Abstract
Objectives
The United States maternal mortality (MM) rate is the highest amid developed/industrialized nations, and New Jersey’s rate is among the highest. Healthcare professionals, public health officials, and policy makers are working to understand drivers of MM. An interactive data visualization tool for MM and health-related information (New Jersey Maternal Mortality Dashboard [NJMMD]) was recently developed.
Methods
NJMMD is an open-source application that uses data from publicly available state/federal government sources to provide a cross-sectional, high-level depiction of potential relationships between MM and demographic, social, and public health factors.
Results
MM rates or ratios (maternal deaths/1,000 women aged 15–49 years or 100,000 live births, respectively) are available by year (2005–2017), age (5-year [15–49] periods), and race/ethnicity (non-Hispanic White, Black, or Asian; Hispanic; or other), and by contextual social determinants of health (percent insured; percent covered by Medicaid; difference in nulliparous, term, singleton, vertex Cesarian birth rate from New Jersey goal; number of obstetrician/gynecologists or midwives per capita; and poverty rate). Bar graphs also can be produced with these variables.
Conclusions
NJMMD is the first publicly available, interactive, state-focused MM tool that takes into account the intersection of social and demographic determinants of health, which play important roles in health outcomes. Trends and patterns in variables associated with MM and health can be identified for New Jersey and each of its 11 counties, and inform areas of focus for further analysis. Outputs may enable researchers, policy makers, and others to develop appropriate interventions and be better positioned to set benchmarks, allocate resources, and evaluate outcomes.
Introduction
Maternal mortality is a key measurement that reflects the health status of a population and the quality of care that population receives [1, 2]. Women in the United States are more likely than those in other developed countries to die from complications related to pregnancy or childbirth [3, 4]. We recognize that more inclusive terms for individuals who give birth are preferable (e.g., birthing people). However, available data and statistical reports use the term “women.” Therefore, the term “women” is used herein.
Maternal mortality is surveilled in the United States using the National Center for Health Statistics (NCHS) National Vital Statistics System (NVSS) and the Pregnancy Mortality Surveillance System (PMSS), which are supported by the Centers for Disease Control and Prevention (CDC), as well as state-based Maternal Mortality Review Committees (MMRCs) [5], [6], [7], [8]. A checkbox for pregnancy-related deaths on United States Standard Certificates of Death was initiated in 2003 and took until 2018 to be implemented in all 50 states, the District of Columbia, and United States territories [9, 10]. In 2018, the NCHS released its first annual report of national estimates of maternal mortality since 2007 [10], utilizing data from the death certificate check box. According to the 2019 report [5], the overall maternal mortality rate (deaths per 100,000 live births) was significantly higher in 2019 (20.1; 754 deaths) than in 2018 (17.4; 658 deaths). These findings are inconsistent with prior reports that maternal mortality rates did not increase significantly between 2002 and 2018 (except 2017) [9], [10], [11], [12]. Findings relative to race/ethnicity, though, were consistent with other reports [6, 10, 13, 14]. The maternal mortality rates in 2018 and 2019 for non-Hispanic Black women (37.3 and 44.0, respectively) were significantly higher — 2.5- to 3.5-times — than for non-Hispanic White (14.9 and 17.9) or Hispanic (11.8 and 12.6) women [5]. The maternal mortality rate in 2019 also significantly increased with age, from 12.6 for women <25 years old, to 19.9 for women aged 25 to 39, to 75.5 for women ≥40 years old. However, only the rate in the 25–39 age group significantly increased from 2018 (16.6) to 2019 (19.9) [5].
Interpreting United States maternal mortality data is challenging, however, because of varied sources, inconsistent reporting, and poor quality of data, as well as diverse terms and definitions (Table 1) [5], [6], [7], [8]. Moreover, MMRCs have access to additional information on maternal deaths (e.g., medical and social records), which allows a more in-depth evaluation of factors leading to the deaths than that available from vital registration information alone [6, 7].
