HIE has been one of the problems facing newborns due to birth asphyxia caused by variety of conditions during child birth or after childbirth, i hope the readers will learn something from the slides
This document discusses congenital heart disease, including its classification, epidemiology, etiology, and clinical features. Congenital heart defects are classified as cyanotic or acyanotic. Cyanotic defects include tetralogy of Fallot and transposition of the great arteries, which allow deoxygenated blood to mix with oxygenated blood. Acyanotic defects allow oxygenated blood to shunt left-to-right, such as ventricular septal defects, atrial septal defects, and patent ductus arteriosus. Obstructive lesions include aortic and pulmonary stenosis. Congenital heart disease has an incidence of 8 per 1000 live births. Clinical features may include cyanosis, heart murmurs, heart failure symptoms
This document provides an outline and overview of asphyxia management. It begins with definitions of related terms like anoxia, hypoxia, and discusses perinatal asphyxia. It then covers clinical features like signs seen in mild, moderate and severe hypoxic-ischemic encephalopathy. Investigations discussed include MRI, CT, ultrasound and EEG. Management involves supportive care, anticonvulsants, fluid management, glucose control and therapeutic hypothermia to reduce secondary brain injury.
This document discusses apnea in infants and sudden infant death syndrome (SIDS). It defines apnea, describes the different types (obstructive, central, mixed), and potential causes. It outlines the clinical presentation of apnea and treatment options, including caffeine/theophylline. Though apnea is more common in preterm infants, it does not increase the risk of SIDS. The prognosis is generally good unless apnea is severe and refractory to treatment. SIDS is defined as the sudden unexpected death of an infant under 1 year that remains unexplained after autopsy. Risk factors include prematurity, sleeping in the prone position, and exposure to cigarette smoke. The exact pathophysiology of SIDS remains unknown.
This document discusses hypoxic ischemic encephalopathy (HIE), including its pathophysiology, management, and prognostic factors. HIE is caused by inadequate oxygen and blood flow to the brain, commonly due to perinatal asphyxia. Standard management includes therapeutic hypothermia to reduce brain injury. Predictors of outcome include clinical exam findings, amplitude integrated EEG patterns within 72 hours, and MRI findings such as basal ganglia injury. New treatments under investigation include xenon gas, erythropiotine, and melatonin for their neuroprotective properties, as well as stem cell transplantation. Prognosis depends on injury severity and gestational age, with term infants generally having a better outlook than preterm infants.
This document discusses asphyxia of the newborn. It defines asphyxia and lists its incidence and risk factors. It describes methods to detect infants at risk and the potential consequences of asphyxia, which can include death, organ dysfunction, or long-term neurological effects. The prediction of outcome is difficult, though grading of encephalopathy and EEG abnormalities provide guidance. Interventions discussed include appropriate resuscitation and monitoring, as well as treatments for complications. Hypothermia treatment is proven to help decrease the severity of hypoxic ischemic encephalopathy.
This document provides an overview of hypoxic ischemic encephalopathy (HIE) with a focus on recent advances. It defines key terms related to oxygen deprivation and discusses the pathophysiology of HIE including cerebral blood flow disruption, excitotoxicity, oxidative stress, inflammation, and apoptosis. The document outlines risk factors, etiologies, and neurological patterns of injury for HIE. It also covers the diagnosis of HIE including clinical assessment, laboratory tests, neurologic signs, and staging systems.
This document discusses asphyxia of the newborn, including definitions, causes, signs and symptoms, complications, and treatment. Asphyxia is defined as ineffective respiration in a newborn due to oxygen deprivation during labor or delivery. Causes include issues with the placenta, umbilical cord, maternal health conditions, and difficult delivery. Signs range from mild transient symptoms to more severe outcomes like coma or multi-organ failure. Treatment focuses on resuscitation of the airway, breathing, and circulation (ABC approach). Asphyxia can lead to complications such as hypoxic-ischemic encephalopathy and birth trauma.
Birth asphyxia is a combination of lack of oxygen and perfusion during birth that results in an Apgar score of 0-3 at one minute or 4-7 with associated etiology. Each year, 4 million births experience asphyxia, with 1 million infant deaths and 1 million developing serious long-term neurological issues. Causes include interrupted umbilical blood flow, premature placental separation, maternal hypotension or hypoxia, and failure to properly resuscitate. Risk factors include maternal diabetes, hypertension, bleeding, and prolonged rupture of membranes as well as fetal prematurity, anomalies, and distress during labor and delivery. Asphyxia progresses through primary apnea, gasping, and secondary apnea phases, and
This document discusses birth asphyxia (perinatal asphyxia or neonatal asphyxia). It defines the terms related to asphyxia like anoxia, hypoxia and ischemia. It notes that birth asphyxia occurs when an infant fails to initiate spontaneous respirations at birth or has severe metabolic or mixed acidemia in the first five minutes of life. The document discusses the physiology of asphyxia including primary and secondary apnea phases. It also outlines some causes and risk factors for neonatal mortality related to birth asphyxia.
