Transitioning Newborns from NICU to Home: Family Information Packet
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Apnea of Prematurity Eric C
CLINICAL REPORT Guidance for the Clinician in Rendering Pediatric Care Apnea of Prematurity Eric C. Eichenwald, MD, FAAP, COMMITTEE ON FETUS AND NEWBORN Apnea of prematurity is one of the most common diagnoses in the NICU. abstract Despite the frequency of apnea of prematurity, it is unknown whether recurrent apnea, bradycardia, and hypoxemia in preterm infants are harmful. Research into the development of respiratory control in immature animals and preterm infants has facilitated our understanding of the pathogenesis and treatment of apnea of prematurity. However, the lack of consistent defi nitions, monitoring practices, and consensus about clinical signifi cance leads to signifi cant variation in practice. The purpose of this clinical report is to review the evidence basis for the defi nition, epidemiology, and treatment of apnea of prematurity as well as discharge recommendations for preterm infants diagnosed with recurrent apneic events. BACKGROUND This document is copyrighted and is property of the American Academy of Pediatrics and its Board of Directors. All authors have Apnea of prematurity is one of the most common diagnoses in the NICU. fi led confl ict of interest statements with the American Academy of Pediatrics. Any confl icts have been resolved through a process Despite the frequency of apnea of prematurity, it is unknown whether approved by the Board of Directors. The American Academy of recurrent apnea, bradycardia, and hypoxemia in preterm infants are Pediatrics has neither solicited nor accepted any commercial involvement in the development of the content of this publication. harmful. Limited data suggest that the total number of days with apnea and resolution of episodes at more than 36 weeks’ postmenstrual age Clinical reports from the American Academy of Pediatrics benefi t from expertise and resources of liaisons and internal (AAP) and external (PMA) are associated with worse neurodevelopmental outcome in reviewers. -
Apnea and Control of Breathing Christa Matrone, M.D., M.Ed
APNEA AND CONTROL OF BREATHING CHRISTA MATRONE, M.D., M.ED. DIOMEL DE LA CRUZ, M.D. OBJECTIVES ¢ Define Apnea ¢ Review Causes and Appropriate Evaluation of Apnea in Neonates ¢ Review the Pathophysiology of Breathing Control and Apnea of Prematurity ¢ Review Management Options for Apnea of Prematurity ¢ The Clinical Evidence for Caffeine ¢ The Role of Gastroesophageal Reflux DEFINITION OF APNEA ¢ Cessation of breathing for greater than 15 (or 20) seconds ¢ Or if accompanied by desaturations or bradycardia ¢ Differentiate from periodic breathing ¢ Regular cycles of respirations with intermittent pauses of >3 S ¢ Not associated with other physiologic derangements ¢ Benign and self-limiting TYPES OF APNEA CENTRAL ¢ Total cessation of inspiratory effort ¢ Absence of central respiratory drive OBSTRUCTIVE ¢ Breathing against an obstructed airway ¢ Chest wall motion without nasal airflow MIXED ¢ Obstructed respiratory effort after a central pause ¢ Accounts for majority of apnea in premature infants APNEA IS A SYMPTOM, NOT A DIAGNOSIS Martin RJ et al. Pathogenesis of apnea in preterm infants. J Pediatr. 1986; 109:733. APNEA IN THE NEONATE: DIFFERENTIAL Central Nervous System Respiratory • Intraventricular Hemorrhage • Airway Obstruction • Seizure • Inadequate Ventilation / Fatigue • Cerebral Infarct • Hypoxia Infection Gastrointestinal • Sepsis • Necrotizing Enterocolitis • Meningitis • Gastroesophageal Reflux Hematologic Drug Exposure • Anemia • Perinatal (Ex: Magnesium, Opioids) • Polycythemia • Postnatal (Ex: Sedatives, PGE) Cardiovascular Other • Patent Ductus Arteriosus • Temperature instability • Metabolic derangements APNEA IN THE NEONATE: EVALUATION ¢ Detailed History and Physical Examination ¢ Gestational age, post-natal age, and birth history ¢ Other new signs or symptoms ¢ Careful attention to neurologic, cardiorespiratory, and abdominal exam APNEA IN THE NEONATE: EVALUATION ¢ Laboratory Studies ¢ CBC/diff and CRP ¢ Cultures, consideration of LP ¢ Electrolytes including magnesium ¢ Blood gas and lactate ¢ Radiologic Studies ¢ Head ultrasound vs. -
Inhalation of “Borax”
