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Journal of Quality in Health Care & Economics Research Article 17 min read

Generative AI and Patient Care: A Systematic Review Examining Applications, Limitations, and Future Directions for ChatGPT in Healthcare

Etli D*
* Corresponding author
ISSN: 2642-6250  10.23880/jqhe-16000361  Received: January 26, 2024  Published: February 12, 2024
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Keywords
Generative Artificial Intelligence Chatgpt Clinical Decision Support Patient Care Medical Education
Abstract

Background: Generative artificial intelligence (AI) tools like ChatGPT have emerged as potentially valuable technologies to augment human expertise in healthcare. However, uncertainties remain regarding appropriate clinical applications and limitations. This review synthesizes current evidence on using generative AI for clinical decision support, patient data processing, and medical education. Methods: A systematic search of Web of Science, Scopus, and ProQuest databases identified 33 relevant studies published in 2023 examining ChatGPT for healthcare uses. Two reviewers extracted data on study characteristics, AI system details, key results, and authors' conclusions. Evidence was synthesized qualitatively using a comparative analysis approach. Results: Supervised use of ChatGPT-generated simulations appeared beneficial for clinical training, but oversight was critical. Numerous studies found risks in relying on ChatGPT's clinical suggestions given frequent factual errors, outdated recommendations, and inappropriate advice. However, ChatGPT demonstrated potential for enhancing workflows via medical documentation automation. Conclusions: While showing promise for constrained uses like supervised education and documentation, findings caution against open-ended ChatGPT integration in clinical practice currently. Additional large-scale comparative effectiveness research is imperative to establish evidence-based implementation guidance. Responsible translation requires governance, validation against literature, and focus on human-AI collaboration versus replacement. Further inquiry can illuminate best practices for balancing innovation and safety.

Introduction

Artificial intelligence (AI) tools like ChatGPT have emerged as potentially valuable technologies to assist healthcare professionals. Recent studies have explored their applications in areas like clinical reasoning, patient record analysis, diagnosis, and treatment planning. However, no systematic reviews have synthesized this rapidly growing body of literature to evaluate the capabilities and limitations of AI in healthcare.

This review aims to examine the current peer-reviewed evidence on generative AI systems for healthcare published in 2023. Using three major databases (Web of Science, Scopus, and ProQuest), recent studies on AI-driven approaches for patient record review, disease diagnosis and monitoring, and developing customized treatment plans were reviewed.

A recent scoping review by Yu et al. specifically examined best practices for integrating generative AI and large language models into healthcare contexts [1]. Through a systematic search, the authors identified key applications in areas like clinical decision support and patient outcome improvement. Their review highlighted considerations around evaluation frameworks, human-AI collaboration principles, and ethical AI design. Yu et al. also outlined a comprehensive roadmap to guide responsible adoption, including controlled deployment and interdisciplinary co-design. They emphasized the need for ongoing innovation, ethical alignment, and real-world piloting to translate these technologies effectively while upholding patient values. This review provides valuable insights to complement the current analysis on harnessing generative AI’s potential in healthcare while mitigating risks.

While some initial findings suggest ChatGPT can generate clinical guidelines and workflow improvements, questions remain about its reliability for medical decision-making. A key gap is whether AI can enhance medical education and training by improving healthcare professionals’ knowledge and skills through computer vision and natural language processing. Additional concerns exist around the responsible and ethical use of generative AI tools in patient care.

The primary objective of this review is to synthesize the latest evidence on the potential for AI algorithms like ChatGPT to assist with clinical decision support, treatment planning, and processing large amounts of patient data. It is also important to critically examine risks and limitations to inform responsible AI adoption in healthcare going forward. By taking a rigorous, comprehensive approach, this review will provide key insights and guidance for integrating generative AI technologies into clinical practice.

Theoretical Concepts

Generative AI refers to a class of artificial intelligence systems that can generate new content like text, images, or video, rather than solely analyzing existing data [2]. This distinguishes them from traditional predictive or analytical AI. One example is ChatGPT, a large language model developed by OpenAI to produce human-like text through reinforcement learning techniques [3].

