- ICH GCP
- US Clinical Trials Registry
- Clinical Trial NCT05108675
Microbiome and Malnutrition in Pregnancy (MMiP) (MMiP)
Elucidating the Dynamics and Impact of the Gut Microbiome on Maternal Nutritional Status During Pregnancy
Nutritional status during pregnancy plays an important role in maternal health and birth outcomes. While few factors impacting nutritional status during pregnancy have been identified, studies of undernutrition in children have revealed a key role for the gut microbiome. Remarkably, studies examining the dynamics of the maternal gut microbiome before and during pregnancy and its impact on birth outcomes are limited.
This study is being conducted to investigate how a mother's nutritional status and her gut microbiome during pregnancy contribute to the birth outcomes and health of her baby. The gut microbiome is the totality of microorganisms (e.g. bacteria, viruses, fungi) living in the gastrointestinal tract. This study will focus on married pregnant women 24 years and younger living in Matiari District in Pakistan. The focus is on younger women due to their vulnerability to undernutrition. Pregnant participants, and upon delivery, their newborns will be followed throughout pregnancy and for a year afterwards. Throughout this period, the investigators will collect stool samples, rectal swabs, blood samples, health assessments, nutritional and dietary assessments and birth/ labour details. The goal is to define the relationship between a mother's nutritional status and her microbiome dynamics during pregnancy and how they contribute to the birth outcomes and growth of her newborn. Investigators hypothesizes that alterations of the microbiota in the maternal gut (dysbiosis) is exacerbated by nutritional status or pathogen exposure during pregnancy. This impacts weight gain because of impaired nutrient absorption, and can lead to corresponding negative birth outcomes.
Study Overview
Status
Detailed Description
This project represents the first systematic investigation of the impact of the microbiome on nutritional status during pregnancy in young women and directly aligns with global health initiatives focused on this vulnerable cohort. The goal of the study is to define the relationships between host nutritional status and microbiome dynamics during pregnancy and how they contribute to birth outcomes. The gut microbiome has a profound influence on host nutritional status. Dysbiosis (loss of diversity/beneficial microbes and gain of pathobionts) has emerged as a major factor in the development of undernutrition. Despite the importance of nutrition during pregnancy, few studies have examined the role of the microbiome on maternal health and birth outcomes. Further, little is known concerning the influence of enteric eukaryotic microbes, such as parasites, on the bacterial microbiome and host nutrition.
At the core of this study are two complementary cohorts of young women that provide an exceptional opportunity to obtain longitudinal samples to monitor the dynamic relationships between microbiome community structure and function with gut health and host nutritional status. This registration is for the Matiari, Pakistan cohort of the study, where there is known to be a high prevalence of undernutrition among young women. This cohort is expected to yield insights into the influence of eukaryotic microbes that are often viewed as asymptomatic. The target demographic of the study is young, married mothers, ≤24 years in Matiari District within the province of Sindh, Pakistan. Matiari District is representative of rural settings in Pakistan The investigators have identified this younger demographic due to the lack of knowledge on the microbiome of young women, and their vulnerability to undernutrition. A second complementary cohort will be based Toronto, Canada. This project will yield insights into the relationships between prokaryotic and eukaryotic microbes in the gut and their associations with maternal health and birth outcomes.
The central hypothesis of the study is that alterations of the microbiota in the maternal gut (dysbiosis) exacerbated by nutritional status or pathogen exposure during pregnancy, impacts weight gain because of impaired nutrient absorption, leading to corresponding negative birth outcomes.
The study will be a prospective, longitudinal, observational study to investigate the impact and relationship between prokaryotic and eukaryotic microbes in the gut and their association with maternal health and birth outcomes among married young women ≤24 years residing in Matiari District. . The study will aim to recruit 400 women into two groups based on BMI at time of recruitment (normal BMI will be defined as between 20 and 24.9 kg/m2 and low BMI will be defined as less than 20 kg/m2). With a goal of having 200 participants within the normal BMI group and 200 participants within the low BMI group. Although this is the recruitment aim, in the event that the investigators are unable to recruit 200 women with a low BMI, more women will be recruited that fall within the normal BMI range. The study will follow women and their infants over the course of their pregnancy and for a year postpartum, collecting stool, rectal and blood samples, nutritional information, heath assessments, anthropometric measurements and empowerment metrics at different time points.
