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Bridging the Gap: A Mixed-Methods Evaluation of a New Rural Maternity Care Center Amid Nationwide Closures

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21 November 2025

Posted:

24 November 2025

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Abstract
The closure of rural maternity units in hospitals across the United States contributes to health inequities; however, little is known about the effects of reopening maternity services in this context. We conducted a mixed-methods study to characterize labor and delivery outcomes and patient experiences associated with the reopening of a rural Level 1 Maternity Care Center (MCC) at a critical access hospital. We compared clinical outcomes and distance to care for patients who gave birth at the rural MCC in the three years after its opening with outcomes from a similar low-risk and geographically located sample who gave birth at a large suburban academic medical center in the same hospital system in the three years before the MCC reopened. We also conducted in-depth interviews with patients who gave birth at the MCC. Labor and delivery outcomes were similar across both groups with significantly more care provided by family physicians and midwives and lower neonatal intensive care unit use at the MCC. The opening of the MCC reduced by half the distance patients traveled to give birth, and patients reported high rates of satisfaction. Rural maternity care centers can improve access to quality care closer to home using a resource-appropriate model.
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1. Introduction

There is a maternity care crisis in the United States (US), as increases in obstetric unit closures over the past few decades have created large geographic areas without access to pregnancy- and birth-related care. Rural communities are more adversely affected, facing significant losses of maternity services for prenatal care and childbirth [1]. From 2014 to 2018, more than half of rural counties lacked hospital-based maternity care, and an additional 53 rural counties lost services during this time period [2]. The percent of rural hospitals without hospital-based maternity care increased from 43% in 2010 to 52% in 2022 [3], and by 2022, over two-thirds of rural hospitals in eight states were without these services [4]. Financial concerns complicate rural hospitals’ ability to maintain low-volume obstetric units, as the costs of obstetric services can be difficult to offset with revenue amid low patient volumes and low reimbursement [5]. Hospital systems aim to reduce costs by closing low-volume rural maternity units and centralizing services; however, these closures increase distance to maternity care by an average of 29 miles [6], and are associated with increases in elective early induction and low-risk cesarean births [7,8,9,10], non-hospital births [10,11,12], preterm births [10,12,13], admission to neonatal intensive care units (NICU) [14], and perinatal and maternal morbidity [10,13]. The closure of maternity units also contributes to a loss of local prenatal care providers servicing rural communities, increasing the risk that pregnant patients will experience medical problems that remain undetected or untreated until labor begins [15,16].
Patients affected by rural maternity care center closures in the US are disproportionately uninsured or publicly insured, low-income, and from racial and ethnic minorities. Medicaid finances over half of all births to rural residents, and rural populations are more likely than their urban counterparts to be uninsured before, during, and after birth [17,18]. As Medicaid reimburses less for birth care services than private insurers, rural health insurance coverage inequities drive inadequate reimbursement rates for rural maternity providers and difficulties generating revenue from obstetric services for low-volume rural hospitals [5]. Communities with higher proportions of reproductive-age Black and Hispanic women also more often lack maternity care access [6,10]. Low-income patients with fewer resources are more likely to have pregnancies complicated by social determinants that increase health risks, such as high blood pressure and low birthweight, and to be negatively impacted by increased distances to maternity care [10,19].
The US South has experienced a disproportionate share of rural maternity care center closures [20]. Between 2010 and 2022, 8 rural hospitals lost maternity services in North Carolina (NC), a state with one of the largest payment gaps between Medicaid and private payer reimbursement for labor and delivery care [4]. As of 2022, 44% of rural hospitals in NC lacked obstetric services, compared to 27% of urban NC hospitals [4]. The increased distance to care caused by maternity unit closures is associated with higher levels of emotional and financial stress among rural pregnant people in Western NC [21]. In September 2020, a critical access hospital (CAH) that is part of a state-funded health system in NC reopened maternity services after a 30-year closure. A CAH is a rural health care facility with up to 25 beds, designated by the Centers for Medicare & Medicaid Services (CMS) to provide essential services in isolated communities at a significant distance from other hospitals. The rural Level 1 Maternity Care Center (MCC) aims to improve local access by providing labor and delivery services to pregnant patients and newborns, reducing distance to care.
This mixed methods analysis compares labor and delivery outcomes for patients giving birth in the newly opened MCC with those of a similar cohort who gave birth at the suburban tertiary care facility that served this population in the three years prior to the MCC opening. We interpret the quantitative findings alongside qualitative data from in-depth interviews with people who gave birth at the rural MCC to complement clinical outcomes with patient-centered experiences of care.

