Advil Congestion Relief (ibuprofen/phenylephrine HCl)
Last reviewed · Source: First Databank (FDB) drug data
Overview
Ibuprofen is a nonsteroidal anti-inflammatory agent (NSAIA) that exhibits analgesic and antipyretic activity.
Phenylephrine hydrochloride is an alpha1-adrenergic receptor agonist.
Ibuprofen is a nonsteroidal anti-inflammatory agent (NSAIA) that has pharmacologic actions similar to those of other prototypical NSAIAs. Ibuprofen demonstrates anti-inflammatory, antipyretic, and analgesic activity. The exact mechanisms of action of the drug have not been clearly established, but many of the actions appear to be associated with the inhibition of prostaglandin synthesis from arachidonic acid in a process mediated by the cyclooxygenase enzymes.
Prostaglandins are inflammatory mediators, and induce pain in animal models by sensitizing afferent nerves and potentiating the action of bradykinin. Ibuprofen, like other prototypical NSAIAs, inhibits both cyclooxygenase-1 (COX-1) and -2 (COX-2). In patients with primary dysmenorrhea, ibuprofen has reduced resting and active intrauterine pressure and the frequency of uterine contractions, probably as a result of inhibition of prostaglandin synthesis.
It appears that ibuprofen's inhibitory effect on platelet aggregation is of shorter duration and less pronounced than that of aspirin. Patients who may be adversely affected by a prolongation of bleeding time should be carefully observed during ibuprofen therapy.
In many premature neonates, administration of ibuprofen results in closure of the persistently patent ductus arteriosus, although the mechanism of action by which ibuprofen facilitates this effect is not known.
Absorption of oral ibuprofen is rapid when administered in the fasting state. Peak plasma concentrations of ibuprofen are attained 1-2 hours after oral administration. Absorption rate is slower and plasma concentrations are reduced when ibuprofen is taken with food; however, the extent of absorption is not affected.
When the drug is administered with food, peak plasma ibuprofen concentrations are reduced by 30-50% and time to achieve peak plasma concentrations is delayed by 30-60 minutes. Absorption of ibuprofen does not appear to be affected by concomitant administration of antacids containing aluminum hydroxide or magnesium hydroxide.
Following oral administration of a 200-mg dose in adults or a 10-mg/kg dose in febrile children, peak plasma concentrations and plasma AUCs of ibuprofen appear to be increased in children compared with those achieved in adults; these differences appear to result from age- or fever-related changes in the volume of distribution in children and also to the variability of doses (based on body weight) administered to pediatric patients. Ibuprofen is dose proportional at oral dosages of 5 and 10 mg/kg in febrile children. In adults, single oral doses of up to 800 mg are dose proportional based on AUC.
Above 800 mg, AUC increases are less than dose proportional. In children, pharmacokinetics (based on AUC and peak plasma concentrations) of IV ibuprofen are similar between children 3 months to <6 months of age and children 6 months to <2 years of age. Approximately 99% of a dose is bound to plasma proteins; protein binding appears to be saturable, and at concentrations exceeding 20 mcg/mL, such binding is nonlinear.
Plasma concentrations of ibuprofen appear to decline in a biphasic manner with a half-life of approximately 2 hours. The terminal elimination half-life of orally administered ibuprofen in children reportedly is similar to that in adults; however, total clearance may be affected by age or fever. It has been suggested that changes in total clearance may result from changes in the volume of distribution in febrile children.
The terminal elimination half-life is at least tenfold longer in premature neonates than in adults. The elimination half-life in pediatric patients receiving IV ibuprofen is shorter than that observed in adults. Following IV administration of 10-mg/kg doses of ibuprofen, the mean half-life was 1.5-1.6 hours in pediatric patients 2-16 years of age, 1.8 hours in those 6 months to <2 years of age, and 1.3 hours in those 3 months to <6 months of age; the volume of distribution and clearance increased with age.
Ibuprofen is metabolized mainly via cytochrome P-450 (CYP) isoenzyme 2C9-mediated hydroxylation of R- and S-ibuprofen. The S-isomer is clinically active, while the R-isomer is considered clinically inactive and undergoes conversion to the active S-isomer. Approximately 10-15% of an ibuprofen dose is excreted renally.
Excretion of ibuprofen is essentially complete within 24 hours following oral administration. Following oral administration of ibuprofen, approximately 80% of the dose is recovered in urine as the hydroxy- and carboxyl metabolites; ibuprofen undergoes further conjugation to acyl glucuronides. Metabolism and excretion of ibuprofen in premature neonates have not been evaluated.