This document provides information on approaching developmental delay. It defines global developmental delay as delays in two or more domains of development in children under 5 years old. The causes of developmental delay are categorized as prenatal (genetic and acquired factors), perinatal, and postnatal-environmental. The approach involves taking a detailed history, physical and neurological exam looking for dysmorphic features, developmental testing, and targeted testing depending on exam findings which may provide clues to the underlying condition. Investigations help identify genetic, structural, metabolic, and endocrine etiologies.
This document summarizes hypoxic ischemic encephalopathy (HIE), focusing on recent advances. It defines key terms like hypoxia, ischemia, asphyxia, and provides details on the etiology, pathophysiology, and factors that increase the risk of perinatal asphyxia. The pathophysiology section covers cerebral blood flow and energy metabolism, excitotoxicity, oxidative stress, inflammation, and apoptosis as they relate to hypoxic ischemic injury in the neonatal brain.
Ahmed was born by c-section and transferred to the PICU. He had a large head circumference of 40 cm and bulging fontanels. His parents were upset they could not breastfeed him. He was diagnosed with hydrocephalus, an excessive buildup of cerebrospinal fluid in the brain ventricles that causes increased pressure on brain tissues. Hydrocephalus can be treated through surgical insertion of a shunt or endoscopic third ventriculostomy to drain fluid from the brain.
Perinatal asphyxia, also known as asphyxia neonatorum, is defined as impaired respiratory gas exchange accompanied by metabolic acidosis in newborns. It occurs due to interruption of umbilical cord blood flow or failure of placental gas exchange. Clinical features include apnea, bradycardia, cyanosis, and hypotonia. Multiple organs can be affected, especially the brain, kidneys, heart, and lungs. Brain damage ranges from mild to severe based on duration and severity of asphyxia. Management involves supportive care, treatment of complications, and in severe cases hypothermia therapy or anticonvulsants for seizures may be used. Outcomes depend on the stage of hypo
Hydrocephalus
introduction
Hydrocephalus, also known years ago as ¡°water on the brain¡±, is a condition where the circulation system of the body¡¯s?cerebrospinal fluid?(CSF) is not functioning properly. The CSF accumulates in the brain and causes intracranial pressure. A shunt is usually placed to equalize the flow of CSF, which requires?surgery. The diagnosis and surgery can be very frightening for the parents as well as the child
definition
Hydrocephalus?is a condition characterized by an excess of?cerebrospinal fluid?(CSF) within the ventricular and subarachnoid spaces of the cranial cavity
INCIDENCE
It is found in 1-3 of every 1000 born children in world wide
Classification
Non communicating.?In the non communicating type of congenital hydrocephalus, an obstruction occurs in the free circulation of CSF.
Communicating.?In the communicating type of hydrocephalus, no obstruction of the free flow of the CSF exists between the ventricles and the spinal theca; rather, the condition is caused by defective absorption of CSF, thus causing increased pressure on the brain or spinal cord.
CAUSES
Obstruction.?The most common problem is a partial obstruction of the normal flow of CSF, either from one ventricle to another or from the ventricles to other spaces around the brain.
Poor absorption.?Less common is a problem with the mechanisms that enable the?blood?vessels to absorb CSF; this is often related to inflammation of brain tissues from disease or injury.
Overproduction.?Rarely, the mechanisms for producing CSF create more than normal and more quickly than it can be absorbed.
PATHOPHYSIOLOGY
CLINICAL MANIFESTATION
Poor feeding.?The infant with hydrocephalus has trouble in feeding due to the difficulty of his condition.
Large head.?An excessively large head at birth is suggestive of hydrocephalus.
Bulging of the anterior fontanelles.?The anterior fontanelle becomes tense and bulging, the?skull?enlarges in all diameters, and the scalp becomes shiny and its veins dilate.
Setting sun sign.?If pressure continues to increase without intervention, the eyes appear to be pushed downward slightly with the?sclera?visible above the iris- the so-called setting sun sign.
High-pitched cry.?The intracranial pressure may increase and the infant¡¯s cry could become high-pitched.
Irritability.?Irritability is also caused by an increase in the intracranial pressure.
Projectile?vomiting.?An increase in the intracranial pressure can cause projectile?vomiting
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conclusions
Hypoxic Ischemic Encephalopathy (HIE) occurs when a term infant experiences intrapartum asphyxia and lack of oxygen. It can lead to death or disabilities like cerebral palsy. Diagnosis involves assessing the infant at birth using the APGAR score and neurological staging. Imaging tools like MRI are useful for showing patterns of brain injury. HIE management aims to prevent further brain damage through measures like temperature control and treating seizures, while newer treatments target excitotoxicity and oxidative stress.
Approach to thalassemia with abdominal distension in childrenVarsha Shah
?
1. Siti, a 7-year-old girl from Indonesia, has been diagnosed with beta-thalassemia major requiring regular blood transfusions over the past 4 years.
2. During a recent clinic visit, her hemoglobin level was 10 g/dL but her serum iron level was elevated at 150 microg/L, indicating potential iron toxicity from chronic transfusions.
