Ketoprofen 75 MG Oral Capsule

Generic Name: KETOPROFEN
Brand Name: Ketoprofen
  • Substance Name(s):
  • KETOPROFEN

WARNINGS

Cardiovascular Effects Cardiovascular Thrombotic Events Clinical trials of several COX-2 selective and nonselective NSAIDs of up to three years duration have shown an increased risk of serious cardiovascular (CV) thrombotic events, including myocardial infarction (MI) and stroke, which can be fatal.

Based on available data, it is unclear that the risk for CV thrombotic events is similar for all NSAIDs.

The relative increase in serious CV thrombotic events over baseline conferred by NSAID use appears to be similar in those with and without known CV disease or risk factors for CV disease.

However, patients with known CV disease or risk factors had a higher absolute incidence of excess serious CV thrombotic events, due to their increased baseline rate.

Some observational studies found that this increased risk of serious CV thrombotic events began as early as the first weeks of treatment.

The increase in CV thrombotic risk has been observed most consistently at higher doses.

To minimize the potential risk for an adverse CV event in NSAID-treated patients, use the lowest effective dose for the shortest duration possible.

Physicians and patients should remain alert for the development of such events, throughout the entire treatment course, even in the absence of previous CV symptoms.

Patients should be informed about the symptoms of serious CV events and the steps to take if they occur.

There is no consistent evidence that concurrent use of aspirin mitigates the increased risk of serious CV thrombotic events associated with NSAID use.

The concurrent use of aspirin and an NSAID, such as ketoprofen, increases the risk of serious gastrointestinal (GI) events (see ).

Status Post Coronary Artery Bypass Graft (CABG) Surgery Two large, controlled clinical trials of a COX-2 selective NSAID for the treatment of pain in the first 10–14 days following CABG surgery found an increased incidence of myocardial infarction and stroke.

NSAIDs are contraindicated in the setting of CABG (see CONTRAINDICATIONS ).

Post-MI Patients Observational studies conducted in the Danish National Registry have demonstrated that patients treated with NSAIDs in the post-MI period were at increased risk of reinfarction, CV-related death, and all-cause mortality beginning in the first week of treatment.

In this same cohort, the incidence of death in the first year post MI was 20 per 100 person years in NSAID-treated patients compared to 12 per 100 person years in non-NSAID exposed patients.

Although the absolute rate of death declined somewhat after the first year post-MI, the increased relative risk of death in NSAID users persisted over at least the next 4 years of follow-up.

Avoid the use of ketoprofen extended-release capsules in patients with a recent MI unless the benefits are expected to outweigh the risk of recurrent CV thrombotic events.

If ketoprofen extended-release capsules are used in patients with a recent MI, monitor patients for signs of cardiac ischemia.

Hypertension NSAIDs, including ketoprofen extended-release capsules, can lead to onset of new hypertension or worsening of pre-existing hypertension, either of which may contribute to the increased incidence of CV events.

Patients taking thiazides or loop diuretics may have impaired response to these therapies when taking NSAIDs.

NSAIDs, including ketoprofen extended-release capsules, should be used with caution in patients with hypertension.

Blood pressure (BP) should be monitored closely during the initiation of NSAID treatment and throughout the course of therapy.

Heart Failure and Edema The Coxib and traditional NSAID Trialists’ Collaboration meta-analysis of randomized controlled trials demonstrated an approximately two-fold increase in hospitalizations for heart failure in COX-2 selective-treated patients and nonselective NSAID-treated patients compared to placebo-treated patients.

In a Danish National Registry study of patients with heart failure, NSAID use increased the risk of MI, hospitalization for heart failure, and death.

Additionally, fluid retention and edema have been observed in some patients treated with NSAIDs.

Use of ketoprofen may blunt the CV effects of several therapeutic agents used to treat these medical conditions [e.g., diuretics, ACE inhibitors, or angiotensin receptor blockers (ARBs)] (see Drug Interactions ).

Avoid the use of ketoprofen extended-release capsules in patients with severe heart failure unless the benefits are expected to outweigh the risk of worsening heart failure.

If ketoprofen extended-release capsules are used in patients with severe heart failure, monitor patients for signs of worsening heart failure.

Gastrointestinal Effects Risk of Ulceration, Bleeding, and Perforation NSAIDs, including ketoprofen extended-release capsules, can cause serious gastrointestinal (GI) adverse events including inflammation, bleeding, ulceration, and perforation of the stomach, small intestine, or large intestine, which can be fatal.

These serious adverse events can occur at any time, with or without warning symptoms, in patients treated with NSAIDs.

Only one in five patients, who develop a serious upper GI adverse event on NSAID therapy, is symptomatic.

Upper GI ulcers, gross bleeding, or perforation caused by NSAIDs occur in approximately 1% of patients treated for 3 to 6 months, and in about 2-4% of patients treated for one year.

These trends continue with longer duration of use, increasing the likelihood of developing a serious GI event at some time during the course of therapy.

However, even short-term therapy is not without risk.

NSAIDs should be prescribed with extreme caution in those with a prior history of ulcer disease or gastrointestinal bleeding.

Patients with a prior history of peptic ulcer disease and/or gastrointestinal bleeding who use NSAIDs have a greater than 10-fold increased risk for developing a GI bleed compared to patients with neither of these risk factors.

Other factors that increase the risk for GI bleeding in patients treated with NSAIDs include concomitant use of oral corticosteroids or anticoagulants, longer duration of NSAID therapy, smoking, use of alcohol, older age, and poor general health status.

Most spontaneous reports of fatal GI events are in elderly or debilitated patients and therefore, special care should be taken in treating this population.

To minimize the potential risk for an adverse GI event in patients treated with an NSAID, the lowest effective dose should be used for the shortest possible duration.

Patients and physicians should remain alert for signs and symptoms of GI ulceration and bleeding during NSAID therapy and promptly initiate additional evaluation and treatment if a serious GI adverse event is suspected.

This should include discontinuation of the NSAID until a serious GI adverse event is ruled out.

For high risk patients, alternate therapies that do not involve NSAIDs should be considered.

Renal Effects Long-term administration of NSAIDs has resulted in renal papillary necrosis and other renal injury.

Renal toxicity has also been seen in patients in whom renal prostaglandins have a compensatory role in the maintenance of renal perfusion.

In these patients, administration of a nonsteroidal anti-inflammatory drug may cause a dose-dependent reduction in prostaglandin formation and, secondarily, in renal blood flow, which may precipitate overt renal decompensation.

Patients at greater risk of this reaction are those with impaired renal function, heart failure, liver dysfunction, those taking diuretics and ACE inhibitors and the elderly.

Discontinuation of NSAID therapy is usually followed by recovery to the pretreatment state.

Advanced Renal Disease No information is available from controlled clinical studies regarding the use of ketoprofen extended-release capsules in patients with advanced renal disease.

Therefore, treatment with ketoprofen extended-release capsules is not recommended in these patients with advanced renal disease.

If ketoprofen extended-release capsules therapy must be initiated, close monitoring of the patient’s renal function is advisable.

Anaphylactoid Reactions As with other NSAIDs, anaphylactoid reactions may occur in patients without known prior exposure to ketoprofen extended-release capsules.

Ketoprofen extended-release capsules should not be given to patients with the aspirin triad.

This symptom complex typically occurs in asthmatic patients who experience rhinitis with or without nasal polyps, or who exhibit severe, potentially fatal bronchospasm after taking aspirin or other NSAIDs (see CONTRAINDICATIONS and PRECAUTIONS: General: Preexisting Asthma ).

Emergency help should be sought in cases where an anaphylactoid reaction occurs.

Serious Skin Reactions NSAIDs, including ketoprofen, can cause serious skin adverse reactions such as exfoliative dermatitis, Stevens-Johnson Syndrome (SJS), and toxic epidermal necrolysis (TEN), which can be fatal.

NSAIDs can also cause fixed drug eruption (FDE).

FDE may present as a more severe variant known as generalized bullous fixed drug eruption (GBFDE), which can be life-threatening.

These serious events may occur without warning.

Inform patients about the signs and symptoms of serious skin reactions, and to discontinue the use of ketoprofen extended-release capsules at the first appearance of skin rash or any other sign of hypersensitivity.

Ketoprofen extended-release capsules are contraindicated in patients with previous serious skin reactions to NSAIDs (see CONTRAINDICATIONS ).

Drug Reaction with Eosinophilia and Systemic Symptoms (DRESS) Drug Reaction with Eosinophilia and Systemic Symptoms (DRESS) has been reported in patients taking NSAIDs such as ketoprofen extended-release capsules.

Some of these events have been fatal or life-threatening.

DRESS typically, although not exclusively, presents with fever, rash, lymphadenopathy, and/or facial swelling.

Other clinical manifestations may include hepatitis, nephritis, hematological abnormalities, myocarditis, or myositis.

Sometimes symptoms of DRESS may resemble an acute viral infection.

Eosinophilia is often present.

Because this disorder is variable in its presentation, other organ systems not noted here may be involved.

It is important to note that early manifestations of hypersensitivity, such as fever or lymphadenopathy, may be present even though rash is not evident.

If such signs or symptoms are present, discontinue ketoprofen extended-release capsules and evaluate the patient immediately.

Fetal Toxicity Premature Closure of Fetal Ductus Arteriosus Avoid use of NSAIDs, including ketoprofen extended-release capsules, in pregnant women at about 30 weeks gestation and later.

NSAIDs including ketoprofen extended-release capsules, increase the risk of premature closure of the fetal ductus arteriosus at approximately this gestational age.

Oligohydramnios/Neonatal Renal Impairment Use of NSAIDs, including ketoprofen extended-release capsules, at about 20 weeks gestation or later in pregnancy may cause fetal renal dysfunction leading to oligohydramnios and, in some cases, neonatal renal impairment.

These adverse outcomes are seen, on average, after days to weeks of treatment, although oligohydramnios has been infrequently reported as soon as 48 hours after NSAID initiation.

Oligohydramnios is often, but not always, reversible with treatment discontinuation.

Complications of prolonged oligohydramnios may, for example, include limb contractures and delayed lung maturation.

In some postmarketing cases of impaired neonatal renal function, invasive procedures such as exchange transfusion or dialysis were required.

If NSAID treatment is necessary between about 20 weeks and 30 weeks gestation, limit ketoprofen extended-release capsules use to the lowest effective dose and shortest duration possible.

Consider ultrasound monitoring of amniotic fluid if ketoprofen extended-release capsules treatment extends beyond 48 hours.

Discontinue ketoprofen extended-release capsules if oligohydramnios occurs and follow up according to clinical practice (see PRECAUTIONS: Pregnancy ).

DRUG INTERACTIONS

Drug Interactions The following drug interactions were studied with ketoprofen doses of 200 mg/day.

The possibility of increased interaction should be kept in mind when ketoprofen immediate-release doses greater than 50 mg as a single dose or 200 mg of ketoprofen per day are used concomitantly with highly bound drugs.

ACE Inhibitors Reports suggest that NSAIDs may diminish the antihypertensive effect of ACE-inhibitors.

This interaction should be given consideration in patients taking NSAIDs concomitantly with ACE-inhibitors.

Antacids Concomitant administration of magnesium hydroxide and aluminum hydroxide does not interfere with the rate or extent of the absorption of ketoprofen administered as the immediate-release capsules.

Aspirin Ketoprofen does not alter aspirin absorption; however, in a study of 12 normal subjects, concurrent administration of aspirin decreased ketoprofen protein binding and increased ketoprofen plasma clearance from 0.07 L/kg/h without aspirin to 0.11 L/kg/h with aspirin.

The clinical significance of these changes is not known; however, as with other NSAIDs, concomitant administration of ketoprofen and aspirin is not generally recommended because of the potential of increased adverse effects.

Diuretics NSAIDs can reduce the natriuetic effect of furosemide and thiazides in some patients.

Hydrochlorothiazide, given concomitantly with ketoprofen, produces a reduction in urinary potassium and chloride excretion compared to hydrochlorothiazide alone.

Patients taking diuretics are at a greater risk of developing renal failure secondary to a decrease in renal blood flow caused by prostaglandin inhibition (see PRECAUTIONS ).

During concomitant therapy with NSAIDs, the patient should be observed closely for signs of renal failure (see WARNINGS: Renal Effects ), as well as to assure diuretic efficacy.

Digoxin In a study in 12 patients with congestive heart failure where ketoprofen and digoxin were concomitantly administered, ketoprofen did not alter the serum levels of digoxin.

Lithium NSAIDs have produced an elevation of plasma lithium levels and a reduction in renal lithium clearance.

The mean minimum lithium concentration increased 15% and the renal clearance was decreased by approximately 20%.

These effects have been attributed to inhibition of renal prostaglandin synthesis by the NSAID.

Thus, when NSAIDs and lithium are administered concurrently, subjects should be observed carefully for signs of lithium toxicity.

Methotrexate Ketoprofen, like other NSAIDs, may cause changes in the elimination of methotrexate leading to elevated serum levels of the drug and increased toxicity.

NSAIDs have been reported to competitively inhibit methotrexate accumulation in rabbit kidney slices.

This may indicate that they could enhance the toxicity of methotrexate.

Caution should be used when NSAIDs are administered concomitantly with methotrexate.

Probenecid Probenecid increases both free and bound ketoprofen by reducing the plasma clearance of ketoprofen to about one-third, as well as decreasing its protein binding.

Therefore, the combination of ketoprofen and probenecid is not recommended.

Warfarin The effects of warfarin and NSAIDs on GI bleeding are synergistic, such that users of both drugs together have a risk of serious GI bleeding higher than users of either drug alone.

In a short-term controlled study in 14 normal volunteers, ketoprofen did not significantly interfere with the effect of warfarin on prothrombin time.

Bleeding from a number of sites may be a complication of warfarin treatment and GI bleeding a complication of ketoprofen treatment.

Because prostaglandins play an important role in hemostasis and ketoprofen has an effect on platelet function as well (see PRECAUTIONS: Drug/Laboratory Test Interactions: Effect on Blood Coagulation ), concurrent therapy with ketoprofen and warfarin requires close monitoring of patients on both drugs.

OVERDOSAGE

Signs and symptoms following acute NSAID overdose are usually limited to lethargy, drowsiness, nausea, vomiting, and epigastric pain, which are generally reversible with supportive care.

Respiratory depression, coma, or convulsions have occurred following large ketoprofen overdoses.

Gastrointestinal bleeding, hypotension, hypertension, or acute renal failure may occur, but are rare.

Patients should be managed by symptomatic and supportive care following an NSAID overdose.

There are no specific antidotes.

Gut decontamination may be indicated in patients with symptoms seen within 4 hours (longer for sustained‑release products) or following a large overdose (5 to 10 times the usual dose).

This should be accomplished via emesis and/or activated charcoal (60 g to 100 g in adults, 1 to 2 g/kg in children) with a saline cathartic or sorbitol added to the first dose.

Forced diuresis, alkalinization of the urine, hemodialysis or hemoperfusion would probably not be useful due to ketoprofen’s high protein binding.

Case reports include twenty-six overdoses: 6 were in children, 16 in adolescents, and 4 in adults.

Five of these patients had minor symptoms (vomiting in 4, drowsiness in 1 child).

A 12-year-old girl had tonic‑clonic convulsions 1-2 hours after ingesting an unknown quantity of ketoprofen and 1 or 2 tablets of acetaminophen with hydrocodone.

Her ketoprofen level was 1128 mg/L (56 times the upper therapeutic level of 20 mg/L) 3-4 hours post ingestion.

Full recovery ensued 18 hours after ingestion following management with intubation, diazepam, and activated charcoal.

A 45-year-old woman ingested twelve 200 mg extended-release ketoprofen capsules and 375 mL vodka, was treated with emesis and supportive measures 2 hours after ingestion, and recovered completely with her only complaint being mild epigastric pain.

DESCRIPTION

Ketoprofen is a nonsteroidal anti-inflammatory drug.

The chemical name for ketoprofen is (±)- m -Benzoylhydratropic acid with the following structural formula: Its molecular formula is C 16 H 14 O 3 , with a molecular weight of 254.29.

It has a pKa of 5.94 in methanol:water (3:1) and an n-octanol:water partition coefficient of 0.97 (buffer pH 7.4).

Ketoprofen, USP is a white or off-white, odorless, nonhygroscopic, fine to granular powder, melting at about 95°C.

It is freely soluble in ethanol, chloroform, acetone, ether and soluble in benzene and strong alkali, but practically insoluble in water at 20°C.

Each ketoprofen extended-release capsule, USP for oral administration contains 200 mg of ketoprofen, USP.

In addition, each capsule contains the following inactive ingredients: ammonium hydroxide, black iron oxide, colloidal anhydrous silica, dibutyl sebacate, ethylcellulose, FD&C Blue No.

2, gelatin, hypromellose, maltodextrin, methacrylic acid copolymer type B, oleic acid, polyacrylate dispersion, silicon dioxide, sodium lauryl sulfate, sugar spheres, talc, titanium dioxide, triacetin, triethyl citrate and yellow iron oxide.

In addition, the black imprinting ink contains the following: black iron oxide, D&C Yellow No.

10 Aluminum Lake, FD&C Blue No.

1 Aluminum Lake, FD&C Blue No.

2 Aluminum Lake, FD&C Red No.

40 Aluminum Lake, propylene glycol and shellac glaze.

Ketoprofen Structural Formula

HOW SUPPLIED

Ketoprofen Extended-Release Capsules, USP are available containing 200 mg of ketoprofen, USP.

The 200 mg capsules are hard-shell gelatin capsules with a blue green opaque cap and an iron gray opaque body filled with white to off-white beads.

The capsules are axially printed with MYLAN over 8200 in black ink on both the cap and body.

They are available as follows: NDC 0378-8200-01 bottles of 100 capsules Store at 20° to 25°C (68° to 77°F).

[See USP Controlled Room Temperature.] Protect from direct light and excessive heat and humidity.

Dispense in a tight, light-resistant container as defined in the USP using a child-resistant closure.

PHARMACIST : Dispense a Medication Guide with each prescription.

GERIATRIC USE

Geriatric Use As with any NSAIDs, caution should be exercised in treating the elderly (65 years and older).

In pharmacokinetic studies, ketoprofen clearance was reduced in older patients receiving ketoprofen extended-release capsules, compared with younger patients.

Peak ketoprofen concentrations and free drug AUC were increased in older patients (see PHARMACOKINETICS: Special Populations ).

The glucuronide conjugate of ketoprofen, which can serve as a potential reservoir for the parent drug, is known to be substantially excreted by the kidney.

Because elderly patients are more likely to have decreased renal function, care should be taken in dose selection.

It is recommended that the initial dosage of ketoprofen extended-release capsules should be reduced for patients over 75 years of age and it may be useful to monitor renal function (see DOSAGE AND ADMINISTRATION ).

In addition, the risk of toxic reactions to this drug may be greater in patients with impaired renal function.

Elderly patients may be more sensitive to the antiprostaglandin effects of NSAIDs (on the gastrointestinal tract and kidneys) than younger patients (see WARNINGS and PRECAUTIONS ).

In particular, elderly or debilitated patients who receive NSAID therapy seem to tolerate gastrointestinal ulceration or bleeding less well than other individuals, and most spontaneous reports of fatal GI events are in this population.

Therefore, caution should be exercised in treating the elderly, and when individualizing their dosage, extra care should be taken when increasing the dose (see DOSAGE AND ADMINISTRATION ).

In ketoprofen capsules clinical studies involving a total of 1540 osteoarthritis or rheumatoid arthritis patients, 369 (24%) were ≥ 65 years of age, and 92 (6%) were ≥ 75 years of age.

For ketoprofen capsules acute pain studies, 23 (5%) of 484 patients were ≥ 60 years of age.

In ketoprofen extended-release capsules clinical studies, 356 (42%) of 840 osteoarthritis or rheumatoid arthritis patients were ≥ 65 years of age, and less than 100 of these were ≥ 75 years of age.

