Research Topics and Trends on Patient Safety Error Reporting in Nursing

Article information

J Korean Acad Fundam Nurs. 2025;32(4):444-455
Publication date (electronic) : 2025 November 30
doi : https://doi.org/10.7739/jkafn.2025.32.4.444
1)Assistant Professor, Department of Nursing, Mokpo National University, Muan, Korea
2)Associate Professor, Department of Nursing, Dongshin University, Naju, Korea
Corresponding author: Kim, Heeyoung Department of Nursing, Dongshin University 34-26 Dongshindae-gil, Naju 58245, Korea Tel: +82-61-330-3585, Fax: +82-61-330-3580, E-mail: kimhy@dsu.ac.kr
*This study was supported by a grant from the National Research Foundation of Korea(NRF) and the Ministry of Science and ICT (Grant No. 2019R1G1A1099327).
Received 2025 June 13; Revised 2025 September 2; Accepted 2025 November 18.

Abstract

Purpose

This study aimed to analyze the relevance and research trends of nursing studies on patient safety error reporting using network analysis and topic modeling. The objective was to establish an academic knowledge base from existing research and propose future directions for nursing research and practice in this field.

Methods

A comprehensive literature search was conducted in the PubMed, CINAHL, and EMBASE databases for nursing studies related to patient safety error reporting published up to 2023. The search keywords included " medical error," " risk management," " nurs*," and " safety." Of the 2,071 initially identified studies, 313 met the inclusion criteria and were analyzed. Network analysis was conducted using the NetMiner 4.4.3 program to examine appearance frequency, degree centrality, and betweenness centrality. Topic modeling was performed using Latent Dirichlet Allocation analysis.

Results

The five most frequent keywords were " system," " medication," " culture," " medication administration error," and " factor," which played central roles in the network. Six major topics emerged: " error reporting culture," " medication error," " error reporting education," " error reporting barrier," " system failure analysis," and " quality improvement." The prominence of " error reporting culture" and " error reporting barrier" increased over time.

Conclusion

Over the past 25 years, research on patient safety error reporting has become increasingly diverse and expansive. Future studies are expected to focus on fostering a culture of error reporting, developing educational strategies, and addressing barriers to reporting. These findings provide important insights for advancing patient safety practices in nursing.

INTRODUCTION

Persistent clinical incidents, errors, preventable side ef-fects, and risks threaten patient safety, potentially increasing treatment burden, costs, and hospitalization period while elevating patient mortality rates [1]. Patient safety error reporting is a systematic process for healthcare providers to voluntarily report incidents that have caused or could cause harm to patients [2]. It serves as a key strategy for preventing the recurrence of such incidents and improving patient safety. To prevent the recurrence of patient safety errors, collecting and analyzing these incidents is crucial, integrating findings into clinical practice [3]. The World Health Organization (WHO) has developed a frame-work and models to promote error reporting [2]. However, reported errors significantly underrepresent actual incidents, with nurses finding error reporting challenging [4].

Research on patient safety error reporting encompasses various aspects, including promoting reporting and identifying barriers [5], evaluating strategies to foster a reporting culture [6], and systematically reviewing error reporting learning systems and interventions [7]. However, the patient safety error reporting status varies across coun-tries and organizations. Analyzing a limited number of studies to compare research trends is challenging because of the conceptual and cultural heterogeneity, making it difficult to avoid subjectivity in defining inclusion and exclusion criteria, potentially resulting in the analysis of only a few studies [8]. Therefore, establishing a comprehensive knowledge base in nursing science regarding patient safety error reporting is necessary to guide future nursing research directions.

Keyword network analysis and topic modeling are research methods that track changes in research topics over time and predict future issues using big data analysis [9]. Keyword network analysis helps interpret the dynamic knowledge structure of a research field through network analysis of published keywords. Topic modeling identifies latent themes in existing data or documents, analyzing topic connections and changes over time [10] and offering insights beyond conventional keyword network analysis.