2. Materials and Methods

2.1. Setting and Design

We collected data from patients of the rural MCC that opened in September of 2020 in a small NC town with nearly 8,000 residents and considered a “small town core” under the Rural-Urban Commuting Area Codes [22,23]. The MCC is staffed by Family Medicine physicians (both with and without surgical cesarean training), Certified Nurse-Midwives (CNMs), and one part-time Obstetrician. Anesthesia services were initially contracted from the suburban academic center, before engaging a private anesthesia vendor service experienced in providing coverage in rural settings, and primarily utilizing a Certified Registered Nurse Anesthetist (CRNA) staffing model. A Level 1 newborn nursery was implemented with the MCC, with neonates requiring a higher level of care transferred by ambulance or helicopter to the closest available hospital, most commonly to the academic center in the same system with a Level IV neonatal intensive care nursery.
Prior to the opening of the MCC, this rural population was primarily served by a large suburban academic medical center in the same hospital system that attended almost 4,500 births annually. We compared quantitative patient data from the MCC with patient data from this suburban tertiary care facility in the three years prior to the MCC opening. The academic medical center trains both obstetrics and family medicine residents, while the MCC infrequently had trainees involved in care in its first two years.
We used a parallel mixed-methods design in which quantitative and qualitative data were collected simultaneously and analyzed separately [24]. The quantitative data provide information on clinical outcomes, while the qualitative data provide contextual information on experiences of care from the patient perspective. We combined the results from these two data sets to provide a comprehensive picture of the effect on patient outcomes of opening and sustaining a rural maternity care center amidst a national landscape of rural maternity closures. This study was approved by the Institutional Review Board at the XXX (IRB #21-0386, IRB #20-2115, IRB#21-1147).

2.2. Quantitative Data Collection

We used electronic health records (EHR) to extract demographic and clinical data for patients who delivered at the MCC and a similar cohort of patients who delivered at the suburban tertiary care facility serving the same geographic population in the three years prior to MCC opening. The MCC cohort comprised all 402 patients who delivered on the unit between its opening on September 9, 2020, until September 8, 2023. The comparison group comprised patients who delivered at the suburban facility between January 1, 2017, and December 31, 2019, lived in the MCC catchment area, and met the low-risk criteria for admission to the MCC.
The MCC catchment area was defined using the patient panels of five proximate prenatal clinics in the same county whose patients delivered at the MCC after its opening, including the county health department, a Federally Qualified Health Center with two locations in the county, and two local family medicine clinics affiliated with the hospital system. The data for the comparison cohort was provided by the Perinatal Research Service Center (PRSC) at the School of Medicine at the suburban tertiary care facility. The PRSC used Structured Query Language to extract data from the facility’s health data warehouse, and then systematically derived information from the EHR using clinical business rules approved by facility clinicians which guarantees that the data elements in the integrated data set have data lineage back to Epic’s Caboodle and Clarity databases. After receiving these data on 836 unique deliveries, the research team used ICD-10 codes to define the risk status of each patient on admission to labor and delivery using the exclusion criteria adopted by the Level 1 (basic care to people with low-risk pregnancies) MCC at its opening. We conducted an EHR chart review to exclude patients who would not have met the criteria for admission as a low-risk delivery to the MCC had it been available at the time (Table 1). Of the 835 patients, 242 were excluded from the comparison sample using these inclusion and exclusion criteria. These criteria were also used post-hoc to exclude patients who delivered at the MCC emergently but who did not meet the criteria for delivery at a Level 1 MCC (e.g., breech presentation or preterm delivery <37 weeks’ gestation). Of the 402 MCC patients described in Table 2, 10 were excluded from the quantitative outcome analysis because they would not have met the criteria for a Level 1 delivery.
For both MCC and comparison cohorts, investigators (KW, MGH, MB, BJ, TS, or KH) extracted data on patient demographics, maternal conditions during pregnancy, delivery characteristics, and birth outcomes from the EHR. The patient’s home address as listed in the EHR was extracted to calculate distance to care. Double coding and random audits maintained the quality of abstracted data. Primary labor and delivery outcomes of interest were defined as the following: labor type (spontaneous, induced, scheduled C-section); delivery service type (obstetrics/gynecology, family medicine, or certified nurse-midwifery); delivery method (vaginal, primary cesarean section, or repeat cesarean section); epidural use among vaginal deliveries (yes/no); birth outcome (live birth, intrauterine fetal demise IUFD); postpartum hemorrhage (>1000 ml blood loss); gestational age at birth (preterm, defined as less than 37 completed weeks’ gestation; or term defined as 37 completed weeks’ gestation or more); birthweight (low, defined as less than 2500 grams; normal, defined as 2500 - 3999 grams; or large for gestational age, defined as 4000 grams or more); Apgar scores at five minutes (0–10); neonatal intensive care unit stay (yes/no); and infant feeding status at discharge (any breastfeeding, only formula feeding, or not applicable due to IUFD/neonatal death). As this analysis comprises unique deliveries meeting inclusion criteria, a few patients delivering more than once during the years of this study may be represented multiple times in a single cohort or across MCC and comparison cohorts at different points in time. Significance was set at p< 0.05.

2.3. Qualitative Data Collection

In-depth telephone interviews were conducted with English or Spanish-speaking patients who gave birth at the MCC during the first year of operation. Patients were contacted at least two weeks and up to ten months after the delivery and were excluded if their chart indicated an infant death, if the EHR was protected, or if they had an emergent delivery at the MCC but would otherwise not have met the Level 1 criteria. From a list of 84 eligible patients, 13 were recruited and completed an approximately half hour-long phone interview between June and July of 2021. Recruitment continued alongside the process of iterative data analysis until saturation was reached.
A structured interview guide was developed based on a review of the literature and with particular attention to the Birth Satisfaction Scale.26 Participants were recruited by phone, verbally consented, and then interviewed in English (ES) or Spanish (a native Spanish-speaking graduate research intern). Interviews were recorded, transcribed, and linked with patient hospital records. Participants received gift cards once interviews were completed. Interviews were transcribed verbatim using Sonix transcription software [25]. Spanish interviews were translated into English by the software and the Spanish translation was verified by a Spanish speaking researcher. Both English and Spanish transcriptions were checked against audio recordings and corrected before analysis (ES and IH).

