Premature BirthPhyCordPremNCT06280872
Physiologically Based Cord Clamping To Improve Neonatal Outcomes In Moderate And Late Preterm Newborns
A study testing Physiological Based Cord Clamping and Differed Cord Clamping in people with Premature Birth and Respiratory Distress Syndrome in Premature Infant, run by Queen Fabiola Children's University Hospital at 2 sites in Belgium.
Trial summary
Before birth, the baby's lungs are filled with fluid and babies do not use the lungs to breathe, as the oxygen comes from the placenta. As delivery approaches, the lungs begin to absorb the fluid. Read more about this study
- Who is it for?
- Ages 32 to 36 weeks
- Conditions the study is for
- Premature Birth, Respiratory Distress Syndrome in Premature Infant, Sepsis
- What is being tested?
- Physiological Based Cord Clamping and Differed Cord Clamping
- Could I receive a placebo?
- No, everyone receives an active treatment
- How many people
- 180 participants
- Where
- 2 sitesBelgium
- Study dates
- 19 Feb 2024to Jul 2026
- Phase
- Interventional
- Are there results?
- None posted in the registry
Key requirements
Who can take part, as listed by the sponsor. Only the study team can confirm whether you are eligible, so take this list to your doctor.
- Ages 32 to 36 weeks
- All sexes
- No healthy volunteers
- Child
Who may be able to join
- Pregnant women followed-up in Brugmann University Hospital will be eligible to participate if:
- The delivery takes place between 32 0/7 and 36 6/7 weeks of gestation
- They carry singletons
Who cannot join
- Fetal anomalies including congenital malformations, anemia, and growth restriction with abnormal Dopplers.
- Abnormal placentation such as placenta previa.
- Signs of fetal distress necessitating an emergency cesarean section.
- Maternal health issue including severe anemia (defined as hemoglobin level < 7 g/dL), preeclampsia, and bleeding disorders.
- Maternal refusal of the use of blood products.
- General anesthesia for cesarian section.
- Planned cord blood banking.
- Total language barrier without possibility of translation
Trial locations and contacts
2 sites in 1 country.
Belgium2 sites, 2 recruiting
- Recruiting
CHU Brugmann
Brussels, 1020
Andrew CARLIN, +3224773295, andrew.carlin@chu-brugmann.be
Andrew CARLIN, MD
- Recruiting
Hôpital Universitaire Des Enfants Reine Fabiola
Brussels, 1020
Anna AMORUSO, MD, +3224773250, anna.amoruso@hubruxelles.be
Anna AMORUSO
About this study
Official title: Prospective Unblinded Randomized Controlled Study Assessing the Physiologically Based Cord Clamping on Ventilation Duration in Moderate and Late Preterm
Before birth, the baby's lungs are filled with fluid and babies do not use the lungs to breathe, as the oxygen comes from the placenta. As delivery approaches, the lungs begin to absorb the fluid. After vaginal delivery, the umbilical cord is clamped and cut after a delay that allows some of the blood in the umbilical cord and placenta to flow back into the baby. Meanwhile, as the baby breathes for the first time, the lungs fill with air and more fluid is pushed out. However, it does not always work out that way.
A baby born prematurely may have breathing problems because of extra fluid staying in the lungs related to the immaturity of the lung structure. Thus, the baby must breathe quicker and harder to get enough oxygen enter into the lungs. The newborn is separated from the mother to provide emergency respiratory support. Although the baby is usually getting better within one or two days, the treatment requires close monitoring, breathing help, and nutritional help as the baby is too tired to suck and swallow milk. Sometimes, the baby cannot recover well and show greater trouble breathing needing intensive care. This further separates the mother and her baby. A possible mean to help the baby to adapt better after a premature birth while staying close to the mother is to delay cord clamping when efficient breathing is established, either spontaneously or after receiving breathing help at birth. In this study, we intend to test this procedure in moderate or late preterm infants and see whether the technique helps the baby to better adapt after birth and to better initiate a deep bond with the mother.
