Abstract
The role of scientific research in modern society is essential for driving innovation, informing policy decisions, and shaping public opinion. However, communicating scientific findings to the general public can be challenging due to the technical and complex nature of scientific research. Lay abstracts are written summaries of scientific research that are designed to be easily understandable and provide a concise and clear overview of key findings and implications. Artificial intelligence language models have the potential to generate lay abstracts that are consistent and accurate while reducing the potential for misinterpretation or bias. This study presents examples of artificial intelligence-generated lay abstracts of recently published articles, which were produced using different currently available artificial intelligence tools. The generated abstracts were of high linguistic quality and accurately represented the findings of the original articles. Adopting lay summaries can increase the visibility, impact, and transparency of scientific research, and enhance scientists’ reputation among peers, while currently, available artificial intelligence models offer solutions to produce lay abstracts. However, the coherence and accuracy of artificial intelligence language models must be validated before they can be used for this purpose without restrictions.
Introduction
Scientific research plays a crucial role in modern society, driving innovation, informing policy decisions, and shaping public opinion. However, communicating scientific findings to the general population can be challenging, as scientific research is often highly technical and complex, requiring a deep understanding of specialized terminology and concepts. To bridge this gap and make scientific research more accessible to the general public, the concept of “lay abstracts” has been suggested as a powerful tool for communicating scientific work and findings.
Lay abstracts are written summaries of scientific research that are intended for a general audience with little or no background in the specific field.1,2 They are designed to be easily understandable and should provide a concise and clear overview of the key findings and implications of the research. The concept of lay abstracts is not new, but it has gained increasing prominence in recent years as scientists and policymakers recognize the importance of engaging the public in scientific research and promoting scientific literacy. This is also of relevance, since Open Access Publishing is driven by the idea to make scientific research more accessible in general but has not yet overcome the hurdle of making the content of research papers more understandable to lay people including patients and patients’ representatives. 3 However, writing effective lay abstracts can be challenging. 4 Scientists must balance the need for accuracy and precision with the need for clarity and accessibility, and must find ways to explain complex scientific concepts in simple, easy-to-understand terms. Additionally, they must be aware of the potential for misinterpretation and ensure that their lay abstracts are clear and unambiguous. To write effective lay abstracts, scientists must first identify the key findings and implications of their research, and then distill this information into a concise, clear, and accessible format. Use of technical jargon and complex terminology should be avoided, and instead simple, everyday language that is easily understandable by the general public should be used.1,2
Artificial intelligence (AI) is an emerging tool in multiple research areas including healthcare and has been suggested to assist communication also with patients.5–8 Using AI language models to generate lay abstracts for scientific publications has the potential to ensure consistency and accuracy in the language used to describe scientific concepts, as well as reduce the potential for misinterpretation or bias. This can be done by the researchers themselves when producing a scientific report, but also by any interested reader after publication in almost any selected language. Additionally, AI language models can be trained on vast amounts of data, making them capable of generating lay abstracts that are tailored to specific audiences or fields of research, further improving accessibility and engagement. Furthermore, the use of AI will have an immense impact on healthcare education, offering the potential to generate summaries adapted to the knowledge level of student groups enabling them to access also advanced scientific content. 9
Here, examples of AI-generated lay abstracts of recently published articles are presented which were produced using currently available AI tools.
Using AI to generate lay abstracts
On 1 May 2023, three recent open-access original research articles from high-impact journals were randomly selected from Pubmed.10–12 Articles and addressed research topics were selected by their potential public interest including patients, and an overall interested readership. Articles were then processed using the Google Chrome (Google, USA) extensions “Copilot” (1.0.5, SciSpace, India) using the “results of the paper” and “explain practical implications” options, and “Wiseone” (0.14.0, WiseOne, France) using the summarize option, as well as ChatGPT (Mar 23 release [free version, GPT-3.5 architecture], OpenAI OpCo, USA) using the prompt “Summarize the following text for a lay person” followed by pasting the introduction, results and discussion sections of the respective publication omitting tables, figures, references, and additional information.
Generated abstracts were between 115 and 200 words in length depending on the submitted article’s complexity, which is an appropriate length for a lay abstract. All applications produced summaries of high linguistic quality (Table 1) within < 15 seconds. The user-friendliness of CoPilot and Wiseone was high since articles could be analyzed directly on the journal's website. The free version of ChatGPT is currently limited by the maximum number of tokens that can be used per query, affecting the input and output of text, which will not allow to summarize articles that exceed a certain word limit. While ChatGPT would require some knowledge about prompts to further extract information from the submitted text, CoPilot and Wiseone offer some additional options to select from. ChatGPT would translate into common languages upon prompt, while CoPilot offers a language selection which is missing in the current version of Wiseone. Wiseone also offers three bullet points (“key summaries”) (Table 1) which support the summary of the text. Of note, generated abstracts were accurate in terms of study findings and highly congruent with the reported findings of the original articles. CoPilot and Wiseone made use of clear and easy-to-understand sentences from the original articles’ abstracts, adding some information from the full text. ChatGPT was able to produce lay abstracts from the provided full text without access to the abstract of the original article.
Lay abstracts produced by three different artificial intelligence (AI)-based language models.
Conclusion
Adopting lay summaries can increase the visibility, impact, and transparency of scientific research, and enhance scientists’ reputation among peers. In the context of a changing science media landscape, lay summaries can create reliable, direct pathways between scientists and different audiences, including the general public, journalists, and decision-makers. Currently, available AI models already offer solutions to produce lay abstracts. However, it is crucial to validate the coherence and accuracy of AI-generated abstracts before their unrestricted use. Future research should focus on comparative studies, human-AI collaboration, expert evaluation, and broader user testing to ensure the reliability and credibility of AI-generated texts in the field of health research.
Footnotes
Acknowledgements
This article has been produced with the help of ChatGPT and Wiseone.
Author contributions
BS wrote and revised the manuscript and approved the final version of the manuscript.
Declaration of conflicting interests
The author(s) declared no potential conflicts of interest with respect to the research, authorship, and/or publication of this article.
Ethical approval
Not applicable.
Funding
The author(s) disclosed receipt of the following financial support for the research, authorship, and/or publication of this article: Boris Schmitz is supported by the European Commission within the Horizon 2020 framework program (grant number: 101017424).
Guarantor
BS.
Patient consent
Not applicable.