2.4. Data Analysis

Descriptive statistics were calculated for the full quantitative sample using SAS 9.4 (SAS Institute Inc., Cary, NC). Frequencies and percentages were used to describe categorical characteristics, while means and standard deviations were used for continuous variables.
We assessed whether labor and delivery outcomes differed between patients who delivered at the MCC compared to those who delivered at the suburban tertiary care center. Binary outcomes (e.g., birth outcome) were modeled using logistic regression, while multilevel outcomes (e.g., labor type) were modeled using multinomial logistic regression (generalized logit link), estimating separate log-odds for each category compared to the referent. We report odds ratios (ORs) and 95% confidence intervals (95% CIs) comparing the suburban to the rural hospital setting, along with two-sided p-values from Wald chi-square tests. Continuous outcomes (e.g., Apgar scores) were compared between hospitals using two-sample t tests with unequal variances, reporting Satterthwaite p-values. Analyses were conducted using SAS, version 9.4 (SAS Institute Inc., Cary, NC).
We derived a variable for distance to care by calculating travel distance in miles to the MCC for the cohort of patients who delivered at the MCC using their home address. We compared this with a variable for travel distance in miles to the suburban tertiary care facility for the comparison sample who delivered before the MCC opening. Both distance variables were created using geocoding tools in Stata 17 (StataCorp, College Station, TX). Once distance to care was calculated, home addresses were removed from the dataset.
Patient interviews were reviewed and coded using Taguette software [26] based on response elements. Three researchers (EC, ES, and IH) inductively coded the interviews. A deductive codebook was produced by a single author (ES) as a reference used by the second two researchers, who each coded half of the transcripts. Additional codes were agreed upon by consensus and the codebook was updated. Next, the group of interviews was coded iteratively by each researcher acting as a primary, secondary, and tiebreaking coder for each third of the interviews. Conversation continued until consensus was reached on all definitions and codes. Two researchers (ES and IH) reviewed the finalized codes separately and agreed on final themes.

3. Results

3.1. Quantitative Findings

3.1.1. Descriptive Characteristics

During its first three years of service, 402 patients birthed at the MCC (Table 2). This sample was almost 70% Hispanic/Latino and 42% spoke Spanish as their preferred language. Most were insured by Medicaid (68%) or were uninsured (11%). Maternal age ranged from 16–44 years with a mean age of 27 years. Almost 65% of the sample was multiparous and over 90% had no history of preterm birth (Table 2).
There were 593 patients from the MCC catchment area who would have met the low-risk criteria for admission but delivered at the suburban tertiary care facility in the three years prior to the MCC opening. This sample did not differ significantly from the MCC sample on race/ethnicity, preferred language, maternal age, parity, or history of preterm delivery. However, the comparison sample differed significantly by insurance status at delivery, with a higher proportion of Medicaid-insured compared with uninsured or privately insured deliveries (Table 2).

3.1.2. Labor and Delivery Outcomes.

Statistical comparisons of labor and delivery outcomes between the cohort that delivered at the MCC versus the suburban hospital showed no significant differences in labor or delivery type, epidural use, birth outcome, postpartum hemorrhage, gestational age at birth, birthweight, or infant feeding status at discharge. In both cohorts, approximately two-thirds of the deliveries began via spontaneous labor and approximately 85% had a vaginal delivery (Table 3). The prevalence of postpartum hemorrhage was 7.7% in the MCC cohort and 5.1% in the comparison cohort, and the percentage of preterm births was 1.5% in the MCC cohort and 3.0% in the comparison cohort. Only about 2% of infants in both cohorts were born at a low birthweight and mean five minute Apgar scores were similar across both cohorts, indicating good condition in the minutes after birth. [27]. About 90% of MCC infants breastfed at discharge compared with 93% of comparison infants.
Significant differences (p<0.05) between the MCC and comparison cohorts were observed for the delivery service type, reflecting the different hospitals’ staffing, as well as for NICU stay (Table 3). Deliveries at the MCC were significantly more likely to be attended by a family medicine physician (68.1%) or certified nurse-midwife (30.4%), with only 1.5% attended by an obstetrician, while deliveries at the suburban tertiary care center were more likely to be attended by an obstetrician (84.1%) (p<0.0001). Infants at the suburban center were significantly more likely to experience a NICU stay after delivery (33.6%) compared with infants at the MCC (2.5%) who were transferred as necessary to the closest NICU (p<0.0001) shortly after birth (Table 3).

3.1.3. Distance to Care.

Distance to delivery care ranged from 1 to 82 miles for the MCC cohort, although approximately one third of patients (32%) lived 5 or fewer miles from the hospital. Distance to delivery care ranged from 2 to 70 miles from the tertiary care hospital, with less than 1% of patients residing 5 or fewer miles from the hospital. Median distance to care was 16 miles for the MCC cohort and 27 miles for the comparison cohort. Therefore, median distance to delivery care was nearly halved after the availability of the MCC.

3.2. Qualitative Findings

3.2.1. Descriptive Characteristics.

In the subsample of 13 MCC patients interviewed for the qualitative study, eight identified as Hispanic, three as non-Hispanic white, and two as non-Hispanic Black. All but one were multipara (92.3%). Nine (61.2%) were insured with Medicaid. Eight interviews were completed in English (62%) and five in Spanish (38%). Almost 85% of the sample reported having a vaginal delivery, and three people reported an induction versus spontaneous labor. All interview participants were breastfeeding at discharge, including eight (61.5%) who were exclusively breastfeeding.

