|
Flonase Comparison of prevalence, cost, and outcomes of a combination of salmeterol and fluticasone therapy to common asthma treatments.
Wang SW, Liu X, Wiener DJ, Sennett C, Bowers BW, Legorreta AP.
Health Benchmarks, Inc., 21650 Oxnard Street, Suite 2150, Woodland Hills, CA 91367, USA.
OBJECTIVES: To compare a combination of salmeterol and fluticasone with common asthma pharmacologic regimens used in real-world clinical practice, and to evaluate the associated costs and outcomes of care. STUDY DESIGN: Cross-sectional examination of medical and pharmacy claims. METHODS: The study population included 33,939 adult asthmatics (at least 12 years of age) continuously enrolled in 1 of 4 participating health plans for the 6-month study period. Every subject was in 1 of 10 different pharmacotherapy treatment groups. Univariate and multivariate analyses were used to compare the rates and costs of pharmaceutical prescriptions and medical care services between patients on salmeterol plus fluticasone and patients with other pharmacologic therapies. RESULTS: About 60.4% of the patients were on single controllers; the balance was on short-acting beta 2-agonists alone (23%) or double controllers (16.8%). The average overall cost of asthma care was approximately $228 per patient over the 6 months of the study. Pharmaceutical cost was the major cost driver, which was significantly lower for single-controller (mean = $134) than for double-controller therapies (mean = $325). However, total costs were $50-$200 lower (P < .029) for patients on salmeterol plus fluticasone and inhaled steroids plus mast cell stabilizing agents than for those on other double controllers. CONCLUSIONS: Single-controller regimens and short-acting beta-agonists were less costly than double-controller regimens. Within the double-controller groups, salmeterol plus fluticasone appeared to be less costly than other double controllers, except inhaled steroids plus mast cell stabilizing agents.
Online source: www.ncbi.nlm.nih.gov/entrez/query.fcgi?cmd=Retrieve&db=PubMed&list_uids=11570024&dopt=Abstract fluticasone Flonase
Flonase A comparison of asthma-related expenditures for patients started on montelukast versus fluticasone propionate as monotherapy.
Bukstein DA, Henk HJ, Luskin AT.
Dean Foundation for Health, Research, and Education, Dean Medical Center, Madison, Wisconsin 53590, USA.
BACKGROUND: The prevalence of asthma is increasing, and this chronic condition imposes a substantial economic burden worldwide. It is not known whether newer therapies, such as leukotriene receptor antagonists (LTRAs), can ease this burden. OBJECTIVE: This analysis examined the association between choice of first-line asthma control therapy and health care resource utilization and expenditures in patients with mild asthma. METHODS: A retrospective cohort analysis of claims data for patients who started therapy with fluticasone propionate or montelukast between January 1, 1997, and February 28, 1999, was performed, adjusting for baseline differences. RESULTS: Data from 343 patients (229 fluticasone; 114 montelukast) were analyzed. Patients starting therapy with fluticasone were significantly older (33.3 vs 27.6 years; P = 0.015) and significantly less likely than patients starting therapy with montelukast to have been started on control therapy by an asthma specialist (52.0% vs 69.3%; P = 0.007). There were no significant differences in mean changes in total asthma-related health care expenditures, oral steroid and antibiotic prescriptions, hospitalizations, or emergent care visits. The mean increase in total asthma-related pharmacy expenses was significantly greater for patients who were prescribed montelukast than for those prescribed fluticasone (P < 0.001). Treatment adherence was better in patients prescribed montelukast versus fluticasone (5.1 vs 3.1 prescriptions filled per year, respectively; P < 0.001). Montelukast patients had a significantly lower increase in the number of beta-agonist prescriptions filled per year than fluticasone patients (0.19 vs 0.66; P = 0.03). In the subsequent year, 4% (10/229) of fluticasone patients added or switched to an LTRA. No montelukast patients added to or switched control therapy. CONCLUSION: The mean change in total asthma-related health care expenditures was not significantly different in patients started on fluticasone propionate versus montelukast. Montelukast patients had better adherence to their treatment regimen and required fewer beta-agonist prescriptions, which is an indicator of asthma control and possibly therapeutic effectiveness.
Online source: www.ncbi.nlm.nih.gov/entrez/query.fcgi?cmd=Retrieve&db=PubMed&list_uids=11589270&dopt=Abstract fluticasone Flonase
Flonase Inhaled fluticasone decreases bronchial but not alveolar nitric oxide output in asthma.
Lehtimaki L, Kankaanranta H, Saarelainen S, Turjanmaa V, Moilanen E.
The Immunopharmacological Research Group, Medical School, University of Tampere, Dept of Clinical Chemistry, Finland.
Exhaled nitric oxide (NO) concentration is a noninvasive measure of airway inflammation and is increased in asthma. Inhaled glucocorticoids decrease exhaled NO concentration, but the relative contributions of alveolar and bronchial levels to the decrease in exhaled NO concentration are unknown. Alveolar NO concentration and bronchial NO flux can be separately approximated by measuring exhaled NO at several exhalation flow rates. The effect of steroid treatment on alveolar and bronchial NO output in asthma was studied. Alveolar NO concentration and bronchial NO flux were assessed in 16 patients with asthma before and during treatment with inhaled fluticasone for 8 weeks and in 16 healthy controls. Before the treatment, asthmatics had increased bronchial NO flux (mean+/-SEM: 3.6+/-0.4 versus 0.7+/-0.1 nL x s(-1), p<0.001) but normal alveolar NO concentration (1.2+/-0.5 versus 1.0+/-0.2 parts per billion (ppb), p>0.05) compared with controls. Inhaled fluticasone decreased bronchial NO flux from 3.6+/-0.4 to 0.7+/-0.1 nL x s(-1) (p<0.01) but had no effect on alveolar NO concentration (before: 1.2+/-0.5; after: 1.2+/-0.1 ppb, p>0.05). The forced expiratory volume in one second improved, whereas asthma symptom score and serum levels of eosinophil cationic protein and eosinophil protein X decreased during the treatment. In conclusion, inhaled fluticasone decreases bronchial but not alveolar nitric oxide output simultaneously with clinical improvement in patients with asthma.
