HCPs), patients, and other experts. Uptake of these technologies will also need education and awareness among non-specialist audiences around their optimal use as sources of plain language medical information.
Plain Language Summary: More and more people are using special computer programs called artificial intelligence (AI) or large language models (LLMs) to find and get medical facts in simple words they can understand. This can help people take better care of themselves, learn about their health, and talk with their doctors. We found that AI/LLMs generally provided correct and helpful information to people. However, there could also be a risk of incorrect or unreliable information in certain situations if the question is complex. This can cause harm to people if they use this information to make their own medical decisions. Also, gAI/LLMs provide human-like responses, which make people trust them more than they should. There could be a risk that people may share their medical information with AI/LLMs, which could get into the wrong hands. To make sure these programs really help people, they need to be clear about how they work, and they must have good rules to follow and take advice from doctors and patients to improve performance. People also need to be trained on how to best use these AI tools to find easy-to-understand and reliable medical information. It is important for doctors, patients and other health workers to help make sure the AI is producing reliable and understandable medical information for patients.
Keywords: artificial intelligence, large language model, ethics, health literacy, plain language summary
Introduction
In recent years, there has been widespread use of generative artificial intelligence (gAI) and large language models (LLMs) in healthcare, including improving clinical decision-making, clinical documentation, operational efficiency, diagnostic support, patient monitoring and follow-ups, healthcare professional (HCP) education and much more.1–3 The attraction of AI applications in healthcare can be gauged from the significant increase in the number of annual authorizations of AI medical devices by the US Food and Drug Administration (FDA) from a mere two authorizations in 2016 to 69 in 2022.4 Interestingly, a number of AI health tools available in the market are, in fact, not validated based on actual clinical data. This already raises the fundamental ethical question of whether the output from these models could pose a risk to patients when implemented in healthcare settings.
Patients, caregivers, and the general public (henceforth to be called non-specialist audiences) are using gAI/LLMs, such as ChatGPT, Google Bard, LLaMa, and NVLM, to access medical information and to simplify and/or translate complex medical terminology into plain everyday language through conversational interfaces. Their questions may include information about medical conditions, the latest medical research, and treatment options, including lifestyle modifications.5–7 Their ultimate aim most likely is to increase their knowledge and understanding of a diagnosis or treatment and, by extension, improve their health literacy, defined as the ability to find, understand and use health information to make informed decisions.1,3,8 There are two primary reasons for the unprecedented popularity of gAI/LLMs among the general public compared with previous AI technologies. First, they offer mostly free access to easy-to-understand (plain language), summarized content, and, more importantly, ease of use without requiring knowledge of programming languages or coding.9 However, such accessibility also poses deeper ethical questions, such as the impact on autonomy and/or active participation in shared decision-making on self-care or care for their families. Acknowledging the increasing demand for medical information to be more accessible and understandable to non-specialist audiences, organizations have started to utilize AI-based models to automate the unsupervised development and access to plain language medical information for non-specialist audiences.10 It can be foreseen that gAI/LLMs will continue to grow as a tool used by organizations to provide medical information. However, with increased accessibility comes the risk that such users may use gAI/LLMs as a single source of truth and implement changes in their disease management, lifestyle, and disease prevention, which could have harmful effects on their health.11 Hence, appropriate ethical governance and monitoring of these models require serious deliberation considering their growing application in healthcare in general and, more specifically, in patient education.
While the use of gAI/LLMs by non-specialist audiences has been increasing, the majority of research has continued to focus on the use of gAI/LLMs by HCPs/researchers for disease diagnosis, clinical/patient note generation or other HCP-monitored activities.12–15 The next most frequent line of enquiry has been on how institutions are using gAI/LLMs to bring efficiency into healthcare delivery.16,17 Consequently, published ethical explorations have also focused on these two broad themes.18–20 This leaves a concerning unaddressed gap regarding the risks, opportunities and ethical considerations when non-specialist audiences use gAI/LLMs as sources of plain language medical information. To our knowledge, this is the first attempt to start investigating this knowledge gap. Our aims were three-fold, namely to: (1) provide an overview of findings in published primary research on the applications, limitations, risks, and potential harms associated with the utilization of gAI/LLMs in educating non-specialist audiences (2) critically build on the ethical perspective on the use of gAI/LLMs by this non-specialist audience, and (3) make recommendations, including those specifically from patients, for a balanced approach to the implementation of gAI/LLMs.