Renal function and enzymes associated with drug metabolism are underdeveloped in neonates at birth, and increase substantially in the days after birth.
The phenylephrine activation of alpha1-adrenergic receptors on vascular smooth muscle cells results in vasoconstriction. Following IV administration of phenylephrine hydrochloride, systolic and diastolic blood pressure, mean arterial blood pressure, and total peripheral vascular resistance are increased. Vasoconstriction occurs in most vascular beds, including renal, pulmonary, and splanchnic arteries, but minimal to no effect is observed on cerebral blood vessels.
Hepatic vascular beds are also affected. In some patients, phenylephrine can substantially reduce cardiac output, presumably due to increased afterload; however, the exact effects of the drug on global cardiac output depend on the dose and contributory effects of the arterial and venous vasculature. Although phenylephrine reduces venous compliance and can potentially increase venous return, accompanying increases in arterial and venous resistance can negate this potential benefit.
With increased blood pressure following IV administration, there is increased vagal activity, resulting in reflex bradycardia. Phenylephrine constricts both arterial and venous blood vessels, although its effects on arterial vessels are more pronounced. At clinically relevant dosages, phenylephrine increases myocardial work and oxygen requirements.
Following an IV bolus of phenylephrine hydrochloride, blood pressure increase is rapid, typically occurring within minutes. Blood pressure effects from a phenylephrine bolus may persist for up to 20 minutes. Phenylephrine is widely distributed into organs and peripheral tissues.
It is not known if phenylephrine or its metabolite are distributed into human or animal milk following parenteral administration.
Phenylephrine is extensively metabolized in the liver. Phenylephrine primarily undergoes metabolism by sulfotransferase and monoamine oxidase (MAO) to pharmacologically inactive metabolites. The 2 major metabolites are m-hydroxymandelic acid and sulfate conjugates.
Following IV administration of phenylephrine, approximately 86% of the dose is excreted in urine within 48 hours, principally as metabolites; approximately 16% of the dose is excreted in urine as unchanged drug. The terminal elimination half-life of phenylephrine averages 2.5 hours following IV administration. The observed effective half-life is approximately 5 minutes following IV infusion of the drug.
Patients with hepatic cirrhosis may have a reduced response to phenylephrine, potentially requiring higher dosages of the drug. Patients with end-stage renal disease may have an increased response to phenylephrine, potentially requiring lower dosages of the drug.
Ibuprofen is used orally for the symptomatic treatment of rheumatoid arthritis, juvenile arthritis, and osteoarthritis. Ibuprofen also is used orally to relieve mild to moderate pain, to manage primary dysmenorrhea, and to reduce fever.
Generic name: ibuprofen/phenylephrine HCl
Reference product & biosimilars
No reference, biosimilar or interchangeable associated with this drug.
Today’s intelligence on Advil Congestion Relief
Indications
The following indications are listed for Advil Congestion Relief:
- Fever
- Nasal Congestion
- Pain
- Sinus Headache
Also known as: Febrile, Febrile Reaction, Nasal Stuffiness, Pyrexia, Sinus Pain.
Dosing
To minimize the potential risk of adverse cardiovascular and/or GI events, use the lowest possible effective dosage and shortest duration of therapy consistent with treatment goals of the patient. Dosage of ibuprofen must be carefully adjusted according to individual requirements and response, using the lowest possible effective dosage.
Dosage of ibuprofen lysine is expressed in terms of ibuprofen.
Ibuprofen is administered orally or IV. Ibuprofen lysine is administered IV.
Ibuprofen is also commercially available in the following fixed-combination tablets for oral use: ibuprofen and famotidine (Duexis(R)); ibuprofen and hydrocodone bitartrate. See the full prescribing information for administration of each of these combination products.
Ibuprofen is also commercially available in various over-the-counter (OTC) preparations as a single ingredient or in combination with other analgesics (e.g., acetaminophen), antihistamines, or decongestants. See the FDA Orange Book and the manufacturer's Drug Facts for further information.
Phenylephrine hydrochloride is administered by IV bolus or continuous IV infusion for the treatment of clinically important hypotension. The drug is available as a 10 mg/mL phenylephrine hydrochloride injection concentrate that must be diluted prior to administration and as a ready-to-use phenylephrine hydrochloride 100 mcg/mL (Immphentiv(R), Biorphen(R)) injection. Ready-to-use phenylephrine hydrochloride 100 mcg/mL (Immphentiv(R), Biorphen(R)) injection should not be further diluted before IV bolus administration.
