Submitted:
31 May 2026
Posted:
03 June 2026
You are already at the latest version
Abstract
Keywords:
1. Introduction
2. Materials and Methods
Type of Study
Defining the Research Question
Search Strategy
Inclusion and Exclusion Criteria
Selection and Evaluation of Studies
Data Analysis and Synthesis
Presentation of the Review
Ethical Considerations
3. Results
4. Discussion
5. Conclusions
Author Contributions
Funding
Institutional Review Board Statement
Informed Consent Statement
Public Involvement Statement
Guidelines and Standards Statement
Use of Artificial Intelligence
Conflicts of Interest
Abbreviations
| AI | Artificial Intelligence |
| BDENF | Banco de Dados de Enfermagem |
| CASP | Critical Appraisal Skills Programme |
| CDSS | Clinical Decision Support Systems |
| DeCS | Descritores em Ciências da Saúde |
| IRaMuTeQ | R Interface for Multidimensional Analysis of Texts and Questionnaires |
| LILACS | Literatura Latino-Americana e do Caribe em Ciências da Saúde |
| MEDLINE | Medical Literature Analysis and Retrieval System Online |
| MeSH | Medical Subject Headings |
| PRISMA | Preferred Reporting Items for Systematic Reviews and Meta-Analyses |
| PubMed | National Library of Medicine’s |
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| Authors/year | Country of origin | Methodological design | Main findings and implications |
|---|---|---|---|
| Zhang Z, Hao H, Zhu X, Joly R, Zhang Y, Zhang Y/ 202517 | United States | Acceptability study | The study evaluated the acceptability of a personalized educational platform using artificial intelligence aimed at preventing and managing postpartum depression. With 41 participants, the results indicated high acceptance of the tool, with social influence being the main factor associated with intended use. Limitations include the small sample size, possible selection bias, and the lack of clinical efficacy assessment. As a contribution, the study demonstrates the viability of personalized technologies in maternal health, providing a basis for broader future research |
| Machado CC, Bezerra ACM, Raposo GTD, Felzener MCM/ 202518 | Brazil | Literature review | They highlight that AI can increase diagnostic accuracy, reduce human variability, and accelerate processes in areas such as gynecological cancer screening, fetal assessment, and treatment planning. Among the limitations is the quality and representativeness of the data. As a contribution, it serves as a reference for future studies that test models in real-world contexts |
| El Arab RA, Al Moosa OA, Albahrani Z, Alkhalil I, Somerville J, Abuadas F/ 202519 | Saudi Arabia | Scoping Review of applications, outcomes, and equity reviews | The study reviewed reviews of the use of artificial intelligence in perinatal care, identifying effective applications in assisted reproduction, fetal diagnosis, maternal monitoring, and neonatal care, with good results in accuracy and efficiency. However, most studies are retrospective, with low methodological quality and little external validation, in addition to a scarcity of data in low-income settings. As a contribution, the work offers a comprehensive overview of the potential of AI in perinatal care and highlights the need for more robust research, focused on equity and effective integration into clinical practice |
| Leitner K, Cutri-French C, Mandel A, Christ L, Koelper N, McCabe M et al./ 202520 | United States | Technological production study | Describes the development and engagement analysis of a conversational agent based on natural language processing for postpartum care. With 290 women participating, 98.6% interacted with the system and 52% submitted questions, with an average response accuracy of 77%. Engagement was higher among first-time mothers, breastfeeding mothers, and Black women. Limitations include the study's failure to assess clinical outcomes, low response rates to satisfaction metrics, and a pandemic-related pandemic. The research contributes by demonstrating the feasibility and acceptance of automated tools to support postpartum women, pointing the way for future clinical impact and equity assessments |
| Bolarinwa O, Mohammed A, Igharo V, Shongwe S/ 202521 | United States | Descriptive study | The article discusses how AI can promote more inclusive maternal care for women with disabilities in Africa, proposing solutions such as virtual assistants, predictive analytics, and wearable devices to overcome physical, socioeconomic, and institutional barriers to accessing prenatal, assisted childbirth, and postnatal care. The authors highlight challenges such as limited technological infrastructure, data quality and availability, algorithmic biases, privacy, and cultural adaptation of tools. The main contribution lies in highlighting AI's potential to reduce inequalities in maternal care among women with disabilities, while emphasizing the need for collaborative development, ethical regulation, and contextualization for these technologies to be truly inclusive and effective |
| Giaxi P, Vivilaki V, Sarella A, Harizopoulou V, Gourounti K/ 202522 | United States | Systematic review | The study reviewed recent articles on AI and machine learning in obstetrics and midwifery, highlighting advances in diagnosis, pregnancy risk prediction, and highly accurate fetal monitoring. Despite the transformative potential, limitations such as algorithmic biases and a lack of clinical integration are highlighted. The authors emphasize the need to expand data, improve model interpretability, and strengthen partnerships to enable the clinical adoption of these technologies |
| Rivera Rivera JN, AuBuchon KE, Smith M, Starling C, Ganacias KG, Danielson A, Patchen L/ 202423 | United States | Mixed methods study | The study developed two chatbots to support postpartum mothers and newborn caregivers, with good user acceptance and engagement. The chatbots provided useful information and appointment reminders, but success depends on effective outreach strategies. The authors recommend future research to assess their impact on health outcomes and reduce inequalities |