Methods
We used the framework of Arksey and O’Malley21 to identify and select eligible articles and collated and summarized the results. Salient papers were identified by means of a structured search of Ovid, using a search string that captured the relationship between synonyms of LLM and AI and medical information for patients. The following search string was used: guidance OR guideline OR recommendations OR regulations AND plain language materials OR plain language resources OR patient materials OR lay summaries OR plain language summaries OR plain English summaries OR non-technical summaries OR patient summaries. We restricted our search to open-access publications dating from January 2023 to July 2024 to allow sufficient time for literature to accrue following the rollout of the most prominent gAI/LLMs, ChatGPT, in November 2022, followed by Copilot and LlaMa in February 2023, Gemini and Claude in March 2023, and Mistral in April 2023. No geographical restrictions were imposed.
Papers that reported outcomes of comparisons across various gAI/LLMs or between gAI/LLMs and other information sources (eg, Google, clinical guidelines, medical society recommendations or patient organization materials) were included. We excluded papers that were in languages other than English and those that reported outcomes of assessments of gAI/LLMs for any other uses beyond sources of medical information for patients (eg, assessment of utilization by HCPs as aids in patient care decision-making, predictive diagnosis, data analysis, medical procedures, or administrative tasks such as patient record management). We also excluded any reviews, commentaries, or any article types that did not report primary data.
The titles and abstracts of articles were screened independently by two researchers (AP, supported by AY as noted in our acknowledgements) to confirm that they met the inclusion criteria and to eliminate duplicates. Full-text articles were then independently assessed for eligibility by three researchers (AP, and MBB and RK together), who also approached the extraction and cross-check steps in a similar independent manner. Disagreement was resolved through discussion. The following fields were extracted from the included articles: study objectives, disease area or procedure, LLMs assessed, the purpose of use of LLMs, evaluation criteria, evaluation method, what the models did and did not do well, overall risks, and specific patient feedback, if any.
During the information extraction stage, we noted that none of the articles included in our assessment discussed the topic of ethical considerations around non-specialist audiences using gAI/LLMs as the source of medical information. In order to address this crucial knowledge gap, we performed a supplementary review of the literature. The intention was not to perform a comprehensive review but rather a snapshot of the relevant and latest publications on this topic to initiate a conversation that has been mostly missing in public discourse.
Results
Characteristics of Articles and Nature of Analyses
Overall, 918 journal articles were identified; of these, 51 met the eligibility criteria. Open-access versions were not available for five journal articles, while two studies were not primary research, and hence, these were excluded. Finally, 44 journal articles were included where gAI/LLMs were evaluated as sources of plain language medical information for patients.
Tables 1 and 2 and Supplementary Tables S1 and S2 provide an overview of the various investigations performed to assess the utility of gAI/LLMs evaluated as sources of plain language medical information for patients. These investigations either (1) evaluated a single model such as ChatGPT or Bard or Claude or Bing (Table 1); or (2) compared models to patient materials or patient guidelines (Table 2); or (3) compared different models (Supplementary Table S1); or (4) compared models to search engines or an AI app’s recommendations to expert advice (Supplementary Table S2).
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Table 1 Studies Evaluating LLMs |
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Table 2 Studies Comparing LLMs with Current Standards (Eg, Established Healthcare Information or HCP Guidelines) |
Disease areas or specialties explored most frequently included different types of cancer, cardiovascular disease, ophthalmological disorders, rheumatology, dermatology, otolaryngology, and surgery. The objectives included the evaluation of various attributes such as accuracy, readability, appropriateness, quality, comprehensiveness, relevance, reliability, precision, accessibility, actionability, and empathy. Irrespective of the terminology used in the study objectives, the majority of the assessments were based on the clinical judgement of HCPs. A similar approach was used to assess the appropriateness, relevance, quality, precision, reliability, accessibility, or actionability of the content generated. Readability and comprehension were assessed by a variety of scales, including the Flesch-Kincaid Grade Level, Flesch Reading Ease Score, Simple Measure of Gobbledygook, or Gunning Fog Index. Quality was evaluated based on the Global Quality Scale, which is a standard for assessing the quality of online resources or by medical experts based on their clinical experience/judgement or using the DISCERN scale or Patient Education Materials Assessment Tool. While all the studies aimed to provide patient perspectives, only three of them involved actual patients; this involved seeking feedback from patients/patient representatives on commonly asked questions or on an information leaflet generated by ChatGPT or about following an AI-advised exercise regimen in plain language, without medical supervision.