Keyword network analysis and topic modeling are increasingly being utilized in the field of nursing, contributing to the direction of research in nursing practice and education. For example, a study analyzing nursing record narratives using topic modeling provided implications for improving patient care strategies and practice [11]. A com-parison of domestic and international studies on premature infants revealed differences in topic diversity and sug-gested potential for research expansion [12]. Furthermore, an analysis of virtual patient simulation and medication safety education identified key themes and future research directions [13,14]. These techniques are useful for systematically understanding the topic structure and changing patterns in nursing research and providing insights for future research.

This study aims to analyze nursing studies’ relevance and research trends on patient safety error reporting using network analysis and topic modeling, examine temporal changes in research, build a comprehensive knowledge base, and provide directions for future nursing research and practice.

METHODS

1. Research Design and Research Procedures

This study is an exploratory research that analyzes the structure and trends of meaning by identifying the relationships among keywords in studies related to patient safety incident reporting through keyword network analysis and topic modeling. The research examines the corre-lation of keywords in abstracts of published studies on patient safety error reporting in nursing as analysis data and identifies the relationship between co-occurring keywords and the trends and topics of patient safety error reporting research in the nursing research field.

2. Data Search and Collection

A systematic literature search was conducted on Feb-ruary 1∼9, 2024, utilizing PubMed, CINAHL, and EMBASE databases to identify studies on patient safety error reporting within the nursing field published up to December 2023 in international journals. The search terms, based on a review of relevant studies [8,15], included "medical error," "risk management," "nurs*," and "safety." The search query combined the four main keywords, "medical error" [MeSH] and "risk management" [MeSH] and nurs* and safety.

The initial search identified 2071 studies (PubMed: 1040, CINAHL: 388, and EMBASE: 643). The inclusion criteria were studies addressing patient safety incident reporting, studies involving nurses or nursing students for error reporting, and studies published in peer-reviewed journals up to December 31, 2023. The studies that simply inves-tigated errors, identified error prevention strategies, examined the effectiveness of error prevention interventions, did not include nurses or nursing students as par-ticipants, or did not have an abstract were excluded. The exclusion process eliminated 347 duplicate studies (using EndNote 312, manual review 35), 145 studies without abstract, 1240 unrelated studies (studies that simply inves-tigated errors, addressed error prevention strategies, examined the status within error reporting systems, or eval-uated the effectiveness of patient safety error prevention programs, etc.), and 26 studies not involving nurses or nursing students. Two researchers independently reviewed the abstracts and applied the exclusion criteria, resulting in 313 studies for final analysis (Figure 1).

Figure 1.

Flowchart of the article inclusion process.

3. Keyword Extraction and Analysis

Data analysis proceeded through a series of steps: data refinement, keyword co-occurrence matrix creation, network analysis and visualization, and topic modeling. The data refinement, or preprocessing stage, involved processing the list of abstracts, organized in an Excel file, using the natural language processing features of the NetMiner 4.4.3 (Cyram Inc., Seongnam, Korea) program. NetMiner is a program that enables social network analysis using un-structured text data and is commonly used in text network analysis research within the field of nursing [12-14]. This process automatically removes stop words, such as pro-nouns, adverbs, and numbers. Simultaneously, to obtain meaningful semantic morphemes, a dictionary of thesaurus, defined words, and exclusion words was registered in the NetMiner 4.4.3 program. The dictionary creation process and the analysis of the words in the abstract reflecting it were iteratively refined through repeated cycles. The researchers engaged in discussions to reach a consensus on the final words (phrases) to be registered in the dictionary.

4. Generation of Keyword Network

For keyword network analysis, NetMiner 4.4.3 was employed to generate a word network between the main keywords of the research papers. The analysis was based on the principle that two words frequently appearing togeth-er are considered to have similar associations and signifi-cant contextual relationships [16]. To analyze the centrality of the resulting network, both degree centrality and betweenness centrality were examined [17]. Degree centrality measures the number of connections a node has in the network, indicating the extent to which a keyword co-occurs with others. Betweenness centrality identifies words as in-termediaries within the word network, considering these words as "central." It quantifies the extent to which a node is positioned between other nodes within the network [18].