3.2.2. Thematic Findings.

Themes identified in the qualitative interviews included: (1) distance to care; (2) care environment; (3) patient agency; and (4) perception of changes and recommendations.
Distance to care. Distance to care improved access and relieved worry for most participants (69%, n=9). Respondent 4 described, “I had my baby within 15 minutes of arriving at the hospital. So, I think that if [the MCC] had not been there, I would have had my baby in a car.” Respondent 12 was happy with her hospital choice, stating “I did not want to consider traveling the 45 minutes it normally took me to get to the other location.” For some, the shorter distance alleviated childcare concerns: Respondent 9 noted, “I have a child that suffers from [medical condition], and I didn’t want to go very far to the other hospital…That was the most important thing, to not go so far away because of my son.” Respondent 1 discussed the benefit of proximity to the hospital in relation to caring for an older child:
“So, my husband and I spoke and one of the advantages that we looked at the most was that it was here near the house and since we have two; I have a little girl of seven years old. He told me, we are close, I can come and go from the hospital to see the girl. And that was also what motivated us the most in the child being born here.”
Respondent 13 noted that distance was the main reason she decided to give birth at the MCC, adding, “And, yeah, since my pregnancy wasn’t a high risk, you know, I would just go to a closer place to where I live.”
Provider Model and Hospital Care Environment. Staff demeanors were described positively, such as “super accommodating” (Respondent 4), “professional” (Respondent 10), “friendly” (Respondents 1, 3, 7, 8, 11), “kind” (Respondents 1, 3, 9), “encouraging,” (Respondent 4, 11, 13), and “very present, but not overbearing” (Respondent 11). Overall attentiveness was described by Respondent 6: “I’d seen [doctor’s name] the whole time I was there. I mean, usually you see the doctor one time, and you never see him again.” Respondent 6 added that small gestures made the experience more personal, noting that the doctor “played her music for me when I was laboring, she was like, you like music? And I was like, yeah. So, she put on some different music to help me through it. It was like the time, like if something was wrong, somebody was there.” Respondent 10 noted that the nurses “…were kinda like friends, you know? They wanted to be there, they enjoyed their job, they cared about my baby. It was amazing.” Respondent 8 said, “I don’t know if the nurses there was mamas too, but they make you feel really comfortable. I just don’t know how to explain it, they were great.”
The MCC staff facilitated the involvement of the birthing patient’s family members or other support people in the birth. Respondent 1 described how staff engaged her husband: “My husband, he had always wanted to have the experience of cutting the umbilical cord…it was going to be a Caesarean section. He said, ‘ok well now I’m not going to be able to do it,’ and they gave him the opportunity to do it. Everything was very, very special.”
Several patients commented on the physical environment of the MCC. Respondent 10 mentioned the small size of the hospital: “I liked that it was small, because big [hospitals] are so like robotic and stoic.” Respondent 6 described the ease of accessing the smaller local hospital, noting, “I was able actually to park and actually walk into the hospital versus having to be dropped off, have to wait.” Respondent 11 appreciated the larger size of birthing rooms: “The rooms were bigger, the showers were bigger for afterwards, which was a lot of help because with my first two, the showers were so tiny it was hard to move after giving birth.”
Most patients in our qualitative sample did not consider the lack of a NICU or other specialized care unit when selecting the MCC as their delivery hospital (n=10). This may have been less important to a predominantly multiparous and low-risk sample, as Respondent 12 explained, “I knew I was low-risk, I was not a high-risk pregnancy. Pretty standard on my prior deliveries with no complications and pretty standard textbook delivery.” However, Respondent 4 said that the lack of a NICU “was one of my big concerns” when deciding where to give birth. However, she also noted feeling comforted that MCC providers had transfer guidelines and working relationships with obstetricians at the suburban tertiary care facility where the closest NICU was available, adding “And so they would get me or my baby there if they had to.” Two patients hoped that the MCC would get a NICU in the future. Respondent 8, who had an emergency cesarean section at the MCC, said “I mean, anything to do to help [the rural hospital] for their maternity ward, I would do it, just so they can end up getting the NICU for mothers like me who need it.” Respondent 11 also mentioned, “I really don’t have any complaints. In the future, I would like to see them have a NICU, just in case. But other than that, they were wonderful.”
Patient agency/Decision-making. Patients in the qualitative sample overwhelmingly discussed experiences in which MCC providers fostered shared decision-making during their care. Respondent 11 described offers of pain management as being non-suggestive: “They were very like, ‘whatever you want - if you want medicine, that’s fine, if you don’t, then that’s fine, too. We’ll talk you through all of it.’ Never pushy on either one, which was fantastic because sometimes I felt that way at the other place [where I previously gave birth].” Nonmedical pain management options offered include using the bathtub, birthing ball, rebozo, and music. Respondent 2 said, “I was really happy because they really listened to my birth plan and what I wanted to do. And offered different options, like getting on the birthing ball.” Respondent 6 described feeling in more control at the MCC than during her previous birth at the urban facility: “When I had my previous child, I just laid in the bed and they were like, hey, here, take this, go back to sleep. But with them, I did the [birthing] ball, I did water, different stretches. Yeah, I mean, I felt like I was in control.” Respondent 10 reported, “And then I started actually being in labor and they were like, well, you know, sometimes to help with the pain, you can take a shower. I had never done that before, so that was really nice to tell me.” Although experiences with pain management were overwhelmingly positive, Respondent 12 expressed that she had wanted an epidural, did not receive it in time, and had to give birth without an epidural.
Eliciting and respecting patient desires went beyond pain management decisions. Respondent 2 noted, “I was able to deliver him vaginally. That’s what I’ve always wanted with my pregnancies. And I think they really, basically let me do it, let me handle it by myself. And that’s what I wanted.” The providers’ focus on meeting the patients’ needs and wants was clearly expressed by Respondent 13: “Yeah, I think everything was in my control...everybody was working with me on what I wanted to do with my delivery or asking me if everything was OK and providing me with what I needed.”
Perception changes and recommendations. Numerous patients mentioned having negative perceptions of the rural hospital prior to giving birth at the MCC, and that their perceptions changed after their experiences. Respondent 11 stated: “Prior, this is going to sound bad-but it’s in [name of rural town], and I guess I just didn’t think it was going to be wonderful. But when I took my tour, it definitely changed my mind. It was beautiful inside. It was very clean, very well maintained, all the workers were wonderful, very friendly, very personable, and through my birthing experience and afterward they were amazing.” When comparing her birth experience at the MCC to the hospital where she gave birth previously, Respondent 13 said: “I didn’t, you know, I expected maybe less? But it was like a really nice place to give birth in.” Respondent 4 mentioned that the MCC “was just not anything of like the negative things that I have heard.” Additionally, Respondent 6 mentioned recommending the MCC to others based on her experience:
“I was more than happy…I bragged about it. A lot of people give like a bad rep…you know how they do little bitty hospitals, they think they’re the worst when sometimes they’re not... I didn’t tell many people that I was actually giving birth in [name of rural town], because of the way people think about it, they would be like, ‘why would you do that?’ …And [since the birth] I’ve actually told another girl - I was like, hey, have your baby there, and she had an amazing experience too. And everybody that went after me, I was like, well I had my baby there, great experience.”
Respondent 10 reiterated the importance of the MCC, noting, “…yeah, that hospital, it needs to stay open for women that are low risk, because not a lot of people get treated that well after having a baby. You just feel like a number. So, it’s an amazing hospital.”