No overall differences in effectiveness were observed between these patients and younger patients.

INDICATIONS AND USAGE

Carefully consider the potential benefits and risks of ketoprofen extended-release capsules before deciding to use ketoprofen extended-release capsules.

Use the lowest effective dose for the shortest duration consistent with individual patient treatment goals (see WARNINGS ).

Ketoprofen extended-release capsules are indicated for the management of the signs and symptoms of rheumatoid arthritis and osteoarthritis.

Ketoprofen extended-release capsules are not recommended for treatment of acute pain because of its extended-release characteristics (see CLINICAL PHARMACOLOGY: Pharmacokinetics ).

PEDIATRIC USE

Pediatric Use Safety and effectiveness in pediatric patients below the age of 18 have not been established.

PREGNANCY

Pregnancy Risk Summary Use of NSAIDs, including ketoprofen extended-release capsules, can cause premature closure of the fetal ductus arteriosus and fetal renal dysfunction leading to oligohydramnios and, in some cases, neonatal renal impairment.

Because of these risks, limit dose and duration of ketoprofen extended-release capsules use between about 20 and 30 weeks of gestation, and avoid ketoprofen extended-release capsules use at about 30 weeks of gestation and later in pregnancy (see WARNINGS: Fetal Toxicity ).

Premature Closure of Fetal Ductus Arteriosus Use of NSAIDs, including ketoprofen extended-release capsules, at about 30 weeks gestation or later in pregnancy increases the risk of premature closure of the fetal ductus arteriosus.

Oligohydramnios/Neonatal Renal Impairment Use of NSAIDs at about 20 weeks gestation or later in pregnancy has been associated with cases of fetal renal dysfunction leading to oligohydramnios, and in some cases, neonatal renal impairment.

Data from observational studies regarding other potential embryofetal risks of NSAID use in women in the first or second trimesters of pregnancy are inconclusive.

In animal reproduction studies, ketoprofen administered to mice at doses up to 12 mg/kg/day (36 mg/m 2 /day) and rats at doses up to 9 mg/kg/day (54 mg/m 2 /day), the approximate equivalent of 0.2 times the maximum recommended therapeutic dose of 185 mg/m 2 /day, showed no teratogenic or embryotoxic effects.

In separate studies in rabbits, maternally toxic doses were associated with embryotoxicity but not teratogenicity.

However, animal reproduction studies are not always predictive of human response.

Based on animal data, prostaglandins have been shown to have an important role in endometrial vascular permeability, blastocyst implantation, and decidualization.

In animal studies, administration of prostaglandin synthesis inhibitors such as ketoprofen, resulted in increased pre- and post-implantation loss.

Prostaglandins also have been shown to have an important role in fetal kidney development.

In published animal studies, prostaglandin synthesis inhibitors have been reported to impair kidney development when administered at clinically relevant doses.

The estimated background risk of major birth defects and miscarriage for the indicated population(s) is unknown.

All pregnancies have a background risk of birth defect, loss, or other adverse outcomes.

In the U.S.

general population, the estimated background risk of major birth defects and miscarriage in clinically recognized pregnancies is 2-4% and 15-20%, respectively.

Clinical Considerations Fetal/Neonatal Adverse Reactions Premature Closure of Fetal Ductus Arteriosus Avoid use of NSAIDs in women at about 30 weeks gestation and later in pregnancy, because NSAIDs, including ketoprofen extended-release capsules, can cause premature closure of the fetal ductus arteriosus (see WARNINGS: Fetal Toxicity ).

Oligohydramnios/Neonatal Renal Impairment If an NSAID is necessary at about 20 weeks gestation or later in pregnancy, limit the use to the lowest effective dose and shortest duration possible.

If ketoprofen extended-release capsules treatment extends beyond 48 hours, consider monitoring with ultrasound for oligohydramnios.

If oligohydramnios occurs, discontinue ketoprofen extended-release capsules and follow up according to clinical practice (see WARNINGS: Fetal Toxicity ).

Data Human Data Premature Closure of Fetal Ductus Arteriosus Published literature reports that the use of NSAIDs at about 30 weeks of gestation and later in pregnancy may cause premature closure of the fetal ductus arteriosus.

Oligohydramnios/Neonatal Renal Impairment Published studies and postmarketing reports describe maternal NSAID use at about 20 weeks gestation or later in pregnancy associated with fetal renal dysfunction leading to oligohydramnios, and in some cases, neonatal renal impairment.

These adverse outcomes are seen, on average, after days to weeks of treatment, although oligohydramnios has been infrequently reported as soon as 48 hours after NSAID initiation.

In many cases, but not all, the decrease in amniotic fluid was transient and reversible with cessation of the drug.

There have been a limited number of case reports of maternal NSAID use and neonatal renal dysfunction without oligohydramnios, some of which were irreversible.

Some cases of neonatal renal dysfunction required treatment with invasive procedures, such as exchange transfusion or dialysis.

Methodological limitations of these postmarketing studies and reports include lack of a control group; limited information regarding dose, duration, and timing of drug exposure; and concomitant use of other medications.

These limitations preclude establishing a reliable estimate of the risk of adverse fetal and neonatal outcomes with maternal NSAID use.

Because the published safety data on neonatal outcomes involved mostly preterm infants, the generalizability of certain reported risks to the full-term infant exposed to NSAIDs through maternal use is uncertain.

NUSRING MOTHERS

Nursing Mothers It is not known whether this drug is excreted in human milk.

Data on secretion in human milk after ingestion of ketoprofen do not exist.

In rats, ketoprofen at doses of 9 mg/kg (54 mg/m 2 /day; approximately 0.3 times the maximum human therapeutic dose) did not affect perinatal development.

Upon administration to lactating dogs, the milk concentration of ketoprofen was found to be 4 to 5% of the plasma drug level.

As with other drugs that are excreted in milk, ketoprofen is not recommended for use in nursing mothers.

BOXED WARNING

Cardiovascular Thrombotic Events • Nonsteroidal anti-inflammatory drugs (NSAIDs) cause an increased risk of serious cardiovascular thrombotic events, including myocardial infarction and stroke, which can be fatal.

This risk may occur early in treatment and may increase with duration of use (see WARNINGS and PRECAUTIONS ).

• Ketoprofen extended-release capsules are contraindicated in the setting of coronary artery bypass graft (CABG) surgery (see CONTRAINDICATIONS and WARNINGS ).

Gastrointestinal Risk • NSAIDs cause an increased risk of serious gastrointestinal adverse events including bleeding, ulceration, and perforation of the stomach or intestines, which can be fatal.

These events can occur at any time during use and without warning symptoms.

Elderly patients are at greater risk for serious gastrointestinal (GI) events (see WARNINGS ).

INFORMATION FOR PATIENTS

Information for Patients Patients should be informed of the following information before initiating therapy with an NSAID and periodically during the course of ongoing therapy.

Patients should also be encouraged to read the NSAID Medication Guide that accompanies each prescription dispensed.

1.

Cardiovascular Thrombotic Events: Advise patients to be alert for the symptoms of cardiovascular thrombotic events, including chest pain, shortness of breath, weakness, or slurring of speech, and to report any of these symptoms to their healthcare provider immediately (see WARNINGS ).

2.

Ketoprofen extended-release capsules, like other NSAIDs, can cause GI discomfort and, rarely, serious GI side effects, such as ulcers and bleeding, which may result in hospitalization and even death.

Although serious GI tract ulcerations and bleeding can occur without warning symptoms, patients should be alert for the signs and symptoms of ulcerations and bleeding, and should ask for medical advice when observing any indicative sign or symptoms including epigastric pain, dyspepsia, melena, and hematemesis.

Patients should be apprised of the importance of this follow-up (see WARNINGS: Gastrointestinal Effects: Risk of Ulceration, Bleeding, and Perforation ).

3.

Serious Skin Reactions, including DRESS: Advise patients to stop taking ketoprofen extended-release capsules immediately if they develop any type of rash or fever and to contact their healthcare provider as soon as possible (see WARNINGS ).

4.

Heart Failure and Edema: Advise patients to be alert for the symptoms of congestive heart failure including shortness of breath, unexplained weight gain, or edema and to contact their healthcare provider if such symptoms occur (see WARNINGS ).

5.

Patients should be informed of the warning signs and symptoms of hepatotoxicity (e.g., nausea, fatigue, lethargy, pruritus, jaundice, right upper quadrant tenderness, and “flu-like” symptoms).

If these occur, patients should be instructed to stop therapy and seek immediate medical therapy.

6.

Patients should be informed of the signs of an anaphylactoid reaction (e.g., difficulty breathing, swelling of the face or throat).

If these occur, patients should be instructed to seek immediate emergency help (see WARNINGS ).

7.

Fetal Toxicity: Inform pregnant women to avoid use of ketoprofen extended-release capsules and other NSAIDs starting at 30 weeks gestation because of the risk of the premature closing of the fetal ductus arteriosus.

If treatment with ketoprofen extended-release capsules is needed for a pregnant woman between about 20 to 30 weeks gestation, advise her that she may need to be monitored for oligohydramnios, if treatment continues for longer than 48 hours (see WARNINGS: Fetal Toxicity , PRECAUTIONS: Pregnancy ).

NSAIDs are often essential agents in the management of arthritis and have a major role in the treatment of pain, but they also may be commonly employed for conditions which are less serious.

Physicians may wish to discuss with their patients the potential risks (see WARNINGS , PRECAUTIONS: General and ADVERSE REACTIONS ) and likely benefits of NSAID treatment, particularly when the drugs are used for less serious conditions where treatment without NSAIDs may represent an acceptable alternative to both the patient and physician.

Because aspirin causes an increase in the level of unbound ketoprofen, patients should be advised not to take aspirin while taking ketoprofen (see PRECAUTIONS: Drug Interactions ).

Ketoprofen extended-release capsules have not been studied with antacids.

Because food and milk do affect the rate but not the extent of absorption (see CLINICAL PHARMACOLOGY ), physicians may want to make specific recommendations to patients about when they should take ketoprofen in relation to food and/or what patients should do if they experience minor GI symptoms associated with ketoprofen therapy.

DOSAGE AND ADMINISTRATION

Carefully consider the potential benefits and risks of ketoprofen extended-release capsules and other treatment options before deciding to use ketoprofen extended-release capsules.

Use the lowest effective dose for the shortest duration consistent with individual patient treatment goals (see WARNINGS ).

After observing the response to initial therapy with ketoprofen extended-release capsules, the dose and frequency should be adjusted to suit an individual patient’s needs.

Concomitant use of ketoprofen extended-release capsules is not recommended.

If minor side effects appear, they may disappear at a lower dose which may still have an adequate therapeutic effect.

If well tolerated but not optimally effective, the dosage may be increased.

Individual patients may show a better response to 300 mg of ketoprofen capsules daily as compared to 200 mg, although in well-controlled clinical trials patients on 300 mg did not show greater mean effectiveness.

They did, however, show an increased frequency of upper- and lower-GI distress and headaches.

It is of interest that women also had an increased frequency of these adverse effects compared to men.

When treating patients with 300 mg/day, the physician should observe sufficient increased clinical benefit to offset potential increased risk.

In patients with mildly impaired renal function, the maximum recommended total daily dose of ketoprofen extended-release capsules is 150 mg.

In patients with a more severe renal impairment (GFR less than 25 mL/min/1.73 m 2 or end-stage renal impairment), the maximum total daily dose of ketoprofen extended-release capsules should not exceed 100 mg.

In elderly patients, renal function may be reduced with apparently normal serum creatinine and/or BUN levels.

Therefore, it is recommended that the initial dosage of ketoprofen extended-release capsules should be reduced for patients over 75 years of age (see PRECAUTIONS: Geriatric Use ).

It is recommended that for patients with impaired liver function and serum albumin concentration less than 3.5 g/dL, the maximum initial total daily dose of ketoprofen extended-release capsules should be 100 mg.

All patients with metabolic impairment, particularly those with both hypoalbuminemia and reduced renal function, may have increased levels of free (biologically active) ketoprofen and should be closely monitored.

The dosage may be increased to the range recommended for the general population, if necessary, only after good individual tolerance has been ascertained.

Because hypoalbuminemia and reduced renal function both increase the fraction of free drug (biologically active form), patients who have both conditions may be at greater risk of adverse effects.

Therefore, it is recommended that such patients also be started on lower doses of ketoprofen extended-release capsules and closely monitored.

Rheumatoid Arthritis and Osteoarthritis The recommended starting dose of ketoprofen in otherwise healthy patients is for ketoprofen extended-release capsules 200 mg administered once a day.

Smaller doses of ketoprofen extended-release capsules should be utilized initially in small individuals, or in debilitated or elderly patients.

The recommended maximum daily dose of ketoprofen is 200 mg/day for ketoprofen extended-release capsules.

Dosages higher than 200 mg/day of ketoprofen extended-release capsules are not recommended because they have not been studied.

Concomitant use of ketoprofen extended-release capsules is not recommended.

Relatively smaller people may need smaller doses.

As with other nonsteroidal anti-inflammatory drugs, the predominant adverse effects of ketoprofen are gastrointestinal.

To attempt to minimize these effects, physicians may wish to prescribe that ketoprofen extended-release capsules be taken with antacids, food, or milk.

Although food delays the absorption of both formulations (see CLINICAL PHARMACOLOGY ) in most of the clinical trials ketoprofen was taken with food or milk.

Physicians may want to make specific recommendations to patients about when they should take ketoprofen extended-release capsules in relation to food and/or what patients should do if they experience minor GI symptoms associated with either formulation.

Management of Pain and Dysmenorrhea Ketoprofen extended-release capsules are not recommended for use in treating acute pain because of its extended-release characteristics.

Minoxidil 50 MG/ML Topical Solution

Generic Name: MINOXIDIL
Brand Name: kirkland signature minoxidil
  • Substance Name(s):
  • MINOXIDIL

WARNINGS

Warnings For external use only.

For use by men only.

Flammable: Keep away from fire or flame Do not use if • you are a woman • your amount of hair loss is different than that shown on the side of this carton or your hair loss is on the front of the scalp.

Minoxidil topical solution 5% is not intended for frontal baldness or receding hairline.

• you have no family history of hair loss • your hair loss is sudden and/or patchy • you do not know the reason for your hair loss • you are under 18 years of age.

Do not use on babies and children.

• your scalp is red, inflamed, infected, irritated, or painful • you use other medicines on the scalp Ask a doctor before use if you have heart disease When using this product • do not apply on other parts of the body • avoid contact with the eyes.

In case of accidental contact, rinse eyes with large amounts of cool tap water.

• some people have experienced changes in hair color and/or texture • it takes time to regrow hair.

Results may occur at 2 months with twice a day usage.

For some men, you may need to use this product for at least 4 months before you see results.

• the amount of hair regrowth is different for each person.

This product will not work for all men.

Stop use and ask a doctor if • chest pain, rapid heartbeat, faintness, or dizziness occurs • sudden, unexplained weight gain occurs • your hands or feet swell • scalp irritation or redness occurs • unwanted facial hair growth occurs • you do not see hair regrowth in 4 months May be harmful if used when pregnant or breast-feeding.

Keep out of reach of children.

If swallowed, get medical help or contact a Poison Control Center right away.

(1-800-222-1222)

INDICATIONS AND USAGE

Use to regrow hair on the top of the scalp (vertex only, see pictures on side of carton)

INACTIVE INGREDIENTS

Inactive ingredients alcohol, propylene glycol, purified water

PURPOSE

Purpose Hair regrowth treatment for men

KEEP OUT OF REACH OF CHILDREN

Keep out of reach of children.

If swallowed, get medical help or contact a Poison Control Center right away.

(1-800-222-1222)

ASK DOCTOR

Ask a doctor before use if you have heart disease

DOSAGE AND ADMINISTRATION

Directions • apply one mL with dropper 2 times a day directly onto the scalp in the hair loss area • using more or more often will not improve results • continued use is necessary to increase and keep your hair regrowth, or hair loss will begin again

PREGNANCY AND BREAST FEEDING

May be harmful if used when pregnant or breast-feeding.

DO NOT USE

Do not use if • you are a woman • your amount of hair loss is different than that shown on the side of this carton or your hair loss is on the front of the scalp.

Minoxidil topical solution 5% is not intended for frontal baldness or receding hairline.

• you have no family history of hair loss • your hair loss is sudden and/or patchy • you do not know the reason for your hair loss • you are under 18 years of age.

Do not use on babies and children.

• your scalp is red, inflamed, infected, irritated, or painful • you use other medicines on the scalp

STOP USE

Stop use and ask a doctor if • chest pain, rapid heartbeat, faintness, or dizziness occurs • sudden, unexplained weight gain occurs • your hands or feet swell • scalp irritation or redness occurs • unwanted facial hair growth occurs • you do not see hair regrowth in 4 months

ACTIVE INGREDIENTS

Active ingredient Minoxidil 5% w/v

rivastigmine 9.5 MG/Day 24 HR Transdermal Patch

Generic Name: RIVASTIGMINE
Brand Name: Exelon
  • Substance Name(s):
  • RIVASTIGMINE

DRUG INTERACTIONS

7 Concomitant use with metoclopramide, beta-blockers, or cholinomimetics and anticholinergic medications is not recommended.

( 7.1 , 7.2 , 7.3 ) 7.1 Metoclopramide Due to the risk of additive extra-pyramidal adverse reactions, the concomitant use of metoclopramide and EXELON PATCH is not recommended.

7.2 Cholinomimetic and Anticholinergic Medications EXELON PATCH may increase the cholinergic effects of other cholinomimetic medications and may also interfere with the activity of anticholinergic medications (e.g., oxybutynin, tolterodine).

Concomitant use of EXELON PATCH with medications having these pharmacologic effects is not recommended unless deemed clinically necessary [see Warnings and Precautions ( 5.5 )] .

7.3 Beta-Blockers Additive bradycardic effects resulting in syncope may occur when EXELON is used concomitantly with beta-blockers, especially cardioselective beta-blockers (including atenolol).

Concomitant use is not recommended when signs of bradycardia, including syncope are present.

OVERDOSAGE

10 Overdose with EXELON PATCH has been reported in the postmarketing setting [see Warnings and Precautions (5.1)] .

Overdoses have occurred from application of more than one patch at one time and not removing the previous day’s patch before applying a new patch.

The symptoms reported in these overdose cases are similar to those seen in cases of overdose associated with rivastigmine oral formulations.

Because strategies for the management of overdose are continually evolving, it is advisable to contact a Poison Control Center to determine the latest recommendations for the management of an overdose of any drug.

As rivastigmine has a plasma half-life of about 3.4 hours after patch administration and a duration of acetylcholinesterase inhibition of about 9 hours, it is recommended that in cases of asymptomatic overdose the patch should be immediately removed and no further patch should be applied for the next 24 hours.

As in any case of overdose, general supportive measures should be utilized.

Overdosage with cholinesterase inhibitors can result in cholinergic crisis characterized by severe nausea, vomiting, salivation, sweating, bradycardia, hypotension, respiratory depression, and convulsions.

Increasing muscle weakness is a possibility and may result in death if respiratory muscles are involved.

Atypical responses in blood pressure and heart rate have been reported with other drugs that increase cholinergic activity when coadministered with quaternary anticholinergics, such as glycopyrrolate.

Additional symptoms associated with rivastigmine overdose are diarrhea, abdominal pain, dizziness, tremor, headache, somnolence, confusional state, hyperhidrosis, hypertension, hallucinations and malaise.

Due to the short plasma elimination half-life of rivastigmine after patch administration, dialysis (hemodialysis, peritoneal dialysis, or hemofiltration) would not be clinically indicated in the event of an overdose.

In overdose accompanied by severe nausea and vomiting, the use of antiemetics should be considered.

A fatal outcome has rarely been reported with rivastigmine overdose.

DESCRIPTION

11 EXELON PATCH (rivastigmine transdermal system) contains rivastigmine, a reversible cholinesterase inhibitor known chemically as (S)-3-[1-(dimethylamino) ethyl]phenyl ethylmethylcarbamate.