For treatment of hypotension during anesthesia, the manufacturers recommend administration of phenylephrine hydrochloride as an IV bolus or continuous infusion; when used in the treatment of septic shock, the drug should be administered as a continuous IV infusion with no initial bolus dose. Phenylephrine hydrochloride injection should be stored at 20-25degreesC, but may be exposed to temperatures ranging from 15-30degreesC; single-dose and pharmacy bulk vials should be kept in their original carton until time of use and protected from light.
Commercially available phenylephrine hydrochloride injection concentrate must be diluted with a compatible IV solution prior to administration. Diluted solutions may be stored at room temperature for up to 4 hours or under refrigeration for up to 24 hours; any unused portions should be discarded.
Commercially available phenylephrine hydrochloride bulk vials are intended for use in a pharmacy admixture program for preparation of single doses to be dispensed to multiple patients. Each vial should be penetrated only one time with a suitable sterile transfer device or dispensing set. Dispensing from a pharmacy bulk vial should be completed within 4 hours after the vial is penetrated.
Prior to administration, phenylephrine hydrochloride solutions should be inspected visually for particulate matter and discoloration; the drug should be discarded if the solution is colored, cloudy, or contains any particulate matter.
Care should be taken to avoid extravasation and the infusion site should be checked for free flow.
No dosing information is available for this tab.
No dosing information is available for this tab.
Drug interactions
Ibuprofen is metabolized mainly via cytochrome P-450 (CYP) isoenzyme 2C9-mediated hydroxylation of R- and S-ibuprofen. There is no evidence of enzyme induction.
There are no contraindication interactions for this drug.
There are no severe interactions for this drug.
There are no moderate interactions for this drug.
Contraindications
*Ibuprofen is contraindicated in patients with known hypersensitivity (e.g., anaphylaxis, serious dermatologic reactions) to the drug or any ingredient in the formulation.
*Nonsteroidal anti-inflammatory agents (NSAIAs) generally are contraindicated in patients in whom asthma, urticaria, or other sensitivity reactions are precipitated by aspirin or other NSAIAs, since there is potential for cross-sensitivity between NSAIAs and aspirin, and severe, potentially fatal, bronchospasm can occur in such patients.
*NSAIAs are contraindicated in the setting of coronary artery bypass graft (CABG) surgery.
Contraindications with IV Ibuprofen Lysine for PDA
*Neonates with proven or suspected untreated infection.
*Neonates with active bleeding, such as those with intracranial hemorrhage or GI bleeding, and in neonates with thrombocytopenia or underlying coagulation defect.
*Neonates with suspected necrotizing enterocolitis.
*Neonates with substantially impaired renal function.
*Neonates with congenital heart disease when patency of the ductus arteriosus is necessary for adequate pulmonary or systemic blood flow (e.g., neonates with pulmonary atresia, severe tetralogy of Fallot, or severe coarctation of the aorta).
*Known hypersensitivity to phenylephrine or to any ingredient in the respective formulation.
There are no contraindication contraindications for this drug.
There are no severe contraindications for this drug.
There are no moderate contraindications for this drug.
Adverse reactions
Adverse effects reported in at least 5% of adults receiving IV ibuprofen include nausea, flatulence, vomiting, headache, hemorrhage, and dizziness.
Adverse effects reported in at least 2% of pediatric patients receiving IV ibuprofen include infusion site pain, vomiting, nausea, anemia, and headache.
The most common type of adverse effect occurring with ibuprofen tablets is GI, and was reported in 4-16% of patients in clinical studies.
Adverse effects occurring in 1-10% of patients receiving ibuprofen oral suspension include abnormal renal function, anemia, dizziness, edema, elevated transaminases, fluid retention, GI effects (e.g., abdominal pain, bloating, constipation, diarrhea, dyspepsia, epigastric pain, flatulence, heartburn, nausea, vomiting), headaches, increased bleeding times, nervousness, pruritis, rashes (including maculopapular), and tinnitus.
Adverse effects occurring in at least 10% of premature infants receiving IV ibuprofen lysine for the treatment of patent ductus arteriosus (PDA) include sepsis, anemia, intraventricular bleeding, apnea, GI disorders, impaired renal function, respiratory infection, skin lesions, hypoglycemia, hypocalcemia, and respiratory failure.