3. Common complications of beta-thalassemia major and lifelong transfusions include organ damage from iron overload, as well as infectious risks from transfused blood. Treatment focuses on maintaining hemoglobin levels while preventing iron toxicity.
Birth asphyxia, with Tanzania perspectiveJoseph Kimaro
?
Birth asphyxia occurs when the fetus is deprived of oxygen during or shortly after birth. It can cause complications including hypoxic ischemic encephalopathy, cerebral palsy, seizures, and death. Risk factors include prematurity, maternal infection, hypertension, and complications during labor or delivery that interrupt oxygen delivery to the fetus. Treatment involves resuscitation, monitoring for complications, controlling seizures, and in some cases therapeutic hypothermia. Preventing birth asphyxia requires close fetal monitoring and careful management of at-risk deliveries.
This document discusses the management of birth asphyxia. It begins by outlining the importance of diagnosing and treating birth asphyxia, as it is a leading cause of mortality and morbidity. The document then discusses evaluating for risk factors, investigating the newborn, and providing supportive care including ventilation, perfusion, metabolic support and therapeutic hypothermia. It concludes by discussing potential complications, neuroprotective strategies, predicting outcomes, and the importance of follow up.
Birth asphyxia occurs when a newborn fails to breathe or has reduced oxygen delivery at birth. It is a major cause of neonatal mortality and morbidity worldwide. Risk factors include maternal infections, post-term pregnancy, fetal anomalies, and complications during delivery. The pathophysiology involves hypoxic cellular damage to vital organs like the brain. Clinical features range from mild to severe and include abnormal heart rate, breathing issues, and multi-organ involvement. Diagnosis is based on history, Apgar scores, blood tests, and neurological exam. Management involves resuscitation and treating complications, while hypothermia therapy may improve outcomes from hypoxic-ischemic encephalopathy. Outcomes depend on severity but can include death or disabilities like
1) Hypoxic-ischemic encephalopathy (HIE) is brain injury caused by lack of oxygen and blood flow before, during, or after birth. It remains a serious condition that can cause death or long-term disabilities like cerebral palsy or intellectual impairment.
2) The document discusses the definition, risk factors, pathophysiology, clinical features based on the Sarnat staging system, diagnosis using imaging and EEG, and treatment approaches for HIE including supportive care, perfusion management, anti-seizure medications, and therapeutic hypothermia.
3) The goal of treatment is to prevent further brain injury by maintaining appropriate oxygenation, blood pressure, glucose levels, and treating seizures
This document defines birth asphyxia and discusses its epidemiology, causes, clinical presentation, investigations, management, and prognosis. Birth asphyxia is the inability to initiate breathing at birth and requires resuscitation. It can result from interrupted umbilical circulation, impaired maternal oxygenation, or failure of the neonate to transition to breathing after birth. Clinical presentation may include seizures, abnormal posturing, or hypoxic ischemic encephalopathy. Management involves immediate resuscitation and treatment of seizures and organ dysfunction. Outcomes range from full recovery to death, with prognosis worse with longer neurological symptoms, multi-organ involvement, or advanced hypoxic ischemic encephalopathy.
This document discusses perinatal asphyxia, also known as hypoxic-ischemic encephalopathy. It is caused by lack of oxygen and/or lack of blood flow to the fetus or newborn. This can result from factors like maternal hypertension, diabetes, or difficult labor. It commonly causes brain injury, heart and lung issues, and can lead to long term effects like cerebral palsy or intellectual disability. Diagnosis involves assessing for problems during pregnancy and labor. Treatment focuses on restoring oxygen and blood flow levels, controlling seizures, and addressing other systemic effects to prevent long term complications.
Apnea of prematurity (AOP) is a condition where premature infants stop breathing for 15-20 seconds during sleep, most often in infants born at 35 weeks gestation or less. When they stop breathing, their heart rate drops below 80 beats per minute and they may appear limp or blue in color. AOP is treated through monitoring breathing and heart rate, medications to stimulate breathing, or in severe cases ventilation support. It typically resolves by 44 weeks postconceptional age.
This document provides an overview of birth asphyxia and resuscitation. It discusses the definition, causes, pathophysiology, presentation, diagnosis, prognosis, complications, and management of birth asphyxia. It also outlines the steps of newborn resuscitation, including drying the baby, clearing the airway, stimulating breathing, bag and mask ventilation, evaluating the baby, administering oxygen, and performing chest compressions if the heart rate is low. The document emphasizes the importance of helping the baby in the first minute after birth.
1) Intraventricular hemorrhage (IVH) is a condition where bleeding occurs within the brain's ventricles. It commonly affects preterm neonates, with a higher incidence in those born earlier and with lower birth weights.
2) Clinical signs that may indicate IVH include bulging fontanel, changes in consciousness, apnea, respiratory distress, pallor, and bradycardia. Early detection through clinical examination is important for further evaluation and management.
3) A study of 85 preterm neonates found that signs like convulsions, bulging fontanel, and sudden pallor had a significant relationship with IVH diagnosed on brain ultrasound. Timely identification of IVH using
This document discusses the cardiac evaluation of newborns and provides guidance on differentiating normal from abnormal cardiovascular findings. It notes that congenital heart defects are common but can be difficult to diagnose in newborns. A thorough physical exam including inspection, palpation, auscultation and vital signs is important to detect abnormalities. Common congenital heart defects that could present in newborns are described.
