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THE LINK Volume 5 | Issue 2 | February 2013 Outbreaks, Alerts & Hot Topics Norovirus News Mary Anne Jackson, MD | Division DIrector, Infectious Diseases Medical Editor, The Link Newsletter | Professor of Pediatrics Noroviruses have now become the most common cause of acute gastroenteritis outbreaks in the United States and most cases are related to person to person transmission. Morbidity is most common in the youngest, older adults and those who are immunocompromised. Noroviruses are also the leading cause of food-borne outbreaks and have been associated with leafy vegetables, shellfish (oysters), fruits (raspberries) contaminated at their source, and also traced to foods contaminated by infected food handlers. More than 90 percent of diarrheal outbreaks that occur on cruise ships are caused by norovirus, and disease is facilitated by close living quarters, shared dining facilities and difficulty with limiting spread once the outbreak takes off. Not surprisingly, outbreaks have also occurred in other closely quartered populations, including schools, nursing homes, long-term care facilities, military encampments, colleges and prisons. The virus is highly contagious. My colleague, Dr. Christopher Harrison calls norovirus “the Shigella of viral diarrheal disease” as only 18 viral particles are necessary to transmit infection (similar to Shigella, where as few as 10 organisms can effectively transmit infection) and disease peaks in winter (November-April). Consider that the virus, which is found in stool for an average of two to five days following infection, contains a viral load of approximately 100 billion (Yes, billion with a B!) viral copies per gram of feces and it is not hard to see how outbreaks happen. The virus persists on surfaces and is resistant to disinfectants. Vomiting, watery, nonbloody diarrhea and abdominal cramping are the most commonly reported symptoms. Disease manifestations follow a 12-24 hour incubation period. Vomiting, watery, non-bloody diarrhea and abdominal cramping are the most commonly reported symptoms. In most cases, the patient recovers in one to three days. It is estimated that 10 percent come to medical attention and longer courses have been described in those who require hospitalization. Stool PCR assays obtained within 72 hours of disease onset can confirm disease and are the diagnostic test of choice for hospitalized patients. Classification systems have identified five geno groups, GI-GV. GII viruses are most common and 19 genotypes belonging to GII have been described. GII.4 are most common and account for >85 percent of outbreaks. Periodic increases in disease have been linked to the emergence of new viral strains. CaliciNet is a CDC surveillance system designed to classify and identify such new strains and, when possible, to clarify the source of new clusters of norovirus disease. This has been particularly important when outbreaks occur in multiple states, as it allows us to define common sources (e.g. foods), to monitor trends in disease, and to identify new, emerging norovirus strains. Vega, et al in 2011 presented the initial data from CaliciNet launched in March 2009 and reported 552 outbreaks in the first year of study.1 GII.4 New Orleans strain was reported as the most common strain in the country, emerging in October 2009. The newest data reveals that GII.4 Sydney has now replaced GII.4 New Orleans. It originated in Australia in March 2012 and by September-December of that year had spread widely across the United States. So far, this strain has been associated with more hospitalizations and more deaths compared to prior strains.2 Treatment is supportive with attention to correcting fluid/electrolyte imbalance. Meticulous hand hygiene practices, disinfection of surfaces, and use of contact precautions for those hospitalized with diarrhea are required. Most hospitalized patients recover in four to six days but chronic courses of disease have been reported in the transplant population in whom reduction of immune suppression has been required. No doubt we are just starting to learn about this new strain and more data is sure to come in the next several months. References: 1. Vega E, Barclay L, Gregoricus N, Williams K, Lee D, Vinjé J. Novel surveillance network for norovirus gastroenteritis outbreaks, United States. Emerg Infect Dis [serial on the Internet]. 