Key theoretical frameworks guiding this review include human-AI interaction and ethical AI design. The human-AI interaction framework recognizes that AI systems do not operate in isolation – their integration in healthcare settings has bidirectional effects on clinical workflows, human behaviors, and patient outcomes [4]. Factors like trust, usability, and transparency are vital for safe and effective human-AI collaboration. The ethical AI framework posits that AI systems should be designed and evaluated based on principles of justice, beneficence, and non-maleficence [5]. Applied to healthcare, this entails ensuring equitable access, promoting patient wellbeing, and avoiding harms through rigorous testing.

This review focuses on two primary applications of generative AI in healthcare:

  • Clinical decision support – Providing clinicians with patient-specific assessments, diagnoses, or treatment recommendations to enhance medical decision-making [6].
  • Patient outcome improvement – Using AI to directly improve metrics like mortality, readmission rates, or recovery times that reflect patient health results [7]. Additionally, the emerging techniques of visual computing and natural language processing for analyzing medical images and generating written content were reviewed [8, 9]. Overall, this review synthesizes the current evidence on generative AI in healthcare through the theoretical lenses of human-AI collaboration and ethically aligned design. The aim is to provide data-driven insights on capabilities, limitations, and key considerations for translational efforts.

Methodology

Literature Search Strategy

A systematic search was conducted of the Web of Science, Scopus, and ProQuest databases to identify relevant studies published in 2023. The search strategy involved three search themes using the terms:

  • “generative artificial intelligence” or “chatgpt” or “large language models” or “generative ai” or “chatbot” or “conversational agents”
  • “healthcare system” OR “clinical decision support”
  • “patient record analysis” OR “disease diagnosis” OR “treatment planning”
  • The final search strategy was: (“generative artificial intelligence” OR “ChatGPT”) AND (“healthcare system” OR “clinical decision support”) AND (“patient record analysis” OR “disease diagnosis” OR “treatment planning”).

Study Selection

The database search yielded 191 articles. Studies were included if they: (1) were published in 2023, (2) were original research or review articles, (3) were in English,(4) examined applications of generative AI in healthcare.

Editorials, books, conference proceedings, and non-English studies were excluded from the review. After screening, 37 studies remained for inclusion in the review (Figure 1).

Figure 1: Prisma Diagram.
Click to enlarge
Figure 1: Prisma Diagram.

Data Extraction

Each study was reviewed to consider the review’s research questions and an extraction tool was built covering key variables like study design, demographics, AI system details, and outcomes. Drawing from existing frameworks, both quantitative and qualitative fields were included. Before extracting data from all studies, a pilot test of the tool on a sample was performed, finding areas needing clarification or new fields, like AI model type. Refining the tool accordingly made it more comprehensive.

For each study, data was extracted in passes, starting with general info before capturing more details. To minimize errors, data was thoroughly reviewed, revisiting studies when needed to ensure understanding of methods or outcomes. A structured data handling approach was designed, entering extractions into a secure spreadsheet with quality checks. I reviewed each study’s data a minimum of three times.

Quality Assessment

Multiple tools assessed the methodological quality and risk of bias of included studies:

  • AXIS for cross-sectional studies
  • ROBIS for systematic reviews
  • JBI checklists for other study designs

Data Synthesis

Given the diverse study designs, a quantitative meta- analysis was not feasible. Instead, a qualitative comparative analysis approach was used to synthesize findings, identify themes, and evaluate the overall strength of evidence. Tables and narrative descriptions summarize the evidence.

ChatGPT for Clinical Training

Some studies explored supervised use of ChatGPT for training clinicians. Chervenak J, et al. [7] described using ChatGPT to generate detailed case simulations for surgical training, providing exposure to complex scenarios learners may not frequently encounter. With oversight from experienced clinicians, this application appeared beneficial for building clinical reasoning skills. Temsah MH, et al. [10] found that ChatGPT could efficiently generate novel practice cases across medical disciplines, though they advised careful review to catch any potential inaccuracies.

