Your browser doesn't support javascript.
loading
Show: 20 | 50 | 100
Results 1 - 11 de 11
Filter
1.
Children (Basel) ; 10(5)2023 May 08.
Article in English | MEDLINE | ID: mdl-37238396

ABSTRACT

Neonatal drug information (DI) is essential for safe and effective pharmacotherapy in (pre)term neonates. Such information is usually absent from drug labels, making formularies a crucial part of the neonatal clinician's toolbox. Several formularies exist worldwide, but they have never been fully mapped or compared for content, structure and workflow. The objective of this review was to identify neonatal formularies, explore (dis)similarities, and raise awareness of their existence. Neonatal formularies were identified through self-acquaintance, experts and structured search. A questionnaire was sent to all identified formularies to provide details on formulary function. An original extraction tool was employed to collect DI from the formularies on the 10 most commonly used drugs in pre(term) neonates. Eight different neonatal formularies were identified worldwide (Europe, USA, Australia-New Zealand, Middle East). Six responded to the questionnaire and were compared for structure and content. Each formulary has its own workflow, monograph template and style, and update routine. Focus on certain aspects of DI also varies, as well as the type of initiative and funding. Clinicians should be aware of the various formularies available and their differences in characteristics and content to use them properly for the benefit of their patients.

2.
World J Pediatr ; 19(1): 58-67, 2023 01.
Article in English | MEDLINE | ID: mdl-36344872

ABSTRACT

BACKGROUND: Recombinant human (rh)IGF-1/IGFBP-3 protein complex, administered as a continuous intravenous infusion in preterm infants, is being studied for the prevention of complications of prematurity. METHODS: We conducted in vitro studies to evaluate the physical and chemical compatibility of rhIGF-1/IGFBP-3 with medications routinely administered to preterm neonates. In vitro mixing of rhIGF-1/IGFBP-3 drug product with small-molecule test medications plus corresponding controls was performed. Physical compatibility was defined as no color change, precipitation, turbidity, gas evolution, no clinically relevant change in pH/osmolality or loss in medication content. Chemical compatibility of small molecules was assessed using liquid chromatography (e.g., reverse-phase HPLC and ion chromatography), with incompatibility defined as loss of concentration of ≥ 10%. A risk evaluation was conducted for each medication based on in vitro compatibility data and potential for chemical modification. RESULTS: In vitro physical compatibility was established for 11/19 medications: caffeine citrate, fentanyl, fluconazole, gentamicin, insulin, intravenous fat emulsion, midazolam, morphine sulfate, custom-mixed parenteral nutrition solution (with/without electrolytes), parenteral nutrition solution + intravenous fat emulsion, and vancomycin (dosed from a 5 mg/mL solution), but not for 8/19 medications: amikacin, ampicillin, dopamine, dobutamine, furosemide, meropenem, norepinephrine, and penicillin G, largely owing to changes in pH after mixing. Small-molecule compatibility was unaffected post-mixing, with no loss of small-molecule content. For physically compatible medications, risk analyses confirmed low probability and severity of a risk event. CONCLUSION: Co-administration of rhIGF-1/rhIGFBP-3 drug product with various medications was assessed by in vitro studies using case-by-case risk analyses to determine the suitability of the products for co-administration.


Subject(s)
Insulin-Like Growth Factor Binding Protein 3 , Insulin-Like Growth Factor I , Infant , Humans , Infant, Newborn , Insulin-Like Growth Factor I/metabolism , Insulin-Like Growth Factor I/therapeutic use , Insulin-Like Growth Factor Binding Protein 3/therapeutic use , Fat Emulsions, Intravenous/therapeutic use , Infant, Premature , Recombinant Proteins/therapeutic use , Infusions, Intravenous
5.
Lancet Neurol ; 14(5): 469-77, 2015 May.
Article in English | MEDLINE | ID: mdl-25765333