Overview of the Performance of gAI/LLMs
Figure 1 and Table 3 provide an overview of what gAI/LLMs reportedly did well, areas for improvement, overall risks, and specific patient feedback when evaluated as a source of plain language medical information for patients. In investigations of individual models (Table 1), comparative studies across models (Supplementary Table S1), models versus patient materials (Table 2) or internet search engines (Supplementary Table S2), the majority of the models provided reasonably helpful, accurate and well-balanced responses that required minimal clarification and were up-to-date based on treatment guidelines or HCP recommendations. The responses generated were grammatically accurate, sufficiently readable, appropriately detailed, and patient-oriented.51 Some papers also reported that the accuracy of responses was high for general or broad questions such as those on lifestyle, disease prevention, and health promotion.39,48,52,53
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Table 3 Overview of Benefits and Risks Identified Associated with the Use of gAI/LLMs as Sources of Plain Language Information (N = 44) |
The most common risks of using gAI/LLMs as a source of plain language medical information included concerns about the low readability of responses generated versus the requirements of the intended audience and oversimplification of responses at the expense of depth of information. Some papers also reported a decline in accuracy and completeness progressively with more specific or complex questions around disease symptoms, diagnosis, side effects of treatment options, and a lack of transparency on information sources used to generate responses.28 Some reported risks related to responses containing misinformation or inaccurate and outdated information and the absence of the ability to flag controversial or commercially biased information. There were also risks associated with incorrect generalization or extrapolation from source information and the blending of information from correct and incorrect sources. All of these could lead to errors or even harm to patients, which would require remediation and add to the burden of HCPs and healthcare systems. Another potential risk highlighted included data privacy and security concerns if patients start uploading personal medical data to ask gAI/LLMs for explanations. A contrasting risk could be that, in the absence of patient demographic data and unknown to the patients, the models may assume these parameters and provide responses that are not personalized.
None of the published primary research identified from our literature search actively commented on the ethical considerations of their findings.
Recommendations for Implementing gAI/LLMs as Sources of Medical Information for Non-Specialist Audiences
A few papers included brief recommendations on how to de-risk the use of gAI/LLMs by non-specialist audiences (Figure 1). Model development or co-design should involve patients, the general public and HCPs to make responses more relevant to the audience at the time of implementation. This also allows the opportunity to integrate experience, awareness and diversity.66 Optimizing output from gAI/LLMs for better accessibility and understandability can be done through language translation options, complementing text with visuals, personalized output by implementing a minimum input requirement from patients, and incorporating a reinforced learning approach based on human feedback to fine-tune their conversational interaction quality. The reliability of output from gAI/LLMs can be improved by linking responses to peer-reviewed publications supported by a bibliography. Currently, available disclaimer statements warning users about the limitations of the models to offer medical advice should be enhanced to include a risk statement in line with safe medical practice recommendations. Responsible utilization of gAI/LLMs will require medical societies to stay vigilant, and HCPs could provide oversight and evaluate and contextualize the responses these models generate in a medical context.66 Including patients and the general public during the gAI/LLMs’ development phase could enable awareness and education, help avoid misconceptions, reduce fear, increase trust and acceptance of these models, and encourage responsible usage.66 However, patients and the public will have to be continuously educated about the appropriate use of gAI/LLMs. Finally, robust regulations will have to be implemented to preserve patient information confidentiality.
Ethical Considerations
In this section, we provide a snapshot of the ethical considerations surrounding the use of gAI/LLMs by non-specialist audiences. This is based on a supplementary review carried out after our literature search, which found no primary research discussing ethically relevant content (summarized in Figure 1).