Study Type
Enrollment (Actual)
Contacts and Locations
Study Locations
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Sindh
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Karachi, Sindh, Pakistan, 74000
- Research and Training Centre Matiari, Aga Khan University
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Participation Criteria
Eligibility Criteria
Ages Eligible for Study
Accepts Healthy Volunteers
Sampling Method
Study Population
Description
Inclusion Criteria:
- Consent provided
- Married female aged 17-24 years
- In good general health, with no comorbidities
- Absence of COVID19 symptoms
- Intend to comply with study procedures and follow up
Exclusion Criteria:
- Women who do not meet the enrollment age criteria
- Women participating in interventional clinical trials
- Women who intend to leave the study area
- Women who cannot comply with study procedure's and follow-up
- Illness and other co-morbidities
- Signs of potential COVID19 infection
- BMI higher than 24.9 kg/m2
- Women who already have a member of their household participating
- Women who have taken antibiotics within the past 3 months
- Women who are past 16 weeks post- conception
Study Plan
How is the study designed?
Design Details
- Observational Models: Cohort
- Time Perspectives: Prospective
What is the study measuring?
Primary Outcome Measures
Outcome Measure |
Measure Description |
Time Frame |
|---|---|---|
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To assess if alterations of the microbiota in the maternal gut (dysbiosis) are corelated with changes in maternal gestational weight gain
Time Frame: 8-20 weeks post-conception, 30-34 weeks post-conception
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The primary endpoint will be the change in maternal gestational weight gain (GWG) during pregnancy, measured between the first (8-16 weeks post-conception) and second time point (30-34 weeks post-conception)
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8-20 weeks post-conception, 30-34 weeks post-conception
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To determine the correlation between maternal microbiome dysbiosis during pregnancy and birth weight.
Time Frame: At birth
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The primary endpoint will be change in birthweight measured in kilograms.
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At birth
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To determine the correlation between maternal microbiome dysbiosis during pregnancy and infant growth
Time Frame: 3month, 6month and 12month postpartum
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The primary endpoint will be change in WHO z-scores during first year of infant's life.
These z-scores will be calculated for weight (measured in kg), length and head circumference (measured in cm).
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3month, 6month and 12month postpartum
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Secondary Outcome Measures
Outcome Measure |
Measure Description |
Time Frame |
|---|---|---|
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Infant growth: length
Time Frame: within 24 hours of birth, 3 months, 6 months and 12 months
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Measured in cm
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within 24 hours of birth, 3 months, 6 months and 12 months
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Household annual food insecurity
Time Frame: 3 months post-partum and 12 months post-partum
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Food insecurity will be assessed using the Household Food Insecurity Access Scale (HFIAS)
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3 months post-partum and 12 months post-partum
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Anthropometrics
Time Frame: 8-16 weeks post-conception, 30-34 weeks post-conception, delivery, 3-months post-partum, 6 months post-partum and 12 months post-partum ]
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Maternal BMI
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8-16 weeks post-conception, 30-34 weeks post-conception, delivery, 3-months post-partum, 6 months post-partum and 12 months post-partum ]
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Anthropometrics: Maternal middle upper arm circumference
Time Frame: 8-16 weeks post-conception, 30-34 weeks post-conception, 3-months post-partum,and 12 months post-partum
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Measured in cm
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8-16 weeks post-conception, 30-34 weeks post-conception, 3-months post-partum,and 12 months post-partum
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Anthropometrics: Maternal triceps skinfold thickness
Time Frame: 8-16 weeks post-conception, 30-34 weeks post-conception, 3-months post-partum, and 12 months post-partum
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Measured in mm
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8-16 weeks post-conception, 30-34 weeks post-conception, 3-months post-partum, and 12 months post-partum
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Anthropometrics: Maternal height
Time Frame: 8-16 weeks post conception, 30-34 weeks post conception, delivery, 3 months post-partum and 12 months post partum
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measured in cm
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8-16 weeks post conception, 30-34 weeks post conception, delivery, 3 months post-partum and 12 months post partum
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Anthropometrics: Maternal weight
Time Frame: 8-16weeks post conception, 30-34 weeks post conception, delivery, 3 months post-partum and 12 months post-partum
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measured in kg
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8-16weeks post conception, 30-34 weeks post conception, delivery, 3 months post-partum and 12 months post-partum
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Maternal blood biomarker-1
Time Frame: 8-16 weeks post-conception, 30-34 weeks post-conception, and 12 months post-partum
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Concentration of HB in g/dL, marker of anemia.