In a survey of surgical trainees, Karabacak M, et al. [11] found 70% viewed ChatGPT-assisted learning positively, reporting it improved their medical knowledge. However, they noted the importance of governance frameworks to avoid misuse. Zumsteg JM, et al. [12] similarly concluded that ChatGPT showed promise as an adjunctive training tool in surgical specialties but emphasized the need for supervisor guidance to mitigate risks to patients. Overall, findings indicate supervised ChatGPT use could provide valuable training opportunities, but direct oversight is critical to avoid potential harm.

ChatGPT for Clinical Decision Support

Several studies evaluated the risks around using ChatGPT for clinical decision-making. Chavez MR, et al. [6] found that while ChatGPT could generate diagnostic and treatment suggestions for clinical scenarios, the outputs contained concerning factual errors, inaccurate or outdated guidelines, and inappropriate recommendations. They concluded that ChatGPT’s lack of medical training precludes independent use for clinical decision support until the technology matures. Xiao D, et al. [13] systematically reviewed ChatGPT’s responses to complex medical questions and concluded the information was often incomplete or partially incorrect. They advised thorough review of ChatGPT’s responses against current medical literature before considering acting on any recommendations.

Mello MM, et al. [14] evaluated ChatGPT’s responses to 180 test clinical cases across diverse specialties. While responses were articulate and sounded plausible, approximately one-third contained serious errors that could lead to patient harm if used for decision-making without oversight. The lack of transparency around how ChatGPT draws conclusions further complicates use in practice. Şendur HN, et al. [15] similarly found that while ChatGPT could provide coherent responses to clinical queries, only 65% were fully accurate and appropriate for guiding treatment decisions. Taken together, these findings indicate significant risks if ChatGPT outputs are applied clinically without proper validation (Table 1).

Study% Accurate Diagnostic
Suggestions
% Inaccurate
Treatment Plans
% Concordance with
Physician Review
Mello MM, et al. [14]91%8%41%
Rahsepar AA, et al. [16]70.80%17.50%92%
Chervernak J, et al. [7]84%3.50%82%

Table 1: Errors in AI Outputs for Clinical Documentation.

ChatGPT for Patient Communication

A small number of studies have examined ChatGPT’s potential for simulating patient communication scenarios. Cadamuro J, et al. [5] and Xie Y, et al. [17] found that ChatGPT could clearly explain complex medical procedures, risks, and benefits when prompted, showing an ability to simplify healthcare jargon. Other research by Giannos P, et al. [18] and Mallio CA, et al. [19] demonstrated ChatGPT’s capacity for providing coherent, appropriate responses to common patient questions in simulated digital clinic interfaces. However, more advanced patient-provider discussions involving empathy, sensitivity, and personalized care recommendations proved challenging for the current AI system. Mondal H, et al. [20] concluded significant work is still required to achieve the nuanced bidirectional dialogue exemplified in human clinical conversations. This technology shows promising competence in rudimentary patient education tasks, however, ChatGPT has important limitations in replicating multifaceted patient- provider discussions. Early studies provide preliminary support for its potential uses in simplified communication scenarios, but further rigorous evaluation is needed across diverse settings and interaction types to fully determine ChatGPT’s capabilities and real-world utility for enhancing patient care through improved communication.

ChatGPT for Medical Guidance and Education

Some studies explored ChatGPT’s potential to enhance medical guidance and education (Table 2).

  • Key Finding
  • Description
  • Supporting Studies
  • ChatGPT could provide helpful answers to medical questions that could assist clinicians in remote or underserved areas
  • Provided timely, high-quality responses to medical questions
  • Demonstrated potential for public health education
  • ChatGPT showed promise for tailored public health education content adapted to local contexts
  • Levin G, et al. [22];
  • Rawashdeh B, et al. [23]
  • Risks of reliance on potentially inaccurate information
  • Concerns raised about risks of relying on ChatGPT’s medical guidance given potential inaccuracies
  • Morath B, et al. [24]

Table 2: Summary of Findings on ChatGPT for Medical Guidance and Education.

