Skip to main content
Advertisement
Browse Subject Areas
?

Click through the PLOS taxonomy to find articles in your field.

For more information about PLOS Subject Areas, click here.

  • Loading metrics

Effective interventions to ensure MCH (Maternal and Child Health) services during pandemic related health emergencies (Zika, Ebola, and COVID-19): A systematic review

Abstract

Introduction

Ensuring accessible and quality health care for women and children is an existing challenge, which is further exacerbated during pandemics. There is a knowledge gap about the effect of pandemics on maternal, newborn, and child well-being. This systematic review was conducted to study maternal and child health (MCH) services utilization during pandemics (Zika, Ebola, and COVID-19) and the effectiveness of various interventions undertaken for ensuring utilization of MCH services.

Methodology

A systematic and comprehensive search was conducted in MEDLINE/PubMed, Cochrane CENTRAL, Embase, Epistemonikos, ScienceDirect, and Google Scholar. Of 5643 citations, 60 potential studies were finally included for analysis. The included studies were appraised using JBI Critical appraisal tools. Study selection and data extraction were done independently and in duplicate. Findings are presented narratively based on the RMNCHA framework by World Health Organization (WHO).

Results

Maternal and child health services such as antenatal care (ANC) visits, institutional deliveries, immunization uptake, were greatly affected during a pandemic situation. Innovative approaches in form of health care services through virtual consultation, patient triaging, developing dedicated COVID maternity centers and maternity schools were implemented in different places for ensuring continuity of MCH care during pandemics. None of the studies reported the effectiveness of these interventions during pandemic-related health emergencies.

Conclusion

The findings suggest that during pandemics, MCH care utilization often gets affected. Many innovative interventions were adopted to ensure MCH services. However, they lack evidence about their effectiveness. It is critically important to implement evidence-based appropriate interventions for better MCH care utilization.

Introduction

The health of women and children is critical for a happier and healthier world. They have been classified by the World Health Organization (WHO) as an important subgroup of the population that is most vulnerable in a pandemic or a disaster [1]. Globally, the COVID-19 pandemic has posed a challenge to the health systems leading to a compromise on health care services that embrace maternal and child health (MCH) care. Similar lapses were also witnessed during past health emergencies (Ebola and Zika), implying lessons are to be learned from the present and past epidemics or pandemics [2, 3].

In developing countries, ensuring accessible and quality health care to women and children has been an existing challenge, further exacerbated due to pandemics (Zika, Ebola, and COVID-19). Maternal and child health care is affected due to various factors that influence MCH care administration, service provision, and uptake of the services by the beneficiaries (pregnant women, mothers, and children) [4]. Previous health emergencies like Ebola and Zika have reported a significant increase in the maternal mortality ratio (MMR) due to decreased approach to health facilities and increased risky home deliveries [5]. The administrator’s focus will likely to shift from MCH care to the pandemic. According to research, health workers in other Sub-Saharan African countries are not well-prepared to treat COVID patients and meet the demands of women during the pandemic [6]. Research has revealed a knowledge gap regarding the effect of pandemics on maternal well-being, especially in resource-constrained settings where marginalized women often receive poor health care [7]. A study conducted in low- and middle-income countries (LMICs) has found a declining trend in the utilization of maternal and child health (MCH) services such as institutional delivery, antenatal care (ANC), and child immunization [8]. These limitations may have severe consequences for women’s health in LMICs during the pandemic [9].

Furthermore, many pregnant women have found it challenging to access healthcare facilities due to the lockdown and movement limits. Due to lack of transportation, pregnant women in Panama and Zimbabwe have reported trouble getting to a health facility [10, 11]. Owing to travel limits and far-flung pharmacies, pregnant women in Zimbabwe had problems finding treatment for their newborns [10]. Several Indian states have witnessed a decline in institutional deliveries [12]. There have been incidents of pregnant women giving birth on the road and in ambulances due to lockdown and delays in getting emergency services [1315].

Although health systems around the globe have implemented extraordinary measures to prevent COVID-19 transmission, such measures have negatively impacted maternal and neonatal health and exacerbated the existing inequalities within societies [16]. Fighting with health emergencies and maintaining a continuum of care through routine essential services was challenging. The strict pandemic control policies on healthcare infrastructure, societies, and the global economy also affected maternal health [17]. The need of the situation is to maintain the “continuum of care” aiming at delivering the services to mothers and children through an integrated approach [18].

With this backdrop, the present systematic review was conducted to assess the impact of health emergencies (Zika, Ebola, and COVID-19) on facility and community-based MCH services utilization and identify various effective interventions or strategies adopted to ensure uptake/delivery of MCH care. This review will offer evidence to key stakeholders at different levels of the healthcare system for developing and implementing a straightforward approach with a context-specific strategic plan to overcome pandemic-related negative consequences on MCH care.

Methodology

The PRISMA (Preferred Reporting Items for Systematic Reviews and Meta-Analyses) [19] guidelines were followed for this systematic review. The protocol for this systematic review was registered in PROSPERO with ID: CRD42021233860.

Search

A comprehensive search was conducted in MEDLINE/PubMed, Cochrane CENTRAL, Embase, ProQuest, Google Scholar, Epistemonikos, and ScienceDirect using a predefined search strategy based on population, intervention/phenomenon of interest, comparator/context, and outcomes (S1 Data).

Study selection

Based on predefined inclusion and exclusion criteria, reviewers (SD, SN, SS, and KP) screened the title and abstract of identified studies. Reviewers (SD, SN, SS, KP, and MRS) carried out the full-text screening of potentially relevant studies. The entire study selection was made independently and in duplicate.

Criteria for inclusion/exclusion of studies

Study design and period.

Any quantitative, qualitative, and mixed-method studies irrespective of settings were involved. Studies reporting on access and utilization of antenatal and postnatal services, intrapartum care, referral services, immunization services, and sick child care services were included. However, studies such as reviews, case reports, editorials, commentaries, perspectives, and articles with methodological flaws were excluded. Though grey literature regarding this topic was numerous, we restricted the search to peer-reviewed articles as it signifies that the quality of articles was checked before publication. No limit was applied to the language; non-English studies were handled using Google Translate. All studies published till January 2021 were included in this review.

Population/participants.

Pregnant women, mothers, children, and health care professionals.

Intervention(s)/exposure(s)/phenomenon of interest.

Any interventions or strategies related to providing or improving MCH services during health emergencies (Zika, Ebola, and COVID-19).

Comparator/context.

There was no comparator group. Studies in the context of health emergencies (Zika, Ebola, and COVID-19) were included.

Outcome.

WHO MCH care indicators in alignment with the RMNCH (Reproductive, Maternal, Newborn and Child Health) “Continuum of Care” framework [18, 20], such as demand for family planning, antenatal care coverage, institutional deliveries, maternal and perinatal outcomes, postnatal care within two days of birth, immunization services and pediatric health services during health emergencies (Zika, Ebola, and COVID-19) were studied.

Two reviewers (BKM, SKP) resolved the disagreement between authors through discussion to reach a consensus at each screening stage.