Read the detailed description
The successful transition from fetal to neonatal life is a major physiological challenge that requires the coordination of lung developmental processes, which culminate with the formation of a diffusible alveolar-capillary barrier, adequate pulmonary vasoreactivity, mature surfactant system, and clearance of lung fluid. During fetal life, gas exchange does not take place in fetal lungs but in the placenta. High pulmonary vascular resistance diverts blood flow to the left atrium through the foramen ovale and to the aorta via the ductus arteriosus. The placental circulation receives 30-50 % of the fetal cardiac output and is the major source of venous return to the fetal heart. Therefore, the umbilical venous return determines the preload for the left ventricle. Shortly before birth and during labor, the lungs undergo important transitional changes. The reabsorption of lung fluid within the airways is initiated during labor by adrenaline-induced activation of sodium channels. Uterine contractions during labor and the onset of inspiration after umbilical cord clamping generate a high transpulmonary pressure gradient leading to additional clearance of fluid from the airways into the surrounding tissue . Following the first breath and lung aeration, oxygen-induced vasodilation leads to a sudden rise in pulmonary blood flow and left atrial pressures, which closes the foramen ovale. Meanwhile, systemic vascular resistance increases above the level of pulmonary vascular resistance after placental removal, which reverses blood flow across the ductus arteriosus and induces ductal closure in response to high oxygen tension.
Premature birth can impact the success of adaptation to extrauterine life. Moderately preterm and late preterm births represented 4.4% of singleton live births in the Brussels area in 2020. Although they may be close to term, the loss of the last 4 to 8 weeks of gestation is vital to their physiologic and metabolic maturity. Because of their physiologic and metabolic immaturity, they have higher morbidity and mortality rates compared with term infants (gestational age 37 weeks). Although they may look similar to full-term infants, especially for the late preterm, the gap in the last few weeks of gestation is critical for physiological and metabolic maturation. Moderate and late preterm infants are at higher risk than term infants for a number of neonatal complications. This includes respiratory distress requiring non invasive or invasive ventilation, transient tachypnea of the newborn, intraventricular hemorrhage, periventricular leukomalacia, bacterial sepsis, apnoea, hypoglycemia, temperature instability, jaundice and hyperbilirubinaemia, feeding difficulties, neonatal intensive care admission, and also death. By contrast with lung's full-term newborn, lung of the preterm newborn presents an inability to adapt to extra-uterine life. Lung development at this time of gestation is in the saccular stage. Because of this immature lung structure, it results in delayed intrapulmonary fluid absorption, surfactant deficiency and inefficient gas exchange leading to respiratory morbidities such as transient tachypnea of the newborn, respiratory distress syndrome, persistent pulmonary hypertension. In addition, synchronicity and breath control is also immature and leads to apnea. These newborns exhibit a higher risk of positive pressure ventilation resuscitation at birth, admission to the neonatal intensive care unit (NICU), and severe hypoxic respiratory failure requiring mechanical ventilation in the most severe cases. In addition to increased neonatal morbidity, moderate or late preterm birth can impact mother-infant relationship. After delivery, immediate skin-to-skin contact during the first minute after birth is the natural process recommended to support mother-infant bonding and promote early onset of breastfeeding. Despite efforts made to start skin-to-skin contact as early as possible after delivery, immediate contact is practically difficult to implement related to the need for respiratory support for most of these newborns with incomplete transition to extrauterine life. In our institution, the infant is usually separated from the mother after umbilical cord clamping to provide first care by a pediatrician before returning on the mother's chest or on the father/partner's chest depending on parental wishes and maternal well-being during the operation and only if the condition of the newborn allows it. The separation between the mother and her newborn can be further extended in the case of NICU admission for various and multiple reasons related to prematurity.