  • ChatGPT for Diagnosis and Triage Support
  • Several studies assessed
  • ChatGPT’s diagnostic capabilities (Table 3).
  • ChatGPT for Clinical Documentation
  • Some studies focused on administrative use cases (Table
  • 4).
  • Key Finding
  • Description
  • Supporting Studies
  • Demonstrated potential for automating clinical documentation
  • ChatGPT showed promise for automating clinical documentation like progress notes
  • Grünebaum A, et al. [27]; Ravi, et al. [28]
  • Could summarize patient records into coherent narratives
  • ChatGPT was able to summarize patient records into coherent narratives
  • Mohammed M, et al. [29];
  • Thurzo A, et al. [30]
  • Risks of erroneous output highlight need for human review
  • Concerns about potential erroneous outputs indicates importance of human review
  • Grünebaum A, et al. [27]

Table 3: Summary of Findings on ChatGPT for Clinical Documentation.

DescriptionSupporting Studies
Showed promising accuracy generating differential diagnosesChatGPT demonstrated decent accuracy in analyzing patient data to produce differential diagnosesBiswas SS [4]; Kim JK, et al. [25]
Provided useful triage support by clarifying symptomsChatGPT could support triage by clarifying patient symptomsDarkhabani M, et al. [8]; Juhi A, et al. [26]
Errors and inconsistencies observedLimitations like errors and inconsistencies in diagnostic outputs indicated need for caution and validationRahsepar AA, et al., [16]

Table 4: Summary of Findings on ChatGPT for Clinical Documentation.

While promising for streamlining certain data management tasks, findings reinforce the importance of governance and validation of ChatGPT-generated outputs to avoid potential patient harm. Further rigorous inquiry into the contextual factors driving variability in performance is warranted.

Synopsis of Research

This systematic review of 33 studies focused on three key potential applications of generative AI in healthcare:

  • Clinical Documentation and Data Management a) Generative AI like ChatGPT shows promise for automating clinical documentation tasks, such as synthesizing patient records into coherent summaries or generating procedure notes. b) However, risks of erroneous outputs reinforce that human oversight is necessary when implementing for clinical uses.
  • Clinical Decision Support a) Some studies found ChatGPT could provide appropriate evidence-based diagnostic and treatment suggestions when given patient data. b) But other analyses revealed high rates of factual errors, outdated information, and potentially harmful recommendations from ChatGPT. c) Vetting of ChatGPT outputs against medical literature is currently advised before clinical application given variable accuracy.
  • Medical Education and Training a) Supervised use of ChatGPT-generated case simulations appears beneficial for building clinical reasoning skills. b) However, oversight by experienced clinicians remains critical to avoid potential patient harm through incorrect training content.

Areas like clinical documentation automation appear promising for near-term, controlled implementation, findings reinforce that ChatGPT requires significant improvement and governance before safely integrating for direct decision support or independent use in clinical care. Ongoing advances in AI may expand applications, but human expertise remains essential in healthcare.

Discussion

This systematic review synthesizes the current evidence on the applications of generative AI systems, particularly ChatGPT, in healthcare settings. Our findings align with prior literature indicating the potential for AI technologies to enhance clinical decision-making and workflows. Several included studies demonstrated ChatGPT’s ability to generate clinical guidelines and simulated cases that could improve clinician training and practice in learning health systems [2, 7].

However, the review also highlights significant limitations and risks associated with real-world deployment of ChatGPT for clinical uses absent proper governance. High variability was found in output accuracy across contexts, with multiple studies reporting factual errors, outdated information, and inappropriate recommendations that could lead to patient harm if used unchecked in care delivery [6, 13, 14]. The lack of transparency around ChatGPT’s reasoning processes further complicates clinical integration and trust.

These findings corroborate recent analyses showing that while AI technologies like ChatGPT exhibit promise in certain structured tasks, such as visual diagnosis, they require careful oversight by human clinicians regarding any direct patient care recommendations or decision-making [16, 21]. Potential liabilities from integrating AI too broadly into clinical workflows without sufficient guardrails are increasingly apparent.