Journal of Paediatrics and Neonatal Disorders Volume 4 | Issue 1 ISSN: 2456-5482 Case Report Open Access Inhalation of “Borax” and Risk of Severe Stridor Obaid O* Department of Pediatrics, MOH, Makkah, Saudi Arabia *Corresponding author: Obaid O, Department of Pediatrics, MOH, Makkah, Saudi Arabia, Tel: 00966500606352, E-mail: [email protected] Citation: Obaid O (2019) Inhalation of “Borax” and Risk of Severe Stridor. J Paedatr Neonatal Dis 4(1): 105 Received Date: March 21, 2019 Accepted Date: June 26, 2019 Published Date: June 28, 2019 Abstract Stridor in children is not uncommon reason to visit emergency department and usually due to croup but inhalation of toxic substance may cause severe stridor which is uncommon. Keywords: Stridor; Pediatric; Sodium Burate Case Report A 9 year old Saudi girl presented to emergency department accompanied by her grandmother with history of dry cough, shortness of breath and audible wheeze for more than12 hours. She has no history of fever, foreign body ingestion and chronic cough. No history of contact with sick person and no history of lip swelling or skin rash. Her vaccination status up to date. She was a Preterm 30 weeks, admitted to Neonatal intensive care for 2 months and discharge well. In emergency room she was ill looking with biphasic stridor, kept on oxygen 10 liter/min and given one dose IM epinephrine 0.3 mg and nebulizer Racemic epinephrine, connected to Cardiorespiratory monitor and 2 IV lines was inserted started on IV Fluids and given one dose of dexamethasone. Urgent consultation to ENT was done and they recommend bronchoscopy to rule out Foreign body ingestion. -
Effects of Caffeine in Lung Mechanics of Extremely Low Birth Weight Infants
Journal of Clinical Anesthesia and Pain Medicine Research Article Effects of Caffeine in Lung Mechanics of Extremely Low Birth Weight Infants This article was published in the following Scient Open Access Journal: Journal of Clinical Anethesia and Pain Medicine Received March 09, 2017; Accepted April 12, 2017; Published April 20, 2017 George Hatzakis*, Dominic Fitzgerald, Abstract G. Michael Davis, Christopher Newth, Philippe Jouvet and Larry Lands Objective: To investigate the effect of caffeine citrate (methyxanthine) on the pattern of From the Departments of Anesthesia, Surgery breathing and lung mechanics in extremely low birth weight (ELBW) infants with apnea of and Pediatrics, Children’s Hospital Los Angeles, prematurity (AOP), during mechanical ventilation and following extubation while breathing Keck School of Medicine, University of Southern spontaneously. California, Los Angeles CA; Pediatric Respiratory Medicine, McGill University, Montreal, Canada; Methods: In this pilot prospective observational study 39 ELBW infants were monitored: Sainte-Justine Hospital, University of Montreal, Twenty AOP - diagnosed with respiratory distress syndrome (RDS) - and 19 controls. Montreal, Canada; and Pediatric Respiratory and Infants with AOP were assessed on mechanical ventilation before caffeine administration Sleep Medicine, University of Sydney, Sydney, and immediately after extubation which occurred at 11-14 days post- caffeine citrate Australia. commencement. Control infants were compared to the post- caffeine group. Breathing pattern parameters, lung mechanics and work of breathing were assessed. Results: Caffeine citrate seemed to markedly increase Tidal Volume (VT) in the post caffeine group when compared to the control group (7.3 ± 2.0 ml/kg and 5.7 ± 1.5 ml/kg respectively) and slightly decreased breathing rate (64 ± 17 and 70 ± 19 breaths/min), respectively. -
Management of Airway Obstruction and Stridor in Pediatric Patients
November 2017 Management of Airway Volume 14, Number 11 Obstruction and Stridor in Authors Ashley Marchese, MD Department of Pediatrics, Yale-New Haven Hospital, New Haven, CT Pediatric Patients Melissa L. Langhan, MD, MHS Associate Professor of Pediatrics and Emergency Medicine; Fellowship Director, Director of Education, Pediatric Emergency Abstract Medicine, Yale University School of Medicine, New Haven, CT Peer Reviewers Stridor is a result of turbulent air-flow through the trachea from Steven S. Bin, MD upper airway obstruction, and although in children it is often Associate Clinical Professor of Emergency Medicine and Pediatrics; Medical Director, Emergency Department, UCSF School of Medicine, due to croup, it can also be caused by noninfectious and/or con- Benioff Children’s Hospital, San