2011 Aug [date cited]. http://dx.doi.org/10.3201/eid1708.101837 2. CDC. Notes from the Field: Emergence of New Norovirus Strain GII.4 Sydney. United States, 2012. MMWR 2013; 62(03);55-55. Visual Diagnosis What’s the Diagnosis? A 15-year-old female has a fourmonth history of recurrent fever, fatigue, arthralgias, evanescent rash and abdominal pain. Two months into the course, infectious mononucleosis was diagnosed; however, her symptoms persisted and she was hospitalized. Her past history included antecedent treatment with two antibiotics for sinusitis and a daily antibiotic for acne. Transaminitis with normal bilirubin values and pancreatitis were noted at admission. Rheumatologic evaluation revealed elevated ANA and anti-smooth muscle antibodies with normal creatinine phosphokinase (CPK). She had a normal hepatic ultrasound. Which of the following is the most likely diagnosis for this patient? A. Ascending cholangitis D. Epstein Barr Virus (EBV) Infection B. Autoimmune hepatitis (AIH) E. Gallstone induced hepatitis/pancreatitis C. Dermatomyositis February 2013 ensuring safe storage of firearms may go a long way toward decreasing the risk of death from a firearm-related injury or death in our patients. AAP Updates Gun Violence and Children Tom Tryon, MD, FAAP | Chair, AAP Committee on Membership Division Director, Urgent Care | Associate Professor For each of us, Dec. 14, 2012, will be a tragic day forever in our memory as we all recall watching with horror the unfolding story of the senseless gun violence at Sandy Hook Elementary School in Newtown, Conn. On that day, 20 elementary students and six adults were killed. Stories involving gun violence and loss of life in children are far too common in our society. As pediatric professionals we know that gun injuries cause death in children each year and the data is compelling. According to a press release from the American Academy of Pediatrics (AAP), “Gun injuries cause twice a many deaths as cancer, five times as many as heart disease and 15 times as many as infections. Firearmrelated deaths are one of the top three causes of death in American youth.”1 According to the policy statement: “The absence of guns from children’s homes and communities is the most reliable and effective measure to prevent firearm-related injuries in children and adolescents.. For many years, the AAP has recognized the importance of restricting gun access to children and this was once again reaffirmed in the most recent AAP Policy Statement on “Firearm Related Injuries Affecting the Pediatric Population,” which was released in October, 2012, by the Committee on Injury, Violence and Poison Prevention (CoIVPP).2 According to the policy statement: “The absence of guns from children’s homes and communities is the most reliable and effective measure to prevent firearm-related injuries in children and adolescents. Adolescent suicide risk is strongly associated with firearm availability. Safe gun storage (i.e. guns unloaded and locked, ammunition locked separately) reduces children’s risk of injury.”2 Further, the policy statement notes that while physician counseling of parents regarding firearm safety may be effective in decreasing firearm-related injuries, the same is not true of education programs aimed at children and adolescents. Further, evidence shows that with adolescents, even in the absence of a psychiatric diagnosis, the presence of a gun in the home increases the risk of suicide. According to Denise Dowd, MD, FAAP, MPH, a pediatric emergency medicine physician at Children’s Mercy, a former executive committee member of CoIVPP and one of the two lead authors on the policy statement, “Adolescents often experience very strong emotions and have difficulty seeing past a temporary setback. Their brains have not matured fully, which makes them impulsive and relatively more likely to attempt suicide. When those attempts are made with a gun there is little chance for them to change their minds. The odds of suicide are particularly high if the gun is kept loaded. It is absolutely critical that families who own guns follow safe-storage practices.”3 How can you help? The AAP recommends that pediatricians and other child health care professionals counsel parents and care providers about the dangers of allowing children and adolescents to have access to guns, either inside or outside the home. Additionally, asking about the availability or presence of guns and recommending either eliminating access or Website References: 1. http://www.aap.org/en-us/about-the-aap/aap-press-room/Pages/AAP-EndorsesSenator-Feinstein-Legislation-to-Ban-Assault-Weapons.aspx 2. http://pediatrics.aappublications.org/content/early/2012/10/15/peds.2012-2481. citation 3. http://www.aap.org/en-us/about-the-aap/aap-press-room/Pages/AmericanAcademy-of-Pediatrics-Renews-Committment-to-Preventing-Gun-Injuries-in-Children.aspx E vidence-Based Strategies for Common Clinical Questions Cefdinir Dosing