4. Discussion

This mixed methods study of outcomes associated with opening a rural MCC for low-risk patients found similar labor and delivery outcomes to those of the suburban tertiary care center where patients had delivered prior to its opening, and patients of the rural MCC reported reduced distance to care and high rates of satisfaction. The MCC provided accessible, local maternity services to a community of predominantly low-income, Hispanic families near their homes using a risk and resource-appropriate care delivery model of mainly family medicine physicians and certified-nurse midwives. Most births across the MCC and the comparison group were spontaneous vaginal deliveries with similar five-minute Apgar scores and a comparable prevalence of cesarean deliveries, postpartum hemorrhage, low birthweight, and breastfeeding. NICU use was significantly lower in the MCC cohort. Qualitative findings demonstrated satisfaction with the physical environment and positive experiences of supportive providers who offered individualized attention and gave families a sense of agency in their care.
Births at the MCC were primarily attended by family medicine physicians and CNMs. The scope of practice for family medicine physicians and CNMs includes management of low- to moderate-risk births. We found that within this scope of training and practice, family medicine physicians and CNMs manage labor with low rates of morbidity and mortality. Family medicine physicians who provide cesarean sections as primary surgeons disproportionately provide obstetric care in rural communities [28], and family medicine physicians and CNMs have been shown to manage low- to moderate-risk deliveries with fewer interventions than obstetricians [29,30,31]. Birth outcomes for individuals with low-risk pregnancies improve with right-sized low-intervention models of care, which yield lower rates of pain medication and cesarean births and higher rates of breastfeeding [32,33]. The MCC patients reported personalized care and hands-on management of pain during labor. Supporting family medicine training in cesarean sections and providing training opportunities for both family medicine physicians and CNMs in rural settings may improve access to quality person-centered care.
MCC patients overwhelmingly described positive experiences and a sense of relationship with the attending providers and staff, including a sense of shared care and supportive labor offerings. The importance of facilitating pain management plans is also described in a study by López-Toribo et al. in which postpartum participants described obstacles to shared decision-making from providers and a lack of personal agency during their births, suggesting that the “establishment of mutually respectful relationships between clinicians and women” was the best way to improve participation in shared decision-making [34]. Shared decision-making and empowerment during the perinatal period can improve health outcomes [35], and respectful maternity care is a particularly important concept in communities with inequitable health outcomes [36,37], making the level of agency experienced by our study population particularly evocative.
The opening of the MCC reduced distance to care for rural patients, a finding in which we saw convergence across quantitative and qualitative data. Quantitatively, we found that nearly one third of MCC patients lived five or fewer miles from the rural hospital, while less than 1% of patients in the comparison cohort resided as close to the suburban center. The anticipation of driving long distances during labor, for the patient and family, and navigating a large, unknown medical system can cause increased stress for rural birthing people [38]. Similar to Blythe et al., patients of the MCC reported relief in the proximity of birth care [39]. This model provides a counter-narrative to current trends in US maternity care where many healthcare systems are closing obstetric units [3] or consolidating maternity care to larger, higher-acuity hospitals staffed by obstetric specialists, providing consultation remotely or intermittently for surrounding rural areas [11,40,41]. This ‘hub and spoke’ model contributes to the framing of rural maternity care as deficient, suggesting that what is available locally, particularly to historically marginalized communities, is insufficient compared to what is available within urban or suburban healthcare institutions [42]. Interview participants voiced this perspective when noting that they anticipated the MCC to be of lower quality because of its rural location. Labor and birth experiences changed patients’ prior perceptions of the MCC, building trust in the local CAH. This shift in attitude is important because it can predict improved engagement with the hospital overall, counteracting medical mistrust, and has the potential to improve long-term health outcomes for the life course [43].
The prevalence of preterm birth and low birthweight infants was similar across the MCC population and the suburban tertiary care center population. However, the 2% prevalence of low birthweight infants born at the MCC is less than one quarter of the 8.6% county-level prevalence, and the 1.5% prevalence of preterm birth at the MCC is much lower than the 12.5% county-level prevalence [44]. This is likely due to guidelines that allow only a medically low-risk subset of the county population to deliver at the MCC, and to the increased accessibility to local health care enhanced by virtual consults with obstetric specialists at the tertiary care center.