Francisco, CA genital conditions as well as life-threatening etiologies. The his- Alexander Toledo, DO, PharmD, FAAEM, FAAP tory and physical examination guide initial management, which Chief, Section of Pediatric Emergency Medicine; Director, Pediatric Emergency Department, Arizona Children’s Center at Maricopa includes reduction of airway inflammation, treatment of bacterial Medical Center, Phoenix, AZ infection, and, less often, imaging, emergent airway stabilization, Prior to beginning this activity, see “Physician CME Information” or surgical management. This issue discusses the most common on the back page. as well as the life-threatening etiologies of acute and chronic stridor and its management in the emergency department. Editor-in-Chief -
Table of Contents
Table of Contents Step 1 ........................................................................................... 1 Breastfeeding Overview .......................................................................... 2 Getting Information from the Healthcare Team ........................................................ 6 Step 2 ........................................................................................... 8 Temperature Control ............................................................................. 9 Pain Management ............................................................................. .13 Developmental Care ............................................................................ 15 Parenting in the NICU. .18 Newborn Screening ............................................................................ .20 Step 3 .......................................................................................... 24 Kangaroo Care ................................................................................ 25 Skin Care .................................................................................... .27 Newborn Jaundice ............................................................................. 32 Step 4 .......................................................................................... 35 Basic Baby Care ............................................................................... .36 Choosing Your Baby’s Provider .................................................................... 39 Home Safety ................................................................................. -
Very Low Birth Weight Infants
Intensive Care Nursery House Staff Manual Very Low and Extremely Low Birthweight Infants INTRODUCTION and DEFINITIONS: Low birth weight infants are those born weighing less than 2500 g. These are further subdivided into: •Very Low Birth Weight (VLBW): Birth weight <1,500 g •Extremely Low Birth Weight (ELBW): Birth weight <1,000 g Obstetrical history (LMP, sonographic dating), newborn physical examination, and examination for maturational age (Ballard or Dubowitz) are critical data to differentiate premature LBW from more mature growth-retarded LBW infants. Survival statistics for ELBW infants correlate with gestational age. Morbidity statistics for growth-retarded VLBW infants correlate with the etiology and the severity of the growth-restriction. PREVALENCE: The rate of VLBW babies is increasing, due mainly to the increase in prematurely-born multiple gestations, in part related to assisted reproductive techniques. The distribution of LBW infants is shown in the Table: ________________________________________________________________________ Table. Prevalence by birth weight (BW) of LBW babies. Percentage of Percentage of Births Birth Weight (g) Total Births with BW <2,500 g <2,500 7.6% 100% 2,000-2,500 4.6% 61% 1,500-1,999 1.5% 20% 1,000-1,499 0.7% 9.5% 500-999 0.5% 7.5% <500 0.1% 2.0% ________________________________________________________________________ CAUSES: The primary causes of VLBW are premature birth (born <37 weeks gestation, and often <30 weeks) and intrauterine growth restriction (IUGR), usually due to problems with placenta, maternal health, or to birth defects. Many VLBW babies with IUGR are preterm and thus are both physically small and physiologically immature. RISK FACTORS: Any baby born prematurely is more likely to be very small. -
Supraglottoplasty Home Care Instructions Hospital Stay Most Children Stay Overnight in the Hospital for at Least One Night