Hypoxic Ischemic Encephalopathy (HIE) is a condition caused by impaired cerebral blood flow and brain hypoxia/ischemia in the newborn period. It is recommended to use the term HIE rather than "perinatal asphyxia" or "birth asphyxia" since the time of injury can be difficult to ascertain. Treatment involves supportive care including seizure control and therapeutic hypothermia in some cases. Outcomes range from normal to death or long-term disabilities like cerebral palsy and epilepsy depending on the severity of the initial injury.
This document discusses birth asphyxia (perinatal asphyxia or neonatal asphyxia). It defines the terms related to asphyxia like anoxia, hypoxia and ischemia. It notes that birth asphyxia occurs when an infant fails to initiate spontaneous respirations at birth or has severe metabolic or mixed acidemia in the first five minutes of life. The document discusses the physiology of asphyxia including primary and secondary apnea phases. It also outlines some causes and risk factors for neonatal mortality related to birth asphyxia.
This document provides information on approaching developmental delay. It defines global developmental delay as delays in two or more domains of development in children under 5 years old. The causes of developmental delay are categorized as prenatal (genetic and acquired factors), perinatal, and postnatal-environmental. The approach involves taking a detailed history, physical and neurological exam looking for dysmorphic features, developmental testing, and targeted testing depending on exam findings which may provide clues to the underlying condition. Investigations help identify genetic, structural, metabolic, and endocrine etiologies.
This document summarizes hypoxic ischemic encephalopathy (HIE), focusing on recent advances. It defines key terms like hypoxia, ischemia, asphyxia, and provides details on the etiology, pathophysiology, and factors that increase the risk of perinatal asphyxia. The pathophysiology section covers cerebral blood flow and energy metabolism, excitotoxicity, oxidative stress, inflammation, and apoptosis as they relate to hypoxic ischemic injury in the neonatal brain.
Ahmed was born by c-section and transferred to the PICU. He had a large head circumference of 40 cm and bulging fontanels. His parents were upset they could not breastfeed him. He was diagnosed with hydrocephalus, an excessive buildup of cerebrospinal fluid in the brain ventricles that causes increased pressure on brain tissues. Hydrocephalus can be treated through surgical insertion of a shunt or endoscopic third ventriculostomy to drain fluid from the brain.
Perinatal asphyxia, also known as asphyxia neonatorum, is defined as impaired respiratory gas exchange accompanied by metabolic acidosis in newborns. It occurs due to interruption of umbilical cord blood flow or failure of placental gas exchange. Clinical features include apnea, bradycardia, cyanosis, and hypotonia. Multiple organs can be affected, especially the brain, kidneys, heart, and lungs. Brain damage ranges from mild to severe based on duration and severity of asphyxia. Management involves supportive care, treatment of complications, and in severe cases hypothermia therapy or anticonvulsants for seizures may be used. Outcomes depend on the stage of hypo
Hydrocephalus
introduction
Hydrocephalus, also known years ago as ¡°water on the brain¡±, is a condition where the circulation system of the body¡¯s?cerebrospinal fluid?(CSF) is not functioning properly. The CSF accumulates in the brain and causes intracranial pressure. A shunt is usually placed to equalize the flow of CSF, which requires?surgery. The diagnosis and surgery can be very frightening for the parents as well as the child
definition
Hydrocephalus?is a condition characterized by an excess of?cerebrospinal fluid?(CSF) within the ventricular and subarachnoid spaces of the cranial cavity
INCIDENCE
It is found in 1-3 of every 1000 born children in world wide
Classification
Non communicating.?In the non communicating type of congenital hydrocephalus, an obstruction occurs in the free circulation of CSF.
Communicating.?In the communicating type of hydrocephalus, no obstruction of the free flow of the CSF exists between the ventricles and the spinal theca; rather, the condition is caused by defective absorption of CSF, thus causing increased pressure on the brain or spinal cord.
CAUSES
Obstruction.?The most common problem is a partial obstruction of the normal flow of CSF, either from one ventricle to another or from the ventricles to other spaces around the brain.
Poor absorption.?Less common is a problem with the mechanisms that enable the?blood?vessels to absorb CSF; this is often related to inflammation of brain tissues from disease or injury.
Overproduction.?Rarely, the mechanisms for producing CSF create more than normal and more quickly than it can be absorbed.
PATHOPHYSIOLOGY
CLINICAL MANIFESTATION
Poor feeding.?The infant with hydrocephalus has trouble in feeding due to the difficulty of his condition.
Large head.?An excessively large head at birth is suggestive of hydrocephalus.
Bulging of the anterior fontanelles.?The anterior fontanelle becomes tense and bulging, the?skull?enlarges in all diameters, and the scalp becomes shiny and its veins dilate.
Setting sun sign.?If pressure continues to increase without intervention, the eyes appear to be pushed downward slightly with the?sclera?visible above the iris- the so-called setting sun sign.