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8-16 weeks post-conception, 30-34 weeks post-conception, and 12 months post-partum
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Maternal blood biomarker-2
Time Frame: 8-16 weeks post-conception, 30-34 weeks post-conception, and 12 months post-partum
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Level of MCV in whole blood measured in femtoliters (fL).
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8-16 weeks post-conception, 30-34 weeks post-conception, and 12 months post-partum
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Maternal blood biomarker-3
Time Frame: 8-16 weeks post-conception, 30-34 weeks post-conception, and 12 months post-partum
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Concentration of Ferritin in serum measured in ng/mL, marker of iron stores in blood.
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8-16 weeks post-conception, 30-34 weeks post-conception, and 12 months post-partum
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Maternal blood biomarker-4
Time Frame: 8-16 weeks post-conception, 30-34 weeks post-conception, and 12 months post-partum
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Concentration of CRP in blood, measured in mg/dL, marker of inflammation .
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8-16 weeks post-conception, 30-34 weeks post-conception, and 12 months post-partum
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Infant blood biomarker-1
Time Frame: 1 year infant age
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Concentration of HB in g/dL, marker of anemia.
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1 year infant age
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Infant blood biomarker-2
Time Frame: 1 year infant age
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Level of MCV in whole blood measured in femtoliters (fL).
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1 year infant age
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Infant blood biomarker-3
Time Frame: 1 year infant age
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Concentration of Ferritin in serum measured in ng/mL, marker of iron stores in blood.
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1 year infant age
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Infant blood biomarker-4
Time Frame: 1 year infant age
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Concentration of CRP in blood, measured in mg/dL, marker of inflammation .
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1 year infant age
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Infant sex
Time Frame: At birth
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Male Female
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At birth
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Infant morbidity
Time Frame: at 3 months, 6 months and 12 months
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Assessed through infant health assessment questionnaire
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at 3 months, 6 months and 12 months
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Maternal morbidity
Time Frame: 8-16 weeks post-conception, 30-34 weeks post-conception, 3 months post-partum, 6 months post-partum and 12 months post-partum
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Assessed through health assessment questionnaire
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8-16 weeks post-conception, 30-34 weeks post-conception, 3 months post-partum, 6 months post-partum and 12 months post-partum
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Infant growth: weight
Time Frame: within 72 hours of birth, 3 months, 6 months and 12 months
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Measured in kg
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within 72 hours of birth, 3 months, 6 months and 12 months
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Infant growth: head circumference
Time Frame: within 72 hours of birth, 3 months, 6 months and 12 months
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Measured in cm
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within 72 hours of birth, 3 months, 6 months and 12 months
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Infant growth: mid upper arm circumference
Time Frame: within 72 hours of birth, 3 months, 6 months and 12 months
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Measured in cm
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within 72 hours of birth, 3 months, 6 months and 12 months
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Infant growth: triceps skinfold thickness
Time Frame: within 72 hours of birth, 3 months, 6 months and 12 months
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Measured in mm
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within 72 hours of birth, 3 months, 6 months and 12 months
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Gestational age at birth
Time Frame: Within 72 hours of birth
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Measured in weeks
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Within 72 hours of birth
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Maternal age
Time Frame: 8-16 weeks post conception
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Age between 17-24 years documented through national ID card, school certificate or through maternal recall
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8-16 weeks post conception
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Breast feeding
Time Frame: at birth within 72 hours, 3 months, 6 months and 12 months
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amount and initiation of breast feeding, top milk, formula milk and complementary feeding Based off of WHO 2010 Guidelines: Indicators for assessing infant and young child feeding practices (Part 2 Measurement)
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at birth within 72 hours, 3 months, 6 months and 12 months
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Reported Maternal medicinal use