It has an empirical formula of C 14 H 22 N 2 O 2 as the base and a molecular weight of 250.34 g/mol (as the base).

Rivastigmine is a viscous, clear, and colorless to yellow to very slightly brown liquid that is sparingly soluble in water and very soluble in ethanol, acetonitrile, n-octanol and ethyl acetate.

The distribution coefficient at 37°C in n-octanol/phosphate buffer solution pH 7 is 4.27.

EXELON PATCH is for transdermal administration.

The patch is a 4-layer laminate containing the backing layer, drug matrix, adhesive matrix and overlapping release liner (see Figure 1).

The release liner is removed and discarded prior to use.

Figure 1: Cross Section of the EXELON PATCH Layer 1: Backing Film Layer 2: Drug Product (Acrylic) Matrix Layer 3: Adhesive (Silicone) Matrix Layer 4: Release Liner (removed at time of use) Excipients within the formulation include acrylic copolymer, poly (butylmethacrylate, methylmethacrylate), silicone adhesive applied to a flexible polymer backing film, silicone oil, and vitamin E.

rivastigmine chemical structure Figure 1: Cross Section of the EXELON PATCH

CLINICAL STUDIES

14 The effectiveness of the EXELON PATCH in dementia of the Alzheimer’s type and dementia associated with Parkinson’s disease was based on the results of 3 controlled trials of EXELON PATCH in patients with Alzheimer’s disease (Studies 1, 2, and 3) (see below); 3 controlled trials of oral rivastigmine in patients with dementia of the Alzheimer’s type; and 1 controlled trial of oral rivastigmine in patients with dementia associated with Parkinson’s disease.

See the prescribing information for oral rivastigmine for details of the four studies of oral rivastigmine.

Mild-to-Moderate Alzheimer’s Disease International 24-Week Study of EXELON PATCH in Dementia of the Alzheimer’s Type (Study 1) This study was a randomized double-blind, double dummy clinical investigation in patients with Alzheimer’s disease [diagnosed by NINCDS-ADRDA and DSM-IV criteria, Mini-Mental Status Examination (MMSE) score greater than or equal to 10 and less than or equal to 20] (Study 1).

The mean age of patients participating in this trial was 74 years with a range of 50 to 90 years.

Approximately 67% of patients were women, and 33% were men.

The racial distribution was Caucasian 75%, black 1%, Asian 9%, and other races 15%.

The effectiveness of the EXELON PATCH was evaluated in Study 1 using a dual outcome assessment strategy, evaluating for changes in both cognitive performance and overall clinical effect.

The ability of the EXELON PATCH to improve cognitive performance was assessed with the cognitive subscale of the Alzheimer’s Disease Assessment Scale (ADAS-Cog), a multi-item instrument that has been extensively validated in longitudinal cohorts of Alzheimer’s-disease patients.

The ADAS-Cog examines selected aspects of cognitive performance, including elements of memory, orientation, attention, reasoning, language, and praxis.

The ADAS-Cog scoring range is from 0 to 70, with higher scores indicating greater cognitive impairment.

Elderly normal adults may score as low as 0 or 1, but it is not unusual for non-demented adults to score slightly higher.

The ability of the EXELON PATCH to produce an overall clinical effect was assessed using the Alzheimer’s Disease Cooperative Study-Clinical Global Impression of Change (ADCS-CGIC).

The ADCS-CGIC is a more standardized form of the Clinician’s Interview-Based Impression of Change-Plus (CIBIC-Plus) and is also scored as a 7-point categorical rating; scores range from 1, indicating “markedly improved,” to 4, indicating “no change,” to 7, indicating “marked worsening.” In Study 1, 1195 patients were randomized to 1 of the following 4 treatments: EXELON PATCH 9.5 mg/24 hours, EXELON PATCH 17.4 mg/24 hours, EXELON Capsules in a dose of 6 mg twice daily, or placebo.

This 24-week study was divided into a 16-week titration phase followed by an 8-week maintenance phase.

In the active treatment arms of this study, doses below the target dose were permitted during the maintenance phase in the event of poor tolerability.

Figure 3 illustrates the time course for the change from baseline in ADAS-Cog scores for all 4 treatment groups over the 24-week study.

At 24 weeks, the mean differences in the ADAS-Cog change scores for the EXELON-treated patients compared to the patients on placebo, were 1.8, 2.9, and 1.8 units for the EXELON PATCH 9.5 mg/24 hours, EXELON PATCH 17.4 mg/24 hours, and EXELON Capsule 6 mg twice daily groups, respectively.

The difference between each of these groups and placebo was statistically significant.

Although a slight improvement was observed with the 17.4 mg/24 hours patch compared to the 9.5 mg/24 hours patch on this outcome measure, no meaningful difference between the two was seen on the global evaluation (see Figure 4).

Figure 3: Time Course of the Change from Baseline in ADAS-Cog Score for Patients Observed at Each Time Point in Study 1 Figure 4 presents the distribution of patients’ scores on the ADCS-CGIC for all 4 treatment groups.

At 24 weeks, the mean difference in the ADCS-CGIC scores for the comparison of patients in each of the EXELON-treated groups with the patients on placebo was 0.2 units.

The difference between each of these groups and placebo was statistically significant.

Figure 4: Distribution of ADCS-CGIC Scores for Patients Completing Study 1 International 48-Week Study of EXELON PATCH in Dementia of the Alzheimer’s Type (Study 2) This study was a randomized double-blind clinical investigation in patients with Alzheimer’s disease [diagnosed by NINCDS-ADRDA and DSM-IV criteria, Mini-Mental State Examination (MMSE) score greater than or equal to 10 and less than or equal to 24] (Study 2).

The mean age of patients participating in this trial was 76 years with a range of 50 to 85 years.

Approximately 65% of patients were women and 35% were men.

The racial distribution was approximately Caucasian 97%, black 2%, Asian 0.5%, and other races 1%.

Approximately 27% of the patients were taking memantine throughout the entire duration of the study.

Alzheimer’s disease patients who received 24 to 48 weeks open-label treatment with EXELON PATCH 9.5 mg/24 hours and who demonstrated functional and cognitive decline were randomized into treatment with either EXELON PATCH 9.5 mg/24 hours or EXELON PATCH 13.3 mg/24 hours in a 48-week, double-blind treatment phase.

Functional decline was assessed by the investigator and cognitive decline was defined as a decrease in the MMSE score of greater than or equal to 2 points from the previous visit or a decrease of greater than or equal to 3 points from baseline.

Study 2 was designed to compare the efficacy of EXELON PATCH 13.3 mg/24 hours versus that of EXELON PATCH 9.5 mg/24 hours during the 48-week, double-blind treatment phase.

The ability of the EXELON PATCH 13.3 mg/24 hours to improve cognitive performance over that provided by the EXELON PATCH 9.5 mg/24 hours was assessed by the cognitive subscale of the Alzheimer’s Disease Assessment Scale (ADAS-Cog) [see Clinical Studies (14)] .

The ability of the EXELON PATCH 13.3 mg/24 hours to improve overall function versus that provided by EXELON PATCH 9.5 mg/24 hours was assessed by the instrumental subscale of the Alzheimer’s Disease Cooperative Study Activities of Daily Living (ADCS-IADL).

The ADCS-IADL subscale is composed of items 7 to 23 of the caregiver-based ADCS-ADL scale.

The ADCS-IADL assesses activities, such as those necessary for communicating and interacting with other people, maintaining a household, and conducting hobbies and interests.

A sum score is calculated by adding the scores of the individual items and can range from 0 to 56, with higher scores indicating less impairment.

Out of a total of 1584 patients enrolled in the initial open-label phase of the study, 567 patients were classified as decliners and were randomized into the 48-week double-blind treatment phase of the study.

Two hundred eighty-seven (287) patients entered the 9.5 mg/24 hours EXELON PATCH treatment group and 280 patients entered the 13.3 mg/24 hours EXELON PATCH treatment group.

Figure 5 illustrates the time course for the mean change from double-blind baseline in ADCS-IADL scores for each treatment group over the course of the 48-week treatment phase of the study.

Decline in the mean ADCS-IADL score from the double-blind baseline for the Intent to Treat–Last Observation Carried Forward (ITT-LOCF) analysis was less at each timepoint in the 13.3 mg/24 hour EXELON PATCH treatment group than in the 9.5 mg/24 hours EXELON PATCH treatment group.

The 13.3 mg/24 hours dose was statistically significantly superior to the 9.5mg/24 hours dose at weeks 16, 24, 32, and 48 (primary endpoint).

Figure 6 illustrates the time course for the mean change from double-blind baseline in ADAS-Cog scores for both treatment groups over the 48-week treatment phase.

The between-treatment group difference for EXELON PATCH 13.3 mg/24 hours versus EXELON PATCH 9.5 mg/24 hours was nominally statistically significant at week 24 (p = 0.027), but not at week 48 (p = 0.227), which was the primary endpoint.

Figure 5: Time Course of the Change From Double-Blind Baseline in ADCS-IADL Score for Patients Observed at Each Time Point in Study 2 Figure 6: Time Course of the Change From Double-Blind Baseline in ADAS-Cog Score for Patients Observed at Each Time Point in Study 2 Severe Alzheimer’s Disease 24-Week United States Study With EXELON PATCH in Severe Alzheimer’s Disease (Study 3) This was a 24-week randomized double-blind, clinical investigation in patients with severe Alzheimer’s disease [diagnosed by NINCDS-ADRDA and DSM-IV criteria, Mini-Mental State Examination (MMSE) score greater than or equal to 3 and less than or equal to 12].

The mean age of patients participating in this trial was 78 years with a range of 51 to 96 years with 62% aged greater than 75 years.

Approximately 65% of patients were women and 35% were men.

The racial distribution was approximately Caucasian 87%, black 7%, Asian 1%, and other races 5%.

Patients on a stable dose of memantine were permitted to enter the study.

Approximately 61% of the patients in each treatment group were taking memantine throughout the entire duration of the study.

The study was designed to compare the efficacy of EXELON PATCH 13.3 mg/24 hours versus that of EXELON PATCH 4.6 mg/24 hours during the 24-week double-blind treatment phase.

The ability of the 13.3 mg/24 hours EXELON PATCH to improve cognitive performance versus that provided by the 4.6 mg/24 hours EXELON PATCH was assessed with the Severe Impairment Battery (SIB) which uses a validated 40-item scale developed for the evaluation of the severity of cognitive dysfunction in more advanced AD patients.

The domains assessed included social interaction, memory, language, attention, orientation, praxis, visuospatial ability, construction, and orienting to name.

The SIB was scored from 0 to 100, with higher scores reflecting higher levels of cognitive ability.

The ability of the 13.3 mg/24 hours EXELON PATCH to improve overall function versus that provided by the 4.6 mg/24 hours EXELON PATCH was assessed with the Alzheimer’s Disease Cooperative Study-Activities of Daily Living-Severe Impairment Version (ADCS-ADL-SIV) which is a caregiver-based ADL scale composed of 19 items developed for use in clinical studies of dementia.

It is designed to assess the patient’s performance of both basic and instrumental activities of daily living, such as those necessary for personal care, communicating and interacting with other people, maintaining a household, conducting hobbies and interests, and making judgments and decisions.

A sum score is calculated by adding the scores of the individual items and can range from 0 to 54, with higher scores indicating less functional impairment.

In this study, 716 patients were randomized into one of the following treatments: EXELON PATCH 13.3 mg/24 hours or EXELON PATCH 4.6 mg/24 hours in a 1:1 ratio.

This 24-week study was divided into an 8-week titration phase followed by a 16-week maintenance phase.

In the active treatment arms of this study, temporary dose adjustments below the target dose were permitted during the titration and maintenance phase in the event of poor tolerability.

Figure 7 illustrates the time course for the mean change from baseline SIB scores for each treatment group over the course of the 24-week treatment phase of the study.

Decline in the mean SIB score from the baseline for the Modified Full Analysis Set (MFAS)-Last Observation Carried Forward (LOCF) analysis was less at each timepoint in the 13.3 mg/24 hours EXELON PATCH treatment group than in the 4.6 mg/24 hours EXELON PATCH treatment group.

The 13.3 mg/24 hours dose was statistically significantly superior to the 4.6 mg/24 hours dose at weeks 16 and 24 (primary endpoint).

Figure 8 illustrates the time course for the mean change from baseline in ADCS-ADL-SIV scores for each treatment group over the course of the 24-week treatment phase of the study.

Decline in the mean ADCS-ADL-SIV score from baseline for the MFAS-LOCF analysis was less at each timepoint in the 13.3 mg/24 hours EXELON PATCH treatment group than in the 4.6 mg/24 hours EXELON PATCH treatment group.

The 13.3 mg/24 hours dose was statistically significantly superior to the 4.6 mg/24 hours dose at weeks 16 and 24 (primary endpoint).

Figure 7: Time Course of the Change From Baseline in SIB Score for Patients Observed at Each Time Point (Modified Full Analysis Set-LOCF) Figure 8: Time Course of the Change From Baseline in ADCS-ADL-SIV Score for Patients Observed at Each Time Point (Modified Full Analysis Set-LOCF) Figure 3: Time Course of the Change from Baseline in ADAS-Cog Score for Patients Observed at Each Time Point Figure 4: Distribution of ADCS-CGIC Scores for Patients Completing the Study Figure 5 Time Course of the Change from Double-Blind Baseline in ADCS-IADL Score for Patients Observed at Each Time Point in Study 2 Figure 6 Time Course of the Change from Double-Blind Baseline in ADAS-Cog Score for Patients Observed at Each Time Point in Study 2 Figure 7 Time Course of the Change from Baseline in SIB Score for Patients Observed at Each Time Point (Modified full analysis set–LOCF) Figure 8 Time Course of the Change from Baseline in ADCS-ADL-SIV Score for Patients Observed at Each Time Point (Modified full analysis set – LOCF)

HOW SUPPLIED

16 /STORAGE AND HANDLING EXELON PATCH: 4.6 mg/24 hours Each patch of 5 cm 2 contains 9 mg rivastigmine base with in vivo release rate of 4.6 mg/24 hours.

Carton of 30………………………NDC 0078-0501-15 EXELON PATCH: 9.5 mg/24 hours Each patch of 10 cm 2 contains 18 mg rivastigmine base with in vivo release rate of 9.5 mg/24 hours.

Carton of 30………………………..NDC 0078-0502-15 EXELON PATCH: 13.3 mg/24 hours Each patch of 15 cm 2 contains 27 mg rivastigmine base with in vivo release rate of 13.3 mg/24 hours.

Carton of 30………………………NDC 0078-0503-15 Store at 20°C to 25°C (68°F to 77°F); excursions permitted between 15°C and 30°C (59°F and 86°F) [see USP Controlled Room Temperature].

Keep EXELON PATCH in the individual sealed pouch until use.

Each pouch contains 1 patch.

Used systems should be folded, with the adhesive surfaces pressed together, and discarded safely.

GERIATRIC USE

8.5 Geriatric Use Of the total number of patients in clinical studies of EXELON PATCH, 88% were 65 years and over, while 55% were 75 years.

No overall differences in safety or effectiveness were observed between these patients and younger patients, and other reported clinical experience has not identified differences in responses between the elderly and younger patients, but greater sensitivity of some older individuals cannot be ruled out.

DOSAGE FORMS AND STRENGTHS

3 EXELON PATCH is available in 3 strengths.

Each patch has a beige backing layer labeled as either: • EXELON ® PATCH 4.6 mg/24 hours, AMCX • EXELON ® PATCH 9.5 mg/24 hours, BHDI • EXELON ® PATCH 13.3 mg/24 hours, CNFU Patch: 4.6 mg/24 hours or 9.5 mg/24 hours or 13.3 mg/24 hours ( 3 )

MECHANISM OF ACTION

12.1 Mechanism of Action Although the precise mechanism of action of rivastigmine is unknown, it is thought to exert its therapeutic effect by enhancing cholinergic function.

This is accomplished by increasing the concentration of acetylcholine through reversible inhibition of its hydrolysis by cholinesterase.

The effect of rivastigmine may lessen as the disease process advances and fewer cholinergic neurons remain functionally intact.

There is no evidence that rivastigmine alters the course of the underlying dementing process.

INDICATIONS AND USAGE

1 EXELON PATCH is an acetylcholinesterase inhibitor indicated for treatment of: • Mild, moderate, and severe dementia of the Alzheimer’s type (AD).

( 1.1 ) • Mild-to-moderate dementia associated with Parkinson’s disease (PD).

( 1.2 ) 1.1 Alzheimer’s Disease EXELON PATCH is indicated for the treatment of dementia of the Alzheimer’s type (AD).

Efficacy has been demonstrated in patients with mild, moderate, and severe Alzheimer’s disease.

1.2 Parkinson’s Disease Dementia EXELON PATCH is indicated for the treatment of mild-to-moderate dementia associated with Parkinson’s disease (PDD).

PEDIATRIC USE

8.4 Pediatric Use Safety and effectiveness in pediatric patients have not been established.

The use of EXELON PATCH in pediatric patients (below 18 years of age) is not recommended.

PREGNANCY

8.1 Pregnancy Risk Summary There are no adequate data on the developmental risks associated with the use of EXELON in pregnant women.

In animals, no adverse effects on embryo-fetal development were observed at oral doses 2-4 times the maximum recommended human dose (MRHD) (see Data) .

The background risk of major birth defects and miscarriage for the indicated population is unknown.

In the U.S.

general population, the estimated background risk of major birth defects and miscarriage in clinically recognized pregnancies is 2%-4% and 15%-20%, respectively.

Data Animal Data Oral administration of rivastigmine to pregnant rats and rabbits throughout organogenesis produced no adverse effects on embryo-fetal development up to the highest dose tested (2.3 mg/kg/day), which is 2 and 4 times, respectively, the MRHD of 12 mg per day on a body surface area (mg/m 2 ) basis.

WARNING AND CAUTIONS

5 WARNINGS AND PRECAUTIONS • Hospitalization and, rarely, death have been reported due to application of multiple patches at same time.

Ensure patients or caregivers receive instruction on proper dosing and administration.

( 5.1 ) • Gastrointestinal Adverse Reactions: May include significant nausea, vomiting, diarrhea, anorexia/decreased appetite, and weight loss, and may necessitate treatment interruption.

Dehydration may result from prolonged vomiting or diarrhea and can be associated with serious outcomes.

( 5.2 ) • Application-site reactions may occur with the patch form of rivastigmine.

Discontinue treatment if application-site reactions spread beyond the patch size, if there is evidence of a more intense local reaction (e.g., increasing erythema, edema, papules, vesicles), and if symptoms do not significantly improve within 48 hours after patch removal.

( 5.3 ) 5.1 Medication Errors Resulting in Overdose Medication errors with EXELON PATCH have resulted in serious adverse reactions; some cases have required hospitalization, and rarely, led to death.

The majority of medication errors have involved not removing the old patch when putting on a new one and the use of multiple patches at one time.

Instruct patients and their caregivers on important administration instructions for EXELON PATCH [see Dosage and Administration (2.4)] .

5.2 Gastrointestinal Adverse Reactions EXELON PATCH can cause gastrointestinal adverse reactions, including significant nausea, vomiting, diarrhea, anorexia/decreased appetite, and weight loss.

Dehydration may result from prolonged vomiting or diarrhea and can be associated with serious outcomes.

The incidence and severity of these reactions are dose-related [see Adverse Reactions (6.1)] .

For this reason, initiate treatment with EXELON PATCH at a dose of 4.6 mg/24 hours, and titrate to a dose of 9.5 mg/24 hours and then to a dose of 13.3 mg/24 hours, if appropriate [see Dosage and Administration (2.1)] .

If treatment is interrupted for more than 3 days because of intolerance, reinitiate EXELON PATCH with the 4.6 mg/24 hours dose to reduce the possibility of severe vomiting and its potentially serious sequelae.