National vital statistics system | Pregnancy mortality surveillance system | Maternal mortality review committeesb | |
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Term(s) | Maternal mortality/deaths | Pregnancy-related mortality/deaths (also, pregnancy associated, [associated and] pregnancy related, and [associated but] not pregnancy related) | |
Definition | Maternal mortality:a death of a woman while pregnant or within 42 days of end of pregnancy, irrespective of the duration and the site of the pregnancy, from any cause related to or aggravated by the pregnancy or its management, but not from accidental or incidental causes Late maternal mortality:a death of a woman from direct or indirect obstetric causes >42 days but <1 year after end of pregnancy |
Pregnancy-related mortality: death of a woman during pregnancy or within one year of end of pregnancy from a pregnancy complication; a chain of events initiated by pregnancy; or the aggravation of an unrelated condition by the physiologic effects of pregnancy | |
Source and classification | Number of maternal deaths does not include all deaths occurring to pregnant or recently pregnant women, but only those deaths with the underlying cause of death assigned to ICD-10 codes A34, O00–O95, and O98–O99 on death certificates | Either a checkbox on death certificates, or linked birth or fetal death certificates registered in the year preceding death; reviewed by medical epidemiologists | |
Measurement | Maternal mortality rate as the number of maternal deaths per 100,000 live births | Pregnancy-related mortality ratio as the number of pregnancy-related deaths per 100,000 live births |
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aDefinitions used by World Health Organization [16]; balmost all states, the District of Columbia, New York City, Philadelphia, and Puerto Rico have a formal MMRC or legal requirement to review pregnancy-related deaths; however, the committee members, handling of information, reporting requirements and timing, and scope of work for each MMRC varies from state to state. Most MMRCs collaborate with the CDC to standardize their maternal mortality review process, including adopting a system developed by the CDC for consistent data gathering, decision making, and development of actionable recommendations [15]; CDC, Centers for Disease Control; ICD-10, International Statistical Classification of Diseases, 10th Revision; MMRC, Maternal Mortality Review Committee.
Maternal mortality rates vary greatly across states, adding to the complexity of interpreting maternal mortality data. According to the most recent state-level NCHS NVSS data (2018), maternal deaths ranged from 9.7 per 100,000 live births in Illinois to 45.9 in Arkansas [17], suggesting that individual states face unique challenges and, therefore, may need tailored solutions. Healthcare professionals, non-profit organizations, public health officials, and policymakers are working to understand the drivers of maternal mortality [18]. At the federal level, the CDC has the Pregnancy Risk Assessment Monitoring System (PRAMS) [19], the Enhancing Reviews and Surveillance to Eliminate Maternal Mortality (ERASE MM) program [20], and the CDC Levels of Care Assessment ToolSM (CDC LOCATeSM) [21], and the National Institutes of Health has the Implementing a Maternal health and PRegnancy Outcomes Vision for Everyone (IMPROVE) initiative [22].
An interactive data visualization tool for maternal health-related information in New Jersey, which has one of the highest pregnancy-related maternal death rates in the United States (26.7 per 100,000 live births in 2018) [17] was developed, and we explored how the tool could be used. Here, we report the process for development of the New Jersey Maternal Mortality Dashboard (NJMMD) and illustrate the how the tool enables users to simply and graphically depict cross-sectional, high-level perspectives on potential correlations between maternal mortality with demographic, social, and public health factors at a state and county level. We are sharing the tool broadly so other states or regions have the opportunity to use it for their own geographies.
Methods
NJMMD development
Stark racial disparities in maternal mortality rates across races exist at a national level, and we sought to understand if these disparities existed in New Jersey and whether they were better, worse, or the same as national levels. By adding several contextual variables, we hoped to identify trends that would inform interventions to address these disparities. Further, as providers, we identified — from personal and colleagues’ experiences — a void in being able to easily and quickly access relevant and timely data that could be meaningful to our practices and to the communities we serve. Having these data could not only allow for development of appropriate interventions but also allow for us to be better able to set benchmarks and evaluate outcomes.
