Artificial Intelligence in the Organization of Nursing Care: A Scoping Review
Abstract
:1. Introduction
2. Materials and Methods
3. Results
3.1. Tools for the Organisation of Nursing Care Using Artificial Intelligence
3.2. Contributions of Using Tools for Nursing Care Organization Utilizing Artificial Intelligence
4. Discussion
5. Conclusions
Author Contributions
Funding
Institutional Review Board Statement
Informed Consent Statement
Data Availability Statement
Public Involvement Statement
Guidelines and Standards Statement
Use of Artificial Intelligence
Conflicts of Interest
References
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Database (Host) | Search String | Results |
---|---|---|
Medline (PubMed) | (“Artificial Intelligence”[MeSH Terms] OR “Artificial Intelligence”[Title/Abstract] OR “Deep learning”[Title/Abstract] OR “Machine learning”[Title/Abstract] OR “Information technology”[Title/Abstract]) AND (“Nurse Administrators”[MeSH Terms] OR “nurse administrator*”[Title/Abstract] OR “nurse manager*”[Title/Abstract] OR “nurse executive*”[Title/Abstract] OR “nursing management”[Title/Abstract] OR “nurse management”[Title/Abstract]) | 160 |
SCOPUS® | ABS (“Artificial Intelligence” OR “Artificial Intelligence” OR “Deep learning” OR “Machine learning” OR “Information technology”) AND ABS (“Nurse Administrators” OR “nurse administrator*” OR “nurse manager*” OR “nurse executive*” OR “nursing management” OR “nurse management”) | 117 |
CINAHL (EBSCO) | AB (MH “Artificial Intelligence” OR “Artificial Intelligence” OR “Deep learning” OR “Machine learning” OR “Information technology”) AND AB (AB (MH “Nurse Administrators” OR MH “Nurse Managers” OR MH “Nursing Management” OR MH “Nurse Executives” OR “nurse administrator*” OR “nurse manager*” OR “nurse executive*” OR “nursing management” OR “nurse management”) | 142 |
Business Source Ultimate (EBSCO) | (AB (DE “ARTIFICIAL intelligence” OR “Artificial Intelligence” OR “Deep learning” OR “Machine learning” OR “Information technology”)) AND (AB (“nurse administrator*” OR “nurse manager*” OR “nurse executive*” OR “nursing management” OR “nurse management”)) | 18 |
ProQuest—Dissertations and Theses | “Artificial Intelligence” AND “nurse administrator” | 2 |
Study/Year/Country | Objective | Type of Study | Contributions |
---|---|---|---|
Li et al., 2022 [23] China | Investigate the influence of leaders’ innovation expectation on nurses’ innovation behavior in conjunction with artificial intelligence, as well as explore the chain mediating effect of job control and creative self-efficacy between leaders’ innovation expectation and nurses’ innovation behavior. | Cross-sectional survey | Leaders’ innovation expectation helps to enhance nurses’ creative self-efficacy and job control, thereby enhancing nurses’ enthusiasm for innovation. |
Chang et al., 2021 [24] China | Investigate how the use of robots can impact nurses’ engagement in professional tasks and reduce engagement in non-professional tasks, as well as analyze how these changes may influence job satisfaction, health perception, and nurses’ intention to turnover. | Cross-sectional survey | The use of robots reduces nurses’ engagement in non-professional tasks and increases their focus on professional tasks, which is positively related to overall job satisfaction and the perception of improved health among nurses. |
Dong et al., 2021 [25] China | Develop an emergency nursing management system based on visual artificial intelligence, which aims to enhance clinical work efficiency and information management in hospital emergency environments. | Methodological | The emergency nursing management system based on visual artificial intelligence, once developed and tested, proved to be operational and capable of providing significant convenience for clinical work. The system enhances nurses’ efficiency by facilitating access to and management of medical information, such as patient data and medical orders. |
Moreno-Fergusso et al., 2021 [26] Colombia | Provide tools to improve the key performance indicators of inpatient care management, including nurses’ workload, using AI. | Methodological | There are several processes inherent in compassionate nursing care that can be improved using technology. The proposed model presents an opportunity to make almost perfectly balanced nurse-to-patient assignments according to the number of patients and their health conditions using technology. |
Ladios-Martin et al., 2022 [27] Spain | Create a model that detects the population at risk of falls by considering a fall prevention variable and assess the impact of this variable on the model’s performance. | Methodological | The demonstration that the inclusion of the fall prevention variable in a machine learning model significantly improves the ability to identify patients at risk of falls in hospital settings. |
