Lea Eiland

Dr. Lea Eiland

orcid

Research Focus & Metrics

Academic Career Length

23Years (2004-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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26 April 2011 in Annals of Pharmacotherapy
Verified
Journal Article
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LELea Eiland
Lea Eiland
TEThomas M English
Thomas M English
EEEdward H Eiland
Edward H Eiland
BACKGROUND Because of concerns regarding increasing microbial resistance to vancomycin, adult treatment guidelines recommend higher trough concentrations based on the type of infectious process. Although these recommendations are not specific to pediatrics, the principles can be extrapolated. Desired higher trough serum concentrations will require escalated dosages of vancomycin in children. OBJECTIVE To evaluate current dosing regimens and subsequent trough serum concentrations of vancomycin in children, compare these to reference recommended dosages and guidelines, and predict a dosing equation to achieve desired serum concentrations. METHODS Pharmacokinetic parameters of children in a community teaching hospital who were prescribed vancomycin from January 2005 to May 2010 were evaluated in this retrospective chart review. Vancomycin dosing and subsequent serum concentrations were analyzed. Therapeutic serum concentrations were evaluated and compared to vancomycin prescribing and monitoring guidelines by year. RESULTS Four hundred thirty-five trough serum concentrations determined in 295 patients were analyzed. The average dosages, when evaluated by year, were 48 mg/kg/day (2005–2008) and 59 mg/kg/day (2009–2010). Using trough concentration recommendations of 5–15 mg/L, vancomycin regimens provided therapeutic trough concentrations 78% of the time from 2005 to 2008. Using 10–20 mg/L as the trough recommendations in 2009–2010, only 49% of serum concentrations reached a therapeutic level. Based on our predictive equation for children aged 1 month-18 years with normal renal function, a vancomycin dosage of 70 mg/kg/day is required to provide trough serum concentrations of 10 mg/L; a dosage of 85 mg/kg/day is required to provide trough serum concentrations of 15 mg/L. CONCLUSIONS Our institution was primarily using vancomycin dosing regimens that were recommended in pediatric references (40–60 mg/kg/day), which resulted in subtherapeutic serum concentrations in our population based on new monitoring recommendations. Considering that the currently desired therapeutic trough concentrations of vancomycin are 10–20 mg/L, the total daily dosage should be increased.

1 January 2009 in The Journal of Pediatric Pharmacology and Therapeutics
Verified
Journal Article
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LELea Eiland
Lea Eiland
Respiratory Syncytial Virus (RSV) is a common virus that infects children and adults; however, children younger than two years of age tend to develop more serious respiratory symptoms. RSV is responsible for thousands of outpatient visits (e.g., emergency room/primary care physician), hospitalizations and can result in death. Treatment is primarily supportive care and the illness resolves without complications in most children. RSV prophylaxis with palivizumab is an option for high-risk infants and children, which can decrease hospitalization and length of stay. Immunocompromised patients are a special population of which ribavirin and palivizumab may be used for treatment. Currently, no medication or vaccine available has been able to show a reduction in mortality from RSV. Future vaccines are in the developmental stage and will hopefully decrease the symptomatic and economic burden of this disease.