A postmarketing report described a case of severe vomiting with esophageal rupture following inappropriate reinitiation of treatment of an oral formulation of rivastigmine without retitration after 8 weeks of treatment interruption.

Inform caregivers to monitor for gastrointestinal adverse reactions and to inform the physician if they occur.

It is critical to inform caregivers that if therapy has been interrupted for more than 3 days because of intolerance, the next dose should not be administered without contacting the physician regarding proper retitration.

5.3 Skin Reactions Skin application-site reactions may occur with EXELON PATCH.

These reactions are not in themselves an indication of sensitization.

However, use of rivastigmine patch may lead to allergic contact dermatitis.

Allergic contact dermatitis should be suspected if application-site reactions spread beyond the patch size, if there is evidence of a more intense local reaction (e.g., increasing erythema, edema, papules, vesicles), and if symptoms do not significantly improve within 48 hours after patch removal.

In these cases, treatment should be discontinued [see Contraindications (4)] .

In patients who develop application-site reactions to EXELON PATCH, suggestive of allergic contact dermatitis and who still require rivastigmine, treatment should be switched to oral rivastigmine only after negative allergy testing and under close medical supervision.

It is possible that some patients sensitized to rivastigmine by exposure to rivastigmine patch may not be able to take rivastigmine in any form.

There have been isolated postmarketing reports of patients experiencing disseminated allergic dermatitis when administered rivastigmine irrespective of the route of administration (oral or transdermal).

In these cases, treatment should be discontinued [see Contraindications (4)] .

Patients and caregivers should be instructed accordingly.

5.4 Other Adverse Reactions From Increased Cholinergic Activity Neurologic Effects Extrapyramidal Symptoms : Cholinomimetics, including rivastigmine, may exacerbate or induce extrapyramidal symptoms.

Worsening of parkinsonian symptoms, particularly tremor, has been observed in patients with dementia associated with Parkinson’s disease who were treated with EXELON Capsules.

Seizures : Drugs that increase cholinergic activity are believed to have some potential for causing seizures.

However, seizure activity also may be a manifestation of Alzheimer’s disease.

Peptic Ulcers/Gastrointestinal Bleeding Cholinesterase inhibitors, including rivastigmine, may increase gastric acid secretion due to increased cholinergic activity.

Monitor patients using EXELON PATCH for symptoms of active or occult gastrointestinal bleeding, especially those at increased risk for developing ulcers, e.g., those with a history of ulcer disease or those receiving concurrent nonsteroidal anti-inflammatory drugs (NSAIDs).

Clinical studies of rivastigmine have shown no significant increase, relative to placebo, in the incidence of either peptic ulcer disease or gastrointestinal bleeding.

Use with Anesthesia Rivastigmine, as a cholinesterase inhibitor, is likely to exaggerate succinylcholine-type muscle relaxation during anesthesia.

Cardiac Conduction Effects Because rivastigmine increases cholinergic activity, use of the EXELON PATCH may have vagotonic effects on heart rate (e.g., bradycardia).

The potential for this action may be particularly important in patients with sick sinus syndrome or other supraventricular cardiac conduction conditions.

Genitourinary Effects Although not observed in clinical trials of rivastigmine, drugs that increase cholinergic activity may cause urinary obstruction.

Pulmonary Effects Drugs that increase cholinergic activity, including EXELON PATCH, should be used with care in patients with a history of asthma or obstructive pulmonary disease.

5.5 Impairment in Driving or Use of Machinery Dementia may cause gradual impairment of driving performance or compromise the ability to use machinery.

The administration of rivastigmine may also result in adverse reactions that are detrimental to these functions.

During treatment with EXELON PATCH, routinely evaluate the patient’s ability to continue driving or operating machinery.

INFORMATION FOR PATIENTS

17 PATIENT COUNSELING INFORMATION Advise the patient to read the FDA-approved patient labeling (Patient Information and Instructions for Use).

Importance of Correct Usage Inform patients or caregivers of the importance of applying the correct dose on the correct part of the body.

They should be instructed to rotate the application site in order to minimize skin irritation.

The same site should not be used within 14 days.

The previous day’s patch must be removed before applying a new patch to a different skin location.

EXELON PATCH should be replaced every 24 hours and the time of day should be consistent.

It may be helpful for this to be part of a daily routine, such as the daily bath or shower.

Only 1 patch should be worn at a time [see Dosage and Administration (2.4), Warnings and Precautions (5.1)] .

Instruct patients or caregivers to avoid exposure of the patch to external heat sources (excessive sunlight, saunas, solariums) for long periods of time.

Instruct patients who have missed a dose to apply a new patch immediately.

They may apply the next patch at the usual time the next day.

Instruct patients to not apply 2 patches to make up for 1 missed.

Inform the patient or caregiver to contact the physician for retitration instructions if treatment has been interrupted.

Discarding Used Patches Instruct patients or caregivers to fold the patch in half after use, return the used patch to its original pouch, and discard it out of the reach and sight of children and pets.

They should also be informed that drug still remains in the patch after 24-hour usage.

They should be instructed to avoid eye contact and to wash their hands after handling the patch.

In case of accidental contact with the eyes, or if their eyes become red after handling the patch, they should be instructed to rinse immediately with plenty of water and to seek medical advice if symptoms do not resolve [see Dosage and Administration (2.4)] .

Gastrointestinal Adverse Reactions Inform patients or caregivers of the potential gastrointestinal adverse reactions, such as nausea, vomiting, and diarrhea, including the possibility of dehydration due to these symptoms.

Explain that EXELON PATCH may affect the patient’s appetite and/or the patient’s weight.

Patients and caregivers should be instructed to look for these adverse reactions, in particular when treatment is initiated or the dose is increased.

Instruct patients and caregivers to inform a physician if these adverse reactions persist [see Warnings and Precautions (5.2)] .

Skin Reactions Inform patients or caregivers about the potential for allergic contact dermatitis reactions to occur.

Patients or caregivers should be instructed to inform a physician if application-site reactions spread beyond the patch size, if there is evidence of a more intense local reaction (e.g., increasing erythema, edema, papules, vesicles) and if symptoms do not significantly improve within 48 hours after patch removal [see Warnings and Precautions (5.3)] .

Concomitant Use of Drugs With Cholinergic Action Inform patients or caregivers that while wearing EXELON PATCH, patients should not be taking EXELON Capsules or EXELON Oral Solution or other drugs with cholinergic effects [see Warnings and Precautions (5.4)] .

Pregnancy Advise patients to notify their healthcare provider if they are pregnant or plan to become pregnant.

Distributed by: Novartis Pharmaceuticals Corporation East Hanover, New Jersey 07936

DOSAGE AND ADMINISTRATION

2 • Apply patch on intact skin for a 24-hour period; replace with a new patch every 24 hours.

( 2.1 , 2.4 ) • Initial Dose: Initiate treatment with 4.6 mg/24 hours EXELON PATCH.

( 2.1 ) • Dose Titration: After a minimum of 4 weeks, if tolerated, increase dose to 9.5 mg/24 hours, which is the minimum effective dose.

Following a minimum additional 4 weeks, may increase dosage to maximum dosage of 13.3 mg/24 hours.

( 2.1 ) • Mild-to-Moderate Alzheimer’s Disease and Parkinson’s Disease Dementia: EXELON PATCH 9.5 mg/24 hours or 13.3 mg/24 hours once daily.

( 2.1 ) • Severe Alzheimer’s Disease: EXELON PATCH 13.3 mg/24 hours once daily.

( 2.1 ) • For treatment interruption longer than 3 days, retitrate dosage starting at 4.6 mg per 24 hours.

( 2.1 ) • Consider dose adjustments in patients with ( 2.2 ): o Mild-to-moderate hepatic impairment ( 8.6 ) o Low (less than 50 kg) body weight ( 8.7 ) 2.1 Recommended Dosing Initial Dose Initiate treatment with one 4.6 mg/24 hours EXELON PATCH applied to the skin once daily [see Dosage and Administration (2.4)] .

Dose Titration Increase the dose only after a minimum of 4 weeks at the previous dose, and only if the previous dose has been tolerated.

For mild-to-moderate AD and PDD patients, continue the effective dose of 9.5 mg/24 hours for as long as therapeutic benefit persists.

Patients can then be increased to the maximum effective dose of 13.3 mg/24 hours dose.

For patients with severe AD, 13.3 mg/24 hours is the effective dose.

Doses higher than 13.3 mg/24 hours confer no appreciable additional benefit, and are associated with an increase in the incidence of adverse reactions [see Warnings and Precautions (5.2), Adverse Reactions (6.1)] .

Mild-to-Moderate Alzheimer’s Disease and Mild-to-Moderate Parkinson’s Disease Dementia The effective dosage of EXELON PATCH is 9.5 mg/24 hours or 13.3 mg/24 hours administered once per day; replace with a new patch every 24 hours.

Severe Alzheimer’s Disease The effective dosage of EXELON PATCH in patients with severe Alzheimer’s disease is 13.3 mg/24 hours administered once per day; replace with a new patch every 24 hours.

Interruption of Treatment If dosing is interrupted for 3 days or fewer, restart treatment with the same or lower strength EXELON PATCH.

If dosing is interrupted for more than 3 days, restart treatment with the 4.6 mg/24 hours EXELON PATCH and titrate as described above.

2.2 Dosing in Specific Populations Dosing Modifications in Patients with Hepatic Impairment Consider using the 4.6 mg/24 hours EXELON PATCH as both the initial and maintenance dose in patients with mild (Child-Pugh score 5 to 6) to moderate (Child-Pugh score 7 to 9) hepatic impairment [see Use in Specific Populations (8.6), Clinical Pharmacology (12.3)] .

Dosing Modifications in Patients with Low Body Weight Carefully titrate and monitor patients with low body weight (less than 50 kg) for toxicities (e.g., excessive nausea, vomiting), and consider reducing the maintenance dose to the 4.6 mg/24 hours EXELON PATCH if such toxicities develop.

2.3 Switching to EXELON PATCH from EXELON Capsules or EXELON Oral Solution Patients treated with EXELON Capsules or Oral Solution may be switched to EXELON PATCH as follows: • A patient who is on a total daily dose of less than 6 mg of oral rivastigmine can be switched to the 4.6 mg/24 hours EXELON PATCH.

• A patient who is on a total daily dose of 6 mg to 12 mg of oral rivastigmine can be switched to the 9.5 mg/24 hours EXELON PATCH.

Instruct patients or caregivers to apply the first patch on the day following the last oral dose.

2.4 Important Administration Instructions EXELON PATCH is for transdermal use on intact skin.

(a) Do not use the patch if the pouch seal is broken or the patch is cut, damaged, or changed in any way.

(b) Apply the EXELON PATCH once a day.

• Press down firmly for 30 seconds until the edges stick well when applying to clean, dry, hairless, intact healthy skin in a place that will not be rubbed against by tight clothing.

• Use the upper or lower back as the site of application because the patch is less likely to be removed by the patient.

If sites on the back are not accessible, apply the patch to the upper arm or chest.

• Do not apply to a skin area where cream, lotion, or powder has recently been applied.

(c) Do not apply to skin that is red, irritated, or cut.

(d) Replace the EXELON PATCH with a new patch every 24 hours.

Instruct patients to only wear 1 patch at a time (remove the previous day’s patch before applying a new patch) [see Warnings and Precautions (5.1), Overdosage (10)] .

If a patch falls off or if a dose is missed, apply a new patch immediately, and then replace this patch the following day at the usual application time.

(e) Change the site of patch application daily to minimize potential irritation, although a new patch can be applied to the same general anatomic site (e.g., another spot on the upper back) on consecutive days.

Do not apply a new patch to the same location for at least 14 days.

(f) May wear the patch during bathing and in hot weather.

Avoid long exposure to external heat sources (excessive sunlight, saunas, solariums).

(g) Place used patches in the previously saved pouch and discard in the trash, away from pets or children.

(h) Wash hands with soap and water after removing the patch.

In case of contact with eyes or if the eyes become red after handling the patch, rinse immediately with plenty of water, and seek medical advice if symptoms do not resolve.

Urelle (hyoscyamine sulfate 0.12 MG / methenamine 81 MG / methylene blue 10.8 MG / phenyl salicylate 32.4 MG / sodium phosphate, monobasic 40.8 MG) Oral Tablet

Generic Name: HYOSCYAMINE SULFATE, METHENAMINE, METHYLENE BLUE, PHENYL SALICYLATE, AND SODIUM PHOSPHATE, MONOBASIC, MONOHYDRATE
Brand Name: URELLE
  • Substance Name(s):
  • HYOSCYAMINE SULFATE
  • METHENAMINE
  • METHYLENE BLUE
  • PHENYL SALICYLATE
  • SODIUM PHOSPHATE, MONOBASIC, MONOHYDRATE

WARNINGS

: If rapid pulse, dizziness, or blurring of vision occurs, discontinue use immediately.

Patients should be advised that urine will be colored blue when taking this medication.

Do not exceed recommended dosage.

DESCRIPTION

: Urelle ® tablets for oral administration are supplied as navy blue round tablets with “A-002” debossed on one side.

Each Tablet Contains: Hyoscyamine Sulfate 0.12 mg Methenamine 81.0 mg Methylene Blue 10.8 mg Phenyl Salicylate 32.4 mg Sodium Phosphate Monobasic 40.8 mg INACTIVE INGREDIENTS: Corn Starch, Dicalcium Phosphate, FD&C Blue #2/Indigo Carmine Aluminum Lake, Magnesium Stearate, Microcrystalline Cellulose, Polyethylene Glycol, Polyvinyl Alcohol, Talc, Titanium Dioxide.

HOW SUPPLIED

: Urelle ® tablets for oral administration are supplied in child resistant bottles of 90 tablets (NDC 0037-6321-90).

Store at controlled room temperature 20°-25°C (68°-77°F).

Dispense in a tight, light resistant container as defined in the USP.

KEEP THIS AND ALL DRUGS OUT OF THE REACH OF CHILDREN.

INDICATIONS AND USAGE

INDICATIONS and USAGE: Urelle ® is indicated for the treatment of symptoms of irritative voiding.

Indicated for the relief of local symptoms, such as inflammation, hypermotility, and pain, which accompany lower urinary tract infections.

Indicated for the relief of urinary tract symptoms caused by diagnostic procedures.

INFORMATION FOR PATIENTS

Drug Interactions: Although the exact mechanism of this drug interaction is unknown, methylene blue inhibits the action of monoamine oxidase A— an enzyme responsible for breaking down serotonin in the brain.

It is believed that when methylene blue is given to patients taking serotonergic psychiatric medications, high levels of serotonin can build up in the brain, causing toxicity.

This is referred to as Serotonin Syndrome.

Signs and symptoms of Serotonin Syndrome include mental changes (confusion, hyperactivity, memory problems), muscle twitching, excessive sweating, shivering or shaking, diarrhea, trouble with coordination, and/or fever.

DOSAGE AND ADMINISTRATION

DOSAGE and ADMINISTRATION: Adults – One tablet orally 4 times per day followed by liberal fluid intake.

Pediatric – Dosage must be individualized by a physician for older children.

Urelle® is not recommended for use in children 6 years of age or younger.

Sudafed PE Children’s Cold & Cough 5 MG / 2.5 MG per 5 ML Oral Solution

Generic Name: DEXTROMETHORPHAN HYDROBROMIDE AND PHENYLEPHRINE HYDROCHLORIDE
Brand Name: Childrens SUDAFED PE Cold plus Cough
  • Substance Name(s):
  • DEXTROMETHORPHAN HYDROBROMIDE
  • PHENYLEPHRINE HYDROCHLORIDE

WARNINGS

Warnings Do not use in a child who is taking a prescription monoamine oxidase inhibitor (MAOI) (certain drugs for depression, psychiatric or emotional conditions, or Parkinson’s disease), or for 2 weeks after stopping the MAOI drug.

If you do not know if your child’s prescription drug contains an MAOI, ask a doctor or pharmacist before giving this product.

Ask a doctor before use if the child has heart disease high blood pressure thyroid disease diabetes persistent or chronic cough such as occurs with asthma cough that occurs with too much phlegm (mucus) a sodium-restricted diet When using this product do not exceed recommended dose Stop use and ask a doctor if nervousness, dizziness, or sleeplessness occur symptoms do not improve within 7 days or occur with a fever cough gets worse or lasts for more than 7 days cough tends to come back or occurs with fever, rash or headache that lasts These could be signs of a serious condition.

Keep out of reach of children.

In case of overdose, get medical help or contact a Poison Control Center right away.

(1-800-222-1222)

INDICATIONS AND USAGE

Uses temporarily relieves these symptoms due to the common cold, hay fever, or other upper respiratory allergies: cough nasal congestion sinus congestion and pressure

INACTIVE INGREDIENTS

Inactive ingredients anhydrous citric acid, carboxymethylcellulose sodium, edetate disodium, FD&C blue no.

1, FD&C red no.

40, flavors, glycerin, purified water, sodium benzoate, sodium citrate, sorbitol solution, sucralose

PURPOSE

Active ingredients (in each 5 mL) Purposes Dextromethorphan HBr 5 mg Cough suppressant Phenylephrine HCl 2.5 mg Nasal decongestant

KEEP OUT OF REACH OF CHILDREN

Keep out of reach of children.

In case of overdose, get medical help or contact a Poison Control Center right away.

(1-800-222-1222)

ASK DOCTOR

Ask a doctor before use if the child has heart disease high blood pressure thyroid disease diabetes persistent or chronic cough such as occurs with asthma cough that occurs with too much phlegm (mucus) a sodium-restricted diet

DOSAGE AND ADMINISTRATION

Directions find right dose on chart below mL = milliliters repeat dose every 4 hours do not give more than 6 times in 24 hours Age (yr) Dose (mL) under 4 years do not use 4 to 5 years 5 mL 6 to 11 years 10 mL Attention: use only enclosed dosing cup specifically designed for use with this product.

Do not use any other dosing device.

DO NOT USE

Do not use in a child who is taking a prescription monoamine oxidase inhibitor (MAOI) (certain drugs for depression, psychiatric or emotional conditions, or Parkinson’s disease), or for 2 weeks after stopping the MAOI drug.

If you do not know if your child’s prescription drug contains an MAOI, ask a doctor or pharmacist before giving this product.

STOP USE

Stop use and ask a doctor if nervousness, dizziness, or sleeplessness occur symptoms do not improve within 7 days or occur with a fever cough gets worse or lasts for more than 7 days cough tends to come back or occurs with fever, rash or headache that lasts These could be signs of a serious condition.

ACTIVE INGREDIENTS

Active ingredients (in each 5 mL) Purposes Dextromethorphan HBr 5 mg Cough suppressant Phenylephrine HCl 2.5 mg Nasal decongestant

Magnesium Salicylate 580 MG Oral Tablet

WARNINGS

Warnings Reye’s syndrome : Children and teenagers who have or are recovering from chicken pox or flu-like symptoms should not use this product.

When using this product, if changes in behavior with nausea and vomiting occur, consult a doctor because these symptoms could be an early sign of Reye’s syndrome, a rare but serious illness.

Allergy Alert : Magnesium salicylate may cause a severe allergic reaction, which may include: hives facial swelling asthma (wheezing) shock Stomach bleeding warning : This product contains an NSAID, which may cause severe stomach bleeding.

The chance is higher if you: are age 60 or older have had stomach ulcers or bleeding problems take a blood thinning (anticoagulant) or steroid drug take other drugs containing prescription or nonprescription NSAIDs [aspirin, ibuprofen, naproxen, or others] have 3 or more alcoholic drinks every day while using this product take more or for a longer time than directed Do not use if you are allergic to salicylates (including aspirin) or any other pain reliever/fever reducer.