5. Topic Modeling

Topic modeling employed the Latent Dirichlet Allocation (LDA) function to extract underlying topics from a matrix of documents and words. LDA, a generative stat-istical model, describes observations through unobserved groups, explaining similarities in parts of the data [19]. This approach enables the identification of hidden topics in the analyzed research, overall dataset topics, and the proportion of topics in each literature [19]. Given the chal-lenge of identifying the optimal number of topics in LDA modeling, Bayesian statistics were used to perform LDA analysis on different numbers of topics (K=2, 3, 4, 5, 6, 7, 8, 10) with parameters set to alpha 0.1, beta 0.01, and 1000 sampling iterations [20]. The final number of topics (k) was determined based on the interpretability, validity, use-fulness, and professional knowledge of the topics [20], with two researchers reaching a consensus after review, and topic names were finalized following discussion. To identify changes in research topics over time, LDA analysis was performed by period, allowing for the detection of temporal shifts in research focus.

6. Validity, Reliability and Rigor

To ensure the reliability and validity of the data preprocessing process, this study implemented several validation steps. A nursing professor with experience in text networks validated the overall process. In addition, three nursing professors reviewed the extracted words, unifying similar words and removing unnecessary ones. This rigorous approach included converting the plural form of nouns to their singular forms (e.g., "falls" to "fall") and removing meaningless words (e.g., should, could), prepositions, and conjunctions as stop words.

7. Ethical Considerations

This study did not involve direct participation of human subjects, as it relied solely on previously published research. In accordance with the ethical review guidelines of Nambu University, the study was deemed exempt from Institutional Review Board (IRB) oversight (IRB No. 1041478-2021-HR-019).

RESULTS

1. Keywords and Knowledge Structure of Patient Safety Error Reporting in Nursing Research

Analysis of the top 30 words based on simple appearance frequency, degree centrality, and betweenness centrality revealed key patterns in patient safety reporting research in nursing (Table 1). The top five keywords by simple appearance frequency were "system," "medication," "culture," "medication administration error," and "factor."

Top 30 Keywords by Frequency from Research on Patient Safety Error Reporting in Nursing

2. Trends in Patient Safety Error Reporting in Nursing Research Over Time

The analysis revealed a distinct shift in research focus across three phases. In the first phase (pre-2000), high-centrality keywords included "management," "quality," "process," "system," and "risk." However, during the second phase (2001∼2010), the term "system" maintained its prominence, but other previously high-ranking words decreased in degree centrality or disappeared entirely from the top 30. New high-ranking keywords emerged: "medication," "factor," "practice," "datum," "information," "culture," "attention," "perception," "implementation," and "barrier." Between 2011 and 2023, during the third phase, the keywords "medication," "system," "medication administration error," "training," and "perception" increased in centrality and maintained high rankings. Newly introduced top 30 centrality words included "training," "communication," "team," "experience," and "intervention" (Table 2).

Keywords According to Degree Centrality by Time

3. Topic Modeling of Patient Safety Error Reporting in Nursing Research

LDA analysis was performed to determine the optimal number of topics in research on patient safety error reporting. After the researchers discussed the LDA analysis results, K=6 was determined appropriate, minimizing re-dundancy while maintaining a meaningful distinction between topics. Therefore, the number of final topics was 6, and the topic modeling was performed with the combination of LDA parameters ⍺=0.1 and β=0.01. The main keywords and probabilities of the six topics are shown in Figure 2, the title and content of the original documents are checked, and the topic names are named as follows. The six identified topics, their proportions, and key com-ponents are as follows.

Figure 2.

Topic modeling of patient safety error reporting in nursing research.

Topic 1 accounted for 22.0% of the total topics and was composed of keywords related to "Error reporting culture," including culture, perception, communication, manager, and leadership. Meanwhile, Topic 2 accounted for 17.3% of the total topics and was composed of keywords related to "Medication error," such as medication, medication administration error, administration, impact, ICU, and drug. In addition, Topic 3 accounted for 16.9% of the total topics and was composed of keywords related to "Error reporting education," including practice, student, training, management, experience, and scenario. Topic 4 accounted for 13.4% of the total topics and was composed of keywords related to "Error reporting barrier," such as factor, barrier, attitude, knowledge, fear, and awareness. Moreover, Topic 5 made up 19.2% of the total topics and was composed of keywords related to "System failure analysis," including system, information, risk, use, analysis, and failure. Furthermore, Topic 6 accounted for 11.2% of the total topics and was composed of keywords related to "Quality improvement," such as process, datum, improvement, quality, intervention, and feedback. The temporal analysis of topic proportions (Figure 3) revealed that Topic 5 and 6 accounted for the largest proportion in the entire period; however, the proportion decreased over time. Meanwhile, the proportions of Topics 1, 2, 3 and 4 gradually increased over time.