The NJMMD (https://johnsonandjohnson.shinyapps.io/njmm) was developed by the Women’s Health and Advanced Analytics teams at Johnson & Johnson using publicly available data from various state and federal government sources, which were brought together in a unique and interactive way and integrated into county-level maps to provide a cross-sectional, high-level depiction of potential relationships between maternal mortality and various factors. Population demography from 2005 to 2017 (i.e., age and race/ethnicity), several contextual variables (i.e., percent insured; percent covered by Medicaid; difference in nulliparous, term, singleton, vertex [NTSV] Cesarian birth rate from the New Jersey statewide 2020 goal of 24.7%; number of obstetrician/gynecologists or practitioner midwives per capita; and poverty rate) are included. Details about data sources can be found on the NJMMD website within the “About” tab, and the source code can be found within the “Source code” tab for those in other states/regions who may be interested in applying the code to data from their geographies and creating their own dashboard(s). The NJMMD was created using the R/Shiny web application framework, and the code underlying the tool is fully open-source and available within the “Source Code” tab on the NJMMD website.
Two maternal mortality measures are presented: maternal mortality rate (MMRate), which is the number of maternal deaths per 1,000 women aged 15–49 years, and maternal mortality ratio (MMRatio), which is the number of maternal deaths per 100,000 live births. Consistent with WHO definitions, a maternal death is defined as the death of a woman, “irrespective of the duration and site of the pregnancy, from any cause related to or aggravated by the pregnancy or its management but not from accidental or incidental causes.” [16] However, as mentioned, the definition of maternal mortality in terms of the timing of death in relation to pregnancy is inconsistent in the literature, with some organizations (e.g., NVSS, WHO) reporting based on 42 days and others (e.g., PMSS, MMRC) reporting up to one year after the end of pregnancy. Considering nearly 50% of pregnancy-related deaths in New Jersey occur after 42 days, we used a 1-year time period after the end of pregnancy to define maternal mortality for the NJMMD. Also consistent with WHO definitions, a live birth is defined as the “complete expulsion or extraction from its mother of a product of conception, irrespective of the duration of pregnancy, which, after such separation, breathes or shows any evidence of life, such as beating of the heart, pulsation of the umbilical cord, or definite movement of voluntary muscles.” [16] Specific definitions adopted for NJMMD and their sources, along with the rationale for selecting each source, are provided on the NJMMD website within the “How This Works” tab.
Characteristics of the NJMMD tool
The NJMMD includes multiple measures, allowing the user to have a broader view of maternal mortality based on different data points. Maternal mortality, measured as MMRates or MMRatios, are available by year (2005–2017) for all women, by age (in 5-year blocks from 15 to 49 years of age; Figure 1), and by race/ethnicity (non-Hispanic White, non-Hispanic Black, non-Hispanic Asian, Hispanic, or other). MMRates or MMRatios, along with the contextual variables, can be visualized on a map that includes all New Jersey counties. Because of its interactive nature, trends and patterns may be observed based on these data points. Questions to be addressed include: Is there a match or disconnect when looking at the data? Are there sufficient and appropriate types of care available based on the data?

Examples of the ability to evaluate data based on age of mother (top) or race/ethnicity of mother (bottom) using the New Jersey Maternal Mortality Dashboard tool.
Results
Use cases of the NJMMD tool
Overall MMRatios (deaths per 100,000 live births) in New Jersey varied over time but trended in an upward manner (mean [standard deviation (SD)]: 36.7 [±10.4]; Figure 2). MMRatios by counties also varied from year to year. However, in Essex county, which has one of the highest number of delivery hospitals and obstetrician/gynecologists per capita in the state (Figure 3), MMRatios generally were high over time (mean [SD], range: 64.0 [±28.2], 30–111 annually), as were poverty rates (mean [SD], range: 16.8% [±0.63%], 15.7–17.7% annually). These types of data, combined with available data from hospitals and birthing sites in the county, and prenatal care sites (e.g., Federally Qualified Health Centers), can inform planning for not only provision of care (e.g., identify gaps in types, locations, and inequities of resources, as well as communication about resources; identify gaps in types, races, and/or languages of providers and care teams; and clarify barriers to care) but also levels of care (level I [basic care], level II [specialty care], level III [subspecialty care], and level IV [regional perinatal health care centers]) needed.

Maternal mortality ratio (number of maternal deaths per 100,000 live births) over time (graph), and by county (map) in 2017 in New Jersey. Chart (left) was creating using data from the New Jersey Maternal Mortality Dashboard website, and the graphic containing the map (right) is a screen shot from the New Jersey Maternal Mortality Dashboard website.