While the lack of a NICU was not a concern for all patients, some MCC patients reported a desire for the hospital to add a NICU in the future. Access to an on-site NICU may not have been a priority for this mostly multiparous and low-risk birthing population, but the high prevalence of NICU use at the suburban tertiary care center for the low-risk comparison cohort in the years prior to the MCC opening may have contributed to a perception that many infants will need NICU services [45,46]. The ready availability of a NICU likely led to higher use and many short-stay observations at the suburban tertiary care center, as hospitals with a NICU may lower their clinical thresholds for NICU use, leading to higher admission rates [47,48]. While only a small percentage of infants born to low-risk mothers need the high-acuity, high-intervention care that can be the norm in larger hospitals with NICUs, rural maternity units in hospitals without a NICU must maintain obstetric readiness for emergencies. A well-functioning rural maternity unit must maintain staff preparedness and stand ready to address obstetric emergencies (e.g., operating rooms, anesthesia, simulation training for maintenance of staff skills, and rapid transfers) [12,49,50]. Obstetrical readiness training in rural maternity care is essential both for local access to quality birthing care and for addressing the needs of emergency perinatal care [51].
We excluded 10 MCC patients from the quantitative analysis who delivered at the MCC despite not meeting low-risk criteria for admission. Of these 10 patients, three presented at the emergency room with a breech precipitous delivery, three experienced preterm premature rupture of membranes, two were induced for a preterm IUFD, and two were induced after presenting with pre-eclampsia before 37 weeks’ gestation. Four of these excluded deliveries resulted in neonatal deaths (two of these neonates were non-viable). After excluding these 10 patients from our analysis, there were no neonatal or maternal deaths in either the MCC or comparison cohort, and there were two IUFDs in the MCC cohort compared to one at the larger center [52,53]. This study establishes that for risk appropriate pregnant patients, birth outcomes at a Level 1 maternity care center are non-inferior to those at an academic tertiary care center. It is important to clearly communicate the admission criteria to community members to ensure risk appropriate use of Level 1 center care, as the opportunity to deliver locally is highly desired by patients and their families. As increased distance to maternity care has been associated with increased risks of negative maternal and infant health outcomes [40], having locally available, risk-appropriate care for pregnant patients is a critical component of efforts to address the national and rural maternity care crisis. This is particularly true for lower-income and minoritized populations, who are more likely to encounter challenges accessing obstetric care [19] and who tend to bear higher risks of negative maternal and infant health outcomes [54].
Given the financial challenges faced by rural hospitals in maintaining labor and delivery services, tailored efforts are needed to support rural hospitals so that they can maintain the provision of high-quality, risk-appropriate, and locally available maternity care in their communities. Rural hospitals have higher rates of underinsured, uninsured, and Medicaid-insured patients, so rural facilities with lower birth volumes generate less revenue for birth care services on average compared to facilities with higher proportions of privately-insured patients [55]. The incentives and/or loan repayment programs that are needed to attract providers to rural areas require subsidy from the state or federal government or from large health care systems (see accompanying commentary). To improve the accessibility of labor and delivery care in rural communities, health care systems should value rural and regional partnerships beyond models that centralize perinatal care at larger centers, and should provide financial and quality improvement support for low-volume rural facilities working to maintain birth care services [5,56]. For example, enabling low-risk patients to deliver locally and receive risk-appropriate care in their community rather than in the tertiary care center may in turn increase access to specialty care for high-risk patients, a cost sharing collaborative approach and public health minded system of healthcare. Our findings buttress the work of ACOG and SMFM on levels of maternal care, an integrative system for risk-appropriate perinatal regionalized care [57]. In the 1970s, the US regionalized standards for neonatal care to improve neonatal outcomes without doing the same for birth centers and hospitals. Similar studies evaluating safety and efficacy of regional perinatal care could positively impact our current maternity crisis.
Our study has several strengths. The use of mixed-methods data enabled the triangulation of findings. This mixed-methods design facilitated comparison of narrative findings with clinical EHR data to gain a richer understanding of outcomes associated with opening and sustaining a rural maternity center for low-risk patients. We conducted an in-depth chart review to ensure consistent EHR data on MCC and comparison cohorts. The group of interviewees was diverse, comprised of different racial and ethnic identities and language preferences.
Our study should also be interpreted within the limitations of the study design. Our quantitative outcomes were limited to diagnosis codes and provider notes available in the EHR system. Participants in the interviews self-selected, only represented a subset of the patient population who gave birth during the first year of operation, and the recruitment technique was a phone call invitation. Thus, participant identities and experiences may not have been representative of the full population or changes in experiences over time. Those who were not accessed via phone recruitment may have included potential participants who did not have access to consistent phone services or who felt negatively toward the hospital. Patients in the comparison cohort were not interviewed and may have had similarly positive comments to make about their birthing experiences.