High-pitched cry.?The intracranial pressure may increase and the infant¡¯s cry could become high-pitched.
Irritability.?Irritability is also caused by an increase in the intracranial pressure.
Projectile?vomiting.?An increase in the intracranial pressure can cause projectile?vomiting
,
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,
,
,
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,
,
,
,
,
,
,
,
,
,
conclusions
Hypoxic Ischemic Encephalopathy (HIE) occurs when a term infant experiences intrapartum asphyxia and lack of oxygen. It can lead to death or disabilities like cerebral palsy. Diagnosis involves assessing the infant at birth using the APGAR score and neurological staging. Imaging tools like MRI are useful for showing patterns of brain injury. HIE management aims to prevent further brain damage through measures like temperature control and treating seizures, while newer treatments target excitotoxicity and oxidative stress.
Approach to thalassemia with abdominal distension in childrenVarsha Shah
?
1. Siti, a 7-year-old girl from Indonesia, has been diagnosed with beta-thalassemia major requiring regular blood transfusions over the past 4 years.
2. During a recent clinic visit, her hemoglobin level was 10 g/dL but her serum iron level was elevated at 150 microg/L, indicating potential iron toxicity from chronic transfusions.
3. Common complications of beta-thalassemia major and lifelong transfusions include organ damage from iron overload, as well as infectious risks from transfused blood. Treatment focuses on maintaining hemoglobin levels while preventing iron toxicity.
Birth asphyxia, with Tanzania perspectiveJoseph Kimaro
?
Birth asphyxia occurs when the fetus is deprived of oxygen during or shortly after birth. It can cause complications including hypoxic ischemic encephalopathy, cerebral palsy, seizures, and death. Risk factors include prematurity, maternal infection, hypertension, and complications during labor or delivery that interrupt oxygen delivery to the fetus. Treatment involves resuscitation, monitoring for complications, controlling seizures, and in some cases therapeutic hypothermia. Preventing birth asphyxia requires close fetal monitoring and careful management of at-risk deliveries.
This document discusses the management of birth asphyxia. It begins by outlining the importance of diagnosing and treating birth asphyxia, as it is a leading cause of mortality and morbidity. The document then discusses evaluating for risk factors, investigating the newborn, and providing supportive care including ventilation, perfusion, metabolic support and therapeutic hypothermia. It concludes by discussing potential complications, neuroprotective strategies, predicting outcomes, and the importance of follow up.
Birth asphyxia occurs when a newborn fails to breathe or has reduced oxygen delivery at birth. It is a major cause of neonatal mortality and morbidity worldwide. Risk factors include maternal infections, post-term pregnancy, fetal anomalies, and complications during delivery. The pathophysiology involves hypoxic cellular damage to vital organs like the brain. Clinical features range from mild to severe and include abnormal heart rate, breathing issues, and multi-organ involvement. Diagnosis is based on history, Apgar scores, blood tests, and neurological exam. Management involves resuscitation and treating complications, while hypothermia therapy may improve outcomes from hypoxic-ischemic encephalopathy. Outcomes depend on severity but can include death or disabilities like
1) Hypoxic-ischemic encephalopathy (HIE) is brain injury caused by lack of oxygen and blood flow before, during, or after birth. It remains a serious condition that can cause death or long-term disabilities like cerebral palsy or intellectual impairment.
2) The document discusses the definition, risk factors, pathophysiology, clinical features based on the Sarnat staging system, diagnosis using imaging and EEG, and treatment approaches for HIE including supportive care, perfusion management, anti-seizure medications, and therapeutic hypothermia.
3) The goal of treatment is to prevent further brain injury by maintaining appropriate oxygenation, blood pressure, glucose levels, and treating seizures
This document defines birth asphyxia and discusses its epidemiology, causes, clinical presentation, investigations, management, and prognosis. Birth asphyxia is the inability to initiate breathing at birth and requires resuscitation. It can result from interrupted umbilical circulation, impaired maternal oxygenation, or failure of the neonate to transition to breathing after birth. Clinical presentation may include seizures, abnormal posturing, or hypoxic ischemic encephalopathy. Management involves immediate resuscitation and treatment of seizures and organ dysfunction. Outcomes range from full recovery to death, with prognosis worse with longer neurological symptoms, multi-organ involvement, or advanced hypoxic ischemic encephalopathy.
This document discusses perinatal asphyxia, also known as hypoxic-ischemic encephalopathy. It is caused by lack of oxygen and/or lack of blood flow to the fetus or newborn. This can result from factors like maternal hypertension, diabetes, or difficult labor. It commonly causes brain injury, heart and lung issues, and can lead to long term effects like cerebral palsy or intellectual disability. Diagnosis involves assessing for problems during pregnancy and labor. Treatment focuses on restoring oxygen and blood flow levels, controlling seizures, and addressing other systemic effects to prevent long term complications.
Apnea of prematurity (AOP) is a condition where premature infants stop breathing for 15-20 seconds during sleep, most often in infants born at 35 weeks gestation or less. When they stop breathing, their heart rate drops below 80 beats per minute and they may appear limp or blue in color. AOP is treated through monitoring breathing and heart rate, medications to stimulate breathing, or in severe cases ventilation support. It typically resolves by 44 weeks postconceptional age.