Maternal mortality ratio (number of maternal deaths per 100,000 live births; blue bars on graph) and poverty rates (orange on graph) over time, and number of delivery hospitals, and obstetrician/gynecologists and practitioner midwives per capita (maps) in 2017, in Essex county, New Jersey. Chart (left) was creating using data from the New Jersey Maternal Mortality Dashboard website, and the maps (right) are screens shots from the New Jersey Maternal Mortality Dashboard website.
In 2017, the overall MMRatio in New Jersey was 41.7 (Figure 2). MMRatios were highest in Cumberland (167) and Cape May (133) counties. High MMRatios in Cumberland county likely were driven by high MMRatios among non-Hispanic Black women (579) (Figure 4A). Cumberland county also had the highest rates of poverty (18.4% [Figure 4B] vs. 10.0% for New Jersey [23] and 13.4% for the nation [23]) and Medicaid coverage (33.7% [Figure 4C] vs. 17.2% for New Jersey [24] and 19.3% for the nation [25]), and the sixth highest percentage of uninsured women (13.7% [Figure 4D]) after Passaic county (15.9 vs. 7.7% for New Jersey [26] and 8.7% for the nation [26]). High MMRatios in Cape May county likely were driven by high MMRatios among non-Hispanic White women (176) (Figure 5A). Cape May county had the highest difference in NTSV Cesarian rate (12.9% [Figure 5B]) from the New Jersey statewide 2020 goal of 24.7%. Based on these data, we can hypothesize that the high maternal mortality among non-Hispanic Black women in Cumberland county is associated with high poverty and low insurance coverage, while the high maternal mortality among non-Hispanic White women in Cape May county is associated with high NTSV Cesarian rate. In 2017, the MMRatio was zero in eight New Jersey counties (Warren, Hunterdon, Somerset, Mercer, Burlington, Ocean, Atlantic, and Salem). Poverty rates also were generally low in these counties (mean [SD], range: 9.1% [±3.8%], 3.9–14.4% annually). Collectively, these types of data provide an opportunity to identify trends and areas of focus for further analysis of factors impacting outcomes.

Maternal mortality ratio (number of maternal deaths per 100,000 live births) (A), percent poverty (B), percent covered by Medicaid (C), and percent uninsured (D) in 2017 in Cumberland county, New Jersey. Maps are screen shots from the New Jersey Maternal Mortality Dashboard website.

Maternal mortality ratio (number of maternal deaths per 100,000 live births) for non-Hispanic White women (A) and percent difference in NTSV Cesarean rate from the New Jersey statewide 2020 goal of 24.7% (B) in 2017 in Cape May county, New Jersey.
Maps are screen shots from the New Jersey Maternal Mortality Dashboard website.
Discussion
Access to publicly available, accurate and detailed maternal mortality statistics in the United States is generally available but may not be easy to access. Moreover, interested parties may not be able to evaluate the range of variables that could be important to understanding maternal mortality. Further, multiple perspectives must be considered when interpreting data and seeking solutions (e.g., policy, economics, education, and integrated clinical support for physical and mental health). Meaningful maternal mortality data are not available for all states and are not standardized across states, leaving a gap in information [15]. Before implementation of the checkbox for pregnancy-related deaths and pregnancy-specific questions (e.g., timing of death in relation to pregnancy) on death certificates in 2003, maternal deaths in the NVSS were likely underreported [9, 10]. However, states implemented this information in a staggered fashion; therefore, evaluating trends in maternal mortality in the United States was incomplete between 2003 and 2017 [9, 10]. Use of the NJMMD can help fill existing gaps in information and our understanding of trends in maternal mortality for the state of New Jersey by providing detailed measures of maternal mortality, as well as factors that may be associated with the deaths. Further, as part of the ERASE MM program [20], the CDC offers tools, resources, and support to MMRCs to help improve review processes that inform recommendations for preventing future deaths.
To our knowledge, NJMMD is the first publicly available, interactive, state-focused maternal mortality tool that takes into account the intersection of social and demographic determinants of health (i.e., daily social, environmental, and economic conditions, such as where we live, work, and play), which are being increasingly recognized as playing important roles in health outcomes. Though some organizations and state governments have maternal morbidity and other maternal and child health statistics — sometimes in visual formats — on their websites [27], [28], [29], none has the interactive capability and scope of the NJMMD. We are aware of a similar interactive tool, the Maternal Mortality and Morbidity Interactive Dashboard (3MID), which was developed to evaluate the impact of social determinants of health on maternal mortality and serious illness (morbidity) [30]. However, this tool is not publicly available.