5. Conclusions

Rural maternity care is often framed using a deficit model, implying that birth at a larger, higher-resourced institution provides a better experience; however, the birth outcomes in this critical access hospital were similar to those in the larger facility for a low-risk patient population. Its small size and proximity of the rural MCC to the population it served provided patients access to a care team of mostly family medicine physicians and CNMs who created an environment that supported patient autonomy and satisfaction with care [42,58]. Family medicine physicians and CNMs can provide safe, effective maternity care for low-risk populations. Further, local care has the potential to alter negative community perceptions about the quality of care provided in local, rural hospitals, as demonstrated in this population of predominantly low-income Hispanic patients who expressed a sense of agency and a feeling of being seen and personally supported during their birth. The availability of local, high-quality maternity care directly addresses healthcare inequities resulting from the maternity care crisis in the US that has disproportionately affected rural communities. Supporting the availability of such care in rural communities must be a policy priority as it requires financial investment to support rural hospitals’ ability to maintain safe and high-quality labor and delivery services.

Author Contributions

Conceptualization, KW, EC, MGH, MH, and AD; methodology, KW, EC, IH, AD, and ECS.; formal analysis, KW, IH, ECS; investigation, KW, EC, MGH, KH, and DI; resources, KW, EC, MGH, and MH; data curation, KW, EC, MGH, KH, ECS, IH, MB, TS, BVH, DI, AD; writing—original draft preparation, KW; writing—review and editing, KW, EC, MGH, KH, ECS, IH, MB, TS, BVH, DI, AD, and MH.; project administration, KW, EC, MGH, and MH; funding acquisition, EC. All authors have read and agreed to the published version of the manuscript.

Funding

This research was funded in part by The Duke Endowment.

Institutional Review Board Statement

The study was conducted in accordance with the Declaration of Helsinki, and approved by the Institutional Review Board (or Ethics Committee) of University of North Carolina at Chapel Hill (IRB protocol numbers IRB #21-0386, IRB #20-2115, IRB#21-1147).

Data Availability Statement

The de-identified dataset that underlies the findings described in this article is not publicly archived because of participant privacy concerns and ethical restrictions. However, data may be available from the corresponding author upon reasonable request and contingent upon approval of a data-sharing agreement and relevant institutional review. Interested researchers should contact Kathryn Wouk at kwouk@pire.org to discuss access conditions.

Acknowledgments

Our research team wants to acknowledge the hospital management and staff for their assistance in accessing clinical data for this analysis. We also want to acknowledge entire Duke Endowment-funded evaluation team led by Dr. Martha Carlough, including graduate student interns who contributed to data collection activities. Finally, we would like to acknowledge the birthing people who share their experiences and clinical data with us for this analysis.

Conflicts of Interest

The authors declare no conflicts of interest. The funders had no role in the design of the study; in the collection, analyses, or interpretation of data; in the writing of the manuscript; or in the decision to publish the results.

Abbreviations

The following abbreviations are used in this manuscript:
ACOG American College of Obstetricians and Gynecologists
BMI Body Mass Index
DM Diabetes mellitus
HTN Hypertension
IUFD Intrauterine Fetal Demise
MCC Maternity Care Center
NICU Neonatal Intensive Care Unit
SMFM Society of Maternal-Fetal Medicine
TOLAC Trial of labor after cesarean