The most commonly reported adverse effects in patients receiving IV phenylephrine hydrochloride were nausea, vomiting, and headache.
There are no severe adverse reactions for this drug.
There are no less severe adverse reactions for this drug.
Precautions
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The manufacturers state that the safety and efficacy of oral ibuprofen in children <6 months of age have not been established.
Pediatric patients receiving ibuprofen dosages exceeding 30 mg/kg daily and those who have had abnormal liver function test results associated with prior NSAIA therapy should be carefully monitored for signs and symptoms of early liver dysfunction.
Safety and efficacy of IV ibuprofen have been established for treatment of pain and fever in pediatric patients 3 months of age and older. Use of IV ibuprofen for these indications is supported by evidence from one open-label and acetaminophen-controlled study of fever, as well as additional safety data from four studies in 164 pediatric patients, supportive pediatric data from other approved ibuprofen preparations, and evidence from adequate and well-controlled studies in adults. The most common adverse effects of IV ibuprofen in pediatric patients are infusion site pain, vomiting, nausea, anemia, and headache. Efficacy of IV ibuprofen for relief of pain or reduction of fever has not been established in pediatric patients <3 months of age.
Long-term follow-up (beyond a postconceptional age of 36 weeks) of premature neonates receiving ibuprofen lysine for patent ductus arteriosus (PDA) has not been conducted. The effects of ibuprofen on neurodevelopmental outcome, growth, and other complications of prematurity (e.g., retinopathy of prematurity, chronic lung disease) have not been assessed.
Safety and efficacy of ibuprofen lysine have been established only in premature infants.
The manufacturers state that safety and efficacy of parenteral preparations of phenylephrine hydrochloride have not been established in pediatric patients.
Use of NSAIAs during pregnancy at about 30 weeks' gestation or later can cause premature closure of the fetal ductus arteriosus, and use at about 20 weeks' gestation or later has been associated with fetal renal dysfunction resulting in oligohydramnios and, in some cases, neonatal renal impairment. Because of these risks, use of NSAIAs should be avoided in pregnant women at about 30 weeks' gestation or later; if NSAIA therapy is necessary between about 20 and 30 weeks' gestation, the lowest effective dosage and shortest possible duration of treatment should be used. Monitoring of amniotic fluid volume via ultrasound examination should be considered if the duration of NSAIA treatment exceeds 48 hours; if oligohydramnios occurs, the drug should be discontinued and follow-up instituted according to clinical practice. Pregnant women should be advised to avoid use of NSAIAs beginning at 20 weeks' gestation unless otherwise advised by a clinician; they also should be informed that NSAIAs should be avoided beginning at 30 weeks' gestation because of the risk of premature closure of the fetal ductus arteriosus and that monitoring for oligohydramnios may be necessary if NSAIA therapy is required for longer than 48 hours' duration between about 20 and 30 weeks of gestation.
Fetal renal dysfunction resulting in oligohydramnios and, in some cases, neonatal renal impairment has been observed, on average, following days to weeks of maternal NSAIA use, although oligohydramnios has been observed infrequently as early as 48 hours after initiation of NSAIA therapy. Oligohydramnios is often, but not always, reversible following discontinuance of NSAIA therapy. Complications of prolonged oligohydramnios may include limb contracture and delayed lung maturation. A limited number of case reports have described maternal NSAIA use and neonatal renal dysfunction, in some cases irreversible, without oligohydramnios. Some cases of neonatal renal dysfunction have required treatment with invasive procedures such as exchange transfusion or dialysis. Methodologic limitations of these postmarketing studies and case reports include lack of a control group; limited information regarding dosage, duration, and timing of drug exposure; and concomitant use of other drugs. These limitations preclude establishing a reliable estimate of the risk of adverse fetal and neonatal outcomes with maternal NSAIA use. Available data on neonatal outcomes generally involved preterm infants, and the extent to which certain reported risks can be generalized to full-term infants is uncertain.
Animal data indicate that prostaglandins have an important role in endometrial vascular permeability, blastocyst implantation, and decidualization. In animal studies, inhibitors of prostaglandin synthesis, such as ibuprofen, were associated with increased preimplantation and postimplantation losses. Prostaglandins also have an important role in fetal kidney development. In animal studies, inhibitors of prostaglandin synthesis impaired kidney development at clinically relevant doses.