The timing of umbilical cord clamping can profoundly affect the process of neonatal cardiorespiratory transition. Immediate cord clamping reduces the venous return to the heart, which transiently decreases heartbeats, cardiac output and cerebral blood flow before respiration initiates and pulmonary blood flow increases. Delayed cord clamping for longer than 60 seconds improves the transfusion of blood from the placenta to the newborn. Moreover, it can increase neonatal hemoglobin levels, improve long-term iron stores, and improve neurodevelopmental outcomes. Nevertheless, in both clinical research setting and daily practice, delayed cord clamping lasts rarely more than one minute during cesarean section. More recently, another approach, referred to as physiologically based cord clamping (PBCC), has been proposed to delay cord clamping up to 5 minutes after the onset of ventilation. PBCC allows to start lung aeration while on placental support and, therefore, promotes hemodynamic transition by increasing pulmonary blood flow and maintaining left ventricle preload. This strategy has been demonstrated efficient in preterm lambs and is feasible in very preterm infants, via the use of a purpose-designed resuscitation table that allows delayed cord clamping, maintenance of body temperature, and concomitant respiratory support where necessary. First experience has reported good parental acceptance of the procedure. Because PBCC has not been reported in moderate and late preterm infants, the present project aims to assess whether PBCC in moderate and late preterm infants would not be inferior to standard umbilical cord clamping with regards to adaptation to extrauterine life, respiratory morbidity, quality of mother-infant bonding, and maternal safety.
- Conditions
- Premature Birth, Respiratory Distress Syndrome in Premature Infant, Sepsis, Intraventricular Hemorrhage of Prematurity, Bronchodysplasia, Jaundice
- Being tested
- Physiological Based Cord Clamping, Differed Cord Clamping
- Keywords
- Moderate and late preterm newborn, Neonatal respiratory morbidity, Physiological based-cord clamping, Mother-infant bonding
- Medical subject headings
- Premature Birth, Sepsis, Jaundice, Lymphoma, Follicular
What participants receive
What participants receive. In a randomised study each person is assigned to one group by chance.
Physiological Based Cord ClampingOther
see Arm Description
Differed Cord ClampingOther
see Arm Description
| Study group | Role | What they receive |
|---|---|---|
| Physiological Based Cord Clamping (PBCC) | Experimental | In the intervention group, newborns will receive PBCC. The resuscitation table will be placed as close as possible to the mother's pelvis. Stabilization will start as soon as the infant is placed on the platform. The nurse will place the oximeter sensor on the right wrist, electrocardiogram electrodes on the chest of the newborn. Local resuscitation guidelines will be in respect of the Newborn Life support European Resuscitation Council 2021 guidelines. Stabilization of the newborn will be performed while the cord is intact and the cord will be clamped after respiratory stabilization will be achieved, de fined as the establishment of regular spontaneous breathing, a heart rate above 100 bpm and oxygen saturation by pulse oximetry above 85% while using supplemental oxygen less than 0,4. If the infant does not reach the criteria for being stable, the maximum clamping time will be 10 min. After clamping, the platform will be withdrawn and placed next to the bed of the mother. Receives: Other: Physiological Based Cord Clamping |
| Differed Cord Clamping (DCC) | Active comparator | In the control group, newborns will receive standard DCC defined as time based and performed at 60 seconds after birth, depending on the clinical condition of the infant, in accordance with the ERC guidelines 2021.Then infants will be transferred to a standard resuscitation table located in a stabilization room next to the operating room. Further treatment and intervention required for cardiopulmonary stabilization will be provided on the standard resuscitation table. Stabilization will start as soon as the infant is placed on the resuscitation table. The nurse will place the oximeter sensor on the right wrist, ECG electrodes on the chest and temperature probe on the right hypochondrium of the newborn. Local resuscitation guidelines will be in respect of the Newborn Life support European Resuscitation Council 2021 guidelines. The time to reach the stabilisation described above (a HR above 100 bpm and SpO 2 above 85% while using supplemental oxygen less than 0,4) is recorded. Receives: Other: Differed Cord Clamping |
What is being measured
The primary outcome is the main question the study is designed to answer.
Duration of non-invasive or invasive respiratory support.
Measured: from Birth to 28 days of life
Secondary outcomes (25)
Rate of neonatal mortality
Measured: within 28 days of delivery
Rate of neonatal resuscitation
Neonatal resuscitation is defined as the use of a T-piece resuscitator for continuous airway positive pressure or intermittent positive pressure (with or without oxygen supplementation).
Measured: within first 10 minutes of life
Rate of neonatal respiratory morbidity
Neonatal respiratory morbidity includes respiratory distress syndrome, transient tachypnea of the newborn, air leak syndrome, and respiratory distress syndrome.