Appraisal of studies

The methodological quality of the included studies was appraised using JBI tools (Joanna Briggs Institute) [21] by the authors (SD, SN, KP, SS, MRS) independently. The quality rating in the included studies that scored > 70% were considered high quality, whereas articles scoring between 40–70% and < 40% were considered moderate and low quality, respectively based on the scores for the individual items as decided with consensus.

Any disagreements were resolved in concordance with the reviewers’ SKP and BKM.

Data extraction, synthesis, and analysis

Reviewers (SD, SN, KP, SS, and MRS) extracted data independently from the included studies and cross-checked it with other reviewers. Data were extracted for the following study characteristics viz. author/year, title, study year, objectives, study type, sample size, study design, study setting, country, participants, method of data collection, pandemic type (Zika, Ebola, and COVID-19), methods of analysis, outcomes (based on RMNCH indicators), results and conclusion.

PICO components of each study were summarized, characterized, and labeled into specific domains (Family Planning, Reproductive, Maternal, Newborn, and Child Health). Descriptive statistics were used to present quantitative data based on their characteristics and availability. The synthesis of the qualitative data was done using thematic analysis. The reviewers independently read and re-read the data line-by-line from the results of the included primary studies. The codes were grouped to generate the descriptive themes, which were further examined, compared, and refined to generate analytical themes. The data coding was done using identified themes with the help of MAXQDA 2020 (Version 20.4.1). The reviewers sorted the data by theme and presented the themes in the form of a table of analysis (Table 1).

Results

Search results

Our rigorous and comprehensive search identified 5643 citations including 107 duplicates. Of 5536 citations, 5436 were excluded during the title and abstract screening. Of included potential articles, 40 were rejected during the full-text screening (S1 File). A total of 60 studies were finally included in this review. The same is represented using the PRISMA flow diagram (Fig 1).

Study characteristics

Detailed characteristics of included studies are provided in the S2 File. Among included studies, 11 were qualitative, 8 were mixed methods, and 41 were quantitative. The included studies were from high-income countries (n = 23), LMICs (n = 34) and both (n = 3) (Fig 2). Most of the included studies were from the African Region(38%), followed by European Region(25%), Region of the Americas(13%), South-East Asian Region(8%), Western Pacific Region(7%), and Eastern Mediterranean Region(2%) while 7% were not specific to any region (Fig 3). Geographically, included studies were widely distributed across the globe comprising Australia, Cameroon, Chile, China, Colombia, Ethiopia, France, Germany, Guinea, Honduras, Iceland, India, Indonesia, Ireland, Italy, Kenya, Liberia, Nepal, Pakistan, Sierra Leone, Singapore, South Africa, United Kingdom, and the United States (Fig 4).

thumbnail
Fig 2. Distribution of included studies across HICs and LMICs.

https://doi.org/10.1371/journal.pone.0268106.g002

thumbnail
Fig 3. Distribution of included studies across WHO regions.

https://doi.org/10.1371/journal.pone.0268106.g003

The included studies were from healthcare facilities (n = 39), community (n = 5), in both facility and community (n = 3), conducted online mode (n = 6), and based on electronic databases or hospital records (n = 7). The targeted population under study included both MCH service beneficiaries and healthcare providers. However, the number of studies targeting beneficiaries (n = 38) was two times higher than that of health care providers (n = 16), and very few considered both groups (N = 6). Although the search retrieved articles published till January 2021, the included articles were published between 2015 and 2021. Out of 60 studies, 39 emphasized the COVID-19 pandemic, while 18 studies focused on the Ebola epidemic and three on the Zika virus epidemic. Twenty-two studies reported on the interventions or strategies employed to ensure MCH services; however, none reported their effectiveness. Thirty-three of sixty included studies were funded.

Assessment on quality of study methodology

The quality of each included study was evaluated for its validity, reliability, and results using JBI tools of critical appraisal which used a range of criteria that measured as being “met” or “not met” or “unclear” or “not applicable” and weighted accordingly. Of 60 studies, 37 were weighted above 70% and categorized as high quality, while 19 studies scored between 40–70% (moderate) and four scored below 40%, thus categorized as of low quality. However, articles rated low quality were not excluded due to the scope of study results. The detailed quality assessment of selected studies is presented in the S3 File.

Insufficient reporting of outcomes (on WHO RMNCH indicators) and no reporting on the effectiveness of identified interventions in included quantitative studies and heterogeneity made it impractical and inapt to conduct a statistical analysis/meta-analysis. Thus, a narrative approach was used to summarize the outcomes of quantitative studies, further complemented by qualitative findings. The findings are presented according to the WHO RMNCH framework.

1. Reproductive health.

1.1. Family planning services (FPS). The utilization of FPS was affected during the unprecedented events, which were quite evident from the included studies. During the Ebola crisis, the utilization of FPS declined by 51% compared to pre-Ebola [22]. A study mentioned that contraceptives (viz. injectable, oral contraceptive pills, or condoms) and key medications went out of stock during Ebola [22]. Another study documented that utilization of family planning services declined by 6% during the Ebola outbreak [23]. Despite a drop in FPS utilization during the early phases of lockdown, a sharp reversal in FPS service uptake during the post-lockdown phase was reported [24]. Furthermore, distance from the health facility, restricted functioning hours of the facility, long waiting time [25], restrictions to getting inside the hospitals [25], and fear of contracting the infection were significant limiting factors for availing FPS.

2. Maternal and newborn health.

2.1. Antenatal services (ANC). Few studies reported the changes in antenatal service utilization during pandemics. The utilization of prenatal services decreased by about 58% during the Ebola pandemic [2629]. Conversely, 55.5% of expectant mothers said they missed or delayed their antenatal check-ups during COVID-19 [30]. Three studies revealed that women had attended fewer ANC check-ups than the recommended number during the COVID-19 pandemic [3032]. Women in the second trimester of pregnancy attended more ANC visits (48%) compared to those in the first and third trimesters of pregnancy (39.5% and 35.2%, respectively) during the COVID-19 pandemic in China [33]. Inappropriateness in the quality of ANC services was reported by 27.8% of Indonesian women as ANC examination was not performed under the scope of ANC service provision by midwives [34]. During Ebola, studies indicated a 22% loss in achieving four or more ANC visits in Liberia, while a COVID-19 related study in Ethiopia revealed a 1.8% loss for the same [23, 27, 30]. In India, hampered transportation (50.9% respondents) and fear of infection (33.4% respondents) were primary reasons for missing ANC check-ups [32]. Similarly, an Ethiopian study found that missed ANC visits were associated with a lack of travel means during lockdown (28%), fear of infection (56.8%), stay-at-home instructions (17%), and redirection of maternal health services/personnel (33%) [30]. Higher demand for virtual patient consultation during the pandemics was noticed. Another study from China reported that 59.6% of beneficiaries used remote consultation, and 42.2% requested fewer in-person ANC visits [33]. However, 50% of women used telemedicine in the US, and 10.7% of face-to-face appointments were reduced during COVID-19 [35]. There were just two studies that looked at how tetanus immunization rates changed among pregnant women during pandemics. During the COVID-19 pandemic, a study in Ethiopia [30] reported a 38.3% drop in TT 1st dosage and a 59.6% drop in TT 2nd dosage; however, during Ebola in Sierra Leone, a 15% dip in TT 2nd dosage was observed. Similarly, a 28.8% dip was observed in overall TT vaccination during the lockdown in Pakistan [36].