10914 Hefner Pointe Drive, Suite 200 Oklahoma City, OK 73120 Phone: 405.608.8833 Fax: 405.608.8818 Supraglottoplasty Home Care Instructions Hospital Stay Most children stay overnight in the hospital for at least one night. Bleeding There is typically very little to no bleeding associated with this procedure. Though very unlikely to happen, if your child were to spit or cough up blood you should contact your physician immediately. Diet After surgery your child will be able to eat the foods or formula that they usually do. It is important after surgery to encourage your child to drink fluids and remain hydrated. Daily fluid needs are listed below: • Age 0-2 years: 16 ounces per day • Age 2-4 years: 24 ounces per day • Age 4 and older: 32 ounces per day It is our experience that most children experience a significant improvement in eating after this procedure. However, we have found about that approximately 4% of otherwise healthy infants may experience a transient onset of coughing or choking with feeding after surgery. In our experience these symptoms resolve over 1-2 months after surgery. We have also found that infants who have other illnesses (such as syndromes, prematurity, heart trouble, or other congenital abnormalities) have a greater risk of experiencing swallowing difficulties after a supraglottoplasty (this number can be as high as 20%). In time the child usually will return to normal swallowing but there is a small risk of feeding difficulties. You will be given a prescription before you leave the hospital for an acid reducing (anti-reflux) medication that must be filled before you are discharged. -
Stridor in the Newborn
Stridor in the Newborn Andrew E. Bluher, MD, David H. Darrow, MD, DDS* KEYWORDS Stridor Newborn Neonate Neonatal Laryngomalacia Larynx Trachea KEY POINTS Stridor originates from laryngeal subsites (supraglottis, glottis, subglottis) or the trachea; a snoring sound originating from the pharynx is more appropriately considered stertor. Stridor is characterized by its volume, pitch, presence on inspiration or expiration, and severity with change in state (awake vs asleep) and position (prone vs supine). Laryngomalacia is the most common cause of neonatal stridor, and most cases can be managed conservatively provided the diagnosis is made with certainty. Premature babies, especially those with a history of intubation, are at risk for subglottic pathologic condition, Changes in voice associated with stridor suggest glottic pathologic condition and a need for otolaryngology referral. INTRODUCTION Families and practitioners alike may understandably be alarmed by stridor occurring in a newborn. An understanding of the presentation and differential diagnosis of neonatal stridor is vital in determining whether to manage the child with further observation in the primary care setting, specialist referral, or urgent inpatient care. In most cases, the management of neonatal stridor is outside the purview of the pediatric primary care provider. The goal of this review is not, therefore, to present an exhaustive review of causes of neonatal stridor, but rather to provide an approach to the stridulous newborn that can be used effectively in the assessment and triage of such patients. Definitions The neonatal period is defined by the World Health Organization as the first 28 days of age. For the purposes of this discussion, the newborn period includes the first 3 months of age. -
Algorithm for the Therapeutic Approach to Apnea of Prematurity
Lemus-Varela L, et al., J Neonatol Clin Pediatr 2021, 8: 068 DOI: 10.24966/NCP-878X/100068 HSOA Journal of Neonatology and Clinical Pediatrics Review Article Conclusion: Based on currently evidence, we propose an algorithm Algorithm for the Therapeutic for the therapeutic approach to apnea of prematurity that allows for orderly decision making for treatment with the greatest efficacy and Approach to Apnea of safety margin. Prematurity Keywords: Algorithm; Apnea of prematurity; Caffeine; Methylxanthines; Premature infant Lourdes Lemus-Varela PhD1* and Augusto Sola2 1Departamento de Neonatología, Hospital de Pediatría UMAE, Centro Médico Nacional de Occidente, Instituto Mexicano del Seguro Social, Gua- Abbreviations dalajara, Jalisco, México; And Council Member, Ibero American Society of AOP: Apnea of Prematurity Neonatology (SIBEN), USA BPD: Bronchopulmonary Dysplasia 2 Medical Director, Ibero-American Society of