Measured: from Birth to 28 days of life
Number of admission to the NICU or special care baby unit
Measured: within first 72 hours of life
Length of hospitalization
Measured: Up to 8 weeks post delivery
Gestational age corrected at discharge
Measured: Up to 8 weeks post delivery
Changes in physiological variables during neonatal transition
physiological variables includes the timing of the first breath/cry, measurements of parameters during the first 10 minutes of life (i.e., preductal oxygen saturation by pulse oximetry, respiratory rate, heart rate, and temperature), umbilical cord venous hemoglobin and gases, as well as Apgar scores at 1, 5, and 10 minutes.
Measured: Within first 10 minutes of life
Early neonatal parameters
Early neonatal parameters includes body temperature (at 1, 2 and 3 hours of life) and body weight.
Measured: within first 24 hours of life
Hemoglobin level
in g/dl
Measured: At 48 hours of life
Bilirubin level
in mg/dl
Measured: At 48 hours of life
Occurrence of Neonatal adverse events
Adverse events include hypoglycemia (glycemia <47 mg/dl), sepsis (positive blood culture), intraventricular hemorrhage, and the need for phototherapy
Measured: Within first 72hours of life
Biological markers of oxidative stress
Measured: immediately after cord clamping
Maternal perioperative parameters
Maternal perioperative parameters include total surgical time, intraoperative intravenous fluid volume, intraoperative blood loss, uterotonic administration
Measured: up to 3 hours post delivery
Maternal postoperative hemoglobin level
in g/dl
Measured: At day 1 post delivery
Number of maternal adverse events
Maternal adverse events include death, blood transfusion, postpartum hemorrhage, hysterectomy, admission in the Intensive Care Unit, wound seroma, and wound cellulitis
Measured: within first 2 weeks after delivery
Maternal-infant bonding
Parameters of mother-infant bonding include breastfeeding (Yes/No)
Measured: At 2 weeks of life
Maternal-infant bonding
Parameters of mother-infant bonding include maternal depression measured by the Edinburgh Postnatal Depression Scale (EPDS) - score min = 0, score max = 30, higher score = worse outcome.
Measured: At 2 weeks of life
Maternal-infant bonding
Parameters of mother-infant bonding include maternal depression measured by the Maternal Infant Bonding Scale (MIBS) - score min = 0, score max = 24, higher score = worse outcome
Measured: At 2 weeks of life
Rate of Maternal-infant bonding
Parameters of mother-infant bonding include breastfeeding (Yes/No)
Measured: At one month of life
Rate of Maternal-infant bonding
Parameters of mother-infant bonding include maternal depression measured by the Edinburgh Postnatal Depression Scale (EPDS) - score min = 0, score max = 30, higher score = worse outcome.
Measured: At one month of life
Rate of Maternal-infant bonding
Parameters of mother-infant bonding include maternal depression measured the Maternal Infant Bonding Scale (MIBS) - score min = 0, score max = 24, higher score = worse outcome
Measured: At one month of life
Maternal-infant bonding
Brazelton Neonatal Behavioral Assessment Scale (NBAS) - score min = 1, score max = 6, higher score = better outcome
Measured: At 42 weeks of corrected age
Parental satisfaction survey
Measured: At 42 weeks of corrected age
Child development assessment
The child development assessment is done using the Bayley scale IV - score min = 1 , score max = 19, higher score = better outcome
Measured: At 6 months of corrected age
Success of PBCC
measured by the percentage of neonates in whom the procedure will be achieved without issue, identification of failed PBCC, and duration of stabilization with PBCC (defined as spontaneous breathing, heart rate (HR) >100 bpm, oxygen saturation by pulse oximetry (SpO2 ) ≥ 85% with inspired oxygen fraction < 0.4).
Measured: within first 10 minutes of life
Timeline
From the start of the study to its completion; the mark is today. Estimated dates are the sponsor’s plan.
- First posted28 Feb 2024
- Study start19 Feb 2024
- Primary completionJan 2026 (estimated)
- Study completionJul 2026 (estimated)
Resources
- Official record on ClinicalTrials.govThe registry entry this page is built from, with its full change history.