Likewise, the qualitative findings of the reviewed articles reported a decline in ANC service uptake. This decline was attributed to numerous factors including inadequate information, geographical barriers, high cost of institutional care, dread of infection, a lack of diagnostic services, and shortage of healthcare workers [25, 3746]. Beneficiaries in Zika-related studies claimed that they were aware of the potentially harmful effects of the infection on the fetus and preventive measures [25]. On the other hand, during Ebola and COVID-19, beneficiaries were apprehensive about the transmission of disease and pointed out that the media was disseminating misinformation or excessive information about the pandemic [39, 46]. Various misconceptions such as “the deliberate creation of virus by medical workers for financial benefit” or “to create the need for more drugs” [37] further contributed to people’s mistrust of health workers [41]. Most of pregnant women were hesitant to visit health facilities for fear of acquiring the infection, thus missing their ANC visits or accessing facilities only in extreme situations [4143, 46].

‘‘When you visited the hospital, you saw that they started bringing Ebola patients and this was the reason you started to fear hospitals." [Gizelis et al. 2017]

Studies have also reported that other factors for missing ANC visits were the difficulties in reaching out to health facilities due to the distance and the lack of public transport facilities during pandemics [37, 41, 44, 45]. Even those who reached the facility faced difficulties accessing the health services as a priority, and preferences were given for COVID activities. The beneficiaries felt that even the health workers were reluctant to touch them for examination [40, 41, 47]. Furthermore, the facilities were not promptly providing diagnostic services to pregnant women [44].

‘‘No one wanted to touch a pregnant woman, everyone was afraid. So it was a difficult problem" [Gizelis et al. 2017]

Healthcare providers reported insufficient knowledge and training on the usage of personal protective equipment (PPE) during the outbreak. As a result, they were terrified to touch the patients. They also perceived that community members have a low level of trust in healthcare providers [39, 40]. Moreover, the frequent changes in hospital protocols during COVID-19 created confusion among the health care providers [48]. So, they tried to avoid face-to-face consultation and preferred virtual consultation [48].

2.2. Intrapartum services. A total of 13 studies focused on how the pandemic influenced intrapartum services. Studies from Guinea, Sierra Leone, and Liberia during the Ebola outbreak revealed a dramatic drop in institutional delivery rates between 9% to 20% [23, 27, 4951]. However, there was no variation in the percentages of home births. Conversely, a study found a 62% reduction in institutional delivery during peaks of Ebola in one district of Liberia [26]. During Ebola, it was reported that under the most conservative scenario, a decrease in utilization of life-saving health services resulted in 3600 extra stillbirths, maternal and neonatal deaths in 2014–15 [23]. In Guinea, a 14% increase in MMR and a 24% rise in the stillbirth rate are reported during the Ebola epidemic [49]. A study in Monrovia found no significant differences in the proportions between home and facility deliveries; however, there was a considerable shift from the public (31% decline) to private health facilities (increased to 47%) for deliveries [40].

Studies reported that institutional delivery rates fell by nearly half during COVID-19 and other pandemics (Zika and Ebola) [29, 32, 52]. In India, there was a 45% decrease in institutional deliveries and a 7.2% increase in high-risk pregnancies, whereas, in Nepal, a 52.4% decrease in facility births was reported. Furthermore, the neonatal mortality rate rose from 13/1000 live births to 40/1000 live births (p = 0.0022), and similarly, the stillbirth rate rose from 14/1000 live births to 21/1000 live births (p = 0.0002) [32, 52]. A study conducted in South Africa reported a 47% increase in neonatal in-facility mortality due to disruption of health services during COVID-19 [53].

The qualitative articles explained the decrease in institutional deliveries and women’s preference for private facilities. According to studies, women living further away from a healthcare facility were less likely to undergo institutional delivery [40, 45, 49]. Furthermore, many government healthcare facilities were closed during the COVID-19 pandemic, which caused them to seek care in private clinics if they could afford it or give birth at home [41].

"During COVID-19, there were no delivery services in government, so they chose to seek the services at the private facilities. Private facilities received a high number of mothers; therefore, they hiked the charges which most mothers could not afford." (Luignaah et al. 2016)

Many women feared that they would be sent to quarantine centers and face exorbitant treatment costs if they tested positive [41, 45, 49]. The majority of women believed that going to the facility would put them at more risk of contracting the infection, which could harm their baby. Moreover, if they are detected to be COVID-19 positive, they may not deliver their child normally or will be separated from their child [41, 43, 44, 46]. Another noteworthy finding was a restriction for birth companions to accompany the women during labor [4244, 46]. Even for women who visited hospitals, it was studied that due to the “No-touch policy”, the healthcare workers did not use partographs or fetoscopes during labor, jeopardizing the quality of care [49, 54]. Other reported attributing factors to the quality of intrapartum care included shortage of qualified staff and basic supplies such as thermometers and gloves [39] and insufficient or inappropriate size PPE [20, 42].

2.3. Postnatal services. The influence of pandemics on postnatal services was evident in three studies. A drop of 13–22% in postnatal attendance was reported in Sierra Leone during the Ebola epidemic [23, 49]. On the other hand, it was found that postnatal attendance remained stable during COVID-19 in South Africa [24].

The qualitative evidence suggests that the decreased utilization of postnatal services was due to poor access to healthcare services, a shortage of healthcare staff in facilities and a short hospital stay [42]. Postnatal mothers were discharged earlier from health facilities due to fear of infection transmission [44, 46]. During the COVID-19 pandemic, postnatal outpatient services were either cancelled or postponed [42] and, it was substituted with virtual consultation (which was not accessible to all) [43, 42].

“The lack of time and staff will lead to mothers and babies going home with very little feeding support or knowledge which will have a short and long term impact on their health and ability to deal with infections” [Semaan et al. 2020]

3. Child health.

During the COVID-19 crisis, a significant decrease in acute respiratory infection (ARI) and diarrhea cases were reported among under-5 children. Studies reported a 66–92% decrease in diarrhoea cases, while a 10.3% to 89% decline in ARI was reported [22, 53, 55, 56]. A drop in utilization of emergency department (ED) services was documented. The reasons for reluctance among parents to consult health services were fear of catching infections, especially in health institutions (96%), strict compliance with confinement (30.7%), and financial difficulties (13.9%) [57]. A decline of 46% - 83.8% in pediatric ED admission was demonstrated at the pediatric ED during the COVID-19 pandemic [51, 55, 56, 5860]. A 36% decline in under-5 children consultation was reported during the Ebola outbreak at the primary healthcare level [61].

3.1. Immunization. A fall in the immunization uptake and reduced compliance with vaccination among parents, was reported due to the COVID-19 crisis [31, 62, 63]. A decline for BCG vaccination reported in the range of 21–56.6% [27, 29, 36], 0.4% to 40% decline in Pentavalent [22, 27, 62, 64], 51% decline for polio doses [27, 65], 5–30% decline in measles first dose [53, 65] and 25.6% to 73.6% drop in measles, mumps and rubella uptake were reported irrespective of the settings (public or private) [64]. Vaccination coverage was stable among a few communities during Ebola due to the doorstep vaccination strategy [66]. Qualitative findings attributed multiple factors to a decline in immunization uptake. Perceived fear of catching infection affected BCG and Pentavalent vaccination; also women failed to turn up to session sites due to lack of familial support [41].