for Treatment of Pneumococcal Infection Ross Newman, DO | General Pediatrics | Associate Program Director, Pediatric Residency Program | Assistant Professor of Pediatrics Molly Krager, MD | Co-Chief Resident Antibiotic choices for patients with acute otitis media (AOM) or community acquired pneumonia (CAP) are based on the patient age, disease severity, pharmacokinetics/dynamics (PK/PD) and consideration of the most likely pathogens. The most common bacterium causing AOM or CAP is S. pneumoniae. While penicillin had previously been the gold standard to successfully eradicate this organism; penicillin resistance increased in the 1980-90s prompting the implementation of 7-valent pneumococcal conjugate vaccine (PCV7) in 2000 and PCV13 in 2010. The PK/PD goal for beta lactam use is that drug concentrations exceed the minimum inhibitory concentration (MIC) of penicillins for >40 percent of the dosing interval and those of cephalosporins for 50 percent of the interval. Another consideration is that for beta lactams, only ~10-15 percent of serum concentrations reach the middle ear while as much as 80 percent reaches the lung tissue. Amoxicillin (80-90mg/kg/day divided in two doses) meets this PK/PD goal for AOM caused by S. pneumoniae with adequate middle ear fluid concentrations for penicillin susceptible and intermediately resistant S. pneumoniae as well as the one-half of highly resistant strains with amoxicillin MIC ≤4 µg/ml. The success of highdose therapy for AOM was confirmed by double tympanocentesis studies in which pathogen eradication occurred after 4-6 days of therapy with few treatment failures and excellent tolerability.1 In 2004, cefdinir was recommended by the AAP and AAFP as an alternative to amoxicillin, amoxicillin-clavulanate or ceftriaxone for AOM patients with a non-type I hypersensitive reaction (meaning no hives or anaphylaxis) to penicillin.2 The FDA approved dose is 14 mg/kg/day given daily or divided BID. PK/PD and clinical evidence suggests that this dose, unfortunately, does not effectively eradicate ~20 percent of nontypeable Haemophilus influenzae (ntHi) or any intermediately resistant/ highly resistant strains of S. pneumoniae. Two articles in The Pediatric Infectious Disease Journal in March 2006 described the PK, tolerability, and effectiveness of high dose cefdinir, specifically against penicillin nonsusceptible S. pneumoniae. Arguedas et al reported that while high dose cefdinir had an overall 10-day clinical success rate of 83 percent (note: 20 percent of S. pneumoniae and up to 50 percent of ntHi spontaneously resolve by 10 days making clinical success greater than that expected from pure antibiotic effect), it was only 43 percent microbiologically effective against penicillin resistant S. pneumoniae strains and only 72 percent effective against H. influenzae.3 Bowlware et al, using PK analysis, determined that cefdinir at 25 mg/kg/ day would be ineffective against penicillin nonsusceptible S. pneumoniae strains.4 Despite higher doses having a 152 percent higher peak plasma concentration (Cmax) and a 141 percent larger area under the plasma concentration time curve (AUC) when compared to standard dose, time above MIC was not sufficient to recommend high dose cefdinir for intermediately/highly penicillin resistant pneumococci. However, the significantly higher Cmax and AUC, the safety and tolerability of the higher dose, and the potential for greater efficacy have led many practitioners to incorporate a higher dose into their practice. Conclusion: While cefdinir is not a first-line drug for treatment of AOM, sinusitis or CAP, it can be considered in the child with non-serious allergy to penicillin. Self-reported penicillin allergy is not reliable and studies confirm a false positive rate of 90 percent when penicillin skin testing was used to verify. We recommend further history be obtained to validate the authenticity of an allergic reaction. Commonly, the drug in question was not actually taken or a recognized non-immunologic side effect (e.g., vomiting) was the “allergy.” For those with confirmed penicillin anaphylaxis, remember that cross reactivity with cephalosporins occurs in 10 percent of cases. Based on our data review: When treating AOM or CAP with cefdinir, a dose of 14 mg/kg/dose given BID is safe, well tolerated and likely adds ~10 percent to expected efficacy compared to standard FDA approved cefdinir dosing. The maximum dose is 300 mg twice daily. Practitioners should know that high dose cefdinir is not included as an option in the Infectious Diseases Society of America CAP guideline or in the new AAP AOM guidelines (due to be published Feb. 25). We would not generally recommend it as an adequate step-down drug from ceftriaxone for suspected penicillin resistant pneumococcal infection. In such cases, the decision should be based on the specific diagnosis, severity of illness and the child’s comorbidities. Consultation with ID may be helpful. References: 1. Piglansky, L. MD. et al. Bacteriologic and clinical efficacy of high dose amoxicillin for therapy of acute otitis media in children. Pediatric Infectious Disease Journal. 