Figure 3.

Trends in topic group proportions by period.

DISCUSSION

This study analyzed the core keywords of 313 patient safety error reporting studies in nursing to provide insights and scientific perspectives.

The analysis revealed that patient safety error reporting research in nursing clustered around the most frequent keywords: "system," "medication," "culture," "medication administration error," and "factor." These keywords with high degree centrality provided insights into their connections within the network. These keywords exhibited the highest centrality in the knowledge structure, reflecting the importance of a blame-free culture and a systems approach to errors in promoting patient safety incident reporting [21].

Literature trends in patient safety error reporting in nursing research were analyzed across three phases. Be-fore 2000, Studies in this phase primarily addressed risk assessment, critical incident report analysis, and medication error reduction strategies [22,23]. From 2001 to 2010, this period emphasized system approaches to patient safety, implementing unified reporting mechanisms, supporting open learning cultures, and focusing on system factors rather than individuals [24]. Research during this time promoted the use of system approaches, voluntary incident reporting systems, and data analysis for error prevention [25]. The 2010s saw the introduction of patient safety education curriculum guides for nurses and nursing students. The WHO released a multiprofessional patient safety curriculum guide [26], while the Quality and Safety Education for Nurses (QSEN) project identified safety as one of six core competencies for nurses [27]. The Canadian Association of Schools of Nursing and the Canadian Patient Safety Institute established standards for adverse event disclosure in undergraduate nursing programs [28]. Research during this period analyzed barriers and facilitators to error reporting [29], perceptions of error reporting [30], safety culture [31], multidisciplinary safety training [32], problem-based simulation education [33], and the effectiveness of error reporting education [34].

This study derived six topics for patient safety error reporting in nursing research through LDA topic modeling: "error reporting culture," "medication error," "error reporting education," "error reporting barrier," "system failure analysis," and "quality improvement." These results sug-gest future directions for patient safety error reporting studies.

The first topic, "error reporting culture," showed a relative increase in proportion over time. A reporting culture encourages healthcare professionals to report safety-re-lated errors or potential risks [35]. Promoting a reporting culture requires developing just culture that defines accept-able behaviors [36], encourages open communication and embraces diverse perspectives on errors [37]. Fostering an atmosphere of trust and respectful communication among all healthcare providers is essential for timely error recog-nition, management, and correction [38].

The second topic, "Medication error," highlighted that medication errors are the most frequently discussed type of error. Underreporting of medication errors is often due to fear of punishment, blame culture, legal liability, non- user-friendly systems, and inadequate feedback [39]. Education on medication administration should incorporate high-fidelity simulation or problem-based learning to help nurses and nursing students understand error-prone situations and apply theoretical knowledge effectively [40].

The third topic, "error reporting education," emphasized the importance of integrating error reporting education into nursing curricula based on a just culture [41]. While studies have integrated quality and safety education into clinical nursing practice [42], research studies specifically on error reporting education in nursing curricula are limited. Error reporting education should cover multidisciplinary topics such as human factors, systems thinking, teamwork, error management, and just culture, contextually linked to existing curricula [41,43]. And incorporate patient-centered theories, simulation-based training, problem-based learning, team-based learning, and virtual reality [44].

The fourth topic, "error reporting barrier," highlighted that healthcare providers are often reluctant to report safety incidents because of perceived negative reactions from team members and unit managers [45]. To overcome these barriers, implementing clear guidelines, simple reporting formats, protocols, feedback systems, and role models who promote error reporting is necessary. Establishing computer-based, confidential, and anonymous reporting systems, along with clear reporting pathways across all organizational levels, is important. In particular, digital health technologies utilizing AI or smartphone applications can enhance error reporting rates among not only nurses but also other healthcare professionals, while promoting patient safety engagement among patients and families.