"Just near our facility here, we came across a mother who had her child miss the immunization for nine-month because her husband did not allow that to happen." [Lusambili et al. 2020]

Other commonly reported barriers to accessing immunization services included lockdown-related mobility restrictions, inadequate staff, infrastructure, and logistic issues [67]. In LMICs, barriers were mostly skewed towards vaccine inadequacy, vaccine hesitancy, and calling-off clinics. In high-income countries, fear of contracting COVID-19 and changes in management norms like shifting towards virtual consultations attributed to a decline in vaccine uptake [67].

Interventions/strategies for MCH services

Various studies reported on implementing interventions (Table 2) or strategies (Table 3) to improve maternal and child health services irrespective of the type of crisis but none of them assessed their effectiveness.

thumbnail
Table 2. Interventions to ensure MCH services with quality care during pandemic related health emergencies (Zika, Ebola and COVID-19).

https://doi.org/10.1371/journal.pone.0268106.t002

thumbnail
Table 3. Strategies to ensure MCH services with quality care during pandemic related health emergencies (Zika, Ebola and COVID-19).

https://doi.org/10.1371/journal.pone.0268106.t003

Telemedicine utilization has been reported to have increased by 22.4% during the pandemic compared to normal situations [6870]. An upsurge in virtual prescriptions (55.6%) and consultation (127%) was reported from the primary health centers during the COVID-19 crisis compared to normal conditions [71]. About 79.5% of healthcare providers (HCPs) strongly agreed that telemedicine was a successful technique for contraceptive counseling, with 84% of HCPs agreeing to continue with this technology even after the pandemic [68, 72]. Upsurge in telemedicine uptake by the women for various services viz. surgical abortion (41.7%; 2.9% prior to COVID-19), medical abortion (32.1%; 17.1% prior to COVID-19), prenatal care (19.2%; 5.7% prior to COVID-19), contraception (15.4%; 25.7% prior to COVID-19) has been reported [69]. Patient satisfaction with telemedicine increased by 8.7% for its access, but it decreased for the payment process by 5.3% and infrastructure requirements by 3.4%. Although beneficial, challenges have been reported concerning its mode of functioning, ensuring accessibility to patients, scheduling, and resource requirements [73].

Telephonic consultation/Telecommunication was reported to be another mode for ensuring MCH care during crises [42, 74]. It imparted more comprehensive coverage with less travel, so it was adopted for consultation with lesser hesitancy [68]. Concern over poor connectivity and injustice among those not acquainted with the technologies were reported for causing disparity in service uptake or delivery [68]. The unavailability of technology for virtual (video) consultation led to the uptake of telecommunication as an alternative to serving the purpose[75]. HCPs appreciated and preferred the virtual consultation mode.

"I am currently doing virtual visits and my mommies [clients] are liking it. They are liking that we take them into consideration and not going and spreading germs from one house to the other. Some mommies have shared and voiced that they would not allow me to come to visit them if I came in person because they are not the only family I see.–Home Visitor." [Marshall et al. 2020]

Awareness and educational activities during post-Ebola gradually enhanced the number of ANC visits, immunization, and family planning care [66]. Engaging pregnant women and health care providers in promoting activities sensitized the community to utilize hospital-based care [66]. To manage the patients’ flow and infection transmission, providers reported a shift in their service delivery methods through rigorously following sanitization measures [22] and allocating dedicated areas for the infected cases [76].

Incentivizing and rewarding were suggested by the healthcare workers and community members towards encouraging ANC registration and utilization of facility care during the Ebola epidemic [66].

Training and engaging the traditional birth attendants [TBAs] for community sensitization and mobilization for institutional care was an important measure, as they were the primary contact point of care and most trusted by the community [66]. During the Ebola outbreak, TTMS (trained traditional midwives) and TBAs were designated as the primary point of care for pregnant and delivering women, carrying out the majority of births and continuing to do so even after the epidemic was over [38].

Along with the interventions mentioned above, various other strategies were adopted to ensure MCH services like postponing or cancelling non-essential consultations through triage, reorganizing the flow of patients (to prevent cross-infection) [63, 69, 70], avoiding physical consultation, and practicing virtual consultation [43]. Visit on appointment was preferred by 87.7% of pregnant women (to avoid crowding), while 59.6% wanted remote consultation and 45.3% wished for joining online maternity schools [33]. It is estimated that a 50% reduction in kangaroo mother care (KMC) coverage can increase a 2.3% - 4.6% neonatal mortality across 127 nations [77]. For low birth weight neonates, KMC was recommended, as it is 65 times more beneficial than the risk of death from COVID-19 [77].

A study [48] reported that 70.9% of HCPs chose to provide ANC services via video conference/phone. However, 79.1% planned to reduce ANC attendance, 44.6% changed the antenatal screening pathway, 39.9% changed the protocol to speed up post-delivery patient discharge, and 78.4% decided on a dedicated area for COVID-19 positive women’s care. During COVID-19, the length of hospital stay (LOS) was reduced by 30% by expediting early discharge for uncomplicated births (LOS after vaginal birth and cesarean section was 14–24 hours and 23–48 hours, respectively) [24, 78]. Qualitative findings suggest suspending of elective gynecological services, reducing post-delivery hospital stay, and restricting ANC meetings as adopted strategies during the COVID pandemic [48].

Other strategies adopted during the COVID-19 pandemic include strict screening and testing for patients, restricting attendants, virtual follow-up of cases [76], patient triage, and screening before the appointment [43, 48]. In some facilities, signposts were used to guide the patients to screening and triage areas [42]. Proper staff management used a weekly roster to maintain the rhythm of services by dedicated team and space to keep a check on existing pandemics [76]. Based on the above interventions and strategies, a framework is developed (Fig 5) for ensuring MCH care during emergencies.

thumbnail
Fig 5. Framework for ensuring quality MCH care services during pandemic related health emergencies (Zika, Ebola and COVID-19).

https://doi.org/10.1371/journal.pone.0268106.g005

Discussion

This review found that all study settings had positive trends in MCH indicators before pandemics despite several unmet goals. However, these improvements were halted and even reversed during the pandemics. A significant decline was observed across all maternal and child-related health services. It was evident from this review that the utilization of MCH services was hampered due to various attributes in the event of pandemics.

