PEDIATRIC SAFETY
| PATIENT SAFETY IN THE PEDIATRIC EMERGENCY DEPARTMENT Joan E. Shook, MD, Professor of Pediatrics,
Head, Section of Emergency Medicine, Department of Pediatrics, Baylor College of Medicine, and Chief Safety Officer
and Medical Director of Emergency Medicine Service, Texas Childrens Hospital/Baylor College of Medicine, Houston,
TX
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| Case 1: boy, 8.5 yr of age; undergoing treatment for medulloblastoma; recently had resection; has ventriculoperitoneal
shunt for residual hydrocephalus; presented with neck pain and emesis; torticollis on examination, with tenderness in
sternocleidomastoid (SCM); neck discomfort more than just tenderness in SCM; computed tomography (CT) unchanged
from previous studies; white blood cell count 22,000/µL, with 76% polymorphonuclear cells and 18% bands; on steroids;
emergency department (ED) coursegiven ketorolac (Toradol) but still uncomfortable; decision to perform lumbar
puncture made child extremely anxious; attending physician asked resident to give child diazepam 5 mg; 1 hr later, child
somnolent with O2 saturation ≈70%; given flumazenil; chart revealed patient given intravenous (IV) lorazepam 5 mg
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| Scope of problem: in 1999, Institute of Medicine suggested that in United States, 44,000 to 98,000 pattents die annually
due to medical errors; for each hospitalized person who dies, 5 to 10 suffer nonfatal nosocomial infections; patients in intensive
care unit (ICU) average 1.7 errors per day; errors correlate with intensity of service; 2% to 7% of hospitalized patients
have adverse drug event; thought that children 3 times more likely to suffer adverse drug events; failure to
communicate root cause of 65% of serious events
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| Relevance to pediatrics: data show that risk higher in newborn period than at any other age; prevalence for older children
similar to that for adults
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| Reasons for poor performance: collective inattention to patient safety (at system level); culture of ambiguity and
work-arounds; consumer ignorance; reimbursement system that provides no incentive for safety; fragmented organizational
structures; outmoded mental model for medical care; mental model of shame and blameif individual patient
does poorly, provider at fault and he or she should be blamed and reprimanded; logical consequence that provider will not
make errors, or will never admit to errors made; systems appropriate focus for improvements; providers and patients
should be equal members of health care delivery team; all members of teamshould be able to identify and discuss
system weaknesses without fear of sanction or repercussion; have responsibility to assist in improvement of health care
system
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| Disclosure: patients and familieswant full disclosure of all harmful errors; have mixed opinions about discussing
near-misses; feel that disclosure enhances trust in caregivers; also want apology; definitionopen and honest discussion
about error; includes assurance that something being done to prevent recurrence and to ensure continuity of care in
therapeutic relationship; provider must address issue of when he or she will be able to give more information;
elementswhat happened and why; implications for patients health; how problem will be corrected; how recurrences
will be prevented; advance preparation essential; failure to discloseundermines publics trust in medicine; breach of
professional ethics
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| Apology: acknowledgement of responsibility, coupled with expression of remorse; reasons for apologizingrestores
patients and familys self-respect and dignity, feelings of being cared for, and power in relationship; additional
considerationswho should give apology (varies by institution); appropriate timing (as soon as possible after event);
who should be notified and who should be present; reasons for failure of apology include insincerity
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| Analysis of case 1: while waiting for room, patient developed fever; given ceftriaxone; 15 hr after arriving in ED, blood
culture showed gram-positive cocci; antibiotic changed; organism ultimately identified as group A streptococci; magnetic
resonance imaging (MRI) showed pyomyositis of neck; patient received 14 days of IV antibiotics and did well;
investigationshowed that resident misheard attending physician and wrote incorrect drug; patient cared for by nurse
unfamiliar with ED; customary medication oversight absent
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| Case 2: infant, 8 days old, brought to ED for Rh incompatibility after being on home phototherapy; hemoglobin 3 g/dL;
order written for 280 mL of packed red blood cells (RBCs) infused over 4 hr; blood arrived in large bag and transfusion
began; patient transferred to neonatal ICU (NICU) 3 hr later; transfusion stopped; maximum hematocrit of child 63%; no
exchange transfusion needed; child did well; analysisblood bank form lacked standardized calculation table and place
to note patients age and weight; blood for inpatient neonates delived in syringes, but blood delivered in bags to ED; no
check of weight or age required in transfusion protocol
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| Analysis of errors: important that errors and near-misses be reported; modeled on aviation data which show that reporting