Courtney et al., 2008 [28] United States of America | Explore how the Nursing Practice Framework, from Novice to Expert, can shed light on the challenges and opportunities in implementing information technology such as clinical decision support systems in nursing practice. | Literature Review | Identification and analysis of the challenges and opportunities in the implementation of Clinical Decision Support Systems in nursing, with a particular focus on the application of the framework. Furthermore, these elements enable shaping the way decision support systems can be developed and implemented in nursing practice, aiming to enhance the quality of patient care. |
Piscotty et al., 2015 [29] United States of America | Report the results of a study investigating the relationship between the use of electronic nursing care reminders and the occurrence of missed nursing care. | Cross-sectional survey | The frequent use of electronic nursing care reminders is associated with a reduction in reports of missed nursing care. |
Roberty, 2019 [30] United States of America | Explore how artificial intelligence is transforming nursing practice, highlighting the tools and algorithms being used to enhance the delivery of healthcare services. | Literature Review | Artificial intelligence can transform nursing practice by enhancing the quality of care, emphasizing the importance of ethics and transparency in AI systems, and preparing nurses to critically and knowledgeably integrate these technologies into their clinical practice. |
Gerich et al., 2022 [31] Finland | To synthesize currently available state-of-the-art research in artificial intelligence-based technologies applied in nursing practice. | Scoping review | Education on nurse informatics for all nursing professionals and students is imperative, and basic knowledge of AI-based technologies in nursing should be incorporated on all professional levels. |
Ergin et al., 2022 [32] Turkey | Investigate the perceptions and opinions of nursing managers regarding the use of artificial intelligence and nurse robots in the context of healthcare. | Cross-sectional descriptive | Most nursing managers believe that artificial intelligence and robots can benefit the nursing profession by helping to reduce the workload of nurses, but they do not replace nursing professionals. |
Tools | Description of the Tool |
---|---|
Monitoring and prediction tools for nursing care | |
Automated alert systems using residential sensor data for health assessment [23,27,31] | A tool that enables continuous monitoring of patients’ health outside the hospital environment, utilizing connected devices to collect real-time health data and alert healthcare professionals about potential issues. |
Machine learning models to predict the development of pressure injuries [31] | A tool that utilizes algorithms and computational techniques to analyze and identify patterns in patient data, including nursing assessment phenotype information. Based on these data, the model is trained to recognize correlations and predict the likelihood of a patient developing a pressure injury within a specific timeframe. |
Predictive algorithms to identify nursing diagnoses [24,26,32] | A tool that utilizes complex algorithms integrated into logical sequences of software to analyze and process various types of medical data. These models can predict potential future scenarios based on the collected information and subsequently facilitate decision-making and actions for the nursing team. |
Surveillance systems [28] | Tools to monitor and detect specific events or patterns in real-time. These systems are designed to collect, analyze, and interpret data continuously to identify potential issues or trends that require immediate attention. |
Fall risk prevention [27] | A tool that comprises a set of criteria and indicators to assist healthcare professionals in identifying patients at higher risk of falling and implementing appropriate preventive measures. |
Rothman Index [30] | A tool used to assess patient severity and the risk of clinical deterioration. This tool is based on data collected from the patient’s electronic medical record and artificial intelligence algorithms. |
Decision support tools in nursing care | |
Decision support systems for triage management [31] | A tool designed to automatically extract and categorize relevant information from unstructured clinical notes, classifying them into different categories or topics. Through natural language processing algorithms, the system can identify linguistic patterns, clinical terms, and specific contexts to intelligently interpret the content of notes. |