Family planning service utilization was disproportionately affected during health emergencies(Zika, Ebola, and COVID-19). The unmet need for family planning services was further exacerbated due to reduced access to family planning methods due to the pandemic. According to the UNFPA report, COVID-19 containment measures were supposed to prevent approximately 47 million women from using birth control methods in 114 LMICs, resulting in 7 million unintended pregnancies [79]. Hence, to avoid unwanted pregnancies and prevent related maternal mortality and morbidity, each country needs to have a comprehensive health system that ensures family planning services during pandemics. Alternative models of outreach services, such as a home visit by frontline staff, telemedicine, and involvement of private institutions, could be planned, ensuring adequate protection for HCPs [80]. Disease outbreaks often negatively affect women’s healthcare to a broader extent. According to a systematic review, the increased adverse maternal consequences result from of health system incompetence and their inability to cope with the pandemic [81]. Thus, it is strongly advised that adequate staffing for MCH care needs to be prioritized. Training and capacity building of frontline workers should be emphasized to provide safe maternity care during emergencies. Moreover, a separate task force should be formulated to keep frontline workers free to provide maternal health services [82]. Promoting safe and accessible maternity care is essential even during pandemics by having an efficient and sustainable MCH care model to prevent preterm births, stillbirths, and maternal mortality [81].

A significant drop in utilization of pediatric ED services and immunization services during pandemics is also demonstrated. A decline in ARI and diarrhea cases was found among under-5 children during the pandemic. This significant fall could be attributed to improved hand hygiene practices and reduced outdoor exposure due to lockdown and isolation [83]. Factors such as limited information about the availability of health services at facilities, prevailing rumors about the pandemic, and fear of contracting the infection reduced the uptake and utilization of routine MCH care [5]. A study conducted in Pakistan found that around 25,000 polio workers were reallocated to assist with the COVID-19 response [84]. Similarly, measles immunization campaigns in 23 countries were halted, affecting nearly 80 million eligible children during COVID-19 [85]. The cessation of immunization may result in the global spread of vaccine-preventable diseases. Vaccinations are time-sensitive, and if children are not vaccinated within the due time, they will miss out on the benefits of lifelong immunity, exposing the whole cohort to vaccine-preventable diseases [84].

The evidence suggests that telehealth and virtual platforms have the potential to aid in response to large-scale outbreaks and emergencies. Telemedicine was found to have quite a similar impact to face-to-face consultation [86]. Allowing patients and their families to receive telehealth care at home instead of a healthcare facility has improved access to care [87]. Telehealth allows patients and clinicians to communicate faster, enabling self-management and modifications to avoid inpatient care and promoting access to care [87]. However, there may not be sufficient resources for providing telemedicine and virtual patient care at certain medical facilities in some countries. With adequate funding and proper planning, telemedicine could be an instrumental model in the continuity of MCH healthcare services in future emergencies.

Appointment-based visits for routine care reduced the patient loads at the health facilities. Beneficiaries, as well as providers, have shown their acceptance of this strategy. Triage has also been reported to positively influence the utilization and delivery of the services through postponing or canceling trivial patients [88]. Modifications to existing protocols/guidance for service delivery effectively increase healthcare uptake and service delivery.

Study limitation

Although we tried to explore all available databases, some (CINAHL, Web of Science, others) went unexplored due to limitations to access. Most of the included studies were in the LMICs context; thus, results may be interpreted accordingly. Despite the rigorous review, there was limited evidence on the effectiveness of interventions in the pandemic(Zika, Ebola, and COVID-19) context, which also restricted us from conducting statistical analysis/ meta-analysis.

Policy implication

The study findings have far-reaching implications. Virtual clinics/web-based consultations have emerged as a novel model for treating patients remotely in emergencies like pandemics. As a result, more rigorous studies are required to assess its long-term impact on patients, healthcare workers, and the healthcare system. Moreover, there is a need to rebuild the trust among beneficiaries in health services by addressing their fear of contracting an infection through adequate protection. Building the trust and confidence of mothers (beneficiaries) and the health care workers, addressing transportation-related challenges to health facilities during pandemics are critically important. Governments might also invest in employing more health professionals and incentivize current workers to boost their work efficiency morally for ensuring quality maternal and child health services. Moreover, Community health workers played a pivotal role in providing MCH services even in the event of pandemics. Hence, their training and capacity building should be prioritized.

Conclusion

The provision of MCH services has been an uphill battle globally due to the unique situations created by pandemics. However, it allows us to re-evaluate the lacunae in the service provision of the existing health system. This systematic review highlights that pandemics have negatively influenced maternal and child health services. Nonetheless, virtual consultation, patient triage, and the development of dedicated COVID maternity centers and maternity schools have emerged as new concepts in ensuring continuity of care during emergencies like pandemics. However, there is a need for evidence about their effectiveness. It is critically important to have appropriate evidence-based interventions for better MCH care utilization.

Supporting information

S1 File. List of excluded studies with reasons.

https://doi.org/10.1371/journal.pone.0268106.s002

(DOCX)

S2 File. Characteristics of included studies.

https://doi.org/10.1371/journal.pone.0268106.s003

(DOCX)

S3 File. Quality appraisal of included studies.

https://doi.org/10.1371/journal.pone.0268106.s004

(DOCX)

Acknowledgments

The authors would like to acknowledge Dr. Banamber Sahoo for taking care of data sources. The authors would also like to acknowledge Dr. Snehashish Tripathi, Dr. Subhralaxmi Dwivedi, Subhashree Panda, Aparna Aparajita Dash, Sonam Karna, and Sumit Kumar Dash for their assistance in developing the search strategy and identifying the relevant resources during the review process.