Considering intersectionality is important because it acknowledges that everyone has unique experiences of discrimination and oppression, and that anything and everything that can marginalize someone must be explored. For communities of color, social and demographic determinants (e.g., healthcare services and insurance, early access to care, housing and location [rural vs. urban], employment, income, and education) influence health as much as biologic determinants [31]. The NJMMD also takes into account the intersection of structural determinants of health (e.g., racial disparity, sexism, and classism), which drive and influence social determinants of health, and play a role in high maternal mortality rates in the United States [32, 33]. Although the precise reason(s) the maternal mortality rate is substantially higher in non-Hispanic Black and Native American women than non-Hispanic White or Hispanic women is unclear, a main reason for high maternal mortality rates in the United States compared with other developed nations is the disproportionately higher rates of pregnancy-related deaths in these populations [34]. Factors that contribute to negative outcomes in non-Hispanic Black pregnant women include structural racism, weathering, historical lack of trust in the health care system, racial bias among health care providers, victim blaming, limited diversity among providers, lack of access to or barriers to use of health care services, and higher rates of comorbid conditions such as diabetes, hypertension, and obesity [33], [34], [35], [36], [37]. Black women generally represent a marginalized population that is not sufficiently heard or trusted [34, 35, 38]. Moreover, when they speak up about maternal health issues, including during and/or after their pregnancy, their concerns are minimized or not taken seriously.
The NJMMD allows users to quickly see how demographic, social, structural, and public health factors could be correlated with maternal mortality, and how trends and patterns could help inform effective public health interventions. In addition, users can explore the code, data, and methodology behind the NJMMD and apply the same to the maternal mortality data for other states. Finally, the NJMMD could serve as an important research tool for students and scholars.
Although we provide a limited number of use cases as examples, the NJMMD can potentially be employed to study important questions related to women’s health outcomes in New Jersey, such as the impact of allocation or availability of certain resources (e.g., doulas, providers such as midwives and obstetrics/gynecologists, and social workers) on maternal mortality rates, or correlations between differences in maternal mortality rate among counties and contextual variables (e.g., education; employment; poverty; health insurance coverage; provider race; and presence of provider, particularly midwifery, deserts) available in NJMMD or other external sources.
Regardless of the complexity associated with understanding historical or new data on maternal mortality, the maternal mortality crisis must be a clear focus in the United States [13]. Recognition of the drivers, and identification and implementation of solutions, are urgently needed.
Of import is the understanding that some drivers and solutions for the maternal mortality crisis may vary from state to state, as is does from country to country, while other drivers and solutions may be common across geographies. For example, in a case-control study of women aged ≥35 years in the United Kingdom [39], five risk factors — inadequate use of antenatal care (adjusted odds ratio, 23.62 [95% CI, 8.79–63.45]), comorbidities (5.92 [3.56–9.86]), previous pregnancy complications (2.06 [1.23–3.45]), smoking (2.06 [1.13–3.75]), and age (1.12 [1.02–1.22]) — that were associated with maternal mortality are likely also applicable in the United States.
Finally, many of the social and structural determinants of health can be impacted by crisis situations, such as the COVID-19 pandemic [40]. Evidence indicates some of the drivers of maternal mortality were further exposed and exacerbated by the COVID-19 pandemic. This catastrophic event, which highlighted structural racism in the United States, led to the maternal mortality crisis taking on new urgency.
In addition to inherent strengths (e.g., simple, easy-to-use, and exportable, interactive presentation of existing, publicly available data that takes into account the intersection of social and demographic determinants of health; county-level data and analyses), the NJMMD also can be used to guide resource allocation and channel funding to areas of greatest need. However, although the NJMMD can help identify correlations and not causation, data could be used to inform evidence-based public health and policy interventions for improving maternal health in the state. Further, given relatively small sample sizes in some counties, trends and correlations for individual counties may not always be informative.