| Lin X, Liang C, Liu J, Lyu T, Ghumman N, Campbell B/ 202424 | South Korea | Systematic review | The analysis included studies showing that these systems improved accuracy in predicting complications such as preeclampsia, gestational diabetes, and preterm birth, in addition to optimizing labor management and mode of delivery. Despite these advances, the authors highlight limitations such as the lack of external validation, limited-quality clinical data, and the need for greater explainability of the models to ensure the confidence of healthcare professionals. They conclude that, while promising, AI-based CDSS require further multicenter studies and user-centered approaches for effective and safe clinical adoption |
| Lee Y, Kim SY/ 202425 | United States | Literature review | The study presents a review of ChatGPT's potential applications in obstetrics and gynecology in South Korea. The research highlights ChatGPT's use for diagnosis, personalized education, and clinical decision support, demonstrating its ability to generate human-like responses. Despite the advances, the authors emphasize the need for rigorous clinical validation and ethical considerations before widespread implementation |
| Armero W, Gray KJ, Fields KG, Cole NM, Bates DW, Kovacheva VP/ 202226 | United States | Mixed methods study | The study evaluated the opinions of 349 pregnant women on the use of artificial intelligence in clinical settings, revealing that 69.2% see more benefits than risks. Two groups were identified: one favorable to AI and the other more cautious, valuing the presence of a physician. The study highlights the importance of patient education and maintaining doctor-patient trust for the safe implementation of AI |
| Abuelezz I, Hassan A, Jaber BA, Sharique M, Abd-Alrazaq A, Househ M, Alam T, Shah Z/ 202227 | United States | Scoping review | The study presents a scoping review of the use of AI in pregnancy care, identifying applications in the diagnosis of preeclampsia and gestational diabetes, monitoring ectopic pregnancies, and assessing risk factors. While the study does not provide details on specific limitations or contributions, it highlights the potential of AI to improve maternal health |
| Davidson L, Boland MR/ 202128 | United States | Systematic review | The study presents a systematic review of the use of AI and machine learning (ML), including deep learning (DL), to improve care during pregnancy. The analysis covered 127 studies, highlighting that supervised methods were more prevalent (69) than unsupervised ones (9). The main applications identified include the prediction of complications such as preterm birth, preeclampsia, and gestational diabetes, as well as clinical decision support and fetal monitoring. Despite the potential, the authors emphasize the need for external validation, algorithmic transparency, and integration with existing clinical systems to ensure the effectiveness and safety of these technologies |
| Barreto IC de HC, Barros NBS, Theophilo RL, Viana VF, Silveira FR de V, Souza O de, et al./ 202129 | Brazil | Mixed methods study | They developed and tested the prototype of the Mom-Baby ChatBot to promote child health, which was well received by 142 mothers. The chatbot was rated as simple, clear, and useful, especially among women aged 26 to 30. The study concludes that chatbots are a promising tool but recommends further investment and research to validate their effectiveness |
| Author/year | Type of study | CASP Judgment | Brief comment |
|---|---|---|---|
| Zhang et al., 2025 | Acceptability study | Reasonable | Clear objectives; small sample (n=41) and no clinical evaluation of efficacy |
| Machado et al., 2025 | Literature review | Reasonable | Conceptual discussion; lack of robust primary studies |
| El Arab et al., 2025 | Scoping review of reviews | Reasonable | Comprehensive; highlights methodological gaps |
| Leitner et al., 2025 | Technological development/engagement | Reasonable | High acceptance; no assessment of clinical outcomes |
| Bolarinwa et al., 2025 | Descriptive | Reasonable | Relevant to inclusion; more descriptive than empirical |
| Giaxi et al., 2025 | Systematic review | Strong | Clear synthesis; caveats regarding algorithmic bias and clinical integration |
| Rivera Rivera et al., 2024 | Mixed methods | Reasonable | Well-described development; little measurement of clinical impact |
| Lin et al., 2024 | Systematic review | Strong | Good coverage; reservations regarding external validation |
| Lee & Kim, 2024 | ChatGPT Review | Reasonable | Explores risks and possibilities; without robust empirical data |
| Armero et al., 2022 | Survey + mixed methods | Reasonable | Reasonable sample (n=349); descriptive results |
| Abuelezz et al., 2022 | Scoping review | Reasonable | Useful mapping; primary studies limited in quality |
| Davidson & Boland, 2021 | Systematic review | Strong | Extensive review with analysis of methods |
| Barreto et al., 2021 | Prototype development | Reasonable | Prototype well received; methodological limitations of sampling and follow-up |
| Thematic axis | Exemplary studies | Narrative synthesis |
|---|---|---|
| Applications in prenatal care | Davidson & Boland (2021); Lin et al. (2024); Zhang (2025) | Personalized education, appointment reminders, initial screening, and predictive models for complications. Evidence based on reviews and acceptability studies, but lacking extensive external validation |
| Support during labor | Lin et al. (2024) | Use of clinical decision support systems for monitoring and early identification of intrapartum complications. Technical potential, but prospective validation is lacking |
| Postpartum monitoring and breastfeeding support | Leitner et al. (2025); Rivera Rivera et al. (2024); Barreto et al. (2021) | Chatbots and prototypes for breastfeeding support, reminders, and screening. Initial acceptance was high, but engagement declined over time |
| Perinatal mental health | Suharwardy et al. (2023); Zhang (2025) | Automated screening and psychoeducational chatbots for postpartum depression/anxiety. Trials suggest initial efficacy, but with small sample sizes and short follow-up |
| Ethical, technical and implementation challenges | ElArab et al. (2025); Giaxi et al. (2025); Davidson & Boland (2021) | Privacy issues, algorithmic biases, transparency, clinical integration, regulation, and digital inclusion. Consensus that audit protocols and inclusion strategies are necessary |
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