References

  1. 1. Kingsley JP, Vijay PK, Kumaresan J, Sathiakumar N. The Changing Aspects of Motherhood in Face of the COVID-19 Pandemic in Low- and Middle-Income Countries. Matern Child Health J. 2021;25: 15–21. pmid:33244678
  2. 2. Shannon FQ, Horace-Kwemi E, Najjemba R, Owiti P, Edwards J, Shringarpure K, et al. Effects of the 2014 Ebola outbreak on antenatal care and delivery outcomes in Liberia: a nationwide analysis. Public Heal Action. 2017;7: S88–S93. pmid:28744445
  3. 3. Bannon B. Lessons for USAID on the effects of the zika outbreak on mch services: learning from the past to prepare for the future case studies in five latin american and caribbean countries cross-cutting report for dissemination march 2020.
  4. 4. Tsawe M, Moto A, Netshivhera T, Ralesego L, Nyathi C, Susuman AS. Factors influencing the use of maternal healthcare services and childhood immunization in Swaziland. Int J Equity Health. 2015;14. pmid:25643629
  5. 5. Sahoo KC, Negi S, Patel K, Mishra BK, Palo SK, Pati S. Challenges in Maternal and Child Health Services Delivery and Access during Pandemics or Public Health Disasters in Low-and Middle-Income Countries: A Systematic Review. Healthc (Basel, Switzerland). 2021;9. pmid:34209238
  6. 6. Oluoch-Aridi J, Chelagat T, Nyikuri MM, Onyango J, Guzman D, Makanga C, et al. COVID-19 Effect on Access to Maternal Health Services in Kenya. Front Glob Women’s Heal. 2020;0: 19. pmid:34816169
  7. 7. Miller S, Abalos E, Chamillard M, Ciapponi A, Colaci D, Comandé D, et al. Beyond too little, too late and too much, too soon: a pathway towards evidence-based, respectful maternity care worldwide. Lancet (London, England). 2016;388: 2176–2192. pmid:27642019
  8. 8. Ngo TM, Rogers B, Patnaik R, Jambai A, Sharkey AB. The Effect of Ebola Virus Disease on Maternal and Child Health Services and Child Mortality in Sierra Leone, 2014–2015: Implications for COVID-19. Am J Trop Med Hyg. 2021;104: 1085–1092. pmid:33399047
  9. 9. Roberton T, ER C, VB C, Stegmuller , BD J, Y T, et al. Early estimates of the indirect effects of the COVID-19 pandemic on maternal and child mortality in low-income and middle-income countries: a modelling study. Lancet Glob Heal. 2020;8: e901–e908. pmid:32405459
  10. 10. Pant S, Koirala S, Subedi M. Access to Maternal Health Services during COVID-19. Eur J Med Sci. 2020;2: 46–50.
  11. 11. The devastating effects of COVID-19 on maternal health in Zimbabwe | Amnesty International. [cited 23 Jul 2021]. Available: https://www.amnesty.org/en/latest/campaigns/2020/04/the-devastating-effects-of-covid19-on-maternal-health-in-zimbabwe/
  12. 12. Ghose D., & Angad A. Institutional deliveries dip in Chhattisgarh Jharkhand. The Indian Express. 2020: 285–287.
  13. 13. COVID-19 Lockdown: Guidelines Are Not Enough to Ensure Pregnant Women Receive Care. [cited 23 Jul 2021]. Available: https://thewire.in/women/covid-19-lockdown-pregnant-women-childbirth
  14. 14. Mansi J. Coronavirus: Pregnant women struggle to access healthcare facilities amid lockdown. Business Today. 2020.
  15. 15. COVID-19 lockdown: Unable to reach hospital, Telangana woman deliveries baby on road. The New Indian Express. 2020.
  16. 16. Kimani RW, Maina R, Shumba C, Shaibu S. Maternal and newborn care during the COVID-19 pandemic in Kenya: Re-contextualising the community midwifery model. Hum Resour Health. 2020;18: 3–7. pmid:31952532
  17. 17. Kotlar B, Gerson E, Petrillo S, Langer A, Tiemeier H. The impact of the COVID-19 pandemic on maternal and perinatal health: a scoping review. Reprod Heal 2021 181. 2021;18: 1–39. pmid:33461593
  18. 18. WHO | RMNCH Fact Sheet: RMNCH Continuum of care. [cited 27 Dec 2021]. Available: https://www.who.int/pmnch/media/press_materials/fs/continuum_of_care/en/
  19. 19. Moher D, Liberati A, Tetzlaff J, Altman DG. Preferred reporting items for systematic reviews and meta-analyses: the PRISMA statement. BMJ. 2009;339: 332–336. pmid:19622551
  20. 20. WHO. Countdown to 2015: Building a Future for Women and Children—The 2012 Report.
  21. 21. Aromataris E MZ (Editors). JBI Manual for Evidence Synthesis. JBI, 2020.
  22. 22. Barden-O’Fallon J, Barry M, Brodish P, Hazerjian J. Rapid Assessment of Ebola-Related Implications for Reproductive, Maternal, Newborn and Child Health Service Delivery and Utilization in Guinea. PLoS Curr. 2015;7. pmid:26331094
  23. 23. Sochas L, Channon A, Nam S. Counting indirect crisis-related deaths in the context of a low-resilience health system: the case of maternal and neonatal health during the Ebola epidemic in Sierra Leone. Health Policy Plan. 2017;32: iii32–iii39. pmid:29149310
  24. 24. Siedner M, Kraemer J, Meyer M, Harling G, Mngomezulu T, Gabela P, et al. Access to primary healthcare during lockdown measures for COVID-19 in rural South Africa: an interrupted time series analysis. BMJ Open. 2020;10. pmid:33020109
  25. 25. Belizan M, Maradiaga E, Roberti J, Casco-Aguilar M, Ortez AF, Avila-Flores JC, et al. Contraception and post abortion services: qualitative analysis of users’ perspectives and experiences following Zika epidemic in Honduras. BMC Women’s Heal 2020 201. 2020;20: 1–12. pmid:32919474
  26. 26. Camara B, Delamou A, Diro E, AH B, El Ayadi A, Sidibé S, et al. Effect of the 2014/2015 Ebola outbreak on reproductive health services in a rural district of Guinea: an ecological study. Trans R Soc Trop Med Hyg. 2017;111: 22–29. pmid:28340207
  27. 27. Kourouma K, Camara BS, Kolie D, Sidibé S, Beavogui AH, Delamou A. Analyzing the Effects of the Ebola Virus Disease Outbreak on Maternal and Child Health Services in the Health District of Beyla, Guinea. http://www.sciencepublishinggroup.com. 2019;5: 136.
  28. 28. Leno N, Delamou A, Koita Y, Diallo T, Kaba A, Delvaux T, et al. Ebola virus disease outbreak in Guinea: what effects on prevention of mother-to-child transmission of HIV services? Reprod Health. 2018;15. pmid:29374479
  29. 29. Delamou A, Sidibé S, El Ayadi A, Camara B, Delvaux T, Utz B, et al. Maternal and Child Health Services in the Context of the Ebola Virus Disease: Health Care Workers’ Knowledge, Attitudes and Practices in Rural Guinea. Afr J Reprod Health. 2017;21: 104–113. pmid:29595031
  30. 30. Tadesse E. Antenatal Care Service Utilization of Pregnant Women Attending Antenatal Care in Public Hospitals During the COVID-19 Pandemic Period. Int J Womens Health. 2020;12: 1181. pmid:33335430
  31. 31. Garg S, Basu S, Rustagi R, Borle A. Primary Health Care Facility Preparedness for Outpatient Service Provision During the COVID-19 Pandemic in India: Cross-Sectional Study. JMIR public Heal Surveill. 2020;6. pmid:32452819