2003; 22:405-12. 2. American Academy of Pediatrics. Subcommittee on Management of Acute Otitis Media. Diagnosis and management of acute otitis media. Pediatrics. 2004;113:1451-1465. 3. Arguedas, A. et al. A multicenter, open label, double tympanocentesis study of high dose cefdinir in children with acute otitis media at high risk of persistent or recurrent infection. Pediatric Infectious Disease Journal. 2006; 25:211-218. 4. Bowlware. KL. et al. Cefdinir pharmacokinetics and tolerability in children receiving 25mg/kg once daily. Pediatric Infectious Disease Journal. 2006; 25:208-210. Ambulatory Approach to Common Subspecialty Problems Gardasil: Not Just for Girls Daryl Lynch, MD | Division Director, Adolescent Medicine Vice Chair of Ambulatory Services, Department of Pediatrics Professor of Pediatrics Celeste Tarantino, MD | Column Editor | Pediatric Emergency Medicine Chair, Medical Staff Bylaws | Associate Professor of Pediatrics Gardasil, the quadrivalent Human Papilloma Vaccine (HPV4) from Merck, is recommended by the Centers for Disease Control and Prevention, the American Academy of Pediatrics and the Advisory Committee on Immunization Practices (ACIP) for boys at age 11 or 12, with catch up vaccination up to age 21, and may be given up to age 26.1 The vaccine is approved by the FDA for use in boys and men ages 9-26 for the prevention of anal cancer caused by HPV types 16 and 18, genital warts caused by HPV types 6 and 11, and for anal intraepithelial neoplasia grades 1, 2 and 3 caused by HPV types 6, 11, 16 and 18. According to the National Immunization Survey completed by CDC, the 2011 US HPV completion of >3 doses in girls aged 13-17 for 2011 was 34.8 percent (±1.6) with a reported HPV4 rate in boys of less than 2 percent.2 Neither of these rates is protective of the population and needs improvement immediately. Vaccinations are given to prevent and protect individuals as well as to develop herd immunity for population protection. It is important that providers follow the recommended schedule published by the ACIP. These recommendations are made after extensive research and development with review by scientists that devote their professional careers to the study of vaccines. Safety and efficacy is reviewed and monitored by numerous private and public groups and recommendations changed when needed. Vaccination public health strategies only work when these recommendations are followed. History and data support that vaccines have been a very successful public health campaign for saving lives and reducing health care costs. HPV recommendations for boys need to be supported and practiced by providers of teens and young adults. Protection is best provided when the vaccine is given prior to exposure. Unfortunately, even giving the vaccine at age 11 is too late for some. Exposure can happen with any kind of adolescent experimentation that involves genital contact with someone who has HPV — intercourse isn’t necessary. HPV often has no signs or symptoms, so it can be hard to detect and males are not routinely tested. That means HPV transmission can happen without anyone knowing it. Vaccinating boys is important for several reasons. First of all, boys are at least half of the equation for the spread of sexually transmitted infections. More people getting the HPV vaccine provides better population protection. HPV4 is protective of 90 percent of the causes of genital warts which are devastating to the individual and adds to the health care costs from the virus. Although the vaccine does not carry an indication for all cancers caused by HPV, HPV has been found to be associated with several types of cancer: cervical, vulvar, vaginal, penile, anal and oropharyngeal (back of the throat, including the base of the tongue and tonsils). According to the CDC, each year more than 21,000 HPV-associated cancers occur in women; cervical cancer is the most common. More than 12,000 HPV-associated cancers occur each year in men; oropharyngeal cancers are the most common. References: 1. MMWR 2010;59:626–32, available at http://www.cdc.gov/mmwr/pdf/wk/mm5920.pdf 2. http://www.cdc.gov/vaccines/acip/meetings/downloads/slides-oct-2012/02-HPVDorell.pdf Visual Diagnosis? What’s the