Clinical decision support systems [23,24,27,28] | A tool that provides healthcare professionals with information and recommendations to assist in clinical decision-making. It relies on algorithms and predefined rules to analyze clinical data, scientific evidence, and patient information to offer personalized, evidence-based guidance. |
Nursing expert systems [28] | Tools developed based on rules and algorithms that reflect the knowledge of nursing experts. Expert systems can analyze clinical data, patient symptoms, medical history, and other relevant information to generate personalized, evidence-based recommendations. |
Health information management systems [23,24,27] | Tools to collect, store, manage, and transmit information related to patients, healthcare services, and clinical and administrative operations of a healthcare institution. These systems play a crucial role in organizing and enhancing healthcare by enabling quick and secure access to relevant clinical and administrative data. |
Interaction and communication technologies tools for nursing care | |
Automated classification systems for clinical notes [31] | A tool that utilizes natural language processing and machine learning techniques to organize and analyze information in unstructured clinical notes. Unstructured clinical notes consist of free-text narratives written by healthcare professionals during patient care, containing a variety of vital clinical information such as symptoms, diagnoses, treatments, and medical history. |
Voice recognition systems for direct documentation [31] | Tools that enable healthcare professionals to record clinical information efficiently and accurately through speech. These systems use voice recognition technology to convert healthcare professionals’ speech into written text, which is then directly incorporated into the patient’s electronic health record. |
Electronic reminders [29] | A tool used in nursing care organizations to assist healthcare professionals in remembering important tasks, specific procedures, or relevant information during patient care. These reminders are integrated into health information systems and can be triggered at strategic moments to ensure the proper execution of nursing activities. |
Mobile app for emergency services [25] | A tool that utilizes algorithms and artificial intelligence techniques to optimize emergency care and patient triage. These systems are designed to assist healthcare professionals in prioritizing and efficiently managing emergency cases, ensuring that patients receive appropriate treatment promptly. |
Chatbots and virtual assistance [23,24,27] | A tool designed to interact with users in a specific manner such as human conversation, providing information, assistance, and support across various contexts. |
Robots programmed to assist in patient transfer and mobilization [32] | Tool programmed with algorithms and technologies that enable interaction with patients and perform specific tasks, such as assisting patients in moving them from a bed to a chair, aiding in patient transfer to stretchers or medical equipment, and supporting healthcare professionals during mobilization procedures. |
Mobile applications [30] | A digital tool developed for mobile devices, such as smartphones and tablets, aimed at enhancing healthcare delivery and facilitating communication between healthcare professionals and patients. |
Transparent and explainable AI systems [30] | A tool created to provide clear and understandable information on how to come to certain conclusions or make recommendations. |
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Share and Cite
Ventura-Silva, J.; Martins, M.M.; Trindade, L.d.L.; Faria, A.d.C.A.; Pereira, S.; Zuge, S.S.; Ribeiro, O.M.P.L. Artificial Intelligence in the Organization of Nursing Care: A Scoping Review. Nurs. Rep. 2024, 14, 2733-2745. https://doi.org/10.3390/nursrep14040202
Ventura-Silva J, Martins MM, Trindade LdL, Faria AdCA, Pereira S, Zuge SS, Ribeiro OMPL. Artificial Intelligence in the Organization of Nursing Care: A Scoping Review. Nursing Reports. 2024; 14(4):2733-2745. https://doi.org/10.3390/nursrep14040202
Chicago/Turabian StyleVentura-Silva, João, Maria Manuela Martins, Letícia de Lima Trindade, Ana da Conceição Alves Faria, Soraia Pereira, Samuel Spiegelberg Zuge, and Olga Maria Pimenta Lopes Ribeiro. 2024. "Artificial Intelligence in the Organization of Nursing Care: A Scoping Review" Nursing Reports 14, no. 4: 2733-2745. https://doi.org/10.3390/nursrep14040202
APA StyleVentura-Silva, J., Martins, M. M., Trindade, L. d. L., Faria, A. d. C. A., Pereira, S., Zuge, S. S., & Ribeiro, O. M. P. L. (2024). Artificial Intelligence in the Organization of Nursing Care: A Scoping Review. Nursing Reports, 14(4), 2733-2745. https://doi.org/10.3390/nursrep14040202