  32. 32. Goyal M, Singh P, Singh K, Shekhar S, Agrawal N, Misra S. The effect of the COVID-19 pandemic on maternal health due to delay in seeking health care: Experience from a tertiary center. Int J Gynaecol Obstet. 2021;152: 231–235. pmid:33128794
  33. 33. Li D, Yibin G, Mengqing C, Wenxian L, Jie W, Liping Z. Survey on the needs of 2 002 pregnant women during pregnancy and childbirth in Shanghai during the epidemic of novel coronavirus pneumonia. 2021; 4–11. pmid:32268713
  34. 34. Triana Indrayani1 VSRWSPRA. The Analysis of Antenatal Care During Covid-19 Pandemics in The Working Area of Public Health Center of Tangerang City. Indian J Forensic Med Toxicol. 2020;14: 7847–7851.
  35. 35. Ahlers-Schmidt CR, Hervey AM, Neil T, Kuhlmann S, Kuhlmann Z. Concerns of women regarding pregnancy and childbirth during the COVID-19 pandemic. Patient Educ Couns. 2020;103: 2578. pmid:33010997
  36. 36. Chandir S, Siddiqi D, Mehmood M, Setayesh H, Siddique M, Mirza A, et al. Impact of COVID-19 pandemic response on uptake of routine immunizations in Sindh, Pakistan: An analysis of provincial electronic immunization registry data. Vaccine. 2020;38: 7146–7155. pmid:32943265
  37. 37. Gomez HM, Arbelaez CM, Cañas JAO. A qualitative study of the experiences of pregnant women in accessing healthcare services during the Zika virus epidemic in Villavicencio, Colombia, 2015–2016. Int J Gynecol Obstet. 2020;148: 29–35. pmid:31975397
  38. 38. Jones T, Ho L, Kun KK, Milsom P, Shakpeh J, Ratnayake R, et al. Rebuilding people-centred maternal health services in post-Ebola Liberia through participatory action research. Glob Public Health. 2018;13: 1650–1669. pmid:29382275
  39. 39. Bell S, Munro-Kramer M, Eisenberg M, Williams G, Amarah P, Lori J. “Ebola kills generations”: Qualitative discussions with Liberian healthcare providers. Midwifery. 2017;45: 44–49. pmid:27998827
  40. 40. Gizelis TI, Karim S, Østby G, Urdal H. Maternal Health Care in the Time of Ebola: A Mixed-Method Exploration of the Impact of the Epidemic on Delivery Services in Monrovia. World Dev. 2017;98: 169–178.
  41. 41. Lusambili AM, Martini M, Abdirahman F, Asante A, Ochieng S, Guni JN, et al. “We have a lot of home deliveries” A qualitative study on the impact of COVID-19 on access to and utilization of reproductive, maternal, newborn and child health care among refugee women in urban Eastleigh, Kenya. J Migr Heal. 2020;1–2: 100025. pmid:34405176
  42. 42. Semaan A, Audet C, Huysmans E, Afolabi B, Assarag B, Banke-Thomas A, et al. Voices from the frontline: findings from a thematic analysis of a rapid online global survey of maternal and newborn health professionals facing the COVID-19 pandemic. BMJ Glob Heal. 2020;5: 2967. pmid:32586891
  43. 43. Homer CSE, Davies-Tuck M, Dahlen HG, Scarf VL. The impact of planning for COVID-19 on private practising midwives in Australia. Women and Birth. 2021;34: e32–e37. pmid:32994144
  44. 44. Karavadra B, Stockl A, Prosser-Snelling E, Simpson P, Morris E. Women’s perceptions of COVID-19 and their healthcare experiences: a qualitative thematic analysis of a national survey of pregnant women in the United Kingdom. BMC Pregnancy Childbirth. 2020;20. pmid:31906880
  45. 45. Luginaah I, Kangmennaang J, Fallah M, Dahn B, Kateh F, Nyenswah T. Timing and utilization of antenatal care services in Liberia: Understanding the pre-Ebola epidemic context. Soc Sci Med. 2016;160: 75–86. pmid:27214711
  46. 46. Fumagalli S, Ornaghi S, Borrelli S, Vergani P, Nespoli A. The experiences of childbearing women who tested positive to COVID-19 during the pandemic in northern Italy. Women Birth. 2021 [cited 22 Jul 2021]. pmid:33451929
  47. 47. McQuilkin PA, Udhayashankar K, Niescierenko M, Maranda L. Health-Care Access during the Ebola Virus Epidemic in Liberia. Am J Trop Med Hyg. 2017;97: 931. pmid:28722621
  48. 48. Rimmer M, Al Wattar B. Provision of obstetrics and gynaecology services during the COVID-19 pandemic: a survey of junior doctors in the UK National Health Service. BJOG. 2020;127: 1123–1128. pmid:32460422
  49. 49. Jones S, Gopalakrishnan S, Ameh C, White S, van den Broek N. “Women and babies are dying but not of Ebola”: the effect of the Ebola virus epidemic on the availability, uptake and outcomes of maternal and newborn health services in Sierra Leone. BMJ Glob Heal. 2016;1. pmid:28588954
  50. 50. Ribacke KJB, Duinen AJ van, Nordenstedt H, Höijer J, Molnes R, Froseth TW, et al. The Impact of the West Africa Ebola Outbreak on Obstetric Health Care in Sierra Leone. PLoS One. 2016;11. pmid:26910462
  51. 51. Quaglio G, Tognon F, Finos L, Bome D, Sesay S, Kebbie A, et al. Impact of Ebola outbreak on reproductive health services in a rural district of Sierra Leone: a prospective observational study. BMJ Open. 2019;9. pmid:31488479
  52. 52. Ashish K, Gurung R, Kinney M V, Sunny AK, Moinuddin M, Basnet O, et al. Effect of the COVID-19 pandemic response on intrapartum care, stillbirth, and neonatal mortality outcomes in Nepal: a prospective observational study. Lancet Glob Heal. 2020;8: e1273–e1281. pmid:32791117
  53. 53. Jensen C, McKerrow NH. Child health services during a COVID-19 outbreak in KwaZulu-Natal Province, South Africa. S Afr Med J. 2020; 13185. pmid:33334393
  54. 54. Salsi G, Seidenari A, Diglio J, Bellussi F, Pilu G, Bellussi F. Obstetrics and gynecology emergency services during the coronavirus disease 2019 pandemic. Am J Obstet Gynecol Mfm. 2020;2: 100214. pmid:32838279
  55. 55. Cella A, Marchetti F, Iughetti L, Biase AR Di, Graziani G, Fanti A De, et al. Italian COVID-19 epidemic: effects on paediatric emergency attendance—a survey in the Emilia Romagna region. BMJ Paediatr Open. 2020;4: e000742. pmid:34192169
  56. 56. Dopfer C, Wetzke M, Zychlinsky Scharff A, Mueller F, Dressler F, Baumann U, et al. COVID-19 related reduction in pediatric emergency healthcare utilization—a concerning trend. BMC Pediatr. 2020;20. pmid:31952484
  57. 57. Enyama D, Chelo D, Noukeu Njinkui D, Mayouego Kouam J, Fokam Djike Puepi Y, Mekone Nkwele I, et al. Impact of the COVID-19 pandemic on pediatricians’ clinical activity in Cameroon. Arch Pédiatrie. 2020;27: 423–427. pmid:33011025
  58. 58. Williams T, MacRae C, Swann O, Haseeb H, Cunningham S, Davies P, et al. Indirect effects of the COVID-19 pandemic on paediatric healthcare use and severe disease: a retrospective national cohort study. Arch Dis Child. 2021 [cited 22 Jul 2021]. pmid:33451994
  59. 59. Liguoro I, Pilotto C, Vergine M, Pusiol A, Vidal E, Cogo P. The impact of COVID-19 on a tertiary care pediatric emergency department. Eur J Pediatr. 2021;180: 1497–1504. pmid:33409588