Diagnosis? Angela L. Myers, MD, MPH | Pediatric Infectious Diseases Fellowship Program Director Assistant Professor of Pediatrics Answer: B: Autoimmune hepatitis (AIH) The patient in the above vignette has drug-induced autoimmune hepatitis (DIAIH) and the implicated medication is minocycline, which was prescribed for her acne. Minocycline is commonly used to treat adolescent acne vulgaris and often continued for months, even years at a time. Common adverse events include gastrointestinal intolerance, photosensitivity, hyperpigmentation and hypersensitivity with rash. More severe but less common adverse reactions occur, including: organ dysfunction, benign intracranial hypertension, pneumonitis, serum sickness-like reactions and DIAIH. Patients with DIAIH have evidence of active chronic hepatitis on evaluation, features of autoimmune disease and elevated auto-inflammatory markers. Symptomatology may develop in as little as two weeks after starting therapy, but typically occurs after months or even >1 year. In a 2010 study evaluating clinical characteristics and prognosis of autoimmune hepatitis, 9 percent of cases were found to be drug-induced and minocycline and nitrofurantoin were most commonly implicated. The majority of patients recovered with removal of the offending agent, and a chronic course was less commonly noted than in non-drug induced cases. Sugimoto et al reported on the course of seven patients with DIAIH who had relapsing disease and speculated that druginduced liver injury may have unmasked the diagnosis of AIH. Treatment of DIAIH includes removal of the implicated drug, and for some patients, immune suppressive therapy with follow-up by a hepatologist. For teens treated with minocycline, it is imperative to discontinue the drug in any patient presenting with fever, rash and arthralgias and to evaluate hepatic function studies. In addition, the patient should not be treated with any tetracycline agent in the future. Ascending cholangitis is a bacterial infection of the biliary tree and gallstone hepatitis/pancreatitis is caused by an obstructive stone with or without infection at the level of the common bile duct or ampulla of Vater. Both of these etiologies were unlikely in this patient as her bilirubin levels were normal and she had no evidence of obstruction on ultrasound. While the patient certainly had an autoimmune diagnosis, dermatomyositis is unlikely without significant muscle aches and in the setting of a normal CPK. Although she had received an earlier clinical diagnosis of mononucleosis, she never exhibited the most common features of severe sore throat and difficulty swallowing. In addition, her symptoms continued much longer than would be expected and an antibody profile did not support this diagnosis. References: Chamberlain MC, et al. Minocycline-Induced Autoimmune Hepatitis with Subsequent Cirrhosis. JPGN. 2006 Feb; 42(2):232-5. Björnsson E, et al. Drug Induced Autoimmune Hepatitis: Clinical Characteristics and Prognosis. Hepatology. 2010; 51(6):2040-8 Sugimoto et al. Seven Cases of Autoimmune Hepatitis That Developed After Drug Induced Injury. Hepatology. 2011; 54 (5), 1892–1893. Pediatric Bioethics These women and their families face a complicated set of decisions. If the evaluation takes place early enough in gestation, then termination of pregnancy is an option. If it is later, we discuss options for obstetrical care such as the timing, locale and mode of delivery. In rare cases, there is also the possibility of in utero procedures. We talk about treatment options for the baby after birth, including innovative interventions and palliative care. We have never before had access to such detailed information about the fetus. Because such information is new, its meaning is often uncertain and we don’t really know the best or appropriate way to monitor the rest of the pregnancy. We don’t know how to accurately predict what will happen next. We don’t know when it would be preferable to deliver the baby prematurely or when to let the high-risk pregnancy proceed. There are also complicated feedback loops between better diagnostic information about the fetus, the decisions that people make based on that information, and the outcome data. For example, suppose that before the availability of fetal diagnosis, disease X has a birth prevalence of 1 percent and a reported infant mortality rate of 50 percent. Suppose further that half of the infant deaths followed decisions by parents not to pursue aggressive life-sustaining therapy. Thus, among 100 babies, 50 would die before their first birthday. Twenty-five of those 50 would have died as a result of not receiving lifesustaining treatment. So, among the