Improving Patient Health Literacy, Enabling Empowerment and Shared Decision-Making (Respect for Autonomy)
One of the positive implications of gAI/LLMs discussed is their potential to improve patient health literacy and digital literacy by providing easily accessible and understandable medical information. This is particularly beneficial for those at lower health literacy levels and can have an overall positive impact on patient-HCP communication.23 These models can also support spreading disease awareness among the general public. gAI/LLMs offering visual graphical or audio-visual elements in their responses could enhance the educational value of their output for patients. These models also bring language translation opportunities, significantly improving access to medical information for non-native English speakers. Thus, gAI/LLMs may improve informed decision-making and reduce disparity in favor of patients in countries where English is a second language. Freely accessible, reliable medical information from gAI/LLMs can help those without the financial ability to seek immediate medical attention, thus reducing the risk of poor outcomes. If gAI/LLMs provide responses based on citable peer-reviewed literature, this access to reliable medical information can enable patient autonomy and informed decision-making.66 Taken together, these opportunities that gAI/LLMs bring support the first principle of biomedical ethics, ie, respect for autonomy (patients making informed, competent, independent decisions).
Risk of Perception as “Quasi-Experts” (Principles of Nonmaleficence and Beneficence)
What is potentially the biggest epistemic concern is the projection of “quasi-humanness” by the general public onto gAI/LLMs. The tone of responses from gAI/LLMs has sometimes been rated as more empathetic and preferred to that of HCPs.28 This perception could distract users from verifying the reliability of the responses and encourage them to trust biased medical information. The other concerns are the lack of transparency about their source and the inability of the models to flag any controversial or unreliable information.28 In some cases, the bias in responses may also be commercial in nature. Furthermore, unlike traditional search engines, which provide a list of sources along with explanations, gAI/LLMs provide a single response that could be misconstrued. And, finally, the responses from these models vary in depth and accuracy depending on the framing of the query or prompt. This shortcoming is concerning, given that not all users can be expected to be at the appropriate level of health literacy or digital literacy. The two biggest unaddressed questions are, first, applicability – was this type of end-use considered during the development phase of these models and deemed appropriate? Second, there is a conflict of interest: who benefits financially from the models’ deployment? These concerns pose a risk to the second and third principles of biomedical ethics, ie, principles of nonmaleficence (to not intentionally harm patients by imposing careless risk) and beneficence (to be of benefit to patients or remove harm).
Unclear Accountability for Outcomes/Decisions and Impact on Patient–HCP Relationships (Principle of Beneficence)
Another epistemic cum normative concern is the assignment of accountability for any harm or negative health effects or delays in seeking treatment or undermining medical advice due to decisions of patients based on responses from gAI/LLMs. This is a crucial unanswered question: Who provided expert consultation for the models, and who bears responsibility for the responses generated by gAI/LLMs and their impact? Unanticipated patient outcomes from unreliable responses may also add to the existing workload of HCPs and negatively affect patient-HCP relationships. HCPs who are already challenged for time may have to assume additional supervisory responsibilities verifying medical information and advice that their patients have received from gAI/LLMs. Whether there are any legal ramifications of HCPs guiding patients on how to use gAI/LLMs responsibly also needs consideration. These concerns may act as barriers to HCPs delivering on their duty towards patients through the third principle of biomedical ethics, ie, the principle of beneficence (to be of benefit to patients or remove harm).
Risk to Equity, Inclusiveness and Data Privacy (Principle of Justice)
One of the normative concerns with gAI/LLMs is that bias in the source or training datasets due to a lack of diversity in patient demographics, medical conditions, and healthcare practices across institutions could creep into the responses and may not be generalizable. The unaddressed question here is whether different geographical and cultural contexts were considered and incorporated during the development of the gAI/LLM. The reading levels of the responses gAI/LLMs currently generate are very often at a higher level than the levels recommended for the general public. This puts those at a low health literacy level at a perpetual disadvantage.51 In their efforts to make complex topics readable, gAI/LLMs often omit important content and oversimplify their responses. Most of the latest versions of gAI/LLMs, which claim higher accuracy and the ability to tailor responses to individual needs, are subscription-based. This automatically introduces a barrier to equitable access to medical information and may introduce bias due to a limited user base and their interaction history. gAI/LLMs also harbor the risk of perpetuating equity-averse information, which could be exacerbated in the future. There is also a high risk that patients might upload personal medical records and other confidential information, which brings up significant concerns about data privacy and data security and the lack of informed consent.66 These concerns may pose a risk to the final principle of biomedical ethics, ie, the principle of justice (to distribute healthcare fairly).