There are no adequate and well-controlled studies of ibuprofen in pregnant women. In animal reproduction studies, no clear developmental effects were observed in rabbits or rats given ibuprofen throughout the gestational period at dosages up to 0.4 or 0.5 times, respectively, the maximum recommended human dosage (MRHD). An increase in membranous ventricular septal defects was reported in rats given ibuprofen on gestation days 9 and 10 at a dosage of 0.8 times the MRHD.
The effects of ibuprofen on labor and delivery are unknown. In studies in rats, drugs that inhibit prostaglandin synthesis, including NSAIAs, delayed parturition and increased the incidence of stillbirth.
Data from randomized trials and meta-analyses with phenylephrine injection in pregnant women undergoing Cesarean section have not established a drug-associated risk of major birth defects or miscarriage. Additionally, the data did not identify adverse effects on maternal outcomes or infant Apgar scores. At recommended doses, phenylephrine does not appear to significantly affect fetal heart rate or fetal heart rate variability. Data are not available on phenylephrine use during the first or second trimester.
Untreated hypotension in pregnant women undergoing Cesarean delivery with neuraxial anesthesia has been associated with increased maternal nausea and vomiting. A sustained decrease in uterine blood flow caused by maternal hypotension has also been associated with fetal bradycardia and acidosis.
No data are available on the safety of phenylephrine injection during the period of organogenesis; therefore, conclusions cannot be drawn regarding the risk of birth defects from drug exposure. In addition, no data are available on the risk of miscarriage following fetal exposure to phenylephrine injection.
In animal studies, fetal malformations were observed following phenylephrine infusion over 1 hour during the period of organogenesis at a dosage of 1.2 times the human daily dosage. Decreased pup weight was also observed in offspring of pregnant rats who received 2.9 times the human daily dose of phenylephrine.
If a vasopressor is used in conjunction with oxytocic drugs, the vasopressor effect is potentiated and may result in serious adverse effects.
Limited data indicate that ibuprofen is distributed into milk, resulting in infant exposures of 0.06-0.6% of the maternal weight-adjusted daily dosage. Adverse effects on breast-fed infants or effects on milk production have not been reported to date. The developmental and health benefits of breast-feeding should be considered along with the mother's clinical need for ibuprofen and any potential adverse effects on the breast-fed infant from the drug or from the underlying maternal condition.
There are no data on whether phenylephrine or its metabolite is distributed into human or animal milk following parenteral administration. The effects on the breast-fed infant and milk production are not known.
The developmental and health benefits of breast-feeding should be weighed along with the mother's clinical need for the drug and any potential adverse effects on the breast-fed infant from phenylephrine or from the underlying maternal condition.
The manufacturers make no specific dosage recommendations in geriatric patients; however, geriatric patients are generally at a greater risk for NSAIA-associated serious cardiovascular, GI, and/or renal adverse effects. If the expected benefits outweigh the potential risks of therapy, initiate at the lower end of the dosage range and monitor for adverse effects.
If phenylephrine is used in geriatric patients, dosage should be selected carefully, usually starting at the low end of the dosage range, since renal, hepatic, and cardiovascular dysfunction and concomitant disease or other drug therapy are more common in this age group.
Geriatric patients are at increased risk for NSAIA-associated serious adverse cardiovascular, GI, and renal effects. Many of the spontaneous reports of fatal adverse GI effects in patients receiving NSAIAs involve geriatric individuals. If the anticipated benefits of ibuprofen therapy outweigh the potential risks, ibuprofen should be initiated at the lower end of the dosing range and patients should be monitored for adverse effects.
Clinical studies of IV ibuprofen did not include sufficient numbers of patients >=65 years of age to determine whether geriatric patients respond differently than younger adults. Dosage should be selected with caution, starting at the low end of the dosage range, because of the greater frequency of decreased hepatic, renal, and/or cardiac function and concomitant disease and drug therapy observed in the elderly.
Clinical studies of phenylephrine hydrochloride did not include sufficient numbers of patients >=65 years of age to determine whether geriatric patients respond differently than younger patients. Clinical experience to date has not identified any differences in response between geriatric and younger patients.
If phenylephrine is used in geriatric patients, dosage should be selected carefully, usually starting at the low end of the dosage range, since renal, hepatic, and cardiovascular dysfunction and concomitant disease or other drug therapy are more common in this age group.
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Last reviewed · Source: First Databank (FDB) drug data
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