ABSTRACT

BACKGROUND: Preclinical data suggest that the loop-diuretic bumetanide might be an effective treatment for neonatal seizures. We aimed to assess dose and feasibility of intravenous bumetanide as an add-on to phenobarbital for treatment of neonatal seizures. METHODS: In this open-label, dose finding, and feasibility phase 1/2 trial, we recruited full-term infants younger than 48 h who had hypoxic ischaemic encephalopathy and electrographic seizures not responding to a loading-dose of phenobarbital from eight neonatal intensive care units across Europe. Newborn babies were allocated to receive an additional dose of phenobarbital and one of four bumetanide dose levels by use of a bivariate Bayesian sequential dose-escalation design to assess safety and efficacy. We assessed adverse events, pharmacokinetics, and seizure burden during 48 h continuous electroencephalogram (EEG) monitoring. The primary efficacy endpoint was a reduction in electrographic seizure burden of more than 80% without the need for rescue antiepileptic drugs in more than 50% of infants. The trial is registered with ClinicalTrials.gov, number NCT01434225. FINDINGS: Between Sept 1, 2011, and Sept 28, 2013, we screened 30 infants who had electrographic seizures due to hypoxic ischaemic encephalopathy. 14 of these infants (10 boys) were included in the study (dose allocation: 0·05 mg/kg, n=4; 0·1 mg/kg, n=3; 0·2 mg/kg, n=6; 0·3 mg/kg, n=1). All babies received at least one dose of bumetanide with the second dose of phenobarbital; three were withdrawn for reasons unrelated to bumetanide, and one because of dehydration. All but one infant also received aminoglycosides. Five infants met EEG criteria for seizure reduction (one on 0·05 mg/kg, one on 0·1 mg/kg and three on 0·2 mg/kg), and only two did not need rescue antiepileptic drugs (ie, met rescue criteria; one on 0·05 mg/kg and one on 0·3 mg/kg). We recorded no short-term dose-limiting toxic effects, but three of 11 surviving infants had hearing impairment confirmed on auditory testing between 17 and 108 days of age. The most common non-serious adverse reactions were moderate dehydration in one, mild hypotension in seven, and mild to moderate electrolyte disturbances in 12 infants. The trial was stopped early because of serious adverse reactions and limited evidence for seizure reduction. INTERPRETATION: Our findings suggest that bumetanide as an add-on to phenobarbital does not improve seizure control in newborn infants who have hypoxic ischaemic encephalopathy and might increase the risk of hearing loss, highlighting the risks associated with the off-label use of drugs in newborn infants before safety assessment in controlled trials. FUNDING: European Community's Seventh Framework Programme.


Subject(s)
Bumetanide , Hypoxia-Ischemia, Brain/drug therapy , Phenobarbital/therapeutic use , Seizures/drug therapy , Bumetanide/administration & dosage , Bumetanide/adverse effects , Bumetanide/pharmacology , Drug Administration Schedule , Drug Synergism , Early Termination of Clinical Trials , Feasibility Studies , Female , Humans , Hypoxia-Ischemia, Brain/complications , Infant, Newborn , Male , Seizures/etiology , Sodium Potassium Chloride Symporter Inhibitors/administration & dosage , Sodium Potassium Chloride Symporter Inhibitors/adverse effects , Sodium Potassium Chloride Symporter Inhibitors/pharmacology , Treatment Failure
6.
Drug Des Devel Ther ; 7: 619-25, 2013.
Article in English | MEDLINE | ID: mdl-23926420

ABSTRACT

OBJECTIVE: MAP0004 is an investigational product which delivers dihydroergotamine (DHE) through the lung via a breath-synchronized metered dose inhaler. The objective of this study was to compare the acute effects of orally inhaled and intravenous (IV) DHE to placebo on maximum change and area under the curve for pulmonary arterial systolic pressure (PASP). RESEARCH DESIGN AND METHODS: A randomized, double-blind, placebo-controlled, 3-period, crossover study of 24 health adults. Trial registration NCT01089062. Study assessments included pharmacokinetics, electrocardiograms (ECG), and validated echocardiographic (Doppler)-derived measures of PASP by echocardiogram. The primary endpoint was the absolute change in calculated PASP using area under the curve, 0 to 2 hours (AUC(0-2h)). RESULTS: The change in PASP with IV DHE was significantly different than MAP0004 and placebo (AUC(0-2h)2857, 2624, and 2453 mmHg*min, respectively). After a second dose of MAP0004, AUC(0-4h) remained lower with MAP0004 than with a single dose of IV DHE. Adverse events were more common with IV DHE than with MAP0004 or placebo. None of the treatments produced clinically significant changes in PASP or other cardiac parameters. Changes in PASP were significantly smaller with MAP0004 compared with IV DHE. CONCLUSION: These results indicate the effects 1 mg of orally inhaled DHE on the cardiovascular system are less than with 1 mg of IV DHE, and that serial echocardiography can be a useful noninvasive means of assessing acute systemic effects.