Online source: www.ncbi.nlm.nih.gov/entrez/query.fcgi?cmd=Retrieve&db=PubMed&list_uids=11716167&dopt=Abstract fluticasone Flonase
Flonase Beclomethasone, budesonide and fluticasone propionate inhibit human neutrophil apoptosis.
Zhang X, Moilanen E, Kankaanranta H.
Medical School, University of Tampere, Tampere, Finland.
Inhaled glucocorticoids are widely used to treat chronic obstructive pulmonary disease without much evidence of efficiency in this disease where neutrophils may contribute to the pathophysiology. This prompted us to test the effects of several currently used inhaled and systemic glucocorticoids on human neutrophil apoptosis. Beclomethasone, budesonide, dexamethasone, fluticasone propionate, hydrocortisone and prednisolone inhibited apoptosis in a concentration-dependent manner as assessed by flow cytometric analysis, annexin-V binding and morphological analysis. The maximal inhibition of apoptosis was 50-60%. The order of potency was fluticasone propionate (EC(50) 0.6+/-0.2 nM) approximately equal to budesonide (EC(50) 0.8+/-0.2 nM)> dexamethasone approximately equal to prednisolone approximately equal to beclomethasone approximately equal to hydrocortisone. The inhibitory effects of glucocorticoids were reversed by mifepristone. Moreover, glucocorticoids slightly enhanced the inhibitory effect of granulocyte-macrophage colony-stimulating factor (GM-CSF) on neutrophil apoptosis. The present data suggests that budesonide and fluticasone propionate prolong human neutrophil survival by inhibiting apoptosis at clinically relevant drug concentrations via an effect on glucocorticoid receptor.
Online source: www.ncbi.nlm.nih.gov/entrez/query.fcgi?cmd=Retrieve&db=PubMed&list_uids=11730731&dopt=Abstract fluticasone Flonase
Flonase Adherence to oral montelukast and inhaled fluticasone in children with persistent asthma.
Sherman J, Patel P, Hutson A, Chesrown S, Hendeles L.
Department of Pediatrics, University of Florida, Gainesville, USA. shermjm peds.ufl.edu
STUDY OBJECTIVE: To evaluate adherence to oral montelukast and inhaled fluticasone in children with persistent asthma and to determine if age, monotherapy, and duration of therapy affect adherence. DESIGN: Retrospective analysis. SETTING: Pediatric pulmonary clinic. PATIENTS: One hundred seventy-one children with asthma who required continuous treatment with a controller agent year-round and in whom montelukast and/or fluticasone had been prescribed for at least 90 days. INTERVENTION: Montelukast monotherapy had been prescribed for 54 patients, fluticasone monotherapy for 48 patients, and combination therapy for 69 patients. MEASUREMENTS AND MAIN RESULTS: Prescription refill histories were obtained from pharmacies identified by the parents or from Medicaid pharmacy reimbursement records. The maximum possible adherence was calculated as [(no. of doses refilled)/(no. of doses prescribed)] x 100, for a mean observation period of 203 days (range 84-365 days) for montelukast and 314 days (range 97-365 days) for fluticasone. Median adherence rates were 59% (95% confidence interval [CI] 48-65%) for montelukast and 44% (90% CI 35-50%) for fluticasone. Adherence did not significantly correlate with age, length of observation period, or whether the patient was receiving monotherapy or combination therapy. The odds ratio for very poor adherence (< 50%) was 2.0 (95% CI 1.3-3.2) for fluticasone relative to montelukast. CONCLUSIONS: Adherence to both drugs was suboptimal. However, these data indicate that our patients were likely to take montelukast more consistently than fluticasone. Whether this translates into better asthma control requires further study.
Online source: www.ncbi.nlm.nih.gov/entrez/query.fcgi?cmd=Retrieve&db=PubMed&list_uids=11765298&dopt=Abstract fluticasone Flonase
Flonase (fluticasone) References
Flonase or fluticasone 1 |
Flonase or fluticasone 2 |
Flonase or fluticasone 3 |
Flonase or fluticasone 4 |
Flonase or fluticasone 5 |
Flonase or fluticasone 6 |
Flonase or fluticasone 7 |
Flonase or fluticasone 8 |
Flonase or fluticasone 9 |
Flonase or fluticasone 10 |
Flonase or fluticasone 11 |
Flonase or fluticasone 12 |
Flonase or fluticasone 13 |
Flonase or fluticasone 14 |
Flonase or fluticasone 15 |
Flonase or fluticasone 16 |
Flonase or fluticasone 17 |
Flonase or fluticasone 18 |
Flonase or fluticasone 19 |
Flonase or fluticasone 20 |
Flonase or fluticasone 21 |
Flonase or fluticasone 22 |
Flonase or fluticasone 23 |
Flonase or fluticasone 24
| |