increases ability to analyze and understand events and search for patterns; national data show that 42% of physicians have
had adverse event and close to 100% have had adverse event that caused no harm; sources of adverse event data
document review; automated surveillance; monitoring of progress of patients to anticipate conditions that could lead to adverse
events
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| Root cause analysis: performed in adverse event of sufficient severity or sufficient frequency; mandated by Joint Commission
on Accreditation of Healthcare Organizations (JCAHO); definitiontechnique borrowed from engineering that
identifies causal factors underlying variation in performance; focuses on systems and identifies potential improvements
in system to decrease likelihood that same or similar event will occur in future; what root cause analysis is not
assignment of blame; morbidity and mortality review; clinical pathology conference; peer review;
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| Risks in pediatric setting: challenges in communication, complex diseases, pediatric patient size and physiology,
drug-related issues, and multiple caregivers; trainees
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| Case 3: young woman, 18 yr of age, with history of cloacal extrophy; also has narcotic addiction, depression, and history
of multiple urinary tract infections; came to ED accompanied by boyfriend and complaining of foul-smelling urine, emesis,
and pain; in midst of methadone wean and having withdrawal symptoms; IV line placed and 10 mg methadone ordered;
30 min later, boyfriend screamed that patient not breathing; when physician arrived, patient apneic, blue, and
having seizure; oral airway placed and bag-mask ventilation begun; 2 mg of naloxone administered; within seconds, patient
sat up, pushed mask off her face, and asked for boyfriend; investigationin speakers institution, methadone in 2
concentrations (1mg/mL in pharmacy and 10 mg/mL everywhere else); ED pharmacy borrowed medication from pediatric
ICU (PICU); vials looked almost identical and patient received 10-fold overdose
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| Medication errors: review of medications administered at 36 JCAHO-accredited institutions on day shift showed 19%
of medications delivered given in error; 7% of events potentially harmful; review of >10,000 pediatric medication orders
showed almost 6% contained errors and of those, 20% potentially harmful; most serious errors related to 10-fold dosing;
patients <2 yr of age and those admitted to ICU most at risk; goals form culture of safety and organizational supports
for safety processes
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| Comprehensive culture of safety: shared belief that although health care high-risk undertaking, delivery processes
can be designed to make things safer and prevent harm; encourages reporting of events and near-misses to facilitate
learning and redesign; requires environment where need for reporting and need to take disciplinary action balanced
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| Case 4: child 2 yr of age (born 22 wk prematurely), with mental retardation and cerebral palsy; had gastrostomy tube and
fundoplication, cortical blindness, and seizure disorder; increased respiratory rate and fever; O2 saturation 84%; chest x-
ray showed bilateral pneumonia; given O2 , IV fluids, and antibiotics; after 15 hr, admitted to hospital; multiple handoffs
of care during ED stay; child taken to floor with O2 mask in place but not connected to tank; upon arrival, patient dusky
(O2 saturation ≈60%); resuscitation initiated; patient intubated in elevator lobby and admitted to PICU but died next day
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| High-risk pediatric practice areas: pediatric ED; PICU; NICU; oncology areas; why ED dangerous
overcrowding; frequent interruptions in work processes; broad case mix; fatigue and stress; shift work with multiple
handoffs of care; all personnel must watch each other and communicate across disciplinary divide; risks in pediatric
EDinclude weekends, deep night shifts, and presence of multiple trainees; patients perception of risk influences likelihood
of returning and complying with recommendations
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| Investigation of case 4: handoffs; nurse who sent patient to floor failed to confirm that O2 working (performance issue);
medical staff failed to assess child before transport; technician who transported child to floor had just come on shift
and did not know patient; changes made as resultofficial signout of every patient by attending physician; establishment
of formalized communication patterns with nurses; recommendationsstandardize staffing levels, working hours,
and work processes; build in redundancy and backup systems; improve teamwork
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| Team training and resource management: analogous to crew resource management in airline industry; staff
taught consistent manner of communicating information; formalized team briefings; builds in acceptable ways for team
members to challenge actions of others
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| TRUE PEDIATRIC EMERGENCIES Scott A. Braunstein, MD, Attending Physician, Department of Emergency Medicine,
Cedars-Sinai Medical Center, Los Angeles, CA