Ask a doctor before use if stomach bleeding warning applies to you you have a history of stomach problems, such as heartburn you have high blood pressure, heart disease, liver cirrhosis, or kidney disease you have asthma you are taking a diuretic Ask a doctor or pharmacist before use if you are taking a prescription drug for gout diabetes arthritis Stop use and ask a doctor if you experience any of the following signs of stomach bleeding: feel faint have bloody or black stools vomit blood have stomach pain that does not get better an allergic reaction occurs.

Seek medical help right away.

new symptoms occur redness or swelling is present ringing in the ears or loss of hearing occurs pain gets worse or lasts more than 10 days fever gets worse or lasts more than 3 days These could be signs of a serious condition.

If pregnant or breast-feeding, ask a health professional before use.

It is especially important not to use magnesium salicylate during the last 3 months of pregnancy unless definitely directed to do so by a doctor because it may cause problems in the unborn child or complications during delivery.

Keep out of reach of children.

In case of overdose, get medical help or contact a Poison Control Center (1-800-222-1222) right away.

INDICATIONS AND USAGE

Use for the temporary relief of minor backache pain

INACTIVE INGREDIENTS

Inactive ingredients hypromellose, magnesium stearate, microcrystalline cellulose, polydextrose, polyethylene glycol, stearic acid, titanium dioxide, triacetin

PURPOSE

Purpose Pain Reliever

KEEP OUT OF REACH OF CHILDREN

Keep out of reach of children.

In case of overdose, get medical help or contact a Poison Control Center (1-800-222-1222) right away.

ASK DOCTOR

Ask a doctor before use if stomach bleeding warning applies to you you have a history of stomach problems, such as heartburn you have high blood pressure, heart disease, liver cirrhosis, or kidney disease you have asthma you are taking a diuretic

DOSAGE AND ADMINISTRATION

Directions drink a full glass of water with each dose adults: 2 caplets every 6 hours, not to exceed 8 caplets in 24 hours children under 12 years: do not use unless directed by a doctor

PREGNANCY AND BREAST FEEDING

If pregnant or breast-feeding, ask a health professional before use.

It is especially important not to use magnesium salicylate during the last 3 months of pregnancy unless definitely directed to do so by a doctor because it may cause problems in the unborn child or complications during delivery.

DO NOT USE

Do not use if you are allergic to salicylates (including aspirin) or any other pain reliever/fever reducer.

STOP USE

Stop use and ask a doctor if you experience any of the following signs of stomach bleeding: feel faint have bloody or black stools vomit blood have stomach pain that does not get better an allergic reaction occurs.

Seek medical help right away.

new symptoms occur redness or swelling is present ringing in the ears or loss of hearing occurs pain gets worse or lasts more than 10 days fever gets worse or lasts more than 3 days These could be signs of a serious condition.

ACTIVE INGREDIENTS

Active ingredients (in each caplet) Magnesium salicylate tetrahydrate 580 mg (NSAID)* (equivalent to 467.2 mg of anhydrous magnesium salicylate) *nonsteroidal anti-inflammatory drug

ASK DOCTOR OR PHARMACIST

Ask a doctor or pharmacist before use if you are taking a prescription drug for gout diabetes arthritis

Sirolimus 1 MG Oral Tablet [Rapamune]

DRUG INTERACTIONS

7 Sirolimus is known to be a substrate for both cytochrome P-450 3A4 (CYP3A4) and p-glycoprotein (P-gp).

Inducers of CYP3A4 and P-gp may decrease sirolimus concentrations whereas inhibitors of CYP3A4 and P-gp may increase sirolimus concentrations.

• Avoid concomitant use with strong CYP3A4/P-gp inducers or strong CYP3A4/P-gp inhibitors that decrease or increase sirolimus concentrations ( 7.4 , 12.3 ).

• See full prescribing information for complete list of clinically significant drug interactions ( 12.3 ).

7.1 Use with Cyclosporine Cyclosporine, a substrate and inhibitor of CYP3A4 and P-gp, was demonstrated to increase sirolimus concentrations when co-administered with sirolimus.

In order to diminish the effect of this interaction with cyclosporine, it is recommended that Rapamune be taken 4 hours after administration of cyclosporine oral solution (MODIFIED) and/or cyclosporine capsules (MODIFIED).

If cyclosporine is withdrawn from combination therapy with Rapamune, higher doses of Rapamune are needed to maintain the recommended sirolimus trough concentration ranges [ see Dosage and Administration (2.2) , Clinical Pharmacology (12.3) ].

7.2 Strong Inducers and Strong Inhibitors of CYP3A4 and P-gp Avoid concomitant use of sirolimus with strong inducers (e.g., rifampin, rifabutin) and strong inhibitors (e.g., ketoconazole, voriconazole, itraconazole, erythromycin, telithromycin, clarithromycin) of CYP3A4 and P-gp.

Alternative agents with lesser interaction potential with sirolimus should be considered [ see Warnings and Precautions (5.18) , Clinical Pharmacology (12.3) ].

7.3 Grapefruit Juice Because grapefruit juice inhibits the CYP3A4-mediated metabolism of sirolimus, it must not be taken with or be used for dilution of Rapamune [ see Dosage and Administration (2.9) , Drug Interactions (7.3) , Clinical Pharmacology (12.3) ].

7.4 Weak and Moderate Inducers or Inhibitors of CYP3A4 and P-gp Exercise caution when using sirolimus with drugs or agents that are modulators of CYP3A4 and P-gp.

The dosage of Rapamune and/or the co-administered drug may need to be adjusted [ see Clinical Pharmacology (12.3) ].

• Drugs that could increase sirolimus blood concentrations: Bromocriptione, cimetidine, cisapride, clotrimazole, danazol, diltiazem, fluconazole, protease inhibitors (e.g., HIV and hepatitis C that include drugs such as ritonavir, indinavir, boceprevir, and telaprevir), metoclopramide, nicardipine, troleandomycin, verapamil • Drugs and other agents that could decrease sirolimus concentrations: Carbamazepine, phenobarbital, phenytoin, rifapentine, St.

John’s Wort ( Hypericum perforatum ) • Drugs with concentrations that could increase when given with Rapamune: Verapamil 7.5 Vaccination Immunosuppressants may affect response to vaccination.

Therefore, during treatment with Rapamune, vaccination may be less effective.

The use of live vaccines should be avoided; live vaccines may include, but are not limited to, the following: measles, mumps, rubella, oral polio, BCG, yellow fever, varicella, and TY21a typhoid.

OVERDOSAGE

10 Reports of overdose with Rapamune have been received; however, experience has been limited.

In general, the adverse effects of overdose are consistent with those listed in the adverse reactions section [ see Adverse Reactions (6) ].

General supportive measures should be followed in all cases of overdose.

Based on the low aqueous solubility and high erythrocyte and plasma protein binding of sirolimus, it is anticipated that sirolimus is not dialyzable to any significant extent.

In mice and rats, the acute oral LD 50 was greater than 800 mg/kg.

DESCRIPTION

11 Rapamune (sirolimus) is an immunosuppressive agent.

Sirolimus is a macrocyclic lactone produced by Streptomyces hygroscopicus .

The chemical name of sirolimus (also known as rapamycin) is (3 S ,6 R ,7 E ,9 R ,10 R ,12 R ,14 S ,15 E ,17 E ,19 E ,21 S ,23 S ,26 R ,27 R ,34a S )-9,10,12,13,14,21,22,23,24,25,26,27,32,33,34, 34a-hexadecahydro-9,27-dihydroxy-3-[(1 R )-2-[(1 S ,3 R ,4 R )-4-hydroxy-3-methoxycyclohexyl]-1-methylethyl]-10,21-dimethoxy-6,8,12,14,20,26-hexamethyl-23,27-epoxy-3 H -pyrido[2,1-c][1,4] oxaazacyclohentriacontine-1,5,11,28,29 (4 H ,6 H ,31 H )-pentone.

Its molecular formula is C 51 H 79 NO 13 and its molecular weight is 914.2.

The structural formula of sirolimus is illustrated as follows.

Sirolimus is a white to off-white powder and is insoluble in water, but freely soluble in benzyl alcohol, chloroform, acetone, and acetonitrile.

Rapamune is available for administration as an oral solution containing 1 mg/mL sirolimus.

Rapamune is also available as a tan, triangular-shaped tablet containing 0.5 mg sirolimus, as a white, triangular-shaped tablet containing 1 mg sirolimus, and as a yellow-to-beige triangular-shaped tablet containing 2 mg sirolimus.

The inactive ingredients in Rapamune Oral Solution are Phosal 50 PG ® (phosphatidylcholine, propylene glycol, mono- and di-glycerides, ethanol, soy fatty acids, and ascorbyl palmitate) and polysorbate 80.

Rapamune Oral Solution contains 1.5% – 2.5% ethanol.

The inactive ingredients in Rapamune Tablets include sucrose, lactose, polyethylene glycol 8000, calcium sulfate, microcrystalline cellulose, pharmaceutical glaze, talc, titanium dioxide, magnesium stearate, povidone, poloxamer 188, polyethylene glycol 20,000, glyceryl monooleate, carnauba wax, dl -alpha tocopherol, and other ingredients.

The 0.5 mg and 2 mg dosage strengths also contain yellow iron (ferric) oxide and brown iron (ferric) oxide.

Chemical Structure

CLINICAL STUDIES

14 14.1 Prophylaxis of Organ Rejection in Renal Transplant Patients Rapamune Oral Solution The safety and efficacy of Rapamune Oral Solution for the prevention of organ rejection following renal transplantation were assessed in two randomized, double-blind, multicenter, controlled trials.

These studies compared two dose levels of Rapamune Oral Solution (2 mg and 5 mg, once daily) with azathioprine (Study 1) or placebo (Study 2) when administered in combination with cyclosporine and corticosteroids.

Study 1 was conducted in the United States at 38 sites.

Seven hundred nineteen (719) patients were enrolled in this trial and randomized following transplantation; 284 were randomized to receive Rapamune Oral Solution 2 mg/day; 274 were randomized to receive Rapamune Oral Solution 5 mg/day, and 161 to receive azathioprine 2–3 mg/kg/day.

Study 2 was conducted in Australia, Canada, Europe, and the United States, at a total of 34 sites.

Five hundred seventy-six (576) patients were enrolled in this trial and randomized before transplantation; 227 were randomized to receive Rapamune Oral Solution 2 mg/day; 219 were randomized to receive Rapamune Oral Solution 5 mg/day, and 130 to receive placebo.

In both studies, the use of antilymphocyte antibody induction therapy was prohibited.

In both studies, the primary efficacy endpoint was the rate of efficacy failure in the first 6 months after transplantation.

Efficacy failure was defined as the first occurrence of an acute rejection episode (confirmed by biopsy), graft loss, or death.

The tables below summarize the results of the primary efficacy analyses from these trials.

Rapamune Oral Solution, at doses of 2 mg/day and 5 mg/day, significantly reduced the incidence of efficacy failure (statistically significant at the < 0.025 level; nominal significance level adjusted for multiple [2] dose comparisons) at 6 months following transplantation compared with both azathioprine and placebo.

TABLE 8: INCIDENCE (%) OF EFFICACY FAILURE AT 6 AND 24 MONTHS FOR STUDY 1 Patients received cyclosporine and corticosteroids.

, Includes patients who prematurely discontinued treatment.

Parameter Rapamune Oral Solution 2 mg/day (n = 284) Rapamune Oral Solution 5 mg/day (n = 274) Azathioprine 2–3 mg/kg/day (n = 161) Efficacy failure at 6 months Primary endpoint.

18.7 16.8 32.3 Components of efficacy failure Biopsy-proven acute rejection 16.5 11.3 29.2 Graft loss 1.1 2.9 2.5 Death 0.7 1.8 0 Lost to follow-up 0.4 0.7 0.6 Efficacy failure at 24 months 32.8 25.9 36.0 Components of efficacy failure Biopsy-proven acute rejection 23.6 17.5 32.3 Graft loss 3.9 4.7 3.1 Death 4.2 3.3 0 Lost to follow-up 1.1 0.4 0.6 TABLE 9: INCIDENCE (%) OF EFFICACY FAILURE AT 6 AND 36 MONTHS FOR STUDY 2 Patients received cyclosporine and corticosteroids.

, Includes patients who prematurely discontinued treatment.

Parameter Rapamune Oral Solution 2 mg/day (n = 227) Rapamune Oral Solution 5 mg/day (n = 219) Placebo (n = 130) Efficacy failure at 6 months Primary endpoint.

30.0 25.6 47.7 Components of efficacy failure Biopsy-proven acute rejection 24.7 19.2 41.5 Graft loss 3.1 3.7 3.9 Death 2.2 2.7 2.3 Lost to follow-up 0 0 0 Efficacy failure at 36 months 44.1 41.6 54.6 Components of efficacy failure Biopsy-proven acute rejection 32.2 27.4 43.9 Graft loss 6.2 7.3 4.6 Death 5.7 5.9 5.4 Lost to follow-up 0 0.9 0.8 Patient and graft survival at 1 year were co-primary endpoints.

The following table shows graft and patient survival at 1 and 2 years in Study 1, and 1 and 3 years in Study 2.

The graft and patient survival rates were similar in patients treated with Rapamune and comparator-treated patients.

TABLE 10: GRAFT AND PATIENT SURVIVAL (%) FOR STUDY 1 (12 AND 24 MONTHS) AND STUDY 2 (12 AND 36 MONTHS) Patients received cyclosporine and corticosteroids.

, Includes patients who prematurely discontinued treatment.

Parameter Rapamune Oral Solution 2 mg/day Rapamune Oral Solution 5 mg/day Azathioprine 2–3 mg/kg/day Placebo Study 1 (n = 284) (n = 274) (n = 161) Graft survival Month 12 94.7 92.7 93.8 Month 24 85.2 89.1 90.1 Patient survival Month 12 97.2 96.0 98.1 Month 24 92.6 94.9 96.3 Study 2 (n = 227) (n = 219) (n = 130) Graft survival Month 12 89.9 90.9 87.7 Month 36 81.1 79.9 80.8 Patient survival Month 12 96.5 95.0 94.6 Month 36 90.3 89.5 90.8 The reduction in the incidence of first biopsy-confirmed acute rejection episodes in patients treated with Rapamune compared with the control groups included a reduction in all grades of rejection.

In Study 1, which was prospectively stratified by race within center, efficacy failure was similar for Rapamune Oral Solution 2 mg/day and lower for Rapamune Oral Solution 5 mg/day compared with azathioprine in Black patients.

In Study 2, which was not prospectively stratified by race, efficacy failure was similar for both Rapamune Oral Solution doses compared with placebo in Black patients.

The decision to use the higher dose of Rapamune Oral Solution in Black patients must be weighed against the increased risk of dose-dependent adverse events that were observed with the Rapamune Oral Solution 5-mg dose [ see Adverse Reactions (6.1) ].

TABLE 11: PERCENTAGE OF EFFICACY FAILURE BY RACE AT 6 MONTHS Patients received cyclosporine and corticosteroids.

, Includes patients who prematurely discontinued treatment.

Parameter Rapamune Oral Solution 2 mg/day Rapamune Oral Solution 5 mg/day Azathioprine 2–3 mg/kg/day Placebo Study 1 Black (n = 166) 34.9 (n = 63) 18.0 (n = 61) 33.3 (n = 42) Non-Black 14.0 (n = 221) 16.4 (n = 213) 31.9 (n = 119) (n = 553) Study 2 Black (n = 66) 30.8 (n = 26) 33.7 (n = 27) 38.5 (n = 13) Non-Black 29.9 (n = 201) 24.5 (n = 192) 48.7 (n = 117) (n = 510) Mean glomerular filtration rates (GFR) post-transplant were calculated by using the Nankivell equation at 12 and 24 months for Study 1, and 12 and 36 months for Study 2.

Mean GFR was lower in patients treated with cyclosporine and Rapamune Oral Solution compared with those treated with cyclosporine and the respective azathioprine or placebo control.

TABLE 12: OVERALL CALCULATED GLOMERULAR FILTRATION RATES (Mean ± SEM, cc/min) BY NANKIVELL EQUATION POST-TRANSPLANT Includes patients who prematurely discontinued treatment.

, Patients who had a graft loss were included in the analysis with GFR set to 0.0.

Parameter Rapamune Oral Solution 2 mg/day Rapamune Oral Solution 5 mg/day Azathioprine 2–3 mg/kg/day Placebo Study 1 Month 12 57.4 ± 1.3 (n = 269) 54.6 ± 1.3 (n = 248) 64.1 ± 1.6) (n = 149) Month 24 58.4 ± 1.5 (n = 221) 52.6 ± 1.5 (n = 222) 62.4 ± 1.9 (n = 132) Study 2 Month 12 52.4 ± 1.5 (n = 211) 51.5 ± 1.5 (n = 199) 58.0 ± 2.1 (n = 117) Month 36 48.1 ± 1.8 (n = 183) 46.1 ± 2.0 (n = 177) 53.4 ± 2.7 (n = 102) Within each treatment group in Studies 1 and 2, mean GFR at one-year post-transplant was lower in patients who experienced at least one episode of biopsy-proven acute rejection, compared with those who did not.

Renal function should be monitored, and appropriate adjustment of the immunosuppressive regimen should be considered in patients with elevated or increasing serum creatinine levels [ see Warnings and Precautions (5.8) ].

Rapamune Tablets The safety and efficacy of Rapamune Oral Solution and Rapamune Tablets for the prevention of organ rejection following renal transplantation were demonstrated to be clinically equivalent in a randomized, multicenter, controlled trial [ see Clinical Pharmacology (12.3) ].

14.2 Cyclosporine Withdrawal Study in Renal Transplant Patients The safety and efficacy of Rapamune as a maintenance regimen were assessed following cyclosporine withdrawal at 3 to 4 months after renal transplantation.

Study 3 was a randomized, multicenter, controlled trial conducted at 57 centers in Australia, Canada, and Europe.

Five hundred twenty-five (525) patients were enrolled.

All patients in this study received the tablet formulation.

This study compared patients who were administered Rapamune, cyclosporine, and corticosteroids continuously with patients who received this same standardized therapy for the first 3 months after transplantation (pre-randomization period) followed by the withdrawal of cyclosporine.

During cyclosporine withdrawal, the Rapamune dosages were adjusted to achieve targeted sirolimus whole blood trough concentration ranges (16 to 24 ng/mL until month 12, then 12 to 20 ng/mL thereafter, expressed as chromatographic assay values).

At 3 months, 430 patients were equally randomized to either continue Rapamune with cyclosporine therapy or to receive Rapamune as a maintenance regimen following cyclosporine withdrawal.

Eligibility for randomization included no Banff Grade 3 acute rejection or vascular rejection episode in the 4 weeks before random assignment, serum creatinine ≤ 4.5 mg/dL, and adequate renal function to support cyclosporine withdrawal (in the opinion of the investigator).

The primary efficacy endpoint was graft survival at 12 months after transplantation.

Secondary efficacy endpoints were the rate of biopsy-confirmed acute rejection, patient survival, incidence of efficacy failure (defined as the first occurrence of either biopsy-proven acute rejection, graft loss, or death), and treatment failure (defined as the first occurrence of either discontinuation, acute rejection, graft loss, or death).

The following table summarizes the resulting graft and patient survival at 12, 24, and 36 months for this trial.

At 12, 24, and 36 months, graft and patient survival were similar for both groups.

TABLE 13: GRAFT AND PATIENT SURVIVAL (%): STUDY 3 Includes patients who prematurely discontinued treatment.

Parameter Rapamune with Cyclosporine Therapy (n = 215) Rapamune Following Cyclosporine Withdrawal (n = 215) Graft Survival Month 12 Primary efficacy endpoint.

95.3 Survival including loss to follow-up as an event.

97.2 Month 24 91.6 94.0 Month 36 Initial planned duration of the study.

87.0 91.6 Patient Survival Month 12 97.2 98.1 Month 24 94.4 95.8 Month 36 91.6 94.0 The following table summarizes the results of first biopsy-proven acute rejection at 12 and 36 months.

There was a significant difference in first biopsy-proven rejection rates between the two groups after randomization and through 12 months.