Time Frame: 8-16 weeks post-conception, 30-34 weeks post-conception, 3-months post-partum, 6 months post-partum and 12 months post-partum
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Questionnaire
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8-16 weeks post-conception, 30-34 weeks post-conception, 3-months post-partum, 6 months post-partum and 12 months post-partum
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Reported Infant medication use
Time Frame: at birth within 72 hours, 3 months, 6 months and 12 months
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Questionnaire
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at birth within 72 hours, 3 months, 6 months and 12 months
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Maternal dietary intake Assessed through ASA 24 HR Dietary Recall system, completed 2x each time point
Time Frame: Baseline 8-16 weeks post conception, 30-34 weeks post conception and 12 months post partum
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Assessed through ASA 24 HR Dietary Recall system
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Baseline 8-16 weeks post conception, 30-34 weeks post conception and 12 months post partum
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Dietary diversity
Time Frame: Baseline 8-16 weeks post conception, 30-34 weeks post conception, 3 months post-partum and 12 months post partum
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Minimum Dietary Diversity Score for Women (MDD-W)
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Baseline 8-16 weeks post conception, 30-34 weeks post conception, 3 months post-partum and 12 months post partum
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Generalized Self-efficacy
Time Frame: 3 months post-partum and 12 months post partum
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Self-efficacy will be measured using the Generalized Self-Efficacy scale, developed by Schwarzer and Jerusalem.
A 10 item psychometric scale.
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3 months post-partum and 12 months post partum
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Perceived decision making
Time Frame: 3 months post-partum and 12 months post partum
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Questions pertaining to perceived decision-making are from the Pakistan Demographic and Health Survey (PDHS)
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3 months post-partum and 12 months post partum
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Perceived social support
Time Frame: 3 months post-partum and 12 months post partum
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Perceived social support will be measured using the Multi-dimensional Scale of Perceived Social Support (MSPSS), developed by Zimet et al.
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3 months post-partum and 12 months post partum
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Maternal demographics
Time Frame: Baseline 8-16 weeks post-conception
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Questions pertaining to demographic data are adapted from the Pakistan Demographic and Health Survey (PDHS)
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Baseline 8-16 weeks post-conception
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Food insecurity
Time Frame: Baseline 8-16 weeks post conception, 3 months post partum and 12 months post partum
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Questionnaire developed by Hager, E.R., et al., Development and validity of a 2-item screen to identify families at risk for food insecurity.
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Baseline 8-16 weeks post conception, 3 months post partum and 12 months post partum
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Perceived parental stress
Time Frame: 3 months post-partum and 12 months post partum
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Perceived parental stress will be measured using the Perceived Stress Scale (PSS-10)
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3 months post-partum and 12 months post partum
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Preterm Births
Time Frame: At birth within 72 hours
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Gestational age at birth in weeks
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At birth within 72 hours
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Small for gestational age
Time Frame: At birth within 72 hours
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Small-for-gestational-age (<10th percentile of weight-for-gestational-age and sex as defined by Intergrowth standards)
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At birth within 72 hours
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Large for gestational age
Time Frame: At birth within 72 hours
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>90th percentile of weight-for-gestational-age and sex as defined by Intergrowth standards)
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At birth within 72 hours
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Delivery Assessment
Time Frame: at birth within 72 hours of birth
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Questionnaire, mode of delivery, place of birth and other description around delivery
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at birth within 72 hours of birth
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Infant dietary intake
Time Frame: Infant age 1 year
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NutricheQ Questionnaire: a tool designed for toddlers aged 1 to 3 years of age, with a focus on markers for inadequate or excessive intake and dietary imbalances
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Infant age 1 year
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|
Maternal stool biomarkers-1
Time Frame: At baseline 8-16 weeks post conception and 30-34 weeks post conception
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Level of Calprotectin in stool a marker of intestinal inflammation, measured in μg/g.