This document provides an overview of birth asphyxia and resuscitation. It discusses the definition, causes, pathophysiology, presentation, diagnosis, prognosis, complications, and management of birth asphyxia. It also outlines the steps of newborn resuscitation, including drying the baby, clearing the airway, stimulating breathing, bag and mask ventilation, evaluating the baby, administering oxygen, and performing chest compressions if the heart rate is low. The document emphasizes the importance of helping the baby in the first minute after birth.
1) Intraventricular hemorrhage (IVH) is a condition where bleeding occurs within the brain's ventricles. It commonly affects preterm neonates, with a higher incidence in those born earlier and with lower birth weights.
2) Clinical signs that may indicate IVH include bulging fontanel, changes in consciousness, apnea, respiratory distress, pallor, and bradycardia. Early detection through clinical examination is important for further evaluation and management.
3) A study of 85 preterm neonates found that signs like convulsions, bulging fontanel, and sudden pallor had a significant relationship with IVH diagnosed on brain ultrasound. Timely identification of IVH using
This document discusses the cardiac evaluation of newborns and provides guidance on differentiating normal from abnormal cardiovascular findings. It notes that congenital heart defects are common but can be difficult to diagnose in newborns. A thorough physical exam including inspection, palpation, auscultation and vital signs is important to detect abnormalities. Common congenital heart defects that could present in newborns are described.
Hypoxic Ischemic Encephalopathy (HIE) is a condition caused by impaired cerebral blood flow and brain hypoxia/ischemia in the newborn period. It is recommended to use the term HIE rather than "perinatal asphyxia" or "birth asphyxia" since the time of injury can be difficult to ascertain. Treatment involves supportive care including seizure control and therapeutic hypothermia in some cases. Outcomes range from normal to death or long-term disabilities like cerebral palsy and epilepsy depending on the severity of the initial injury.
Perinatal asphyxia is caused by lack of oxygen and perfusion to organs before, during, or after birth. It can lead to hypoxic-ischemic encephalopathy (HIE) and brain damage in newborns. Key criteria for diagnosis include low Apgar scores, metabolic acidosis in umbilical cord blood, and neurological symptoms. Management focuses on preventing further brain injury through ventilation, temperature control, seizure management, and maintaining circulation. Outcomes range from normal to death or disabilities like cerebral palsy. Prognosis depends on severity of encephalopathy.
Perinatal asphyxia is caused by lack of oxygen or poor perfusion to organs in fetuses or newborns. It is defined by criteria like low umbilical cord pH, low Apgar scores, seizures or multiorgan dysfunction in newborns. It can cause neurological injuries like selective neuronal necrosis or periventricular leukomalacia. Management involves maintaining normal temperature, oxygenation, blood pressure, blood glucose and treating seizures. Outcomes are predicted by factors like lack of breathing at birth or severe hypoxic ischemic encephalopathy.
Neonatal hypoxic-ischemic encephalopathy (HIE) occurs when the brain is damaged due to a lack of oxygen before, during, or after birth. It can cause long-term complications such as cerebral palsy, intellectual disability, epilepsy, or death. The document discusses the causes, clinical presentation, treatment, and prognosis of HIE, noting that outcomes depend on the severity of the brain injury and may include permanent neurological deficits or death. Imaging studies and supportive care aim to prevent further brain damage while treatments for seizures and cerebral edema can help reduce complications. Factors like abnormal clinical findings persisting over a week suggest a poor prognosis.
The document summarizes neonatal hypoxic-ischemic encephalopathy (HIE), including its causes, effects on organ systems, clinical manifestations at different stages of severity, imaging findings, treatment of seizures, and supportive care. HIE is caused by a lack of oxygen during birth and can lead to long-term neurological impairments or death. Clinical manifestations range from mild abnormalities to coma and seizures, depending on the severity of the injury. Imaging studies like MRI are useful for assessment. Treatment involves controlling seizures, maintaining oxygenation and blood pressure through supportive care.
1) Birth asphyxia, also known as perinatal asphyxia, refers to impaired gas exchange during birth that leads to hypoxemia, hypercarbia, and fetal acidosis as evidenced by an umbilical cord arterial blood pH <7.0.
2) It can cause hypoxic ischemic encephalopathy (HIE) and multi-organ damage in newborns. Long term sequelae of birth asphyxia include cerebral palsy, cognitive delays, seizures, and visual/auditory processing difficulties.
3) Diagnosis is based on criteria such as an umbilical cord pH <7.0, 5-minute Apgar score of 0-3, or evidence of
1) Birth asphyxia, also known as perinatal asphyxia, refers to impaired gas exchange during birth that leads to hypoxemia, hypercarbia, and fetal acidosis as evidenced by an umbilical cord arterial blood pH <7.0.
2) It can cause hypoxic ischemic encephalopathy (HIE) and multi-organ damage in newborns. Long term sequelae of birth asphyxia include cerebral palsy, cognitive delays, seizures, and visual/auditory processing difficulties.