Most of the post-randomization acute rejections occurred in the first 3 months following randomization.

TABLE 14: INCIDENCE OF FIRST BIOPSY-PROVEN ACUTE REJECTION (%) BY TREATMENT GROUP AT 36 MONTHS: STUDY 3 Includes patients who prematurely discontinued treatment.

, All patients received corticosteroids.

Period Rapamune with Cyclosporine Therapy (n = 215) Rapamune Following Cyclosporine Withdrawal (n = 215) Pre-randomization Randomization occurred at 3 months ± 2 weeks.

9.3 10.2 Post-randomization through 12 months 4.2 9.8 Post-randomization from 12 to 36 months 1.4 0.5 Post-randomization through 36 months 5.6 10.2 Total at 36 months 14.9 20.5 Patients receiving renal allografts with ≥ 4 HLA mismatches experienced significantly higher rates of acute rejection following randomization to the cyclosporine withdrawal group, compared with patients who continued cyclosporine (15.3% versus 3.0%).

Patients receiving renal allografts with ≤ 3 HLA mismatches demonstrated similar rates of acute rejection between treatment groups (6.8% versus 7.7%) following randomization.

The following table summarizes the mean calculated GFR in Study 3 (cyclosporine withdrawal study).

TABLE 15: CALCULATED GLOMERULAR FILTRATION RATES (mL/min) BY NANKIVELL EQUATION AT 12, 24, AND 36 MONTHS POST-TRANSPLANT: STUDY 3 Includes patients who prematurely discontinued treatment.

, Patients who had a graft loss were included in the analysis and had their GFR set to 0.0.

, All patients received corticosteroids.

Parameter Rapamune with Cyclosporine Therapy Rapamune Following Cyclosporine Withdrawal Month 12 Mean ± SEM 53.2 ± 1.5 (n = 208) 59.3 ± 1.5 (n = 203) Month 24 Mean ± SEM 48.4 ± 1.7 (n = 203) 58.4 ± 1.6 (n = 201) Month 36 Mean ± SEM 47.0 ± 1.8 (n = 196) 58.5 ± 1.9 (n = 199) The mean GFR at 12, 24, and 36 months, calculated by the Nankivell equation, was significantly higher for patients receiving Rapamune as a maintenance regimen following cyclosporine withdrawal than for those in the Rapamune with cyclosporine therapy group.

Patients who had an acute rejection prior to randomization had a significantly higher GFR following cyclosporine withdrawal compared to those in the Rapamune with cyclosporine group.

There was no significant difference in GFR between groups for patients who experienced acute rejection post-randomization.

Although the initial protocol was designed for 36 months, there was a subsequent amendment to extend this study.

The results for the cyclosporine withdrawal group at months 48 and 60 were consistent with the results at month 36.

Fifty-two percent (112/215) of the patients in the Rapamune with cyclosporine withdrawal group remained on therapy to month 60 and showed sustained GFR.

14.3 High-Immunologic Risk Renal Transplant Patients Rapamune was studied in a one-year, clinical trial in high risk patients (Study 4) who were defined as Black transplant recipients and/or repeat renal transplant recipients who lost a previous allograft for immunologic reasons and/or patients with high panel-reactive antibodies (PRA; peak PRA level > 80%).

Patients received concentration-controlled sirolimus and cyclosporine (MODIFIED), and corticosteroids per local practice.

The Rapamune dose was adjusted to achieve target whole blood trough sirolimus concentrations of 10–15 ng/mL (chromatographic method) throughout the 12-month study period.

The cyclosporine dose was adjusted to achieve target whole blood trough concentrations of 200–300 ng/mL through week 2, 150–200 ng/mL from week 2 to week 26, and 100–150 ng/mL from week 26 to week 52 [ see Clinical Pharmacology (12.3) ] for the observed trough concentrations ranges.

Antibody induction was allowed per protocol as prospectively defined at each transplant center, and was used in 88.4% of patients.

The study was conducted at 35 centers in the United States.

A total of 224 patients received a transplant and at least one dose of sirolimus and cyclosporine and was comprised of 77.2% Black patients, 24.1% repeat renal transplant recipients, and 13.5% patients with high PRA.

Efficacy was assessed with the following endpoints, measured at 12 months: efficacy failure (defined as the first occurrence of biopsy-confirmed acute rejection, graft loss, or death), first occurrence of graft loss or death, and renal function as measured by the calculated GFR using the Nankivell formula.

The table below summarizes the result of these endpoints.

TABLE 16: EFFICACY FAILURE, GRAFT LOSS OR DEATH AND CALCULATED GLOMERULAR FUNCTION RATES (mL/min) BY NANKIVELL EQUATION AT 12 MONTHS POST-TRANSPLANT: STUDY 4 Parameter Rapamune with Cyclosporine, Corticosteroids (n = 224) Efficacy Failure (%) 23.2 Graft Loss or Death (%) 9.8 Renal Function (mean ± SEM) Calculated glomerular filtration rate by Nankivell equation.

, Patients who had graft loss were included in this analysis with GFR set to 0.

52.6 ± 1.6 (n = 222) Patient survival at 12 months was 94.6%.

The incidence of biopsy-confirmed acute rejection was 17.4% and the majority of the episodes of acute rejection were mild in severity.

14.4 Conversion from Calcineurin Inhibitors to Rapamune in Maintenance Renal Transplant Patients Conversion from calcineurin inhibitors (CNI) to Rapamune was assessed in maintenance renal transplant patients 6 months to 10 years post-transplant (Study 5).

This study was a randomized, multicenter, controlled trial conducted at 111 centers globally, including US and Europe, and was intended to show that renal function was improved by conversion from CNI to Rapamune.

Eight hundred thirty (830) patients were enrolled and stratified by baseline calculated glomerular filtration rate (GFR, 20–40 mL/min versus greater than 40 mL/min).

In this trial there was no benefit associated with conversion with regard to improvement in renal function and a greater incidence of proteinuria in the Rapamune conversion arm.

In addition, enrollment of patients with baseline calculated GFR less than 40 mL/min was discontinued due to a higher rate of serious adverse events, including pneumonia, acute rejection, graft loss and death [ see Adverse Reactions (6.4) ].

This study compared renal transplant patients (6–120 months after transplantation) who were converted from calcineurin inhibitors to Rapamune, with patients who continued to receive calcineurin inhibitors.

Concomitant immunosuppressive medications included mycophenolate mofetil (MMF), azathioprine (AZA), and corticosteroids.

Rapamune was initiated with a single loading dose of 12–20 mg, after which dosing was adjusted to achieve a target sirolimus whole blood trough concentration of 8–20 ng/mL (chromatographic method).

The efficacy endpoint was calculated GFR at 12 months post-randomization.

Additional endpoints included biopsy-confirmed acute rejection, graft loss, and death.

Findings in the patient stratum with baseline calculated GFR greater than 40 mL/min (Rapamune conversion, n = 497; CNI continuation, n = 246) are summarized below: There was no clinically or statistically significant improvement in Nankivell GFR compared to baseline.

TABLE 17: RENAL FUNCTION IN STABLE RENAL TRANSPLANT PATIENTS IN PATIENTS WITH BASELINE GFR > 40 mL/min THE RAPAMUNE CONVERSION STUDY (STUDY 5) Parameter Rapamune conversion N = 496 CNI continuation N = 245 Difference (95% CI) GFR mL/min (Nankivell) at 1 year 59.0 57.7 1.3 (-1.1, 3.7) GFR mL/min (Nankivell) at 2 year 53.7 52.1 1.6 (-1.4, 4.6) The rates of acute rejection, graft loss, and death were similar at 1 and 2 years.

Treatment-emergent adverse events occurred more frequently during the first 6 months after Rapamune conversion.

The rates of pneumonia were significantly higher for the sirolimus conversion group.

While the mean and median values for urinary protein to creatinine ratio were similar between treatment groups at baseline, significantly higher mean and median levels of urinary protein excretion were seen in the Rapamune conversion arm at 1 year and at 2 years, as shown in the table below [ see Warnings and Precautions (5.9) ].

In addition, when compared to patients who continued to receive calcineurin inhibitors, a higher percentage of patients had urinary protein to creatinine ratios > 1 at 1 and 2 years after sirolimus conversion.

This difference was seen in both patients who had a urinary protein to creatinine ratio ≤ 1 and those who had a protein to creatinine ratio > 1 at baseline.

More patients in the sirolimus conversion group developed nephrotic range proteinuria, as defined by a urinary protein to creatinine ratio > 3.5 (46/482 [9.5%] versus 9/239 [3.8%]), even when the patients with baseline nephrotic range proteinuria were excluded.

The rate of nephrotic range proteinuria was significantly higher in the sirolimus conversion group compared to the calcineurin inhibitor continuation group with baseline urinary protein to creatinine ratio > 1 (13/29 versus 1/14), excluding patients with baseline nephrotic range proteinuria.

TABLE 18: MEAN AND MEDIAN VALUES FOR URINARY PROTEIN TO CREATININE RATIO (mg/mg) BETWEEN TREATMENT GROUPS AT BASELINE, 1 AND 2 YEARS IN THE STRATUM WITH BASELINE CALCULATED GFR > 40 mL/min Study period Sirolimus Conversion CNI Continuation N Mean ± SD Median N Mean ± SD Median p-value Baseline 410 0.35 ± 0.76 0.13 207 0.28 ± 0.61 0.11 0.381 1 year 423 0.88 ± 1.61 0.31 203 0.37 ± 0.88 0.14 <0.001 2 years 373 0.86 ± 1.48 0.32 190 0.47 ± 0.98 0.13 <0.001 The above information should be taken into account when considering conversion from calcineurin inhibitors to Rapamune in stable renal transplant patients due to the lack of evidence showing that renal function improves following conversion, and the finding of a greater increment in urinary protein excretion, and an increased incidence of treatment-emergent nephrotic range proteinuria following conversion to Rapamune.

This was particularly true among patients with existing abnormal urinary protein excretion prior to conversion.

14.5 Conversion from a CNI-based Regimen to a Sirolimus-based Regimen in Liver Transplant Patients Conversion from a CNI-based regimen to a Rapamune-based regimen was assessed in stable liver transplant patients 6–144 months post-transplant.

The clinical study was a 2:1 randomized, multi-center, controlled trial conducted at 82 centers globally, including the US and Europe, and was intended to show that renal function was improved by conversion from a CNI to Rapamune without adversely impacting efficacy or safety.

A total of 607 patients were enrolled.

The study failed to demonstrate superiority of conversion to a Rapamune-based regimen compared to continuation of a CNI-based regimen in baseline-adjusted GFR, as estimated by Cockcroft-Gault, at 12 months (62 mL/min in the Rapamune conversion group and 63 mL/min in the CNI continuation group).

The study also failed to demonstrate non-inferiority, with respect to the composite endpoint consisting of graft loss and death (including patients with missing survival data) in the Rapamune conversion group compared to the CNI continuation group (6.6% versus 5.6%).

The number of deaths in the Rapamune conversion group (15/393, 3.8%) was higher than in the CNI continuation group (3/214, 1.4%), although the difference was not statistically significant.

The rates of premature study discontinuation (primarily due to adverse events or lack of efficacy), adverse events overall (infections, specifically), and biopsy-proven acute liver graft rejection at 12 months were all significantly greater in the Rapamune conversion group compared to the CNI continuation group.

14.6 Pediatric Renal Transplant Patients Rapamune was evaluated in a 36-month, open-label, randomized, controlled clinical trial at 14 North American centers in pediatric (aged 3 to < 18 years) renal transplant patients considered to be at high-immunologic risk for developing chronic allograft nephropathy, defined as a history of one or more acute allograft rejection episodes and/or the presence of chronic allograft nephropathy on a renal biopsy.

Seventy-eight (78) subjects were randomized in a 2:1 ratio to Rapamune (sirolimus target concentrations of 5 to 15 ng/mL, by chromatographic assay, n = 53) in combination with a calcineurin inhibitor and corticosteroids or to continue calcineurin-inhibitor-based immunosuppressive therapy (n = 25).

The primary endpoint of the study was efficacy failure as defined by the first occurrence of biopsy-confirmed acute rejection, graft loss, or death, and the trial was designed to show superiority of Rapamune added to a calcineurin-inhibitor-based immunosuppressive regimen compared to a calcineurin-inhibitor-based regimen.

The cumulative incidence of efficacy failure up to 36 months was 45.3% in the Rapamune group compared to 44.0% in the control group, and did not demonstrate superiority.

There was one death in each group.

The use of Rapamune in combination with calcineurin inhibitors and corticosteroids was associated with an increased risk of deterioration of renal function, serum lipid abnormalities (including, but not limited to, increased serum triglycerides and cholesterol), and urinary tract infections [ see Warnings and Precautions (5.8) ].

This study does not support the addition of Rapamune to calcineurin-inhibitor-based immunosuppressive therapy in this subpopulation of pediatric renal transplant patients.

14.7 Lymphangioleiomyomatosis Patients The safety and efficacy of Rapamune for treatment of lymphangioleiomyomatosis (LAM) were assessed in a randomized, double-blind, multicenter, controlled trial.

This study compared Rapamune (dose-adjusted to maintain blood trough concentrations between 5–15 ng/mL) with placebo for a 12-month treatment period, followed by a 12-month observation period.

Eighty-nine (89) patients were enrolled; 43 patients were randomized to receive placebo and 46 patients to receive Rapamune.

The primary endpoint was the difference between the groups in the rate of change (slope) per month in forced expiratory volume in 1 second (FEV1).

During the treatment period, the FEV1 slope was -12±2 mL per month in the placebo group and 1±2 mL per month in the Rapamune group (treatment difference = 13 mL (95% CI: 7, 18).

The absolute between-group difference in the mean change in FEV1 during the 12-month treatment period was 153 mL, or approximately 11% of the mean FEV1 at enrollment.

Similar improvements were seen for forced vital capacity (FVC).

After discontinuation of Rapamune, the decline in lung function resumed in the Rapamune group and paralleled that in the placebo group (see Figure 1 ).

FIGURE 1: CHANGE IN FORCED EXPIRATORY VOLUME IN 1 SECOND (FEV1) DURING THE TREATMENT AND OBSERVATION PHASES OF THE STUDY IN LAM PATIENTS The rate of change over 12 months of vascular endothelial growth factor-D (VEGF-D), a lymphangiogenic growth factor which has been shown to be elevated in patients with LAM, was significantly different in the Rapamune-treated group (-88.0 ± 16.6 pg/mL/month) compared to placebo (-2.42 ± 17.2 pg/mL/month) with a treatment difference of -86 pg/mL/month (95% CI: -133, -39).

The absolute between-group difference in the mean change in VEGF-D during the 12-month treatment period was -1017.2, or approximately 50% of the mean VEGF-D at enrollment.

Figure 1

HOW SUPPLIED

16 /STORAGE AND HANDLING Since Rapamune is not absorbed through the skin, there are no special precautions.

However, if direct contact of the oral solution occurs with the skin or eyes, wash skin thoroughly with soap and water; rinse eyes with plain water.

Do not use RAPAMUNE after the expiration date that is located on the blister and carton.

The expiration date refers to the last day of that month.

16.1 Rapamune Oral Solution Each Rapamune Oral Solution carton, NDC 0008-1030-06, contains one 2 oz (60 mL fill) amber glass bottle of sirolimus (concentration of 1 mg/mL), one oral syringe adapter for fitting into the neck of the bottle, sufficient disposable amber oral syringes and caps for daily dosing, and a carrying case.

Rapamune Oral Solution bottles should be stored protected from light and refrigerated at 2°C to 8°C (36°F to 46°F).

Once the bottle is opened, the contents should be used within one month.

If necessary, the patient may store the bottles at room temperatures up to 25°C (77°F) for a short period of time (e.g., not more than 15 days for the bottles).

An amber syringe and cap are provided for dosing, and the product may be kept in the syringe for a maximum of 24 hours at room temperatures up to 25°C (77°F) or refrigerated at 2°C to 8°C (36°F to 46°F).

The syringe should be discarded after one use.

After dilution, the preparation should be used immediately.

Rapamune Oral Solution provided in bottles may develop a slight haze when refrigerated.

If such a haze occurs, allow the product to stand at room temperature and shake gently until the haze disappears.

The presence of this haze does not affect the quality of the product.

16.2 Rapamune Tablets Rapamune Tablets are available as follows: • NDC 0008-1040-05, 0.5 mg, tan, triangular-shaped tablets marked “RAPAMUNE 0.5 mg” on one side; bottle containing 100 tablets.

• NDC 0008-1040-10, 0.5 mg, tan, triangular-shaped tablets marked “RAPAMUNE 0.5 mg” on one side; in Redipak ® cartons of 100 tablets (10 blister cards of 10 tablets each).

• NDC 0008-1041-05, 1 mg, white, triangular-shaped tablets marked “RAPAMUNE 1 mg” on one side; bottle containing 100 tablets.

• NDC 0008-1041-10, 1 mg, white, triangular-shaped tablets marked “RAPAMUNE 1 mg” on one side; in Redipak ® cartons of 100 tablets (10 blister cards of 10 tablets each).

• NDC 0008-1042-05, 2 mg, yellow-to-beige triangular-shaped tablets marked “RAPAMUNE 2 mg” on one side; bottle containing 100 tablets.

Rapamune Tablets should be stored at 20° to 25°C [USP Controlled Room Temperature] (68° to 77°F).

Use cartons to protect blister cards and strips from light.

Dispense in a tight, light-resistant container as defined in the USP.

RECENT MAJOR CHANGES

Warnings and Precautions, Angioedema ( 5.5 ) 4/2017 Warnings and Precautions, Embryo-Fetal Toxicity ( 5.15 ) 1/2018

GERIATRIC USE

8.5 Geriatric Use Clinical studies of Rapamune Oral Solution or Tablets did not include sufficient numbers of patients ≥ 65 years to determine whether they respond differently from younger patients.

Data pertaining to sirolimus trough concentrations suggest that dose adjustments based upon age in geriatric renal patients are not necessary.

Differences in responses between the elderly and younger patients have not been identified.

In general, dose selection for an elderly patient should be cautious, usually starting at the low end of the dosing range, reflecting the greater frequency of decreased hepatic, or cardiac function, and of concomitant disease or other drug therapy.

DOSAGE FORMS AND STRENGTHS

3 • Oral Solution: 60 mg per 60 mL in amber glass bottle ( 3.1 ).

• Tablets: 0.5 mg, 1 mg, 2 mg ( 3.2 ).

3.1 Rapamune Oral Solution • 60 mg per 60 mL in amber glass bottle.

3.2 Rapamune Tablets • 0.5 mg, tan, triangular-shaped tablets marked “RAPAMUNE 0.5 mg” on one side.

• 1 mg, white, triangular-shaped tablets marked “RAPAMUNE 1 mg” on one side.

• 2 mg, yellow-to-beige triangular-shaped tablets marked “RAPAMUNE 2 mg” on one side.

MECHANISM OF ACTION

12.1 Mechanism of Action Sirolimus inhibits T-lymphocyte activation and proliferation that occurs in response to antigenic and cytokine (Interleukin [IL]-2, IL-4, and IL-15) stimulation by a mechanism that is distinct from that of other immunosuppressants.

Sirolimus also inhibits antibody production.

In cells, sirolimus binds to the immunophilin, FK Binding Protein-12 (FKBP-12), to generate an immunosuppressive complex.

The sirolimus:FKBP-12 complex has no effect on calcineurin activity.

This complex binds to and inhibits the activation of the mammalian target of rapamycin (mTOR), a key regulatory kinase.

This inhibition suppresses cytokine-driven T-cell proliferation, inhibiting the progression from the G 1 to the S phase of the cell cycle.

Studies in experimental models show that sirolimus prolongs allograft (kidney, heart, skin, islet, small bowel, pancreatico-duodenal, and bone marrow) survival in mice, rats, pigs, and/or primates.