The fifth topic, "system failure analysis," emphasized the importance of a system-based perspective in approaching errors [35]. Adverse events typically result from a series of errors and complex system factors [45]. Methods such as Root Cause Analysis (RCA) and Failure Mode and Effects Analysis (FMEA) should be utilized for system analysis of errors [46,47]. These system failure analyses contribute to organizational learning and are likely to promote the development of an error-reporting culture.

The sixth topic, "quality improvement," focused on activities that encourage error reporting, including researching best practices, reforming current policies, creating safe environments for program feedback and modification, and integrating new technologies with current practices [48]. The error reporting system should focus on data en-try of errors using AI technology to collect free-text data and transform reports into a learning process through data analysis. In addition, a feedback system that encourages further reporting should be employed. Sharing improvements through hospital intranets and the annual patient safety fair [49], raising awareness through posters, bro-chures, patient safety rounds, and increasing customer engagement are necessary [50]. These efforts will improve the quality and increase the error reporting rate.

This study acknowledges several limitations that should be considered when interpreting its results. First, refining words from a large volume of data may have introduced researcher bias. To mitigate this, the researchers discussed creating thesaurus, exclusion and designated word dictionaries. They also sought validation from professors ex-perienced in TNA. This rigorous process aimed to derive results that best explain the study's knowledge structure, enhancing the findings’ reliability. Second, the use of text mining methods, primarily oriented toward quantitative analysis, limited the study's ability to conduct in-depth qualitative analysis of the papers included in the dataset. This limitation suggests that while the study provides valuable insights into broad trends and patterns in patient safety error reporting research, it may not capture the nuanced contextual details that a qualitative approach might reveal.

This study provides valuable insights into patient safety error reporting research in nursing and offers practical strategies for promoting error reporting. Nursing managers and leaders should focus on facilitating error reporting in policymaking, practice, and research that involves elevating the error reporting culture and removing barriers by supporting strategies and resources that encourage all healthcare personnel to participate in patient safety mis-reporting policymaking. In addition, implementing strategies such as providing appropriate feedback on errors, offering rewards and incentives for error reporting, and supporting secondary victims involved in errors can contribute to improved patient safety outcomes. Nursing educators should emphasize patient safety error reporting within their curricula on safety and quality of care, high-lighting the implications for organizational learning and improved patient safety. Education should incorporate system-based approaches, including knowledge of patient safety requirements for error reporting, systems thinking, the use of artificial intelligence technologies like chatbots for error reporting, and case studies on human error and root cause analysis. Evaluating the effectiveness of these educational interventions and incorporating findings into the continuous improvement of patient safety education programs is crucial.

CONCLUSION

The study findings highlight the need to promote error reporting through the establishment of a just culture, the development of a blame-free patient safety system, systematic reporting procedures, organizational learning through system failure analysis, and quality improvement activities related to patient safety. In addition, to help learners understand the value of error reporting, it is essential to implement anonymous reporting systems, provide education on voluntary reporting, offer interdiscipli-nary training, and enhance educators’ competencies in patient safety. Through these insights, the study presents practical recommendations for nursing educators, hospital administrators, and policymakers to support patient safety error reporting. These findings offer direction for patient safety education and are expected to contribute to the prevention of errors through learning from mistakes, the reduction in patient safety incidents, decreased healthcare costs, and the establishment of a trustworthy healthcare system.

Notes

CONFLICTS OF INTEREST

The authors declared no conflict of interest.

AUTHORSHIP

Study conception and design acquisition - Song MO; Data collection - Song MO and Kim H; Data analysis & Interpretation - Song MO and Kim H; Drafting & Revision of the manuscript - Song MO and Kim H.

DATA AVAILABILITY

Please contact the corresponding author for data availability.

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Article information Continued

Figure 1.

Flowchart of the article inclusion process.

Table 1.