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| Neonatal jaundice: elevated direct bilirubinalways abnormal; implies serious underlying disease; causes include
infection and sepsis, biliary atresia, neonatal hepatitis, and inborn errors of metabolism; elevated indirect bilirubin
more common; physiologic jaundice of newborn most common cause (affects ≈60% of infants; bilirubin levels peak at 3
days of age and decrease by seventh to tenth day); breast milk jaundice (second most common cause; higher peak; can
last weeks); hemolysis-related causes, eg, ABO incompatibility, hemoglobinopathies; (differentiated by Coombs test);
kernicteruscaused by high bilirubin levels in neonate; staining of areas of brain, often basal ganglia and hippocampus,
with bilirubin; results from lethargy and poor feeding to seizures, prominent neurologic sequelae, and death; risk
factorsprematurity; hemolytic mechanism; low albumin (binds bilirubin and prevents it from crossing blood-brain
barrier); sepsis or acidosis; indications for work-upany jaundice in first 24 hr abnormal; direct hyperbilirubinemia
(>20% of total bilirubin); total bilirubin >18 to 20 mg/dL; rise in bilirubin >5 mg/dL per day; jaundice persisting >1 wk
in term infant or >2 wk in preterm infant; phototherapyindications from American Academy of Pediatrics (AAP)
clinical statement (2004); mainstay of treatment; exchange therapy indicated for severe cases and those refractory to phototherapy;
threshold for treatment increases with number of days up to ≈5 days, then plateaus to allow for physiologic
jaundice
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| Pyloric stenosis: most common cause of intestinal obstruction at >1 mo of age; 4 times more likely in boys than girls;
risk factors family history and being firstborn; pathophysiologyhypertrophy of pylorus, causing obstruction and nonbilious
(projectile) vomiting; infant still hungry and appears well between feedings; electrolytes show hypochloremic hypokalemic
metabolic alkalosis (due to vomiting); on physical examination, may palpate olive-like mass (hypertrophied
pylorus; pathognomonic); diagnosis usually made by ultrasonography; radiologist looks at length of pylorus (should be
<16 mm), thickness of pyloric wall (should be <4 mm), and diameter of pylorus; treatmentIV fluids; correction of
electrolytes; surgery (generally not urgent)
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| Midgut volvulus: 50% less common than pyloric stenosis; also more common in boys; occurs at younger age (generally
<1 mo of age); pathophysiologycecum and duodenum tacked down too close together during embryonic development;
at birth, twisting around mesentery leads to volvulus, compression of superior mesenteric artery, and ischemia; patient
presents with sudden bilious vomiting and abdominal distention and shocky, sick appearance; on abdominal
series, classic double bubble sign seen (proximal bubble dilated stomach and distal bubble obstructed proximal duodenum);
on upper gastrointestinal series, cecum in abnormal position (corkscrew bowel); treatmenturgent decompression
by nasogastric tube; IV fluids; antibiotics; emergency surgery
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| Intussusception: usually occurs between 5 mo and 1 yr of age (up to 5 yr of age); pathophysiologytelescoping of
one segment of bowel into another (classically at ileocecal valve but can happen anywhere); frequently follows viral-type
illness; thought that inflammation of Peyers patches acts as lead point; mechanical obstruction and ischemia of bowel
wall; triad of abdominal pain, vomiting, and bloody or currant jelly stools; lethargy fourth clinical factor; typically,
pain comes in waves occurring every 30 min to 1 hr and lasting 15 min; on physical examination, sausage usually palpated
on right side of abdomen; diagnostic and therapeutic treatmentbarium or air enema; antibiotics and fluids; if
unable to reduce, emergency surgery; if reduced, admit at least overnight because of 10% recurrence rate in first 24 hr
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| Henoch-Schönlein purpura: IgA-related vasculitis; typically occurs at ≈5 yr of age; triad of abdominal pain, palpable
purpura on lower extremities, arthralgias, and microscopic hematuria; treated with outpatient supportive therapy; not
dangerous; 5% of patients develop renal failure; severe cases treated with steroids and immunosuppressant combinations
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| Croup: laryngotracheobronchitis; most common cause of upper airway obstruction in children; peak age 2 yr, but can occur
from 6 mo to 6 yr of age; pathophysiologyinflammation and edema of subglottic tissues around trachea at level of
cricoid, causing upper airway narrowing; typically occurs in fall and winter; parainfluenza virus type 1 thought to cause
>50% of cases; clinically, fever, rhinorrhea, and other symptoms of upper respiratory infection followed by barking
cough and inspiratory stridor; scoring systems not useful; on anteroposterior x-ray of neck, classic steeple sign seen
(narrowing of airway); treatmentno evidence that cool mist improves O2 levels or outcomes; steroids mainstay of
treatment; study showed equal efficacy for oral dexamethasone at 0.15 mg/kg, 0.3 mg/kg, and 0.6 mg/kg; nebulized steroid
(budesonide) has efficacy equal to high-dose dexamethasone; compared to dexamethasone, patients on prednisolone
had higher rate of return to hospital; in patients with moderate croup, give steroids and racemic epinephrine; onset of action
10 min (concern with rebound stridor after wearing off); observe for 2 to 4 hr