Sirolimus reverses acute rejection of heart and kidney allografts in rats and prolongs the graft survival in presensitized rats.

In some studies, the immunosuppressive effect of sirolimus lasts up to 6 months after discontinuation of therapy.

This tolerization effect is alloantigen-specific.

In rodent models of autoimmune disease, sirolimus suppresses immune-mediated events associated with systemic lupus erythematosus, collagen-induced arthritis, autoimmune type I diabetes, autoimmune myocarditis, experimental allergic encephalomyelitis, graft-versus-host disease, and autoimmune uveoretinitis.

Lymphangioleiomyomatosis involves lung tissue infiltration with smooth muscle-like cells that harbor inactivating mutations of the tuberous sclerosis complex (TSC) gene (LAM cells).

Loss of TSC gene function activates the mTOR signaling pathway, resulting in cellular proliferation and release of lymphangiogenic growth factors.

Sirolimus inhibits the activated mTOR pathway and thus the proliferation of LAM cells.

INDICATIONS AND USAGE

1 Rapamune is an mTOR inhibitor immunosuppressant indicated for the prophylaxis of organ rejection in patients aged ≥13 years receiving renal transplants.

3.

Patients at low- to moderate-immunologic risk: Use initially with cyclosporine (CsA) and corticosteroids.

CsA withdrawal is recommended 2–4 months after transplantation ( 1.1 ).

4.

Patients at high-immunologic risk: Use in combination with CsA and corticosteroids for the first 12 months following transplantation ( 1.1 ).

Safety and efficacy of CsA withdrawal has not been established in high risk patients ( 1.1 , 1.2 , 14.3 ).

Rapamune is an mTOR inhibitor indicated for the treatment of patients with lymphangioleiomyomatosis ( 1.3 ).

1.1 Prophylaxis of Organ Rejection in Renal Transplantation Rapamune (sirolimus) is indicated for the prophylaxis of organ rejection in patients aged 13 years or older receiving renal transplants.

In patients at low-to moderate-immunologic risk , it is recommended that Rapamune be used initially in a regimen with cyclosporine and corticosteroids; cyclosporine should be withdrawn 2 to 4 months after transplantation [ see Dosage and Administration (2.2) ].

In patients at high-immunologic risk (defined as Black recipients and/or repeat renal transplant recipients who lost a previous allograft for immunologic reason and/or patients with high panel-reactive antibodies [PRA; peak PRA level > 80%]), it is recommended that Rapamune be used in combination with cyclosporine and corticosteroids for the first year following transplantation [ see Dosage and Administration (2.3) , Clinical Studies (14.3) ].

1.2 Limitations of Use in Renal Transplantation Cyclosporine withdrawal has not been studied in patients with Banff Grade 3 acute rejection or vascular rejection prior to cyclosporine withdrawal, those who are dialysis-dependent, those with serum creatinine > 4.5 mg/dL, Black patients, patients of multi-organ transplants, secondary transplants, or those with high levels of panel-reactive antibodies [ see Clinical Studies (14.2) ].

In patients at high-immunologic risk , the safety and efficacy of Rapamune used in combination with cyclosporine and corticosteroids has not been studied beyond one year; therefore after the first 12 months following transplantation, any adjustments to the immunosuppressive regimen should be considered on the basis of the clinical status of the patient [ see Clinical Studies (14.3) ].

In pediatric patients , the safety and efficacy of Rapamune have not been established in patients < 13 years old, or in pediatric (< 18 years) renal transplant patients considered at high-immunologic risk [ see Adverse Reactions (6.5) , Clinical Studies (14.6) ].

The safety and efficacy of de novo use of Rapamune without cyclosporine have not been established in renal transplant patients [ see Warnings and Precautions (5.12) ].

The safety and efficacy of conversion from calcineurin inhibitors to Rapamune in maintenance renal transplant patients have not been established [ see Clinical Studies (14.4) ].

1.3 Treatment of Patients with Lymphangioleiomyomatosis Rapamune (sirolimus) is indicated for the treatment of patients with lymphangioleiomyomatosis (LAM).

PEDIATRIC USE

8.4 Pediatric Use Renal Transplant The safety and efficacy of Rapamune in pediatric patients < 13 years have not been established.

The safety and efficacy of Rapamune Oral Solution and Rapamune Tablets have been established for prophylaxis of organ rejection in renal transplantation in children ≥ 13 years judged to be at low- to moderate-immunologic risk.

Use of Rapamune Oral Solution and Rapamune Tablets in this subpopulation of children ≥ 13 years is supported by evidence from adequate and well-controlled trials of Rapamune Oral Solution in adults with additional pharmacokinetic data in pediatric renal transplantation patients [ see Clinical Pharmacology (12.3) ].

Safety and efficacy information from a controlled clinical trial in pediatric and adolescent (< 18 years of age) renal transplant patients judged to be at high-immunologic risk, defined as a history of one or more acute rejection episodes and/or the presence of chronic allograft nephropathy, do not support the chronic use of Rapamune Oral Solution or Tablets in combination with calcineurin inhibitors and corticosteroids, due to the higher incidence of lipid abnormalities and deterioration of renal function associated with these immunosuppressive regimens compared to calcineurin inhibitors, without increased benefit with respect to acute rejection, graft survival, or patient survival [ see Clinical Studies (14.6) ].

Lymphangioleiomyomatosis The safety and efficacy of Rapamune in pediatric patients < 18 years have not been established.

PREGNANCY

8.1 Pregnancy Pregnancy Category C: Sirolimus was embryo/fetotoxic in rats when given in doses approximately 0.2 to 0.5 the human doses (adjusted for body surface area).

Embryo/fetotoxicity was manifested as mortality and reduced fetal weights (with associated delays in skeletal ossification).

However, no teratogenesis was evident.

In combination with cyclosporine, rats had increased embryo/feto mortality compared with sirolimus alone.

There were no effects on rabbit development at a maternally toxic dosage approximately 0.3 to 0.8 times the human doses (adjusted for body surface area).

There are no adequate and well-controlled studies in pregnant women.

Effective contraception must be initiated before Rapamune therapy, during Rapamune therapy, and for 12 weeks after Rapamune therapy has been stopped.

NUSRING MOTHERS

8.3 Nursing Mothers Sirolimus is excreted in trace amounts in milk of lactating rats.

It is not known whether sirolimus is excreted in human milk.

The pharmacokinetic and safety profiles of sirolimus in infants are not known.

Because many drugs are excreted in human milk, and because of the potential for adverse reactions in nursing infants from sirolimus, a decision should be made whether to discontinue nursing or to discontinue the drug, taking into account the importance of the drug to the mother.

BOXED WARNING

WARNING: IMMUNOSUPPRESSION, USE IS NOT RECOMMENDED IN LIVER OR LUNG TRANSPLANT PATIENTS • Increased susceptibility to infection and the possible development of lymphoma and other malignancies may result from immunosuppression Increased susceptibility to infection and the possible development of lymphoma may result from immunosuppression.

Only physicians experienced in immunosuppressive therapy and management of renal transplant patients should use Rapamune ® for prophylaxis of organ rejection in patients receiving renal transplants.

Patients receiving the drug should be managed in facilities equipped and staffed with adequate laboratory and supportive medical resources.

The physician responsible for maintenance therapy should have complete information requisite for the follow-up of the patient [ see Warnings and Precautions (5.1) ] .

• The safety and efficacy of Rapamune (sirolimus) as immunosuppressive therapy have not been established in liver or lung transplant patients, and therefore, such use is not recommended [ see Warnings and Precautions (5.2 , 5.3) ] .

• Liver Transplantation – Excess Mortality, Graft Loss, and Hepatic Artery Thrombosis (HAT) The use of Rapamune in combination with tacrolimus was associated with excess mortality and graft loss in a study in de novo liver transplant patients.

Many of these patients had evidence of infection at or near the time of death.

In this and another study in de novo liver transplant patients, the use of Rapamune in combination with cyclosporine or tacrolimus was associated with an increase in HAT; most cases of HAT occurred within 30 days post-transplantation and most led to graft loss or death [ see Warnings and Precautions (5.2) ].

• Lung Transplantation – Bronchial Anastomotic Dehiscence Cases of bronchial anastomotic dehiscence, most fatal, have been reported in de novo lung transplant patients when Rapamune has been used as part of an immunosuppressive regimen [ see Warnings and Precautions (5.3) ].

WARNING: IMMUNOSUPPRESSION, USE IS NOT RECOMMENDED IN LIVER OR LUNG TRANSPLANT PATIENTS See Full Prescribing Information for complete Boxed Warning.

• Increased susceptibility to infection and the possible development of lymphoma and other malignancies may result from immunosuppression ( 5.1 ).

Only physicians experienced in immunosuppressive therapy and management of renal transplant patients should use Rapamune for prophylaxis of organ rejection in patients receiving renal transplants.

• The safety and efficacy of Rapamune as immunosuppressive therapy have not been established in liver or lung transplant patients, and therefore, such use is not recommended ( 5.2 , 5.3 ).

• Liver Transplantation – Excess mortality, graft loss, and hepatic artery thrombosis ( 5.2 ).

• Lung Transplantation – Bronchial anastomotic dehiscence ( 5.3 ).

WARNING AND CAUTIONS

5 WARNINGS AND PRECAUTIONS • Hypersensitivity Reactions ( 5.4 ) • Angioedema ( 5.5 ) • Fluid Accumulation and Impairment of Wound Healing ( 5.6 ) • Hyperlipidemia ( 5.7 ) • Decline in Renal Function ( 5.8 ) • Proteinuria ( 5.9 ) • Latent Viral Infections ( 5.10 ) • Interstitial Lung Disease/Non-Infectious Pneumonitis ( 5.11 ) • De Novo Use Without Cyclosporine ( 5.12 ) • Increased Risk of Calcineurin Inhibitor-Induced Hemolytic Uremic Syndrome/ Thrombotic Thrombocytopenic Purpura/ Thrombotic Microangiopathy ( 5.13 ) • Embryo-Fetal Toxicity ( 5.15 , 8.1 ) 5.1 Increased Susceptibility to Infection and the Possible Development of Lymphoma Increased susceptibility to infection and the possible development of lymphoma and other malignancies, particularly of the skin, may result from immunosuppression.

The rates of lymphoma/lymphoproliferative disease observed in Studies 1 and 2 were 0.7–3.2% (for Rapamune-treated patients) versus 0.6–0.8% (azathioprine and placebo control) [ see Adverse Reactions (6.1) and (6.2) ].

Oversuppression of the immune system can also increase susceptibility to infection, including opportunistic infections such as tuberculosis, fatal infections, and sepsis.

Only physicians experienced in immunosuppressive therapy and management of organ transplant patients should use Rapamune for prophylaxis of organ rejection in patients receiving renal transplants.

Patients receiving the drug should be managed in facilities equipped and staffed with adequate laboratory and supportive medical resources.

The physician responsible for maintenance therapy should have complete information requisite for the follow-up of the patient.

5.2 Liver Transplantation – Excess Mortality, Graft Loss, and Hepatic Artery Thrombosis The safety and efficacy of Rapamune as immunosuppressive therapy have not been established in liver transplant patients; therefore, such use is not recommended.

The use of Rapamune has been associated with adverse outcomes in patients following liver transplantation, including excess mortality, graft loss and hepatic artery thrombosis (HAT).

In a study in de novo liver transplant patients, the use of Rapamune in combination with tacrolimus was associated with excess mortality and graft loss (22% in combination versus 9% on tacrolimus alone).

Many of these patients had evidence of infection at or near the time of death.

In this and another study in de novo liver transplant patients, the use of Rapamune in combination with cyclosporine or tacrolimus was associated with an increase in HAT (7% in combination versus 2% in the control arm); most cases of HAT occurred within 30 days post-transplantation, and most led to graft loss or death.

In a clinical study in stable liver transplant patients 6–144 months post-liver transplantation and receiving a CNI-based regimen, an increased number of deaths was observed in the group converted to a Rapamune-based regimen compared to the group who was continued on a CNI-based regimen, although the difference was not statistically significant (3.8% versus 1.4%) [ see Clinical Studies (14.5) ].

5.3 Lung Transplantation – Bronchial Anastomotic Dehiscence Cases of bronchial anastomotic dehiscence, most fatal, have been reported in de novo lung transplant patients when Rapamune has been used as part of an immunosuppressive regimen.

The safety and efficacy of Rapamune as immunosuppressive therapy have not been established in lung transplant patients; therefore, such use is not recommended.

5.4 Hypersensitivity Reactions Hypersensitivity reactions, including anaphylactic/anaphylactoid reactions, angioedema, exfoliative dermatitis and hypersensitivity vasculitis, have been associated with the administration of Rapamune [ see Adverse Reactions (6.7) ].

5.5 Angioedema Rapamune has been associated with the development of angioedema.

The concomitant use of Rapamune with other drugs known to cause angioedema, such as angiotensin-converting enzyme (ACE) inhibitors, may increase the risk of developing angioedema.

Elevated sirolimus levels (with/without concomitant ACE inhibitors) may also potentiate angioedema [ see Drug Interactions (7.2) ].

In some cases, the angioedema has resolved upon discontinuation or dose reduction of Rapamune.

5.6 Fluid Accumulation and Impairment of Wound Healing There have been reports of impaired or delayed wound healing in patients receiving Rapamune, including lymphocele and wound dehiscence [ see Adverse Reactions (6.1) ].

Mammalian target of rapamycin (mTOR) inhibitors such as sirolimus have been shown in vitro to inhibit production of certain growth factors that may affect angiogenesis, fibroblast proliferation, and vascular permeability.

Lymphocele, a known surgical complication of renal transplantation, occurred significantly more often in a dose-related fashion in patients treated with Rapamune [ see Adverse Reactions (6.1) ].

Appropriate measures should be considered to minimize such complications.

Patients with a body mass index (BMI) greater than 30 kg/m 2 may be at increased risk of abnormal wound healing based on data from the medical literature.

There have also been reports of fluid accumulation, including peripheral edema, lymphedema, pleural effusion, ascites, and pericardial effusions (including hemodynamically significant effusions and tamponade requiring intervention in children and adults), in patients receiving Rapamune.

5.7 Hyperlipidemia Increased serum cholesterol and triglycerides requiring treatment occurred more frequently in patients treated with Rapamune compared with azathioprine or placebo controls in Studies 1 and 2 [ see Adverse Reactions (6.1) ].

There were increased incidences of hypercholesterolemia (43–46%) and/or hypertriglyceridemia (45–57%) in patients receiving Rapamune compared with placebo controls (each 23%).

The risk/benefit should be carefully considered in patients with established hyperlipidemia before initiating an immunosuppressive regimen including Rapamune.

Any patient who is administered Rapamune should be monitored for hyperlipidemia.

If detected, interventions such as diet, exercise, and lipid-lowering agents should be initiated as outlined by the National Cholesterol Education Program guidelines.

In clinical trials of patients receiving Rapamune plus cyclosporine or Rapamune after cyclosporine withdrawal, up to 90% of patients required treatment for hyperlipidemia and hypercholesterolemia with anti-lipid therapy (e.g., statins, fibrates).

Despite anti-lipid management, up to 50% of patients had fasting serum cholesterol levels >240 mg/dL and triglycerides above recommended target levels.

The concomitant administration of Rapamune and HMG-CoA reductase inhibitors resulted in adverse reactions such as CPK elevations (3%), myalgia (6.7%) and rhabdomyolysis (<1%).

In these trials, the number of patients was too small and duration of follow-up too short to evaluate the long-term impact of Rapamune on cardiovascular mortality.

During Rapamune therapy with or without cyclosporine, patients should be monitored for elevated lipids, and patients administered an HMG-CoA reductase inhibitor and/or fibrate should be monitored for the possible development of rhabdomyolysis and other adverse effects, as described in the respective labeling for these agents.

5.8 Decline in Renal Function Renal function should be closely monitored during the co-administration of Rapamune with cyclosporine, because long-term administration of the combination has been associated with deterioration of renal function.

Patients treated with cyclosporine and Rapamune were noted to have higher serum creatinine levels and lower glomerular filtration rates compared with patients treated with cyclosporine and placebo or azathioprine controls (Studies 1 and 2).

The rate of decline in renal function in these studies was greater in patients receiving Rapamune and cyclosporine compared with control therapies.

Appropriate adjustment of the immunosuppressive regimen, including discontinuation of Rapamune and/or cyclosporine, should be considered in patients with elevated or increasing serum creatinine levels.

In patients at low- to moderate-immunologic risk, continuation of combination therapy with cyclosporine beyond 4 months following transplantation should only be considered when the benefits outweigh the risks of this combination for the individual patients.

Caution should be exercised when using agents (e.g., aminoglycosides and amphotericin B) that are known to have a deleterious effect on renal function.

In patients with delayed graft function, Rapamune may delay recovery of renal function.

5.9 Proteinuria Periodic quantitative monitoring of urinary protein excretion is recommended.

In a study evaluating conversion from calcineurin inhibitors (CNI) to Rapamune in maintenance renal transplant patients 6–120 months post-transplant, increased urinary protein excretion was commonly observed from 6 through 24 months after conversion to Rapamune compared with CNI continuation [ see Clinical Studies (14.4) , Adverse Reactions (6.4) ].

Patients with the greatest amount of urinary protein excretion prior to Rapamune conversion were those whose protein excretion increased the most after conversion.

New onset nephrosis (nephrotic syndrome) was also reported as a treatment-emergent adverse reaction in 2.2% of the Rapamune conversion group patients in comparison to 0.4% in the CNI continuation group of patients.

Nephrotic range proteinuria (defined as urinary protein to creatinine ratio > 3.5) was also reported in 9.2% in the Rapamune conversion group of patients in comparison to 3.7% in the CNI continuation group of patients.

In some patients, reduction in the degree of urinary protein excretion was observed for individual patients following discontinuation of Rapamune.

The safety and efficacy of conversion from calcineurin inhibitors to Rapamune in maintenance renal transplant patients have not been established.

5.10 Latent Viral Infections Immunosuppressed patients are at increased risk for opportunistic infections, including activation of latent viral infections.

These include BK virus-associated nephropathy, which has been observed in renal transplant patients receiving immunosuppressants, including Rapamune.

This infection may be associated with serious outcomes, including deteriorating renal function and renal graft loss [ see Adverse Reactions (6.7) ].

Patient monitoring may help detect patients at risk for BK virus-associated nephropathy.

Reduction in immunosuppression should be considered for patients who develop evidence of BK virus-associated nephropathy.

Cases of progressive multifocal leukoencephalopathy (PML), sometimes fatal have been reported in patients treated with immunosuppressants, including Rapamune.

PML commonly presents with hemiparesis, apathy, confusion, cognitive deficiencies and ataxia.

Risk factors for PML include treatment with immunosuppressant therapies and impairment of immune function.

In immunosuppressed patients, physicians should consider PML in the differential diagnosis in patients reporting neurological symptoms and consultation with a neurologist should be considered as clinically indicated.

Consideration should be given to reducing the amount of immunosuppression in patients who develop PML.

In transplant patients, physicians should also consider the risk that reduced immunosuppression represents to the graft.

5.11 Interstitial Lung Disease/Non-Infectious Pneumonitis Cases of interstitial lung disease [ILD] (including pneumonitis, bronchiolitis obliterans organizing pneumonia [BOOP], and pulmonary fibrosis), some fatal, with no identified infectious etiology have occurred in patients receiving immunosuppressive regimens including Rapamune.

In some cases, the ILD was reported with pulmonary hypertension (including pulmonary arterial hypertension [PAH]) as a secondary event.

In some cases, the ILD has resolved upon discontinuation or dose reduction of Rapamune.

The risk may be increased as the trough sirolimus concentration increases [ see Adverse Reactions (6.7) ].

5.12 De Novo Use Without Cyclosporine The safety and efficacy of de novo use of Rapamune without cyclosporine is not established in renal transplant patients.