Subject(s)
Dihydroergotamine/administration & dosage , Echocardiography , Administration, Inhalation , Administration, Intravenous , Adolescent , Adult , Cross-Over Studies , Dihydroergotamine/adverse effects , Dihydroergotamine/pharmacokinetics , Double-Blind Method , Female , Humans , Male , Metered Dose Inhalers , Middle Aged , Migraine Disorders/drug therapy , Pulmonary Artery/drug effects , Pulmonary Artery/physiology , Systole/drug effects
7.
Ther Innov Regul Sci ; 47(5): 550-556, 2013 Sep.
Article in English | MEDLINE | ID: mdl-30235575

ABSTRACT

Trial simulations have emerged as a promising tool to optimize pediatric drug development programs. As the current FDA legislation on pediatric drugs and devices was updated to mirror the EMA legislation, pediatric programs must be developed with global strategies that support a Pediatric Investigation Plan (PIP) for the EMA and a Pediatric Study Plan (PSP) for the FDA. A pharmacometrics framework is proposed to support global regulatory strategies for pediatric drug development programs. The framework describes specific trigger points and opportunities for applying modeling and simulation techniques to design the PIP and PSP and ultimately optimize pediatric drug development programs. The development of pediatric protocols by simulations and execution plans is deemed critical in defining expectations and ensuring the future success of these global programs. This can lead to clinical trial designs that are more efficient, less prone to failure, and ultimately, less costly.

8.
Early Hum Dev ; 85(10 Suppl): S5-7, 2009 Oct.
Article in English | MEDLINE | ID: mdl-19767158

ABSTRACT

OBJECTIVE: Describe cerebrospinal fluid parameters in infants with culture-proven Group B streptococcal meningitis in the era of intrapartum antibiotic prophylaxis. STUDY DESIGN: Cohort study of the first lumbar puncture from 13,495 infants cared for at 150 neonatal intensive care units. We compared cerebrospinal fluid parameters [white blood cell count, red blood cell count, glucose, and protein], demographics, and outcomes between infants with and without Group B streptococcal meningitis. RESULTS: We identified 46 infants with Group B streptococcal meningitis. The median cerebrospinal fluid white blood cell count was 271 cells/mm(3) for infants with Group B streptococcal meningitis and 6 cells/mm(3) for infants without meningitis (p=0.0001). Of the infants with Group B streptococcal meningitis, 9/46 (20%) had negative blood cultures. Meningitis complicated 22/145 (15%) of episodes of early-onset Group B streptococcal sepsis and 13/23 (57%) of episodes of late-onset Group B streptococcal sepsis. CONCLUSIONS: Group B streptococcal meningitis occurs in the presence of negative blood cultures. In hospitalized infants who undergo a lumbar puncture, Group B streptococcal sepsis is frequently complicated by GBS meningitis.


Subject(s)
Anti-Bacterial Agents/therapeutic use , Antibiotic Prophylaxis , Meningitis, Bacterial/cerebrospinal fluid , Streptococcal Infections/cerebrospinal fluid , Bacteremia/cerebrospinal fluid , Bacteremia/complications , Bacteremia/microbiology , Cerebrospinal Fluid/cytology , Cerebrospinal Fluid/microbiology , Cerebrospinal Fluid Proteins/analysis , Cohort Studies , Erythrocyte Count , Female , Glucose/cerebrospinal fluid , Humans , Infant, Newborn , Leukocyte Count , Male , Meningitis, Bacterial/complications , Meningitis, Bacterial/diagnosis , Meningitis, Bacterial/microbiology , Spinal Puncture , Streptococcal Infections/complications , Streptococcal Infections/diagnosis , Streptococcal Infections/microbiology , Streptococcus agalactiae/isolation & purification
9.
Am Heart J ; 156(4): 682-8, 2008 Oct.
Article in English | MEDLINE | ID: mdl-18926149

ABSTRACT

BACKGROUND: Congress has authorized the United States Food and Drug Administration (FDA) to provide industry sponsors with a 6-month extension of drug marketing rights under the Pediatric Exclusivity Provision if FDA-requested pediatric drug trials are conducted. The cost and economic return of pediatric exclusivity to industry sponsors has been shown to be highly variable. We sought to determine the cost of performing pediatric exclusivity trials within a single therapeutic area and the subsequent economic return to industry sponsors. METHODS: We evaluated 9 orally administered antihypertensive drugs submitted to the FDA under the Pediatric Exclusivity Provision from 1997 to 2004 and obtained key elements of the clinical trial designs and operations. Estimates of the costs of performing the studies were generated and converted into after-tax cash outflow. Market sales were obtained and converted into after-tax inflows based on 6 months of additional patent protection. Net economic return and net return-to-cost ratios were determined for each drug. RESULTS: Of the 9 antihypertensive agents studied, an average of 2 studies per drug was performed, including at least 1 pharmacokinetic study and a safety and efficacy study. The median cost of completing a pharmacokinetic trial was $862,000 (range $556,000 to 1.8 million). The median cost of performing safety and efficacy trials for these agents was $4.3 million (range $2.1-12.9 million). The ratio of net economic return to cost was 17 (range 4-64.7). CONCLUSION: We found that, within a cohort of antihypertensive drugs, the Pediatric Exclusivity Provision has generated highly variable, yet lucrative returns to industry sponsors.