- Other trials for Premature BirthStudies of the same condition, open and under way.
- What the trial phases meanHow a treatment moves from first tests in people to approval.
More details
For doctors and researchers: how the study is designed, who runs it, and its registry IDs.
Study design
- Study type
- Interventional
- Phase
- Phase N/A
- Primary purpose
- Treatment
- Allocation
- Randomised
- Intervention model
- Parallel groups
- Masking
- None (open label)
- Enrolment
- 180 participants (estimated)
Sponsor and investigators
- Lead sponsor
- Queen Fabiola Children's University Hospital
- Sponsor type
- University, hospital or other
- Collaborators
- The Belgian Kids Fund, Fonds IRIS-Recherche, Ars Statistica
- Responsible party
- Sponsor
- Investigators
- Anna AMORUSO, Principal investigator, HUDERF
IDs, dates and publications
- ClinicalTrials.gov ID
- NCT06280872
- Sponsor's protocol ID
- P2023/Neonat/PhyCordPrem
- Acronym
- PhyCordPrem
- Status last verified
- Mar 2024
- First submitted
- 11 Jan 2024
- Last updated
- 5 Mar 2024
- Results posted
- No
- Data monitoring committee
- No
- FDA-regulated drug
- No
- FDA-regulated device
- No
Study at a glance
From the registry record, last updated by the sponsor on 5 Mar 2024. Recruitment status is as the sponsor reported it: confirm with the study team.
- Official title
- Prospective Unblinded Randomized Controlled Study Assessing the Physiologically Based Cord Clamping on Ventilation Duration in Moderate and Late Preterm
- ClinicalTrials.gov ID
- NCT06280872
- Acronym / sponsor ID
- PhyCordPrem / P2023/Neonat/PhyCordPrem
- Conditions
- Premature Birth, Respiratory Distress Syndrome in Premature Infant, Sepsis, Intraventricular Hemorrhage of Prematurity, Bronchodysplasia, Jaundice
- Keywords
- Moderate and late preterm newborn, Neonatal respiratory morbidity, Physiological based-cord clamping, Mother-infant bonding
- Study type
- Interventional
- Recruitment status
- Unknown status
- Enrolment
- 180 participants (estimated)
- Lead sponsor
- Queen Fabiola Children's University HospitalUniversity, hospital or other
- Collaborators
- The Belgian Kids Fund, Fonds IRIS-Recherche, Ars Statistica
- Study start
- 19 Feb 2024 (actual)
- Primary completion
- Jan 2026 (estimated)
- Study completion
- Jul 2026 (estimated)
- First posted
- 28 Feb 2024 (actual)
- Results
- Not posted in the source record
Clinical summary
The research question as the sponsor registered it. This describes what the study plans to test, not what it found.
Before birth, the baby's lungs are filled with fluid and babies do not use the lungs to breathe, as the oxygen comes from the placenta. As delivery approaches, the lungs begin to absorb the fluid. After vaginal delivery, the umbilical cord is clamped and cut after a delay that allows some of the blood in the umbilical cord and placenta to flow back into the baby. Meanwhile, as the baby breathes for the first time, the lungs fill with air and more fluid is pushed out. However, it does not always work out that way.
A baby born prematurely may have breathing problems because of extra fluid staying in the lungs related to the immaturity of the lung structure. Thus, the baby must breathe quicker and harder to get enough oxygen enter into the lungs. The newborn is separated from the mother to provide emergency respiratory support. Although the baby is usually getting better within one or two days, the treatment requires close monitoring, breathing help, and nutritional help as the baby is too tired to suck and swallow milk. Sometimes, the baby cannot recover well and show greater trouble breathing needing intensive care. This further separates the mother and her baby. A possible mean to help the baby to adapt better after a premature birth while staying close to the mother is to delay cord clamping when efficient breathing is established, either spontaneously or after receiving breathing help at birth. In this study, we intend to test this procedure in moderate or late preterm infants and see whether the technique helps the baby to better adapt after birth and to better initiate a deep bond with the mother.
