View clinical trials related to Asphyxia.
Filter by:Positive pressure ventilation (PPV) is the most important intervention in neonatal resuscitation. During PPV, it is important to hold the face-mask with care, as applying excessive pressure could cause injury to the infant, while insufficient pressure could be a contributor of mask leak and reduced effective ventilation. Application of positive pressure to face structures may trigger a vagally mediated reflex via the trigeminal nerve that innervates the skin of the face leading to apnoea and a decrease in heart rate (TCR, trigeminal-cardiac reflex). The force exerted by providers during neonatal ventilation to improve mask seal might result in pressure lesions and the elicitation of the trigeminal-cardiac reflex. The height of the resuscitation could influence the forces applied to the face and the quality of the procedure. Information about the applied forces in relation to the height of the resuscitation table is unknown.
The transition period to full oral feeding in infants with perinatal asphyxia is important in predicting long-term outcomes. The transition to independent oral feeding is accepted as a discharge criterion by the American Academy of Pediatrics, and the long transition from tube feeding to oral feeding prolongs the discharge process. Prolonged transition to oral feeding increases maternal stress as it delays gastrointestinal problems, mother-infant interaction and attachment, as well as increasing health expenditures. Due to long-term feeding tube use; Infection, leakage, delay in wound healing, trauma caused by repeated placement, as well as oral reluctance are observed. In asphyxia infants, in whom oral-motor dysfunction is common, the transition to oral feeding takes a long time and tube feeding support is required. The effect of hypothermia, which is a general therapeutic intervention that reduces the risk of mortality and morbidity in infants with asphyxia, on oral feeding has been previously studied and shown to have a positive effect. They also found that MR imaging in infants with asphyxia and the need for gastrostomy and tube feeding in those with brainstem involvement were associated. Various interventions that affect the transition to oral nutrition positively and shorten the discharge time are included in the literature. Stimulation of non-nutritive sucking (NNS) is the most frequently preferred method among these interventions. It has been shown in studies that there are no short-term negative effects of NNS stimulation with the help of a pacifier or gloved finger, and some clinical benefits such as better bottle feeding performance, acceleration of discharge and transition to oral feeding. The effect of the NNS stimulation method, which has been shown to be effective in preterm infants with large-scale randomized controlled studies, is not known exactly. The aim of this study is to examine the effect of NNS stimulation applied to oral feeding, feeding skills, weight gain and discharge in asphyxia infants receiving hypothermia treatment.
Studying the effect of passive versus Blanket roll III modality of therapeutic hypothermia (TH)on myocardial function of asphyxiated neonates through using tissue Doppler (TD).
In the Neonatal Intensive Care Unit (NICU), infants encounter many sensory stimuli (excessive noise, bright lights, painful medical applications, etc.) that are not present in the uterus. During the critical period of brain development, this sensory overload affects the physiological responses of infants; It can lead to sensory processing problems by causing negative changes in motor, neurological and sensory development. Sensory processing was explained by Dunn as the emergence of appropriate reactions and behaviors in neurological processes in which visual, auditory, tactile, oral, olfactory, vestibular, proprioceptive and kinesthetic inputs are regulated.
High risk infant is defined as infant with a negative history of environmental and biological factors, which can lead to neuromotor development problems. It is a heterogeneous group of premature infants born under thirty-seven weeks of age, with infants with low birth weight, term or developmental retardation for various reasons. Therefore, preterm infants with low birth weight can survive with a neurological sequelae such as cerebral palsy (CP), epilepsy, hearing and vision loss, mental retardation, speech and speech problems, and learning difficulties. The clinical diagnosis of CP, which can be observed in high-risk infants, is based on the combination of some neuroimaging and neurological examinations and assesments like neonatal imaging, general movements (GMs) and Hammersmith Infant Neurological Examination (HINE).
High risk infant is defined as infant with a negative history of environmental and biological factors, which can lead to neuromotor development problems. It is a heterogeneous group of premature infants born under thirty-seven weeks of age, with infants with low birth weight, term or developmental retardation for various reasons. Therefore, preterm infants with low birth weight can survive with a neurological sequelae such as cerebral palsy (CP), epilepsy, hearing and vision loss, mental retardation, speech and speech problems, and learning difficulties. The clinical diagnosis of CP and learning diffuculties which can be observed in high-risk infants, is based on the combination of some neurological and clinical signs.