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At baseline 8-16 weeks post conception and 30-34 weeks post conception
|
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Maternal stool biomarkers-2
Time Frame: At baseline 8-16 weeks post conception, 30-34 weeks post conception
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Concentration of Claudin 15 in stool a marker of intestinal permeability measured in ng/mL.
|
At baseline 8-16 weeks post conception, 30-34 weeks post conception
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Maternal stool biomarkers-3
Time Frame: At baseline 8-16 weeks post conception and 30-34 weeks post conception
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Concentration of Lipocalin in stool, a marker of gut inflammation, measured in μg/mL.
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At baseline 8-16 weeks post conception and 30-34 weeks post conception
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Maternal: incidence of pathobionts
Time Frame: Baseline, 8-16 weeks post conception, 30-34 weeks post conception, 3 months post partum and 12 months post partum
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As identified through 16S, 18S and ITS rDNA surveys
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Baseline, 8-16 weeks post conception, 30-34 weeks post conception, 3 months post partum and 12 months post partum
|
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Infant: incidence of pathobionts
Time Frame: 3 and 12 month
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As identified through 16S, 18S and ITS rDNA surveys
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3 and 12 month
|
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Maternal: metabolomic profile of stool [Metabolites involved in central metabolism as analysed by Mass Specttrometry]
Time Frame: Baseline, 8-16 weeks post conception, 30-34 weeks post conception, 3 months post partum and 12 months post partum
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Analysis of the core metabolites involved in central metabolism.
These metabolites will be analysed through Mass Spec and include short chain fatty acids, amino acids, intermediates in energy metabolism and nucleotide biosynthesis
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Baseline, 8-16 weeks post conception, 30-34 weeks post conception, 3 months post partum and 12 months post partum
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Maternal gut bacteria profile
Time Frame: Baseline, 8-16 weeks post conception, 30-34 weeks post conception, 3 months post partum and 12 months post partum
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Measured through 16S rDNA sequence surveys
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Baseline, 8-16 weeks post conception, 30-34 weeks post conception, 3 months post partum and 12 months post partum
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Maternal: blood metallomics profile
Time Frame: Baseline, 8-16 weeks post conception, 30-34 weeks post conception, 3 months post partum and 12 months post partum
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Measured through ICP-MS (https://www.metabolomicscentre.ca/new_service/25) - TMIC platform of metabolmics
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Baseline, 8-16 weeks post conception, 30-34 weeks post conception, 3 months post partum and 12 months post partum
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Infant: blood metallomics profile
Time Frame: Infant age 1 year
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as measured through ICP-MS (https://www.metabolomicscentre.ca/new_service/25) Through TMIC platform
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Infant age 1 year
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Infant: gut bacterial profile
Time Frame: 3 month and 12 month
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Measured through 16S rDNA sequence surveys
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3 month and 12 month
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Maternal metabolic pathway expression profile
Time Frame: Baseline 8-16 weeks post conception, 30-34 weeks post conception, 3 months post partum and 12 months post partum
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as measured through whole microbiome RNASeq (metatranscriptomics)
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Baseline 8-16 weeks post conception, 30-34 weeks post conception, 3 months post partum and 12 months post partum
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Infant eukaryotic microbiome profile
Time Frame: 3 & 12 Months
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as measured through 18S and ITS rDNA sequence surveys
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3 & 12 Months
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Maternal eukaryotic microbiome profile
Time Frame: Baseline 8-16 weeks post conception, 30-34 weeks post conception, 3 months post partum and 12 months post partum ]
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as measured through 18S and ITS rDNA sequence surveys
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Baseline 8-16 weeks post conception, 30-34 weeks post conception, 3 months post partum and 12 months post partum ]
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Maternal bacterial gene expression profile
Time Frame: Baseline 8-16 weeks post conception, 30-34 weeks post conception, 3 months post partum and 12 months post partum ]
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as measured through whole microbiome RNASeq (metatranscriptomics) - The output of these analyses are readouts of microbial gene expression detailing biochemical activities as well as the taxa responsible.