Ethical Basis for Implementing gAI/LLMs as Sources of Medical Information for Non-Specialist Audiences
In Table 4, we provide ethically deliberated recommendations from the literature and from our two patient authors (TB and MAR) for “safe” use of gAI/LLMs by non-specialist audiences. The overarching themes are: incorporate moral codes within the models so that those are reflected in the responses; integrate health equity domains into the implementation framework of gAI/LLMs; implement regulations, both self-regulation by developers and oversight by regulators; and, involve stakeholders in designing, developing, implementing, and verifying output.
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Table 4 Ethically Deliberated Recommendations for “Safe” Use of gAI/LLMs by Non-Specialist Audiences |
Discussion
This study is uniquely positioned as it brings together, first, a detailed review of the performance of gAI/LLMs as sources of plain language medical information for non-specialist audiences and, second, a critique of ethical considerations related to this application of gAI/LLMs. The critique is especially important because gAI/LLMs developers may not have envisioned the use of these models as a source of plain language medical information. This opens up these models to the fallacy of “discrimination from design”, which can undermine the accuracy of their output. Finally, we also provide ethically deliberated recommendations that may help make gAI/LLMs suitable for use by non-specialist audiences.
gAI/LLMs have been reported to provide responses that were, in general, accurate, easy to understand, and helpful to non-specialist audiences. This can enable these users to access, generate, and personalize information in ways that extend beyond the limitations of human cognition. Moreover, the conversational nature of LLMs and their “confident” tone of output enable these models to engage in an interactive dialogue with users who have the impression of chatting with a “quasi-human”.2,84–86 Such “anthropomorphization” or projecting human-like characteristics, behaviors, or intentionality to gAI/LLMs may build unwarranted trust and distract non-specialist audiences28 from “hallucinations” or “botshit”.87 This phenomenon may negatively influence patient safety and fuel misconceptions and misinformation due to overgeneralized or extrapolated gAI/LLM-developed conclusions.2,84–86 Furthermore, while the conversational nature improves the ease with which the models interpret and understand information via “informational transparency”, on the other hand, the lack of “reflective transparency” creates opacity in the data source and algorithmic process, and does not allow non-scientific audiences to assess biases in the model and understand the reliability of the recommendations. Given the high usage of internet search engines, the majority of the general public either already are or will be exposed to gAI/LLMs-generated plain language content online, even if they do not access the gAI/LLMs directly. Patients also expect transparency regarding whether they are accessing gAI/LLMs or traditional search engines such as Google or Bing while searching for medical information, as these are often co-located and confusing to those who may not be at an appropriate digital literacy level. They also expect transparency from patient organizations to declare when gAI/LLMs are used to create plain language materials and what policies are in place for appropriate safeguarding of the output. Most available gAI/LLMs caution users not to use their responses for medical information, diagnosis, or decision-making. However, it is not a sufficient deterrent, and real-time monitoring is not realistic. In this context, there are significant concerns that gAI/LLMs often act as “black boxes”, which makes it difficult for non-scientific audiences to interpret the reasoning process that leads to the responses. Recent efforts have focused on establishing standards of assessment for responses to medical questions. However, these efforts still do not include the perspective of non-specialist audiences.88 This unmet need for better explainability requires urgent attention in order to build the non-specialist audiences’ trust in the transparency and accuracy of these models.89
There is potential for gAI/LLMs to improve health literacy and enable non-specialist audiences to participate in shared decision-making. However, in this context, the assignment of accountability for outcomes, especially potential harms from responses of gAI/LLMs, is a key question to consider. This is crucial, given that the output that these models provide is probabilistic and varies depending on prompts. The models may also exhibit “sycophancy bias” – a tendency to tailor their responses to perceived user expectations – leading to incorrect confirmation bias coupled with pseudo-confidence.84,90 Issues surrounding data quality, potential biases, the opaque nature of the algorithm-generated information and the involvement of multiple stakeholders in their development and implementation complicate the assignment of accountability.91,92 Furthermore, as these models are iterative with shifting goals and because they continuously learn new patterns, it will be challenging to direct the liability of any adverse outcome to the technology developers.85,93 Given the complex nature of the stakeholder matrix involved in the development and implementation of these models, this lacunae of assigning accountability is concerning and bears significant risk to the well-being of non-specialist audiences. A related theme that requires further consideration is how significantly gAI/LLMs could exacerbate and perpetuate social inequalities if access to these models is prioritized only for developed geographies.