Subject(s)
Antihypertensive Agents/therapeutic use , Clinical Trials as Topic/economics , Drug Industry/economics , Research Support as Topic/economics , Child , Humans , Research Design , United States
10.
JAMA ; 297(5): 480-8, 2007 Feb 07.
Article in English | MEDLINE | ID: mdl-17284698

ABSTRACT

CONTEXT: In 1997, Congress authorized the US Food and Drug Administration (FDA) to grant 6-month extensions of marketing rights through the Pediatric Exclusivity Program if industry sponsors complete FDA-requested pediatric trials. The program has been praised for creating incentives for studies in children and has been criticized as a "windfall" to the innovator drug industry. This critique has been a substantial part of congressional debate on the program, which is due to expire in 2007. OBJECTIVE: To quantify the economic return to industry for completing pediatric exclusivity trials. DESIGN AND SETTING: A cohort study of programs conducted for pediatric exclusivity. Nine drugs that were granted pediatric exclusivity were selected. From the final study reports submitted to the FDA (2002-2004), key elements of the clinical trial design and study operations were obtained, and the cost of performing each study was estimated and converted into estimates of after-tax cash outflows. Three-year market sales were obtained and converted into estimates of after-tax cash inflows based on 6 months of additional market protection. Net economic return (cash inflows minus outflows) and net return-to-costs ratio (net economic return divided by cash outflows) for each product were then calculated. MAIN OUTCOME MEASURES: Net economic return and net return-to-cost ratio. RESULTS: The indications studied reflect a broad representation of the program: asthma, tumors, attention-deficit/hyperactivity disorder, hypertension, depression/generalized anxiety disorder, diabetes mellitus, gastroesophageal reflux, bacterial infection, and bone mineralization. The distribution of net economic return for 6 months of exclusivity varied substantially among products (net economic return ranged from -$8.9 million to $507.9 million and net return-to-cost ratio ranged from -0.68 to 73.63). CONCLUSIONS: The economic return for pediatric exclusivity is variable. As an incentive to complete much-needed clinical trials in children, pediatric exclusivity can generate lucrative returns or produce more modest returns on investment.


Subject(s)
Clinical Trials as Topic , Drug Industry/economics , Pediatrics , Clinical Trials as Topic/economics , Clinical Trials as Topic/legislation & jurisprudence , Clinical Trials as Topic/standards , Cohort Studies , Costs and Cost Analysis , Drug Approval , Drug Costs , Marketing , United States , United States Food and Drug Administration
11.
J Am Acad Child Adolesc Psychiatry ; 45(3): 261-270, 2006 Mar.
Article in English | MEDLINE | ID: mdl-16540810

ABSTRACT

OBJECTIVE: To give academic researchers, government officials, and industry scientists an opportunity to assess the state of pediatric psychopharmacology and identify challenges facing professionals in the field. METHOD: Increased federal spending and the introduction of pediatric exclusivity led to large increases in pediatric psychopharmacology research in the 1990s. Despite the increase in research, concerns exist about methods and incentives for making new medications available for use in pediatric psychiatric disorders. In recognition of these concerns, the Duke Clinical Research Institute held a roundtable in September 2004. Participants from the National Institutes of Health, regulatory agencies, academia, and the pharmaceutical industry spoke about the effects of government regulations such as the U.S. Food and Drug Administration Modernization Act and the Pediatric Research Equity Act on pediatric research from academic, clinical, and industry perspectives, and bioethical considerations of such research. CONCLUSIONS: To ensure development of new drugs for treating psychiatric disorders in children and adolescents, we must address the challenges posed by the regulatory environment governing pediatric psychopharmacology research. Strategies were identified for improving the evidence base for psychopharmacologic interventions in youth before widespread use and for more effectively defining a research agenda for the future.


Subject(s)
Adolescent Psychiatry , Child Psychiatry , Education , Government , Industry , Psychopharmacology/trends , Adolescent , Child , Forecasting , Humans
SELECTION OF CITATIONS
SEARCH DETAIL