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Baseline 8-16 weeks post conception, 30-34 weeks post conception, 3 months post partum and 12 months post partum ]
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Maternal: microbiome taxonomic alpha and beta diversity
Time Frame: Baseline 8-16 weeks post conception, 30-34 weeks post conception, 3 months post partum and 12 months post partum ]
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To define taxonomic diversity, species profiles from 16S, 18S and ITS rDNA data will be clustered to identify differences in community structure across samples.
Alpha diversity will be measured through indices such as Chao, Shannon and Simpson indices.
Beta diversity will be measured through standard indices such as Bray-Curtis distances.
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Baseline 8-16 weeks post conception, 30-34 weeks post conception, 3 months post partum and 12 months post partum ]
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Infant: microbiome taxonomic alpha and beta diversity
Time Frame: 3 and 12 months postpartum
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To define taxonomic diversity, species profiles from 16S, 18S and ITS rDNA data will be clustered to identify differences in community structure across samples.
Alpha diversity will be measured through indices such as Chao, Shannon and Simpson indices.
Beta diversity will be measured through standard indices such as Bray-Curtis distances.
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3 and 12 months postpartum
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Collaborators and Investigators
Sponsor
Collaborators
Investigators
- Principal Investigator: Zulfiqar Bhutta, Aga Khan University
Study record dates
Study Major Dates
Study Start (Actual)
Primary Completion (Estimated)
Study Completion (Estimated)
Study Registration Dates
First Submitted
First Submitted That Met QC Criteria
First Posted (Actual)
Study Record Updates
Last Update Posted (Actual)
Last Update Submitted That Met QC Criteria
Last Verified
More Information
Terms related to this study
Additional Relevant MeSH Terms
- Pathologic Processes
- Disease Attributes
- Nutrition Disorders
- Body Weight
- Body Weight Changes
- Female Urogenital Diseases and Pregnancy Complications
- Urogenital Diseases
- Infections
- Communicable Diseases
- Malnutrition
- Weight Gain
- Pregnancy Complications
- Gestational Weight Gain
- Parasitic Diseases
- Infant Nutrition Disorders
Other Study ID Numbers
- 51950
Plan for Individual participant data (IPD)
Plan to Share Individual Participant Data (IPD)?
IPD Plan Description
In addition to publishing findings in open access journals, the investigators will ensure all sequences and metabolomics datasets are deposited in appropriate public repositories of those who consented for this deidentified data sharing. SOPs, pathogen samples and statistical methods developed through this project will be shared with the IMPACTT research core (https://www.impactt-microbiome.ca/). Microbiome sequence data will be uploaded on the National Centre for Biotechnology Information (NCBI).
The NCBI acts as a central data repository for sequence data. In line with publication standards, the investigators are required to provide access to users who may wish to follow up on analyzing the microbiome data for their own purposes.
The sample analysis information, including the sequencing data and metabolomics data will be de-identified and the patient sequence data will be removed.
IPD Sharing Time Frame
IPD Sharing Access Criteria
IPD Sharing Supporting Information Type
- STUDY_PROTOCOL
- SAP
- ICF
- ANALYTIC_CODE
- CSR
Drug and device information, study documents
Studies a U.S. FDA-regulated drug product
Studies a U.S. FDA-regulated device product
This information was retrieved directly from the website clinicaltrials.gov without any changes. If you have any requests to change, remove or update your study details, please contact register@clinicaltrials.gov. As soon as a change is implemented on clinicaltrials.gov, this will be updated automatically on our website as well.
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