The erosion of the “human connect” and a change in the patient–physician relationship could be another potential fallout of the direct use of gAI/LLMs by non-specialist audiences.93,94 When these models become an alternative source of plain language medical information that patients use to challenge diagnosis or treatment plans, to verify HCPs’ recommendations, or as an alternative to remote consultations and long waiting lists, they could have long-lasting impacts on the patient-HCP relationships.5,7,85,93 Patients have also reported using gAI/LLMs to largely derive positive outcomes during their interactions with healthcare systems. This may create an illusion of lowering dependence on HCPs for healthcare decision-making. They have used these models to organize medical records in preparation for their HCP consultations, to comprehend medical records and literature, to assist in the diagnosis of complex rare diseases that remained undetected by multiple specialists, to correct misdiagnosis, and to analyze symptoms while managing long waiting times for HCP consultations.5 However, patients continue to see an important role for HCPs in ensuring optimal disease management and overseeing safety aspects as a safeguard while using gAI/LLMs for medical information.85 The encounter between a patient and HCP is conceptualized as an opportunity for “co-reasoning”, leading to a reasoned decision. In a role reversal, a potential area for future investigation could be whether this construct is challenged depending on how patients perceive the use of gAI/LLMs by HCPs in decision-making and care delivery.95
Our exploration of this topic is an attempt to direct the attention of the various stakeholders to this almost overlooked use of gAI/LLMs by non-specialist audiences to obtain plain language medical information. While there are opportunities, this usage comes with significant risks in the current environment of minimal regulation or supervision of both the models and their users. We sincerely hope that the risks and ethical implications highlighted in our paper encourage HCPs and policymakers to critically assess and implement regulatory frameworks to holistically enable “safe” use of gAI/LLMs by patients, caregivers, and the general public. The recommendations from our patient authors are particularly relevant in this context, as they bring valuable but often ignored patient voices into this conversation.
Conclusions
The use of gAI/LLMs will shape how non-specialist audiences navigate healthcare systems in the future. Access to reliable, understandable and personalized medical information through gAI/LLMs can empower non-specialist audiences, improve health literacy and enable informed decision-making and active participation in their self-management. Furthermore, gAI/LLMs have the potential to address health disparities by providing culturally sensitive health information and language support for a diverse population of patients who are not being sufficiently served by the public health systems. However, as we note, these opportunities are accompanied by significant cause for concern. Currently, there is a lack of sufficient oversight, regulation, and training on the development and use of gAI/LLMs by non-specialist audiences to obtain plain language medical information. In addition, there is a need to effectively address the ethical concerns related to explainability and accountability to maximize positive outcomes for all stakeholders. We recommend that for gAI/LLMs to be truly transformational sources of plain language medical information, they need to be more transparent in their algorithmic functionality, undergo appropriate and continuous governance and monitoring, and have mechanisms in place for improvement through feedback and input from patients, HCPs, and other experts.
Acknowledgments
The authors would like to thank Avinash Yerramsetti for framing the literature searches. Medical editorial assistance and submission preparation support were provided by Alister Smith, PhD of Morphogen Medical Communications.
Funding
No funding was received for research. Support for medical editorial and submission assistance was funded by the authors.
Disclosure
AP is a full-time employee of Novartis Pharma AG. However, this work is independent of his employment and is part of his doctoral research at the Institute for Biomedical Ethics, University of Basel. MAR is an employee of Taylor & Francis Group; however, this work is independent of her employment, and she also reports personal fees from Novartis, outside of the submitted work. SA, TW, TB, MB, RK, and BE have no competing interests to disclose for this work.
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