Neonatology (SIBEN), Fort CPAP: Continuous Positive Airway Pressure Lauderdale, Florida, USA and VP, Medical Affairs Neonatology, Masimo, Irvine, CA DOL: Days of Life FDA: Food and Drug Administration GABA: Gamma Aminobutyric Acid Abstract IQR: Interquartile Range NIPPV: Nasal Intermittent Positive Pressure Ventilation Apnea of prematurity is one of the most common and recurrent clinical problems observed in the neonatal intensive care unit; with NICU: Neonatal Intensive Care Unit a higher incidence at a lower gestational age. Survival of premature PI: Premature Infant infants continues to improve; therefore, apnea of prematurity is REM: Rapid Eye Movements observed more frequently. ROP: Retinopathy of Prematurity SpO : Plasmatic Oxygen Saturation Apneic episodes may prolong the duration of mechanical 2 WGA: Weeks of Gestational Age ventilation, and exposure to additional oxygen, contributing to the pathogenesis of bronchopulmonary dysplasia and retinopathy of Introduction prematurity. -
Maternal and Fetal Outcomes of Spontaneous Preterm Premature Rupture of Membranes
ORIGINAL CONTRIBUTION Maternal and Fetal Outcomes of Spontaneous Preterm Premature Rupture of Membranes Lee C. Yang, DO; Donald R. Taylor, DO; Howard H. Kaufman, DO; Roderick Hume, MD; Byron Calhoun, MD The authors retrospectively evaluated maternal and fetal reterm premature rupture of membranes (PROM) at outcomes of 73 consecutive singleton pregnancies com- P16 through 26 weeks of gestation complicates approxi- plicated by preterm premature rupture of amniotic mem- mately 1% of pregnancies in the United States and is associ- branes. When preterm labor occurred and fetuses were at ated with significant risk of neonatal morbidity and mor- tality.1,2 a viable gestational age, pregnant patients were managed Perinatal mortality is high if PROM occurs when fetuses aggressively with tocolytic therapy, antenatal corticos- are of previable gestational age. Moretti and Sibai 3 reported teroid injections, and antenatal fetal testing. The mean an overall survival rate of 50% to 70% after delivery at 24 to gestational age at the onset of membrane rupture and 26 weeks of gestation. delivery was 22.1 weeks and 23.8 weeks, respectively. The Although neonatal morbidity remains significant, latency from membrane rupture to delivery ranged despite improvements in neonatal care for extremely pre- from 0 to 83 days with a mean of 8.6 days. Among the mature newborns, neonatal survival has improved over 73 pregnant patients, there were 22 (30.1%) stillbirths and recent years. Fortunato et al2 reported a prolonged latent phase, low infectious morbidity, and good neonatal out- 13 (17.8%) neonatal deaths, resulting in a perinatal death comes when physicians manage these cases aggressively rate of 47.9%. -
Use of Blood Components in the Newborn
NNF Clinical Practice Guidelines Use of Blood Components in the Newborn Summary of recommendations • Transfusion in the newborn requires selection of appropriate donor, measures to minimize donor exposure and prevent graft versus host disease and transmission of Cytomegalovirus. • Component therapy rather than whole blood transfusion, is appropriate in most situations. • A clear cut policy of cut-offs for transfusions in different situations helps reduce unnecessary exposure to blood products. • Transfusion triggers should be based on underlying disease, age and general condition of the neonate. Writing Group : Chairperson: Arvind Saili ; Members: RG Holla, S Suresh Kumar Reviewers: Neelam Marwaha, Ruchi Nanawati Page | 129 Downloaded from www.nnfpublication.org NNF Clinical Practice Guidelines Introduction Blood forms an important part of the therapeutic armamentarium of the neonatologist. Very small premature neonates are amongst the most common of all patient groups to receive extensive transfusions. The risks of blood transfusion in today’s age of rigid blood banking laws, while infrequent, are not trivial. Therefore, as with any therapy used in the newborn, it is essential that one considers the risk- benefit ratio and strive to develop treatment strategies that will result in the best patient outcomes. In addition, the relatively immature immune status of the neonate predisposes them to Graft versus Host Disease (GVHD), in addition to other complications including transmission of infections, oxidant damage, allo- immunization and