Detailed description
The successful transition from fetal to neonatal life is a major physiological challenge that requires the coordination of lung developmental processes, which culminate with the formation of a diffusible alveolar-capillary barrier, adequate pulmonary vasoreactivity, mature surfactant system, and clearance of lung fluid. During fetal life, gas exchange does not take place in fetal lungs but in the placenta. High pulmonary vascular resistance diverts blood flow to the left atrium through the foramen ovale and to the aorta via the ductus arteriosus. The placental circulation receives 30-50 % of the fetal cardiac output and is the major source of venous return to the fetal heart. Therefore, the umbilical venous return determines the preload for the left ventricle. Shortly before birth and during labor, the lungs undergo important transitional changes. The reabsorption of lung fluid within the airways is initiated during labor by adrenaline-induced activation of sodium channels. Uterine contractions during labor and the onset of inspiration after umbilical cord clamping generate a high transpulmonary pressure gradient leading to additional clearance of fluid from the airways into the surrounding tissue . Following the first breath and lung aeration, oxygen-induced vasodilation leads to a sudden rise in pulmonary blood flow and left atrial pressures, which closes the foramen ovale. Meanwhile, systemic vascular resistance increases above the level of pulmonary vascular resistance after placental removal, which reverses blood flow across the ductus arteriosus and induces ductal closure in response to high oxygen tension.
Premature birth can impact the success of adaptation to extrauterine life. Moderately preterm and late preterm births represented 4.4% of singleton live births in the Brussels area in 2020. Although they may be close to term, the loss of the last 4 to 8 weeks of gestation is vital to their physiologic and metabolic maturity. Because of their physiologic and metabolic immaturity, they have higher morbidity and mortality rates compared with term infants (gestational age 37 weeks). Although they may look similar to full-term infants, especially for the late preterm, the gap in the last few weeks of gestation is critical for physiological and metabolic maturation. Moderate and late preterm infants are at higher risk than term infants for a number of neonatal complications. This includes respiratory distress requiring non invasive or invasive ventilation, transient tachypnea of the newborn, intraventricular hemorrhage, periventricular leukomalacia, bacterial sepsis, apnoea, hypoglycemia, temperature instability, jaundice and hyperbilirubinaemia, feeding difficulties, neonatal intensive care admission, and also death. By contrast with lung's full-term newborn, lung of the preterm newborn presents an inability to adapt to extra-uterine life. Lung development at this time of gestation is in the saccular stage. Because of this immature lung structure, it results in delayed intrapulmonary fluid absorption, surfactant deficiency and inefficient gas exchange leading to respiratory morbidities such as transient tachypnea of the newborn, respiratory distress syndrome, persistent pulmonary hypertension. In addition, synchronicity and breath control is also immature and leads to apnea. These newborns exhibit a higher risk of positive pressure ventilation resuscitation at birth, admission to the neonatal intensive care unit (NICU), and severe hypoxic respiratory failure requiring mechanical ventilation in the most severe cases. In addition to increased neonatal morbidity, moderate or late preterm birth can impact mother-infant relationship. After delivery, immediate skin-to-skin contact during the first minute after birth is the natural process recommended to support mother-infant bonding and promote early onset of breastfeeding. Despite efforts made to start skin-to-skin contact as early as possible after delivery, immediate contact is practically difficult to implement related to the need for respiratory support for most of these newborns with incomplete transition to extrauterine life. In our institution, the infant is usually separated from the mother after umbilical cord clamping to provide first care by a pediatrician before returning on the mother's chest or on the father/partner's chest depending on parental wishes and maternal well-being during the operation and only if the condition of the newborn allows it. The separation between the mother and her newborn can be further extended in the case of NICU admission for various and multiple reasons related to prematurity.