Top 30 Keywords by Frequency from Research on Patient Safety Error Reporting in Nursing

Rank Keyword F Keyword Degree centrality Keyword Betweenness centrality
1 system 419 system 0.0641 system 0.1525
2 medication 328 medication 0.0536 medication 0.0981
3 culture 282 medication administration error 0.0345 culture 0.0497
4 medication administration error 242 factor 0.0306 medication administration error 0.0471
5 factor 210 training 0.0282 factor 0.0449
6 barrier 189 perception 0.0278 management 0.0434
7 practice 138 culture 0.0278 perception 0.0413
8 attitude 136 process 0.0249 training 0.0372
9 rate 129 practice 0.0239 rate 0.0360
10 perception 118 management 0.0235 analysis 0.0342
11 student 113 communication 0.0235 process 0.0291
12 process 111 barrier 0.0230 datum 0.0283
13 training 110 rate 0.0220 practice 0.0278
14 datum 103 datum 0.0206 barrier 0.0265
15 information 102 attitude 0.0201 communication 0.0259
16 improvement 96 analysis 0.0201 risk 0.0242
17 communication 92 information 0.0196 manager 0.0241
18 management 91 improvement 0.0196 time 0.0218
19 response 90 work 0.0177 information 0.0211
20 manager 89 lack 0.0177 improvement 0.0211
21 quality 83 knowledge 0.0177 review 0.0204
22 work 80 time 0.0172 work 0.0200
23 experience 77 risk 0.0172 team 0.0198
24 analysis 77 fear 0.0172 attitude 0.0194
25 risk 75 feedback 0.0168 knowledge 0.0173
26 level 74 manager 0.0163 database 0.0169
27 environment 73 type 0.0153 development 0.0160
28 intervention 71 use 0.0148 response 0.0160
29 fear 71 response 0.0148 feedback 0.0158
30 strategy 68 quality 0.0143 fear 0.0151

Table 2.

Keywords According to Degree Centrality by Time

Degree centrality ≤2000 2001∼2010 2011∼2023
1 management 0.0754 system 0.0962 medication 0.0553
2 quality 0.0471 medication 0.0391 system 0.0464
3 process 0.0471 factor 0.0346 medication administration error 0.0335
4 system 0.0377 practice 0.0241 training 0.0307
5 risk 0.0377 datum 0.0241 perception 0.0274
6 effect 0.0377 process 0.2256 factor 0.0268
7 service 0.0283 information 0.2105 culture 0.0263
8 reduction 0.0283 culture 0.2105 communication 0.0240
9 manager 0.0283 attitude 0.0195 process 0.0235
10 delivery 0.0283 risk 0.0180 management 0.0224
11 approach 0.0283 perception 0.0180 barrier 0.0224
12 FDA 0.0283 improvement 0.0180 practice 0.0218
13 ventilator 0.0188 barrier 0.0180 improvement 0.0196
14 suburb 0.0188 analysis 0.0180 work 0.0190
15 subject 0.0188 medication administration error 0.0180 lack 0.0190
16 review 0.0188 time 0.0165 attitude 0.0184
17 retail 0.0188 knowledge 0.0165 fear 0.0179
18 pump 0.0188 administration 0.0165 manager 0.0173
19 performance 0.0188 use 0.0150 information 0.0173
20 ownership 0.0188 period 0.0135 analysis 0.0173
21 organization 0.0188 number 0.0135 response 0.0162
22 medication 0.0188 implementation 0.0135 datum 0.0162
23 litigation 0.0188 feedback 0.0135 feedback 0.0157
24 hotel 0.0188 fall 0.0135 knowledge 0.0151
25 honesty 0.0188 type 0.0120 experience 0.0151
26 documentation 0.0188 problem 0.0120 team 0.0145
27 antecedent 0.0188 policy 0.0120 time 0.0140
28 anesthesia 0.0188 lack 0.0120 level 0.0140
29 airline 0.0188 initiative 0.0120 intervention 0.0140
30 administration 0.0188 fear 0.0120 use 0.0134

Figure 2.

Topic modeling of patient safety error reporting in nursing research.

Figure 3.

Trends in topic group proportions by period.