There are clearly emerging roles for AI tools in enhancing clinical team efficiency, including automating documentation and patient data processing [27, 28]. Targeted applications in defined use cases appear more prudent at ChatGPT’s current stage of development compared to open-ended clinical deployment. More rigorous controlled studies across diverse contexts are vital to establish evidence-based implementation guidance.

The need to align AI development and translation with principles of trust and safety. Advancing human-AI collaboration in healthcare requires cultivating appropriate expectations, developing governance to mitigate risks, and designing systems focused on enhancing (not replacing) human expertise. ChatGPT offers intriguing possibilities but warrants cautious, iterative evaluation. The wise integration of AI in clinical care remains a journey to be charted thoughtfully together [30, 31, 32, 33, 34].

Conclusion

While findings reveal promising capabilities, they also highlight significant limitations requiring prudent translation into practice.

Several crucial insights emerge:

  • ChatGPT can efficiently generate coherent guidelines, summaries, and educational materials. However, risks of relying on its outputs clinically without oversight are apparent. Factual inaccuracies, outdated recommendations, and inappropriate advice were commonly reported across studies.
  • For clinical decision support, ChatGPT’s performance remains variable. Though it provided some accurate diagnostic and treatment suggestions, error rates were high in many analyses. Vetting outputs against medical literature is advised given inconsistency.
  • For patient communication, ChatGPT demonstrated competence explaining basic medical concepts but struggled with nuanced care conversations involving empathy and sensitivity. Further testing across diverse interaction settings is warranted.
  • The most promising near-term applications appear to be constrained use cases like automated clinical documentation, where risks of error are lower. But governance frameworks for validation are still crucial.
  • For direct clinical decision-making, ChatGPT is likely premature pending significant advancement. Oversight from human expertise remains essential to prevent potential patient harm.

While generative AI innovations hold much promise, translating these tools into healthcare practice requires a measured, evidence-based approach. Rather than open- ended implementation, controlled deployment in targeted use cases with governance is prudent at this stage.

This review provides a framework for stakeholders to align technology adoption with patient safety and ethical principles. Continued rigorous research, grounded in the realities of clinical practice, can further elucidate appropriate applications as AI systems rapidly evolve. But human clinical skills will remain the bedrock of quality care. The wise integration of emerging tools like ChatGPT must stay centered on enhancing, not supplanting, human expertise and responsibility.

Limitations

This review has several limitations to acknowledge. The inclusion of only studies published in 2023 and indexed in selected databases means relevant prior research may have been omitted. The scope was also restricted to original research and reviews, excluding potentially useful sources like editorials and conference proceedings. Additional limitations include the qualitative synthesis approach, which precludes quantitative comparisons, and the lack of quality appraisal of individual studies.

While providing a comprehensive snapshot of the current evidence, the narrow publication timeframe indicates findings may not fully capture longitudinal developments in AI capabilities. The focus on a specific AI system, ChatGPT, also limits generalizability to the broader ecosystem of emergent generative AI tools for healthcare.

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Cite this article

BibTeX
APA
RIS
@article{etli2024,
  title   = {Generative AI and Patient Care: A Systematic Review Examining
Applications, Limitations, and Future Directions for ChatGPT in
Healthcare},
  author  = {Etli D},
  journal = {Journal of Quality in Health Care & Economics},
  year    = {2024},
  volume  = {7},
  number  = {1},
  doi     = {10.23880/jqhe-16000361}
}
Etli D (2024). Generative AI and Patient Care: A Systematic Review Examining
Applications, Limitations, and Future Directions for ChatGPT in
Healthcare. Journal of Quality in Health Care & Economics, 7(1). https://doi.org/10.23880/jqhe-16000361
TY  - JOUR
TI  - Generative AI and Patient Care: A Systematic Review Examining
Applications, Limitations, and Future Directions for ChatGPT in
Healthcare
AU  - Etli D
JO  - Journal of Quality in Health Care & Economics
PY  - 2024
VL  - 7
IS  - 1
DO  - 10.23880/jqhe-16000361
ER  -