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Table 1. Inclusion and Exclusion Criteria for a Level 1 Maternity Care Center.
Table 1. Inclusion and Exclusion Criteria for a Level 1 Maternity Care Center.
Inclusion Criteria
  • Singleton pregnancy
  • Confirmed vertex presentation
  • Gestational age ≥36 and ≤42 weeks
  • Up to 3rd repeat cesarean (vertex or breech)
  • 4th cesarean requires medical director review
  • Maternal age ≥16 and ≤40 (primipara) or ≤45 (multipara)
Exclusion Criteria
Pregnancy (Antenatal)
  • Placenta previa
  • Pre-eclampsia with severe features
  • Uncontrolled or insulin-treated gestational diabetes
  • Uncontrolled thyroid disease
  • Severe poly-/oligohydramnios
  • >75 lbs weight gain
  • Active infectious disease affecting pregnancy
Maternal Medical History
  • Uncontrolled chronic HTN
  • Pre-gestational DM
  • BMI >40 at delivery
  • Coronary heart disease
  • Heart failure
  • Venous thrombotic embolism
  • Seizure disorder
  • Severe asthma
  • Renal disease
  • Chronic or active liver disease
  • Complicated autoimmune disease
  • Complicated inflammatory bowel disease
  • Severe anemia
  • Hematological disorders impacting clotting
Obstetric History
  • Previous cesarean with transmural incision
  • Hereditary thrombophilia
  • Isoimmunization
  • Postpartum hemorrhage of > one liter
  • Previous severe perinatal mental illness
  • TOLAC
Complications Affecting the Fetus
  • Isoimmunization
  • Intrauterine growth restriction
  • Structural or chromosomal anomaly that would necessitate resuscitation
Anticipated postpartum complications necessitating transfer
  • Severe mental illness,
  • Complications necessitating surgical intervention not available in the MCC
Note. HTN = hypertension; DM = diabetes mellitus; BMI = Body Mass Index; TOLAC = trial of labor after cesarean; MCC = Maternity Care Center.
Table 2. Descriptive Characteristics of the Maternity Care Center (MCC) and Comparison Suburban Tertiary Care Center Cohorts.
Table 2. Descriptive Characteristics of the Maternity Care Center (MCC) and Comparison Suburban Tertiary Care Center Cohorts.
Variable Hospital
MCC (N = 402) Comparison (N = 593)
n (%) n (%) Chi-square
p-value
Race/ethnicity 0.08
Hispanic/Latino 279 (69.4) 444 (74.9)
Non-Hispanic White 68 (16.9) 72 (12.1)
Non-Hispanic Black 44 (10.9) 51 (8.6)
Non-Hispanic Other 10 (2.5) 25 (4.2)
Asian 1 (0.2) 1 (0.2)
Preferred language 0.06
English 232 (57.7) 295 (49.8)
Spanish 169 (42.0) 292 (49.2)
Arabic 1 (0.2) 1 (0.2)
Sign language 0 0 2 (0.3)
Missing 0 0 3 (0.5)
Insurance at Delivery <0.001
Medicaid 276 (68.4) 550 (92.8)
Private 59 (14.7) 31 (5.2)
Uninsured 67 (11.2) 12 (2.0)
Maternal age 0.91
16–20 50 (12.4) 71 (12.0)
21–25 123 (30.6) 175 (29.5)
26–30 102 (25.4) 141 (23.8)
31–35 80 (19.9) 122 (20.6)
36–40 38 (9.5) 68 (11.5)
41–45 9 (2.2) 16 (2.7)
Parity 0.96
Multipara 259 (64.4) 387 (65.3)
First birth 128 (31.8) 184 (31.0)
Grand multipara (>4 births) 15 (3.7) 22 (3.7)
History of preterm birth (<37 completed weeks gestation) 38 (9.5) 50 (8.4) 0.58
Table 3. Labor and Delivery Outcomes for the Maternity Care Center (MCC) and Suburban Tertiary Care Cohorts.
Table 3. Labor and Delivery Outcomes for the Maternity Care Center (MCC) and Suburban Tertiary Care Cohorts.
Variable Hospital
MCC
(N = 392)
Comparison
(N=593)
N (%) N (%) OR (95% CI) Wald chi-square
p-value
Type of labor
Spontaneous 245 (62.5) 384 (64.8) (ref)
Induced 125 (31.9) 163 (27.5) 0.8 (0.6, 1.1) 0.20
Scheduled Cesarean Section 22 (5.6) 46 (7.8) 1.3 (0.8, 2.3) 0.29
Delivery Service Type
Obstetrics/Gynecology 6 (1.5) 499 (84.2) (ref)
Family Medicine 267 (68.1) 72 (12.1) 0.003 (0.0, 0.01) <0.0001
Certified Nurse Midwifery 119 (30.4) 22 (3.7) 0.002 (0.0, 0.01) <0.0001
Delivery type
Vaginal 340 (86.7) 502 (84.7) (ref)
First Cesarean Section 33 (8.4) 54 (9.1) 1.1 (0.7, 1.7) 0.66
Repeat Cesarean Section 19 (4.9) 37 (6.2) 1.3 (0.7, 2.3) 0.34
Epidural use (vaginal only)a
No 146 (42.9) 204 (40.6) (ref)
Yes 194 (57.1) 298 (59.4) 1.1 (0.8, 1.5) 0.51
Birth outcome
Live birth 390 (99.5) 592 (99.8) (ref)
Intrauterine fetal demise 2 (0.5) 1 (0.01) 0.3 (0.0, 3.6) 0.37
Postpartum hemorrhage >1000mL
No 362 (92.4) 563 (94.9) (ref)
Yes 30 (7.7) 30 (5.1) 0.6 (0.4, 1.1) 0.10
Gestational age at birth
Term (>37 weeks) 386 (98.5) 575 (97.0) (ref)
Preterm (<=37 weeks) 6 (1.5) 18 (3.0) 2.0 (0.8, 5.1) 0.14
Birthweight
Low (<2500 grams) 8 (2.0) 13 (2.2) 1.1 (0.5, 2.7) 0.83
Normal (2500 to <4000 grams) 359 (91.6) 528 (89.0) (ref)
Large for gestational age (>=4000 grams) 25 (6.4) 52 (8.8) 1.4 (0.9, 2.3) 0.17
Apgar score at five minutes Mean
8.8
SD
(0.66)
Mean
8.9
SD
(0.56)
t-test
p=0.22
Neonatal intensive care unit stayb
No 382 (97.5) 394 (66.4) (ref)
Yes 10 (2.5) 199 (33.6) 19.3 (10.1, 37.0) <0.0001
Infant Feeding Status at Discharge
Any breastfeeding 353 (90.1) 552 (93.2) (ref)
Only formula feeding 37 (9.4) 40 (6.8) 0.7 (0.4, 1.1) 0.12
N/A 2 (0.5) 1 (0.1) --
a Epidural use calculated among vaginal deliveries only. b This required a transfer to the nearest NICU for MCC deliveries, while this occurred at the suburban tertiary care center for comparison cohort deliveries.
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