Augmented Infant Resuscitator (AIR) is an inexpensive add-on, compatible with nearly every existing bag-valve mask and many types of ventilation equipment. AIR monitors ventilation quality and provides real-time objective feedback and actionable cues to clinicians to both shorten training times and improve resuscitation quality, adoption, retention, and confidence.
The high risk of infants are defined as having a negative environmental and biological factor history, where these factors can lead to neuromotor development problems. It is a heterogeneous group of premature babies born under the age of thirty-seven weeks, with a low birth weight term or infants with developmental retardation due to various reasons. Risk factors in preterm infants include perinatal asphyxia, hypoxic ischemic encephalopathy (HIE), periventricular leukomalacia (PVL), intraventricular hemorrhage (IVH), respiratory distress syndrome (RDS), broncho pulmonary dysplasia (BPD), hyperbilirubinemia, infection. alcohol syndrome, muscle tone disorders, low birth weight, hydrocephalus and microcephaly. These babies, especially preterm infants with low birth weight, may encounter a neurological sequence such as Cerebral Palsy (CP), epilepsy, hearing and vision loss, mental retardation, language-speech, behavioral problems and learning difficulties. CP is the most common disease of childhood, with the possibility of occurrence in 2-3 / 1000 live births.Today, the effectiveness of various methods has been proven to make early diagnosis of CP. One of these methods is the Hammersmith Infant Neurological Evaluation (HINE).
High risk infant is defined as infant with a negative history of environmental and biological factors, which can lead to neuromotor development problems. It is a heterogeneous group of premature infants born under thirty-seven weeks of age, with infants with low birth weight, term or developmental retardation for various reasons. Therefore, preterm infants with low birth weight can survive with a neurological sequelae such as cerebral palsy (CP), epilepsy, hearing and vision loss, mental retardation, speech and speech problems, and learning difficulties. The clinical diagnosis of CP, which can be observed in high-risk infants, is based on the combination of some neurological and clinical signs. High-risk of infant follow-up programs provide guidance for the treatment of neurodevelopmental delays and deterioration in terms of early development. Three methods with the best predictable validity that can determine CP before the adjusted age of 5-month is Magnetic Resonance Imaging (MRI), Prechtl's Assessment of General Movements (GMs), Hammersmith Infant Neurological Evaluation. In recent years, the diagnosis of high-risk of CP can be detected at 3 months with predictive validity and reliability by evaluating the quality of GMs. GMs are now considered the gold standard for early detection of CP because of its high sensitivity and specificity than MRI, cranial US and neurological evaluations. It was also found that cognitive or language skills may be inadequate in school age in patients with inadequate movement character and in the same postural patterns according to age, although GMs are normal. So new clinical care guidelines and new intervention research for infants with CP under the age of 2, needed to have been shown. High-risk infants who are thought to have developmental disorders need early intervention, but it is not yet known which interventions are more effective. In the literature, although interventions are generally shown to have a greater impact on cognitive development, their contribution to motor development cannot be fully demonstrated. The effectiveness of physiotherapy programs in the diagnosis and treatment of CP has not been clarified in the past years as a silent period. Therefore, studies involving early physiotherapy programs are needed in infants at high risk for CP.
The objective of this study is to document the outcome at 2-3 years of age of participants of the TOBY Xe trial, to provide preliminary information about the later clinical effects of treatment with Xenon gas combined with moderate hypothermia following perinatal asphyxia. The TOBY Xe trial was a randomised controlled trial of inhaled xenon gas combined with hypothermia for the treatment of perinatal asphyxia. The trial primary outcome was changes on magnetic resonance parameters examined prior to discharge from hospital. Continuing clinical follow-up of trial participants is important following any therapeutic trial and is essential in early phase trials where information on the clinical effects of the intervention are lacking. Therefore, we have set up this study to determine the major clinical and neurological outcomes of participants of the TOBY Xe trial and to determine whether the magnetic resonance parameters in that trial are qualified to predict outcome following neural rescue therapy. This information is necessary for planning further studies of this intervention.