The timing of umbilical cord clamping can profoundly affect the process of neonatal cardiorespiratory transition. Immediate cord clamping reduces the venous return to the heart, which transiently decreases heartbeats, cardiac output and cerebral blood flow before respiration initiates and pulmonary blood flow increases. Delayed cord clamping for longer than 60 seconds improves the transfusion of blood from the placenta to the newborn. Moreover, it can increase neonatal hemoglobin levels, improve long-term iron stores, and improve neurodevelopmental outcomes. Nevertheless, in both clinical research setting and daily practice, delayed cord clamping lasts rarely more than one minute during cesarean section. More recently, another approach, referred to as physiologically based cord clamping (PBCC), has been proposed to delay cord clamping up to 5 minutes after the onset of ventilation. PBCC allows to start lung aeration while on placental support and, therefore, promotes hemodynamic transition by increasing pulmonary blood flow and maintaining left ventricle preload. This strategy has been demonstrated efficient in preterm lambs and is feasible in very preterm infants, via the use of a purpose-designed resuscitation table that allows delayed cord clamping, maintenance of body temperature, and concomitant respiratory support where necessary. First experience has reported good parental acceptance of the procedure. Because PBCC has not been reported in moderate and late preterm infants, the present project aims to assess whether PBCC in moderate and late preterm infants would not be inferior to standard umbilical cord clamping with regards to adaptation to extrauterine life, respiratory morbidity, quality of mother-infant bonding, and maternal safety.
Study design
- Primary purpose
- Treatment
- Allocation
- Randomised
- Intervention model
- Parallel groups
- Masking
- None (open label)
- Number of arms
- 2
| Arm | Type | Receives |
|---|---|---|
| Physiological Based Cord Clamping (PBCC) | Experimental | Other: Physiological Based Cord ClampingIn the intervention group, newborns will receive PBCC. The resuscitation table will be placed as close as possible to the mother's pelvis. Stabilization will start as soon as the infant is placed on the platform. The nurse will place the oximeter sensor on the right wrist, electrocardiogram electrodes on the chest of the newborn. Local resuscitation guidelines will be in respect of the Newborn Life support European Resuscitation Council 2021 guidelines. Stabilization of the newborn will be performed while the cord is intact and the cord will be clamped after respiratory stabilization will be achieved, de fined as the establishment of regular spontaneous breathing, a heart rate above 100 bpm and oxygen saturation by pulse oximetry above 85% while using supplemental oxygen less than 0,4. If the infant does not reach the criteria for being stable, the maximum clamping time will be 10 min. After clamping, the platform will be withdrawn and placed next to the bed of the mother. |
| Differed Cord Clamping (DCC) | Active comparator | Other: Differed Cord ClampingIn the control group, newborns will receive standard DCC defined as time based and performed at 60 seconds after birth, depending on the clinical condition of the infant, in accordance with the ERC guidelines 2021.Then infants will be transferred to a standard resuscitation table located in a stabilization room next to the operating room. Further treatment and intervention required for cardiopulmonary stabilization will be provided on the standard resuscitation table. Stabilization will start as soon as the infant is placed on the resuscitation table. The nurse will place the oximeter sensor on the right wrist, ECG electrodes on the chest and temperature probe on the right hypochondrium of the newborn. Local resuscitation guidelines will be in respect of the Newborn Life support European Resuscitation Council 2021 guidelines. The time to reach the stabilisation described above (a HR above 100 bpm and SpO 2 above 85% while using supplemental oxygen less than 0,4) is recorded. |
Who may qualify
- Ages
- 32 to 36 weeks
- Sex
- All
- Healthy volunteers
- Not accepted
- Age groups
- Child
Key inclusion criteria (3 listed)
- Pregnant women followed-up in Brugmann University Hospital will be eligible to participate if:
- The delivery takes place between 32 0/7 and 36 6/7 weeks of gestation
- They carry singletons
Key exclusion criteria (8 listed)
- Fetal anomalies including congenital malformations, anemia, and growth restriction with abnormal Dopplers.
- Abnormal placentation such as placenta previa.
- Signs of fetal distress necessitating an emergency cesarean section.
- Maternal health issue including severe anemia (defined as hemoglobin level < 7 g/dL), preeclampsia, and bleeding disorders.
- Maternal refusal of the use of blood products.
Eligibility is decided by the study team after screening; this overview does not establish that a patient qualifies. Full inclusion and exclusion criteria.
Interventions
| Intervention | Type | Arms |
|---|---|---|
| Physiological Based Cord Clampingsee Arm Description | Other | Physiological Based Cord Clamping (PBCC) |
| Differed Cord Clampingsee Arm Description | Other | Differed Cord Clamping (DCC) |
Primary outcome
Duration of non-invasive or invasive respiratory support.