19 March 2025 in Pharmacotherapy: The Journal of Human Pharmacology and Drug Therapy
Verified
Journal Article
Open access
JNJohny Nguyen
Johny Nguyen
VMVictoria Madonia
Victoria Madonia
Christopher M. BlandChristopher M. Bland
Christopher M. Bland
KSKayla R Stover
Kayla R Stover
LELea Eiland
Lea Eiland
ANas part of the Southeastern Research Group Endeavor (SERGE‐45) research network
as part of the Southeastern Research Group Endeavor (SERGE‐45) research network
Antibiotics constitute the majority of prescriptions for women during pregnancy. Common bacterial infections, including urinary tract infections, skin and soft tissue infections, and upper and lower respiratory tract infections, are expected in pregnancy, similar to the general public. These infections carry additional risks to both the woman and fetus; thus, antibiotics are often prescribed. Antibiotics, like other drugs, are not benign and may carry additional risks to the fetus beyond commonly encountered adverse drug events seen across most patient populations. Since 2014, 19 new antibiotics have been approved by the United States Food and Drug Administration. Additionally, in 2018, the previously held pregnancy category rating expired, and all manufacturers' labeling was updated with new narrative language reflecting safety in pregnancy, lactation, and males and females of reproductive potential. This review provides a comprehensive summary of available data and an update to the 2015 publication regarding the safe use of antibiotics in pregnancy. The primary focus of this review is on newly approved antibiotics, along with any additional published evidence on previously reviewed antibiotics. Data on lactation or antiviral or antifungal use in pregnancy are not included. Clinicians should remain updated on current available evidence and vigilant to provide safe and effective antibiotic decision‐making in pregnant women.

1 December 2010 in Pediatric Drugs
Verified
Journal Article
Closed access
PDF file
LELea Eiland
Lea Eiland
MHMelissa O. Hunt
Melissa O. Hunt

7 July 2019 in Annals of Pharmacotherapy
Verified
Journal Article
Closed access
PDF file
JSJeremy S. Stultz
Jeremy S. Stultz
LELea Eiland
Lea Eiland
Doxycycline use has historically been limited to children older than 8 years because of concerns regarding permanent tooth discoloration. Six studies assessed tooth discoloration in at least 338 patients exposed to doxycycline before 8 years of age. Six patients had potential discoloration, but studies consistently found no difference in tooth discoloration between exposed patients and controls. Recommendations have changed stating doxycycline, but not other tetracyclines, can be used for short courses (<21 days) regardless of age. Clinicians should be aware of these data because doxycycline use may extend to disease states apart from tick-borne illnesses in pediatric patients.

1 July 2007 in Annals of Pharmacotherapy
Verified
Journal Article
Closed access
LELea Eiland
Lea Eiland
LJLauren S Jenkins
Lauren S Jenkins
SDSpencer H Durham
Spencer H Durham
Objective: To identify and evaluate the data regarding medication use for migraine prophylaxis in the pediatric population. Data Sources: Literature was obtained through searches in PubMed (Mid 1950s–March 2007), Iowa Drug Information Service/Web (1966–February 2007), International Pharmaceutical Abstracts (1970–Pebruary 2007), and the Cochrane Library. The terms migraine, prophylaxis, child, and children were used and cross referenced with all drug names. Reference citations from publications identified were also reviewed and included. Study Selection and Data Extraction: Only trials that evaluated migraine headaches in the pediatric population were included. Trials including adolescent and adult populations are briefly listed, but not reviewed. Trials involving nonprescription medication were also included in the evaluation. Due to the limited information, all clinical trials, retrospective reviews, and abstracts evaluated were included in this review. Data Synthesis: Few controlled clinical trials regarding prophylaxis therapy are available. Currently, no medications are approved by the Food and Drug Administration for prophylaxis of migraines in children. Seventeen drugs were identified and included in the review. Of the drugs with available data, topiramate, valproic acid, flunarizine, amitriptyline, and cyproheptadine have shown efficacy in decreasing migraine frequency and duration in children. However, larger clinical trials are necessary to validate the utility of these agents. Conflicting data exist for propranolol and pizotifen, and additional data are needed for gabapentin, leve-tiracetam, zonisamide, naproxen, and trazodone. In clinical trials, nimodipine, clonidine, and natural supplements have shown a lack of efficacy versus placebo for prophylaxis of migraines in children. Conclusions: Topiramate, valproic acid, and amitriptyline have the most data on their use for prophylaxis of migraines in children. Numerous agents have limited data in this population and several agents lack efficacy. Prospective, well designed, controlled clinical trials that include quality-of-life and functional outcomes are needed for guiding therapy of migraine prophylaxis for children.