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| Bacterial tracheitis: bacterial croup; acute onset; usually caused by Staphylococcus aureus; age group 3 yr to adolescence;
pathophysiologyinflammation and sloughing of tracheal endothelium with thick secretions, causing obstruction;
typically, patient with viral syndrome who suddenly becomes worse; treatmentantibiotics; bronchoscopy
(diagnostic and therapeutic); if intubated, often on ventilator for long time; need high index of suspicion to diagnose
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| Foreign body aspiration: most common in toddlers; typically involves rounded food items; may hear localized wheezing;
diagnosis usually made with bilateral decubitus x-rays that show hyperinflation of obstructed side; treatment
laryngoscope and Magills forceps to remove foreign body; bronchoscopy often needed; may need to push proximal obstructing
foreign body down deeper into one of bronchi to enable aeration of one lung
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| Bronchiolitis: wheezing infant; lower airway reactive disease; usually at 2 to 6 mo of age; peaks during winter; respiratory
syncytial virus (RSV) thought causative organism; spread by contact with secretions (not aerosolized); O2 saturation
<95% on presentation single best predictor of severe episode; testing for RSV antigen not useful in ED; main concern apnea,
which can lead to syncope or death; AAP clinical statementmainstays of treatment supplemental O2 , keeping patient
well hydrated, and preventing iatrogenic spread by handwashing; optional trial of α- or β-agonists; meta-analysis
showed racemic epinephrine slightly better than β-agonist; if no improvement after 60 min or after few treatments, stop
(no improvement expected); steroids, ribavirin, and antibiotics of no proven benefit and not recommended routinely;
palivizumab (Synagis; monoclonal antibody against RSV) effective and recommended for premature infants and those
with chronic lung or heart disease from birth; given at <6 mo of age; give monthly, starting in December, for 5 mo; risk
factors for apnea include age <3 mo, prematurity, low O2 saturation at presentation, and comorbidities
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Suggested Reading
Frush KS: Medication errors in pediatric emergency care.developing a national standard? Ann Emerg Med 50:369,
2007; Gallagher TH et al: Patients' and physicians' attitudes regarding the disclosure of medical errors. JAMA
289:1001, 2003; Kozer E et al: Medication errors in children. Pediatr Clin North Am 53:1155, 2006; Lazare A:
Apology in medical practice: an emerging clinical skill. JAMA 296:1401, 2006; Marcin JP et al: Medication errors
among acutely ill and injured children treated in rural emergency departments. Ann Emerg Med 50:361, 2007; Mazor
KM et al: Health plan members' views about disclosure of medical errors. Ann Intern Med 140:409, 2004; McCollough
M et al: Abdominal pain in children. Pediatr Clin North Am 53:107, 2006; Oakley E et al: Using video recording
to identify management errors in pediatric trauma resuscitation. Pediatrics 117:658, 2006; Sharek PJ et al: The
incidence of adverse events and medical error in pediatrics. Pediatr Clin North Am 53:1067, 2006; Vasavada P: Ultrasound
evaluation of acute abdominal emergencies in infants and children. Radiol Clin North Am 42:445, 2004; Willwerth
BM et al: Identifying hospitalized infants who have bronchiolitis and are at high risk for apnea. Ann Emerg Med
48:441, 2006.
Educational Objectives
| The goals of this program are to improve patient safety in the pediatric emergency department and improve management of
pediatric emergencies. After hearing and assimilating this program, the clinician will be better able to:
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 | 1. List the elements of a medical error disclosure.
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 | 2. Utilize the categories of investigation involved in root cause analysis.
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 | 3. Implement recommendations necessary to establish a culture of safety in the emergency department.
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 | 4. Recognize the indications for work-up of neonatal jaundice.
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 | 5. Diagnose and manage various respiratory and abdominal pediatric emergencies.
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Faculty Disclosure
In adherence to ACCME Standards for Commercial Support, Audio-Digest requires all faculty and planning committee members to disclose relevant
financial relationships within the past 12 months that might create any personal conflicts of interest. Any identified conflicts were resolved to
ensure that this educational activity promotes quality in health care and not a proprietary business or commercial interest. For this program, the faculty
and the planning committee reported nothing to disclose.
Acknowledgements
Dr. Shook was recorded at Pediatric Emergency Medicine 2007, held April 10-14, 2007, in Lake Buena Vista, FL, and sponsored by
Nemours. Dr. Braunstein was recorded at the 4th Annual Emergency Medicine Symposium, held December 1, 2006, in Los Angeles,
CA, and sponsored by Cedars-Sinai Medical Center, Department of Emergency Medicine. The Audio-Digest Foundation thanks the speakers and
the sponsors for their cooperation in the production of this program.
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