In conclusion, the United States is in the midst of a maternal mortality crisis, primarily because of high pregnancy-related deaths among non-Hispanic Black women. Some states, including New Jersey, have particularly high rates of maternal mortality. The reporting of data on maternal mortality and related lexicon are inconsistent across states and agencies. The NJMMD may fill a gap in public information on maternal mortality in New Jersey, as well as help identify how maternal mortality is related to social, social demographic, and structural determinants of health (e.g., age, race, access to health care, geography, and poverty).
Funding source: Johnson and Johnson
Acknowledgments
Writing assistance was provided by Narender Dhingra, MBBS, PhD, CMPP, of System One, and Maribeth Bogush, MCI, PhD, of InSeption Group, and funded by Janssen Global Services, LLC.
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Research funding: This work was supported by Johnson & Johnson.
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Author contributions: All authors have accepted responsibility for the entire content of this manuscript and approved its submission.
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Competing interests: All authors, except D.F. and R.J.C. (employees of Johnson & Johnson, New Brunswick, NJ), have nothing to disclose.
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Informed consent: Not applicable.
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Ethical approval: Not applicable.
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© 2022 Juana A. Hutchinson-Colas et al., published by De Gruyter, Berlin/Boston
This work is licensed under the Creative Commons Attribution 4.0 International License.
Articles in the same Issue
- Frontmatter
- Editorial
- Is lowering of maternal mortality in the world still only a “dream within a dream”?
- Articles
- International Academy of Perinatal Medicine (IAPM) guidelines for screening, prediction, prevention and management of pre-eclampsia to reduce maternal mortality in developing countries
- Why maternal mortality in the world remains tragedy in low-income countries and shame for high-income ones: will sustainable development goals (SDG) help?
- Maternal mortality in the city of Berlin: consequences for perinatal healthcare
- New Jersey maternal mortality dashboard: an interactive social-determinants-of-health tool
- The study of healthcare facility utilization problems faced by pregnant women in urban north India
- Impediments to maternal mortality reduction in Africa: a systemic and socioeconomic overview
- Reducing maternal mortality: a 10-year experience at Mpilo Central Hospital, Bulawayo, Zimbabwe
- Strategies for the prevention of maternal death from venous thromboembolism clinical recommendations based on current literature
- Maternal plasma cytokines and the subsequent risk of uterine atony and postpartum hemorrhage
- What is already done by different societies in reduction of maternal mortality? Are they successful at all?
- Use and misuse of ultrasound in obstetrics with reference to developing countries
- Biological therapies in the prevention of maternal mortality
- Pre-eclampsia and maternal health through the prism of low-income countries
- Comparison of in-hospital mortality of COVID-19 between pregnant and non-pregnant women infected with SARS-CoV-2: a historical cohort study
- How does COVID-19 affect maternal and neonatal outcomes?
Articles in the same Issue
- Frontmatter
- Editorial
- Is lowering of maternal mortality in the world still only a “dream within a dream”?
- Articles
- International Academy of Perinatal Medicine (IAPM) guidelines for screening, prediction, prevention and management of pre-eclampsia to reduce maternal mortality in developing countries
- Why maternal mortality in the world remains tragedy in low-income countries and shame for high-income ones: will sustainable development goals (SDG) help?
- Maternal mortality in the city of Berlin: consequences for perinatal healthcare
- New Jersey maternal mortality dashboard: an interactive social-determinants-of-health tool
- The study of healthcare facility utilization problems faced by pregnant women in urban north India
- Impediments to maternal mortality reduction in Africa: a systemic and socioeconomic overview
- Reducing maternal mortality: a 10-year experience at Mpilo Central Hospital, Bulawayo, Zimbabwe
- Strategies for the prevention of maternal death from venous thromboembolism clinical recommendations based on current literature
- Maternal plasma cytokines and the subsequent risk of uterine atony and postpartum hemorrhage
- What is already done by different societies in reduction of maternal mortality? Are they successful at all?
- Use and misuse of ultrasound in obstetrics with reference to developing countries
- Biological therapies in the prevention of maternal mortality
- Pre-eclampsia and maternal health through the prism of low-income countries
- Comparison of in-hospital mortality of COVID-19 between pregnant and non-pregnant women infected with SARS-CoV-2: a historical cohort study
- How does COVID-19 affect maternal and neonatal outcomes?