Time frame: from Birth to 28 days of life
25 secondary outcomes
Rate of neonatal mortality
Time frame: within 28 days of delivery
Rate of neonatal resuscitation
Time frame: within first 10 minutes of life
Rate of neonatal respiratory morbidity
Time frame: from Birth to 28 days of life
Number of admission to the NICU or special care baby unit
Time frame: within first 72 hours of life
Length of hospitalization
Time frame: Up to 8 weeks post delivery
Gestational age corrected at discharge
Time frame: Up to 8 weeks post delivery
Changes in physiological variables during neonatal transition
Time frame: Within first 10 minutes of life
Early neonatal parameters
Time frame: within first 24 hours of life
Hemoglobin level
Time frame: At 48 hours of life
Bilirubin level
Time frame: At 48 hours of life
Occurrence of Neonatal adverse events
Time frame: Within first 72hours of life
Biological markers of oxidative stress
Time frame: immediately after cord clamping
Maternal perioperative parameters
Time frame: up to 3 hours post delivery
Maternal postoperative hemoglobin level
Time frame: At day 1 post delivery
Number of maternal adverse events
Time frame: within first 2 weeks after delivery
Maternal-infant bonding
Time frame: At 2 weeks of life
Maternal-infant bonding
Time frame: At 2 weeks of life
Maternal-infant bonding
Time frame: At 2 weeks of life
Rate of Maternal-infant bonding
Time frame: At one month of life
Rate of Maternal-infant bonding
Time frame: At one month of life
Rate of Maternal-infant bonding
Time frame: At one month of life
Maternal-infant bonding
Time frame: At 42 weeks of corrected age
Parental satisfaction survey
Time frame: At 42 weeks of corrected age
Child development assessment
Time frame: At 6 months of corrected age
Success of PBCC
Time frame: within first 10 minutes of life
Results and safety
Results are not available in the source record.
Research links
- Official record on ClinicalTrials.govLast updated by the sponsor 5 Mar 2024.
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Referral and contact
AzTrials does not enrol participants or take referrals. Contact the study team or a site listed below; they decide who can take part. This study is not recruiting at the moment.
Anna AMORUSO principal investigator
HUDERF
2 sites in 1 country: see every site and its status.
Questions about this trial
What is this clinical trial studying?
A study testing Physiological Based Cord Clamping and Differed Cord Clamping in people with Premature Birth and Respiratory Distress Syndrome in Premature Infant, run by Queen Fabiola Children's University Hospital at 2 sites in Belgium.
The full registered description is in the About this study section and the official record.
Who may be eligible to take part?
The sponsor lists 3 inclusion and 8 exclusion criteria. Eligibility is decided by the study team after screening, so read the full criteria and contact a listed site.
Is this clinical trial currently recruiting?
The record says: status not confirmed, as of the sponsor's last update on 5 Mar 2024. Status can change between updates, so confirm with the study contact before making plans.
Where is the study taking place?
The record lists 2 sites in Belgium. Whether a site is taking part right now should be confirmed with that site. See every site.
What are the possible benefits and risks?
They depend on the study and the treatment, and no study can promise a benefit. The study team explains the known risks during informed consent, before anyone joins; the record itself does not list them.
Are results available for this study?
Results are not available in the source record.
How can a doctor refer a patient or contact the research team?
Contact Anna AMORUSO (+3224773250, anna.amoruso@hubruxelles.be), or a site near the patient. AzTrials does not enrol participants or take referrals.
What does the primary outcome measure?
Duration of non-invasive or invasive respiratory support. (time frame: from Birth to 28 days of life). It is what the study was designed to measure, not a finding.
Where can I read the original study information?
Does a listing mean the treatment is approved or proven to work?
No. A listing means the study is registered. It does not show that the treatment is safe, works, or is approved by a regulator.
How often is this information updated?
AzTrials copies changed records from ClinicalTrials.gov every night and reloads the whole registry every week. The sponsor last updated this record on 5 Mar 2024.