  60. 60. McDonnell T, Nicholson E, Conlon C, Barrett M, Cummins F, Hensey C, et al. Assessing the impact of COVID-19 public health stages on paediatric emergency attendance. Int J Environ Res Public Health. 2020;17: 1–25. pmid:32942698
  61. 61. Hermans V, Zachariah R, Woldeyohannes D, Saffa G, Kamara D, Ortuno-Gutierrez N, et al. Offering general pediatric care during the hard times of the 2014 Ebola outbreak: looking back at how many came and how well they fared at a Médecins Sans Frontières referral hospital in rural Sierra Leone. BMC Pediatr. 2017;17. pmid:28086763
  62. 62. Masresha B, Luce R, Shibeshi M, Ntsama B, N’Diaye A, Chakauya J, et al. The performance of routine immunization in selected African countries during the first six months of the COVID-19 pandemic. Pan Afr Med J. 2020;37: 12. pmid:33343791
  63. 63. Bechini A, Garamella G, Giammarco B, Zanella B, Flori V, Bonanni P, et al. Paediatric activities and adherence to vaccinations during the COVID-19 epidemic period in Tuscany, Italy: a survey of paediatricians. J Prev Med Hyg. 2020;61: E125. pmid:32802994
  64. 64. Zhong Y, Clapham H, Aishworiya R, Chua Y, Mathews J, Ong M, et al. Childhood vaccinations: Hidden impact of COVID-19 on children in Singapore. Vaccine. 2021;39: 780–785. pmid:33414050
  65. 65. Delamou A, Ayadi A, Sidibe S, Delvaux T, Camara B, Sandouno S, et al. Effect of Ebola virus disease on maternal and child health services in Guinea: a retrospective observational cohort study. Lancet Glob Heal. 2017;5: e448–e457.
  66. 66. Perceptions of the Risk for Ebola and Health Facility Use Among Health Workers and Pregnant and Lactating Women—Kenema District, Sierra Leone, September 2014. [cited 22 Jul 2021]. Available: https://www.cdc.gov/mmwr/preview/mmwrhtml/mm6351a3.htm
  67. 67. Saso A, Skirrow H. Impact of COVID-19 on Immunization Services for Maternal and Infant Vaccines: Results of a Survey Conducted by Imprint—The Immunising Pregnant Women and Infants Network. 2020;2. pmid:32972015
  68. 68. Stifani B, Avila K, Levi E. Telemedicine for contraceptive counseling: An exploratory survey of US family planning providers following rapid adoption of services during the COVID-19 pandemic. Contraception. 2021;103: 157–162. pmid:33212033
  69. 69. Baumann S, Gaucher L, Bourgueil Y, Saint-Lary O, Gautier S, Rousseau A. Adaptation of independent midwives to the COVID-19 pandemic: A national descriptive survey. Midwifery. 2021;94. pmid:33418511
  70. 70. Jardine J, Relph S, Magee L, von Dadelszen P, Morris E, Ross-Davie M, et al. Maternity services in the UK during the coronavirus disease 2019 pandemic: a national survey of modifications to standard care. BJOG. 2021;128: 880–889. pmid:32992408
  71. 71. Sigurdsson EL, Blondal AB, Jonsson JS, Tomasdottir MO, Hrafnkelsson H, Linnet K, et al. How primary healthcare in Iceland swiftly changed its strategy in response to the COVID-19 pandemic. BMJ Open. 2020;10: e043151. pmid:33293329
  72. 72. Chen M, Liu X, Zhang J, Sun G, Gao Y, Shi Y, et al. Characteristics of online medical care consultation for pregnant women during the COVID-19 outbreak: cross-sectional study. BMJ Open. 2020;10: e043461. pmid:33203639
  73. 73. Garcia-Huidobro , Rivera S, Valderrama Chang S, Bravo P, Capurro D. System-Wide Accelerated Implementation of Telemedicine in Response to COVID-19: Mixed Methods Evaluation. J Med Internet Res. 2020;22. pmid:32903195
  74. 74. Nicholson E, Conlon C, Barrett M. Parental Hesitancy and Concerns around Accessing Paediatric Unscheduled Healthcare during COVID-19: A Cross-Sectional Survey.: 1–19. pmid:33322332
  75. 75. Marshall J, Kihlström L, Buro A, Chandran V, Prieto C, Stein-Elger R, et al. Statewide Implementation of Virtual Perinatal Home Visiting During COVID-19. Matern Child Health J. 2020;24: 1. pmid:32086635
  76. 76. Mahey R, Sharma A, Kumari A, Kachhawa G, Gupta M, Meena J, et al. The impact of a segregated team roster on obstetric and gynecology services in response to the COVID-19 pandemic in a tertiary care center in India. Int J Gynaecol Obstet. 2020;151: 341–346. pmid:33011974
  77. 77. Minckas N, Medvedev MM, Adejuyigbe EA, Brotherton H, Chellani H, Estifanos AS, et al. Preterm care during the COVID-19 pandemic: A comparative risk analysis of neonatal deaths averted by kangaroo mother care versus mortality due to SARS-CoV-2 infection. EClinicalMedicine. 2021;33. pmid:33748724
  78. 78. Bornstein E, Gulersen M, Husk G, Grunebaum A, Blitz M, Rafael T, et al. Early postpartum discharge during the COVID-19 pandemic. J Perinat Med. 2020;48: 1008–1012. pmid:32845868
  79. 79. Impact of the COVID-19 Pandemic on Family Planning and Ending Gender-based Violence, Female Genital Mutilation and Child Marriage | UNFPA—United Nations Population Fund. [cited 22 Jul 2021]. Available: https://www.unfpa.org/resources/impact-covid-19-pandemic-family-planning-and-ending-gender-based-violence-female-genital
  80. 80. Vora K, Saiyed S, Natesan S. Impact of COVID-19 on family planning services in India. Sex Reprod Heal matters. 2020;28. pmid:32552622
  81. 81. Chmielewska B, Barratt I, Townsend R, Kalafat E, Meulen J van der, Gurol-Urganci I, et al. Effects of the COVID-19 pandemic on maternal and perinatal outcomes: a systematic review and meta-analysis. Lancet Glob Heal. 2021;9: e759. pmid:33811827
  82. 82. Manchanda NK. Maternity and child care amidst COVID-19 Pandemic: A forgotten agenda. J Glob Health. 2020;10: 020334. pmid:33110534
  83. 83. Solomon ET, Gari SR, Kloos H, Alemu BM. Handwashing effect on diarrheal incidence in children under 5 years old in rural eastern Ethiopia: a cluster randomized controlled trial. Trop Med Health. 2021;49: 1–11. pmid:33397511
  84. 84. Lassi Z, Naseem R, Salam R, Siddiqui F, Das J. The Impact of the COVID-19 Pandemic on Immunization Campaigns and Programs: A Systematic Review. Int J Environ Res Public Health. 2021;18: 1–19. pmid:33499422
  85. 85. Roberts L. Why measles deaths are surging—and coronavirus could make it worse. Nature. 2020;580: 446–447. pmid:32265541
  86. 86. Hersh W, Helfand M, Wallace J, Kraemer D, Patterson P, Shapiro S, et al. A systematic review of the efficacy of telemedicine for making diagnostic and management decisions. J Telemed Telecare. 2002;8: 197–209. pmid:12217102
  87. 87. Hersh W, Mark H, Wallace J, Kraemer , Patters S S, et al. Clinical outcomes resulting from telemedicine interventions: a systematic review. BMC Med Inform Decis Mak. 2001;1. pmid:11331535
  88. 88. Said NM, Othman J, Hairi F. Effective triaging in putrajaya health clinic. Malaysian J Public Heal Med. 2002;2: 58–62. Available: http://www.mjphm.org/index.php/mjphm/article/view/1247