babies who received life-sustaining treatment, the mortality rate would be 25/75, or 33 percent. Two-thirds survived. What, then, would we say is the “true” mortality rate for the condition? If we assume the babies whose parents chose palliative care are identical to the babies of parents who chose life-sustaining interventions, then 2/3 of those babies could have survived for a year if they were given life-sustaining treatment and the true mortality rate would be 33 percent, rather than the 50 percent that is accurately reported. If, on the other hand, we assume the babies who received palliative care were sicker in some way, and the decision to forego life-sustaining treatment reflected an assessment that treatment would likely be futile, then most would have died anyway. What, then, would be the impact of the availability of prenatal diagnosis for this condition? Some parents may choose to terminate the pregnancy. As a result, fewer babies would be born with the condition (the birth prevalence would fall); however, among those babies, more would likely receive life-sustaining treatment, so the reported infant mortality rate might fall. Alternatively, prenatal diagnosis may allow some stratification of risk based upon prognostic factors such as the presence or absence of other anomalies. In this scenario, parents would be more likely to terminate the pregnancy if the prognosis seemed worse. So, once again, the birth prevalence of the condition would go down and the babies who were born with the condition would likely have less severe disease than was seen prior to prenatal diagnosis. They might have higher survival rates. So far, this is all good. John Lantos, MD | Director of Pediatric Bioethics | Professor of Pediatrics But, those higher survival rates might then be used to counsel pregnant women about prognosis after a prenatal diagnosis for a particular condition. As a result, they may be more hopeful and more likely to continue the pregnancy. The birth prevalence of the condition will rise, as will the illness severity of the babies born with the condition. More treatment might be given with less good outcomes. Two years ago, Children’s Mercy opened a fetal medicine center. Pregnant women are referred to us if an abnormality has shown up on screening blood test or ultrasound. We perform additional evaluations and then sit down with families to discuss options and make plans. Clearly, fetal medicine is a work in progress and one that creates its own facts as it goes. Luckily, here at Children’s Mercy, we have a phenomenal multidisciplinary team that meets regularly, analyzes these issues, and tried to help parents to the best decision in each case. How Fetal Medicine Centers are Changing Perinatal Bioethics The World WIde of Vaccines Vaccine Coverage Study Barbara Pahud, MD, MPH | Associate Director, Children’s Mercy Hospital VTEU Assistant Professor of Pediatrics Despite established guidelines and ongoing efforts on the part of practitioners, vaccination coverage in the United States remains suboptimal. While screening of immunization status is recommended at each health care encounter, this is rarely done outside of primary care facilities. We set out to confirm the vaccine status of a Children’s Mercy inpatient population and to evaluate the impact of a pilot intervention that would identify vaccine-eligible children. The study was powered to detect an increase of 10 percent from baseline vaccination rates. For the pilot study, 356 children were randomly selected to participate between March and June of 2012. Immunization records were pursued from all potential sources and vaccination status was assessed using the CDC’s online Catch-Up Immunization Scheduler tool for health care providers. If catch-up doses were indicated, the parents/legal guardians were informed and the information was added to the discharge summary. One month following hospital discharge, primary care physicians were contacted to verify receipt of recommended vaccines. We were able to review immunization records provided by primary care providers (47 percent), the public health department (23 percent), the hospital’s electronic medical record (19 percent) or a combination. Overall, children ≥11 years were less likely to meet AAP/ACIP recommendations than any other age group (p=<0.001).In this group of children, HPV vaccine was the most commonly identified vaccine for which patients were eligible; 89 percent of eligible children had not initiated the series. Our findings are consistent with national data that confirms only 32 percent of girls aged 13 to 17 years in 2010 had completed the HPV vaccine series. Additionally, 70 percent of those