3) Diagnosis is based on criteria such as an umbilical cord blood pH <7.0, Apgar score of 0-3 for more than 5 minutes,
1) Birth asphyxia, also known as perinatal asphyxia, refers to impaired gas exchange during birth that leads to hypoxemia, hypercarbia, and fetal acidosis as evidenced by an umbilical cord arterial blood pH <7.0.
2) It can cause hypoxic ischemic encephalopathy (HIE) and multi-organ damage in newborns. Long term sequelae of birth asphyxia include cerebral palsy, cognitive delays, seizures, and visual/auditory processing difficulties.
3) Diagnosis is based on criteria such as an umbilical cord pH <7.0, 5-minute Apgar score of 0-3, or evidence of
PHYSIOTHERAPY MANAGEMENT IN CEREBRAL PALSY.pptxStutiGaikwad5
?
Physiotherapy management in Cerebral palsy is a vast topic to study and learn so here is a presentation in which all aspects have been tried to be covered. As it is essential for the children with cerebral palsy to be able to function with minimum dependence it becomes important for the therapists along with the caregivers to be aware of all the knowledge about what can be done further for the rehabilitation for this population. All the prerequisites and individual need of each patient might differ with age group and the severity of impairment. So specific goals both long term and short term need to be the focus of treatment planning. Each session requires evaluation and planning skills so to aid the child with the optimum treatment.
1) Birth asphyxia, also known as perinatal asphyxia, refers to impaired gas exchange during birth that leads to hypoxemia, hypercarbia, and fetal acidosis. It is diagnosed based on an umbilical cord blood pH less than 7.0.
2) Hypoxic ischemic encephalopathy (HIE) is the term used for abnormal neurological behavior in newborns caused by birth asphyxia. It can lead to neonatal death or long term complications like cerebral palsy or developmental delays.
3) Management of severe HIE includes therapeutic hypothermia within 6 hours of birth to reduce the infant's temperature to 33.5¡ãC, as well as
Cerebral palsy (CP) is a group of disorders caused by damage to the developing brain either during pregnancy or shortly after birth. It affects movement and posture and can cause physical disability. The main types are spastic CP (stiff muscles), athetoid/dyskinetic CP (uncontrolled movements), and ataxic CP (problems with coordination). Risk factors include preterm birth, low birth weight, infections during pregnancy, complications during delivery, and genetic disorders. Diagnosis involves assessing motor skills, muscle tone, reflexes, and ruling out other potential causes through imaging and tests.
Birth asphyxia, or lack of oxygen during birth, is one of the leading causes of neonatal mortality globally. It can result in hypoxic-ischemic encephalopathy (HIE), where the brain is damaged from lack of oxygen and blood flow. The presentation of HIE can range from mild to severe, with signs including abnormal consciousness, muscle tone, reflexes, and seizures. Diagnosis is based on metabolic acidosis, low Apgar scores, multi-organ dysfunction, and neurologic symptoms. Treatment focuses on supportive care and stabilization in the delivery room, followed by monitoring for complications like seizures or cerebral palsy. HIE remains a major public health challenge, especially in low-to-middle income countries
Cerebral palsy is a group of disorders that affect movement and posture due to non-progressive disturbances in the developing fetal or infant brain. The incidence of cerebral palsy has remained around 2-2.5 cases per 1000 live births for over 40 years. Cerebral palsy can be caused by genetic and developmental factors as well as infections, prematurity, and injuries during the prenatal, intrapartum, and postnatal periods. The main types of cerebral palsy include spastic, dyskinetic, ataxic, and mixed. Management involves medical treatment, surgery, and rehabilitative therapies like physical, occupational and speech therapy. The prognosis depends on the severity of symptoms and early
All concepts compiled in an easy way including recent advances in the treatment of hie. For pediatricians, residents working in nicu i hope it will help you both in practical aspect as well as your academic needs.
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Cerebral palsy (CP) is a group of disorders caused by damage to the developing brain before, during or after birth. It affects movement and posture, and can cause physical disability. The main types are spastic, athetoid, ataxic and hypotonic CP. Symptoms vary depending on the type and severity. CP is diagnosed based on signs of impaired motor development and abnormal muscle tone or movement. There is no cure for CP, but treatment aims to improve ability and quality of life through therapies and medications.
Neonatal encephalopathy is a clinical syndrome in newborns associated with hypoxic-ischemic injury to the brain near the time of birth. It is characterized by difficulties with maintaining respiration, hypotonia, altered consciousness, depressed reflexes, and sometimes seizures. Risk factors include complications of pregnancy, issues during labor and delivery, and problems with the placenta or umbilical cord. An evaluation includes the baby's history and exam findings as well as imaging studies, EEG, and laboratory tests to assess organ function and rule out other conditions. Management focuses on treatment of seizures and supportive care, with cooling therapy in moderate to severe cases aiming to reduce brain injury.
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2. ? The HIE refers to the characteristic neurological manifestations in term and near-term
newborns which develops soon after birth following perinatal asphyxia, it is
characterized by clinical and laboratory evidence of acute or sub acute brain injury.