eligible needed the second dose of varicella vaccine. Based on data from the 2010 National Immunization Survey, 58 percent of teens had completed the two-dose varicella vaccine series. Kawai et al found younger age, higher maternal education level, private health insurance, more frequent health care visits, receipt of both MCV4 and Tdap vaccinations, and residing in a state with twodose policies for middle school entry as the key factors associated with completion of the series. Missouri has no middle school varicella vaccine mandate and Kansas requires two doses by the ninth grade. We were able to increase immunization rates modestly from 73 percent at admission to 80 percent at one month follow-up (p=<0.001). The inpatient setting may be especially well suited to screen, administer vaccines and educate the under-immunized population. Notifying families of the need for vaccine(s) proved beneficial, but additional vaccine counseling may be needed to optimize immunization rates, particularly when it comes to HPV vaccine. We are in the process of developing a hospital-based immunization program as part of a quality improvement project and will keep you updated on our progress. We welcome your thoughts and suggestions regarding this new approach to help increase immunization rates in our community (e-mail: [email protected]). References: Kawai K et al. Factors Associated with Receipt of Two Doses of Varicella Vaccine among Adolescents in the United States.Pediatr Infect Dis J 2012 Nov 28. Jemal A et al. Annual Report to the Nation on the Status of Cancer, 1975-2009, Featuring the Burden and Trends in Human Papillomavirus (HPV)-Associated Cancers and HPV Vaccination Coverage Levels. J Natl Cancer Inst 2013 Jan 7 (Epub ahead of print). 2401 Gillham Road Kansas City, MO 64108-4689 THE LINK Volume 5 | Issue 2 | February 2013 Outbreaks, Alerts & Hot Topics: Norovirus News AAP Updates: Gun Violence and Children Evidence-Based Strategies: Cefdinir Dosing for Treatment of Pneumococcal Infection Pediatric Bioethics: How Fetal Medicine Centers are Changing Perinatal Bioethics Ambulatory Approach: Gardasil: Not Just for Girls The Wide World of Vaccines: Vaccine Coverage Study News Briefs Parents Magazine Honors Children’s Mercy Among the Best The Children’s Mercy Orthopaedics Division is ranked #4 and Children’s Mercy Hospitals and Clinics is ranked #14 overall in the Parents Magazine survey of the Top 10 Best Children’s Hospitals in the U.S. The #14 Children’s Mercy ranking is up eight spots from our last Parents ranking four years ago. The list appears in the March 2013 issue of Parents. Individualized Pediatric Therapeutics Consults Genome Center Honors The rapid whole genome sequencing approach developed by the Center for Pediatric Genomic Medicine at Children’s Mercy was named one of TIME magazine’s Top 10 Medical Breakthroughs of 2012. In addition, Stephen Kingsmore, MB, ChB, DSc, FRCPath, Director of the Center for Pediatric Genome Medicine at Children’s Mercy Hospital, has been named one the best physicians of the year by Medscape. Medscape highlights his “lifesaving discovery,” which allows babies with genetic diseases to be diagnosed in a couple of days, instead of weeks or months. The Individualized Pediatric Therapeutics (IPT) Inpatient Consult Service has replaced the Clinical Pharmacology Consult in Cerner effective immediately. The change in our name is intended to promote consistency between inpatient and outpatient services provided by the Division of Clinical Pharmacology and Therapeutic Innovation. These include our IPT Clinic and our IPT Drug Safety Service, an adverse drug reaction clinical program in conjunction with the Department of Pharmacy. This consult service is available to assist providers with diagnosis and evaluation of patients with adverse drug reactions (including lack of therapeutic effects with drug treatments), drug-drug interactions, drugdisease interactions, issues related to pharmacokinetics of medications, and pharmacogenetic/pharmacodynamic variations resulting in unexpected drug responses. For more information, call 816-234-3059. Contact Information The Link is produced monthly by Communications and Marketing with editorial guidance from Mary Anne Jackson, MD, the Associate Chair of Community and Regional Physician Collaborations at Children’s Mercy. The columns and topics are provided by members of the Children’s Mercy faculty and medical staff. For more information contact: Shawn Arni (816) 346-1371; [email protected] The Link is available in print and e-mail newsletter formats. Designate your preference (print, e-mail, both, neither) by going to www.childrensmercy.org/thelinkoptions.