? The primary causes of this condition are systemic hypoxemia and/or reduced cerebral
blood flow (CBF)
? Birth asphyxia causes 23% of all neonatal deaths worldwide
? incidence: 3-5 per 1000 full-term live births.
? Half of them progress to moderate to severe HIE
3. ? Birth asphyxia is the cause of 23% of all neonatal deaths worldwide.
? It is one of the top 20 leading causes of burden of disease in all age groups (in terms
of disability life adjusted years) by WHO and is the fifth largest cause of death of
children younger than 5 years(8%).
? Birth asphyxia is estimated to account for 920,000 neonatal deaths every year and is
associated with another 1.1 million intrapartum stillbirths.
? More than a million children who survive birth asphyxia develop problems such as CP,
mental retardation, learning difficulties and other disabilities.
5. Pathophysiology of hypoxic-ischemic
brain injury in the developing brain.
During the initial phase of energy
failure, glutamate mediated
excitotoxicity and Na+/K+ ATPase
failure lead to necrotic cell death.
After transient recovery of cerebral
energy metabolism, a secondary
phase of apoptotic neuronal death
occurs. ROS=Reactive Oxygen
Species
6. ? Antepartum
-placental insufficiency
-impaired maternal 02
-decreased blood flow from mother to placenta
-decreased bf from placenta to fetus
-impaired gas exchange across placenta or fetal tissues
-increased fetal o2 requirements (anemia, infection or IUGR)
? Intrapartum, and
-Oxygenation failure ( fetal cyanotic CHD, severe pulmonary distress)
-Severe anemia (severe hemorrhage, Hemolytic disease)
-shock
? Postpartum period.
-No breathing or DIB at birth.
7. ? Clinical features and prognosis are based on the severity of the HIE in which there is;
>Mild HIE
>Moderate HIE, and
>Severe HIE.
9. ? Seizures are usually generalized and their frequency may increase during the 24-48
hours after onset correlating with the phase of reperfusion injury
? Depressed deep tendon reflexes (DTR) + generalized hypotonia is common
? Ocular motions disturbances, such as skewed deviation of eyes, nystagmus, bobbing
and loss of ¡°doll¡¯s eye¡± (ie, conjugate) movements may be revealed by CN
examination
? Pupils may be dilated, fixed, or poorly reactive to light.
10. ? Guidelines from American Academy of Pediatrics (AAP) and the American College of
Obstetrics and Gynecology (ACOG) for HIE indicate that all of the following must be
present for the designation of perinatal asphyxia severe enough to result in acute
neurologic injury:
1. Profound metabolic or mixed acidemia (pH<7) in an umbilical artery BS, if obtained
2. Persistence of an Apgar score of 0-3 for longer than 5min
3. Neonatal neurologic sequelae (eg, seizures, coma, hypotonia)
4. Multiple organ involvements (eg, kidney, lungs, liver, heart, intestines)
11. ? INVESTIGATIONS
? There are no confirmatory laboratory tests to diagnose perinatal asphyxia,
? Tests are helpful to assess the severity of brain injury and to monitor the functional status of the
systemic organs
LABORATORY STUDIES
? Serum electrolyte levels
? Renal function studies
? Cardiac enzymes and LFTs- to assess the degree of hypoxic-ischemic injury to heart and liver
? Coagulation profile (PT, PTT and fibrinogen levels)
? Arterial blood gases- to asses acid-base status and to avoid hyperoxia and hypoxia, as well as
hypercapnia and hypocapnia
12. ? IMAGING STUDIES
-MRI
-Cranial ultrasound
-Echocardiography
? ADDITIONAL STUDIES
-EEG
-Hearing test- an increased incidence of deafness has been found among infants
with HIE who require assisted ventilation
-retinal and ophthalmic examination
13. Goal of Treatment
?Maintain TABC,
?Optimize Cardiac Output and Cerebral Perfusion,
?Maintain SpO2
?Treat/Prevent Hypoglycemia
15. ? IV fluid
*10%dextrose
? Treat hypotension;
dobutamine, and
dopamine.
? Temperature;
cool therapy(33-34c)
? Calcium levels should be kept in the normal range (9-11mg/dl)
16. ? Control seizures:
-phenobarbitone:
*Loading dose: 20mg/kg slowly
*Maintenance dose: 5mg/kg/day
-Phenytoin as a second line drug
-Lorazepam
*(0.05-0.1mg/kg/dose i.v) for seizures not responding to phenobarbitone and/or
phenytoin.
19. ? SHORT TERM
-Death
? LONG TERM
? Developmental delay
? Cerebral palsy
? Microcephaly
? Seizures
? Blindness
? Deafness
? Problems with cognition, memory, fine motor skills and behavior.
#5: -Diving seal reflex
-In human adults BP range for CBF maintenance= 60-100mm hg
-In healthy term neonate BP range for CBF autoregulation maintenance= 10-20mm Hg
-CBF becomes pressure-passive i.e depends on systemic BP
-magnitude of neuronal damage is proportional to the duration and severity of the initial insult combined with effects of reperfusion injury and apoptosis