In a multicenter clinical study, de novo renal transplant patients treated with Rapamune, mycophenolate mofetil (MMF), steroids, and an IL-2 receptor antagonist had significantly higher acute rejection rates and numerically higher death rates compared to patients treated with cyclosporine, MMF, steroids, and IL-2 receptor antagonist.

A benefit, in terms of better renal function, was not apparent in the treatment arm with de novo use of Rapamune without cyclosporine.

These findings were also observed in a similar treatment group of another clinical trial.

5.13 Increased Risk of Calcineurin Inhibitor-Induced Hemolytic Uremic Syndrome/Thrombotic Thrombocytopenic Purpura/Thrombotic Microangiopathy The concomitant use of Rapamune with a calcineurin inhibitor may increase the risk of calcineurin inhibitor-induced hemolytic uremic syndrome/thrombotic thrombocytopenic purpura/thrombotic microangiopathy (HUS/TTP/TMA) [ see Adverse Reactions (6.7) ].

5.14 Antimicrobial Prophylaxis Cases of Pneumocystis carinii pneumonia have been reported in transplant patients not receiving antimicrobial prophylaxis.

Therefore, antimicrobial prophylaxis for Pneumocystis carinii pneumonia should be administered for 1 year following transplantation.

Cytomegalovirus (CMV) prophylaxis is recommended for 3 months after transplantation, particularly for patients at increased risk for CMV disease.

5.15 Embryo-Fetal Toxicity Based on animal studies and the mechanism of action [ see Clinical Pharmacology (12.1) ], Rapamune may cause fetal harm when administered to a pregnant woman.

In animal studies, mTOR inhibitors caused embryo-fetal toxicity when administered during the period of organogenesis at maternal exposures that were equal to or less than human exposures at the recommended lowest starting dose.

Advise pregnant women of the potential risk to a fetus.

Advise women of childbearing potential to avoid becoming pregnant and to use effective contraception while using Rapamune and for 12 weeks after ending treatment [ see Use in Specific Populations (8.1) ] .

5.16 Different Sirolimus Trough Concentration Reported between Chromatographic and Immunoassay Methodologies Currently in clinical practice, sirolimus whole blood concentrations are being measured by various chromatographic and immunoassay methodologies.

Patient sample concentration values from different assays may not be interchangeable [ see Dosage and Administration (2.5) ].

5.17 Skin Cancer Events Patients on immunosuppressive therapy are at increased risk for skin cancer.

Exposure to sunlight and ultraviolet (UV) light should be limited by wearing protective clothing and using a sunscreen with a high protection factor [ see Adverse Reactions (6.1 , 6.2 , 6.7) ] .

5.18 Interaction with Strong Inhibitors and Inducers of CYP3A4 and/or P-gp Avoid concomitant use of Rapamune with strong inhibitors of CYP3A4 and/or P-gp (such as ketoconazole, voriconazole, itraconazole, erythromycin, telithromycin, or clarithromycin) or strong inducers of CYP3A4 and/or P-gp (such as rifampin or rifabutin) [ see Drug Interactions (7.2) ].

INFORMATION FOR PATIENTS

17 PATIENT COUNSELING INFORMATION Advise patients, their families, and their caregivers to read the Medication Guide and assist them in understanding its contents.

The complete text of the Medication Guide is reprinted at the end of the document.

See FDA-Approved Medication Guide .

17.1 Dosage Patients should be given complete dosage instructions [ see FDA-Approved Medication Guide ].

17.2 Skin Cancer Events Patients should be told that exposure to sunlight and ultraviolet (UV) light should be limited by wearing protective clothing and using a sunscreen with a high protection factor because of the increased risk for skin cancer [ see Warnings and Precautions (5.17) ].

17.3 Pregnancy Risks Women of childbearing potential should be informed of the potential risks during pregnancy and told that they should use effective contraception prior to initiation of Rapamune therapy, during Rapamune therapy, and for 12 weeks after Rapamune therapy has been stopped [ see Use in Specific Populations (8.1) ].

DOSAGE AND ADMINISTRATION

2 Rapamune is to be administered orally once daily, consistently with or without food [ see Dosage and Administration (2.5) , Clinical Pharmacology (12.3) ].

Tablets should not be crushed, chewed or split.

Patients unable to take the tablets should be prescribed the solution and instructed in its use.

Renal Transplant Patients: • Administer once daily by mouth, consistently with or without food ( 2 ).

• Administer the initial dose as soon as possible after transplantation and 4 hours after CsA ( 2.1 , 7.1 ).

• Adjust the Rapamune maintenance dose to achieve sirolimus trough concentrations within the target-range ( 2.5 ).

• Hepatic impairment: Reduce maintenance dose in patients with hepatic impairment ( 2.7 , 8.6 , 12.3 ).

In renal transplant patients at low-to moderate-immunologic risk : • Rapamune and CsA Combination Therapy: One loading dose of 6 mg on day 1, followed by daily maintenance doses of 2 mg ( 2.2 ).

• Rapamune Following CsA Withdrawal: 2–4 months post-transplantation, withdraw CsA over 4–8 weeks ( 2.2 ).

In renal transplant patients at high-immunologic risk: • Rapamune and CsA Combination Therapy (for the first 12 months post-transplantation): One loading dose of up to 15 mg on day 1, followed by daily maintenance doses of 5 mg ( 2.3 ).

Lymphangioleiomyomatosis Patients: • Administer once daily by mouth, consistently with or without food ( 2 ).

• Recommended initial Rapamune dose is 2 mg/day ( 2.4 ).

• Adjust the Rapamune dose to achieve sirolimus trough concentrations between 5–15 ng/mL ( 2.4 ).

• Hepatic impairment: Reduce maintenance dose in patients with hepatic impairment ( 2.7 , 8.6 , 12.3 ).

Therapeutic drug monitoring is recommended for all patients ( 2.5 , 5.16 ).

2.1 General Dosing Guidance for Renal Transplant Patients The initial dose of Rapamune should be administered as soon as possible after transplantation.

It is recommended that Rapamune be taken 4 hours after administration of cyclosporine oral solution (MODIFIED) and or/cyclosporine capsules (MODIFIED) [ see Drug Interactions (7.2) ].

Frequent Rapamune dose adjustments based on non-steady-state sirolimus concentrations can lead to overdosing or underdosing because sirolimus has a long half-life.

Once Rapamune maintenance dose is adjusted, patients should continue on the new maintenance dose for at least 7 to 14 days before further dosage adjustment with concentration monitoring.

In most patients, dose adjustments can be based on simple proportion: new Rapamune dose = current dose × (target concentration/current concentration).

A loading dose should be considered in addition to a new maintenance dose when it is necessary to increase sirolimus trough concentrations: Rapamune loading dose = 3 × (new maintenance dose – current maintenance dose).

The maximum Rapamune dose administered on any day should not exceed 40 mg.

If an estimated daily dose exceeds 40 mg due to the addition of a loading dose, the loading dose should be administered over 2 days.

Sirolimus trough concentrations should be monitored at least 3 to 4 days after a loading dose(s).

Two milligrams (2 mg) of Rapamune Oral Solution have been demonstrated to be clinically equivalent to 2 mg Rapamune Tablets; hence, at this dose these two formulations are interchangeable.

However, it is not known if higher doses of Rapamune Oral Solution are clinically equivalent to higher doses of Rapamune Tablets on a mg-to-mg basis [ see Clinical Pharmacology (12.3) ].

2.2 Renal Transplant Patients at Low- to Moderate-Immunologic Risk Rapamune and Cyclosporine Combination Therapy For de novo renal transplant patients, it is recommended that Rapamune Oral Solution and Tablets be used initially in a regimen with cyclosporine and corticosteroids.

A loading dose of Rapamune equivalent to 3 times the maintenance dose should be given, i.e.

a daily maintenance dose of 2 mg should be preceded with a loading dose of 6 mg.

Therapeutic drug monitoring should be used to maintain sirolimus drug concentrations within the target-range [ see Dosage and Administration (2.5) ].

Rapamune Following Cyclosporine Withdrawal At 2 to 4 months following transplantation, cyclosporine should be progressively discontinued over 4 to 8 weeks, and the Rapamune dose should be adjusted to obtain sirolimus whole blood trough concentrations within the target-range [ see Dosage and Administration (2.5) ].

Because cyclosporine inhibits the metabolism and transport of sirolimus, sirolimus concentrations may decrease when cyclosporine is discontinued, unless the Rapamune dose is increased [ see Clinical Pharmacology (12.3) ].

2.3 Renal Transplant Patients at High-Immunologic Risk In patients with high-immunologic risk, it is recommended that Rapamune be used in combination with cyclosporine and corticosteroids for the first 12 months following transplantation [ see Clinical Studies (14.3) ].

The safety and efficacy of this combination in high-immunologic risk patients has not been studied beyond the first 12 months.

Therefore, after the first 12 months following transplantation, any adjustments to the immunosuppressive regimen should be considered on the basis of the clinical status of the patient.

For patients receiving Rapamune with cyclosporine, Rapamune therapy should be initiated with a loading dose of up to 15 mg on day 1 post-transplantation.

Beginning on day 2, an initial maintenance dose of 5 mg/day should be given.

A trough level should be obtained between days 5 and 7, and the daily dose of Rapamune should thereafter be adjusted [ see Dosage and Administration (2.5) ].

The starting dose of cyclosporine should be up to 7 mg/kg/day in divided doses and the dose should subsequently be adjusted to achieve target whole blood trough concentrations [ see Dosage and Administration (2.5) ].

Prednisone should be administered at a minimum of 5 mg/day.

Antibody induction therapy may be used.

2.4 Dosing in Patients with Lymphangioleiomyomatosis For patients with lymphangioleiomyomatosis, the initial Rapamune dose should be 2 mg/day.

Sirolimus whole blood trough concentrations should be measured in 10–20 days, with dosage adjustment to maintain concentrations between 5–15 ng/mL [ see Dosage and Administration (2.5) ].

In most patients, dose adjustments can be based on simple proportion: new Rapamune dose = current dose × (target concentration/current concentration).

Frequent Rapamune dose adjustments based on non-steady-state sirolimus concentrations can lead to overdosing or under dosing because sirolimus has a long half-life.

Once Rapamune maintenance dose is adjusted, patients should continue on the new maintenance dose for at least 7 to 14 days before further dosage adjustment with concentration monitoring.

Once a stable dose is achieved, therapeutic drug monitoring should be performed at least every three months.

2.5 Therapeutic Drug Monitoring Monitoring of sirolimus trough concentrations is recommended for all patients, especially in those patients likely to have altered drug metabolism, in patients ≥ 13 years who weigh less than 40 kg, in patients with hepatic impairment, when a change in the Rapamune dosage form is made, and during concurrent administration of strong CYP3A4 inducers and inhibitors [ see Drug Interactions (7) ].

Therapeutic drug monitoring should not be the sole basis for adjusting Rapamune therapy.

Careful attention should be made to clinical signs/symptoms, tissue biopsy findings, and laboratory parameters.

When used in combination with cyclosporine, sirolimus trough concentrations should be maintained within the target-range [ see Clinical Studies (14) , Clinical Pharmacology (12.3) ].

Following cyclosporine withdrawal in transplant patients at low- to moderate-immunologic risk, the target sirolimus trough concentrations should be 16 to 24 ng/mL for the first year following transplantation.

Thereafter, the target sirolimus concentrations should be 12 to 20 ng/mL.

The above recommended 24-hour trough concentration ranges for sirolimus are based on chromatographic methods.

Currently in clinical practice, sirolimus whole blood concentrations are being measured by both chromatographic and immunoassay methodologies.

Because the measured sirolimus whole blood concentrations depend on the type of assay used, the concentrations obtained by these different methodologies are not interchangeable [ see Warnings and Precautions (5.16) , Clinical Pharmacology (12.3) ].

Adjustments to the targeted range should be made according to the assay utilized to determine sirolimus trough concentrations.

Since results are assay and laboratory dependent, and the results may change over time, adjustments to the targeted therapeutic range must be made with a detailed knowledge of the site-specific assay used.

Therefore, communication should be maintained with the laboratory performing the assay.

A discussion of different assay methods is contained in Clinical Therapeutics, Volume 22, Supplement B, April 2000 [ see References (15) ].

2.6 Patients with Low Body Weight The initial dosage in patients ≥ 13 years who weigh less than 40 kg should be adjusted, based on body surface area, to 1 mg/m 2 /day.

The loading dose should be 3 mg/m 2 .

2.7 Patients with Hepatic Impairment It is recommended that the maintenance dose of Rapamune be reduced by approximately one third in patients with mild or moderate hepatic impairment and by approximately one half in patients with severe hepatic impairment.

It is not necessary to modify the Rapamune loading dose [ see Use in Specific Populations (8.6) , Clinical Pharmacology (12.3) ].

2.8 Patients with Renal Impairment Dosage adjustment is not needed in patients with impaired renal function [ see Use in Specific Populations (8.7) ].

2.9 Instructions for Dilution and Administration of Rapamune Oral Solution The amber oral dose syringe should be used to withdraw the prescribed amount of Rapamune Oral Solution from the bottle.

Empty the correct amount of Rapamune from the syringe into only a glass or plastic container holding at least two (2) ounces (1/4 cup, 60 mL) of water or orange juice.

No other liquids, including grapefruit juice, should be used for dilution [ see Drug Interactions (7.3) , Clinical Pharmacology (12.3) ].

Stir vigorously and drink at once.

Refill the container with an additional volume [minimum of four (4) ounces (1/2 cup, 120 mL)] of water or orange juice, stir vigorously, and drink at once.

Rapamune Oral Solution contains polysorbate 80, which is known to increase the rate of di-(2-ethylhexyl)phthalate (DEHP) extraction from polyvinyl chloride (PVC).

This should be considered during the preparation and administration of Rapamune Oral Solution.

It is important that these recommendations be followed closely.

Rapamune 1 MG Oral Tablet

DRUG INTERACTIONS

7 Sirolimus is known to be a substrate for both cytochrome P-450 3A4 (CYP3A4) and p-glycoprotein (P-gp).

Inducers of CYP3A4 and P-gp may decrease sirolimus concentrations whereas inhibitors of CYP3A4 and P-gp may increase sirolimus concentrations.

• Avoid concomitant use with strong CYP3A4/P-gp inducers or strong CYP3A4/P-gp inhibitors that decrease or increase sirolimus concentrations ( 7.4 , 12.3 ).

• See full prescribing information for complete list of clinically significant drug interactions ( 12.3 ).

7.1 Use with Cyclosporine Cyclosporine, a substrate and inhibitor of CYP3A4 and P-gp, was demonstrated to increase sirolimus concentrations when co-administered with sirolimus.

In order to diminish the effect of this interaction with cyclosporine, it is recommended that Rapamune be taken 4 hours after administration of cyclosporine oral solution (MODIFIED) and/or cyclosporine capsules (MODIFIED).

If cyclosporine is withdrawn from combination therapy with Rapamune, higher doses of Rapamune are needed to maintain the recommended sirolimus trough concentration ranges [ see Dosage and Administration (2.2) , Clinical Pharmacology (12.3) ].

7.2 Strong Inducers and Strong Inhibitors of CYP3A4 and P-gp Avoid concomitant use of sirolimus with strong inducers (e.g., rifampin, rifabutin) and strong inhibitors (e.g., ketoconazole, voriconazole, itraconazole, erythromycin, telithromycin, clarithromycin) of CYP3A4 and P-gp.

Alternative agents with lesser interaction potential with sirolimus should be considered [ see Warnings and Precautions (5.18) , Clinical Pharmacology (12.3) ].

7.3 Grapefruit Juice Because grapefruit juice inhibits the CYP3A4-mediated metabolism of sirolimus, it must not be taken with or be used for dilution of Rapamune [ see Dosage and Administration (2.9) , Drug Interactions (7.3) , Clinical Pharmacology (12.3) ].

7.4 Weak and Moderate Inducers or Inhibitors of CYP3A4 and P-gp Exercise caution when using sirolimus with drugs or agents that are modulators of CYP3A4 and P-gp.

The dosage of Rapamune and/or the co-administered drug may need to be adjusted [ see Clinical Pharmacology (12.3) ].

• Drugs that could increase sirolimus blood concentrations: Bromocriptione, cimetidine, cisapride, clotrimazole, danazol, diltiazem, fluconazole, protease inhibitors (e.g., HIV and hepatitis C that include drugs such as ritonavir, indinavir, boceprevir, and telaprevir), metoclopramide, nicardipine, troleandomycin, verapamil • Drugs and other agents that could decrease sirolimus concentrations: Carbamazepine, phenobarbital, phenytoin, rifapentine, St.

John’s Wort ( Hypericum perforatum ) • Drugs with concentrations that could increase when given with Rapamune: Verapamil 7.5 Vaccination Immunosuppressants may affect response to vaccination.

Therefore, during treatment with Rapamune, vaccination may be less effective.

The use of live vaccines should be avoided; live vaccines may include, but are not limited to, the following: measles, mumps, rubella, oral polio, BCG, yellow fever, varicella, and TY21a typhoid.

OVERDOSAGE

10 Reports of overdose with Rapamune have been received; however, experience has been limited.

In general, the adverse effects of overdose are consistent with those listed in the adverse reactions section [ see Adverse Reactions (6) ].

General supportive measures should be followed in all cases of overdose.

Based on the low aqueous solubility and high erythrocyte and plasma protein binding of sirolimus, it is anticipated that sirolimus is not dialyzable to any significant extent.

In mice and rats, the acute oral LD 50 was greater than 800 mg/kg.

DESCRIPTION

11 Rapamune (sirolimus) is an immunosuppressive agent.

Sirolimus is a macrocyclic lactone produced by Streptomyces hygroscopicus .

The chemical name of sirolimus (also known as rapamycin) is (3 S ,6 R ,7 E ,9 R ,10 R ,12 R ,14 S ,15 E ,17 E ,19 E ,21 S ,23 S ,26 R ,27 R ,34a S )-9,10,12,13,14,21,22,23,24,25,26,27,32,33,34, 34a-hexadecahydro-9,27-dihydroxy-3-[(1 R )-2-[(1 S ,3 R ,4 R )-4-hydroxy-3-methoxycyclohexyl]-1-methylethyl]-10,21-dimethoxy-6,8,12,14,20,26-hexamethyl-23,27-epoxy-3 H -pyrido[2,1-c][1,4] oxaazacyclohentriacontine-1,5,11,28,29 (4 H ,6 H ,31 H )-pentone.

Its molecular formula is C 51 H 79 NO 13 and its molecular weight is 914.2.

The structural formula of sirolimus is illustrated as follows.

Sirolimus is a white to off-white powder and is insoluble in water, but freely soluble in benzyl alcohol, chloroform, acetone, and acetonitrile.

Rapamune is available for administration as an oral solution containing 1 mg/mL sirolimus.

Rapamune is also available as a tan, triangular-shaped tablet containing 0.5 mg sirolimus, as a white, triangular-shaped tablet containing 1 mg sirolimus, and as a yellow-to-beige triangular-shaped tablet containing 2 mg sirolimus.

The inactive ingredients in Rapamune Oral Solution are Phosal 50 PG ® (phosphatidylcholine, propylene glycol, mono- and di-glycerides, ethanol, soy fatty acids, and ascorbyl palmitate) and polysorbate 80.

Rapamune Oral Solution contains 1.5% – 2.5% ethanol.

The inactive ingredients in Rapamune Tablets include sucrose, lactose, polyethylene glycol 8000, calcium sulfate, microcrystalline cellulose, pharmaceutical glaze, talc, titanium dioxide, magnesium stearate, povidone, poloxamer 188, polyethylene glycol 20,000, glyceryl monooleate, carnauba wax, dl -alpha tocopherol, and other ingredients.

The 0.5 mg and 2 mg dosage strengths also contain yellow iron (ferric) oxide and brown iron (ferric) oxide.

Chemical Structure

CLINICAL STUDIES

14 14.1 Prophylaxis of Organ Rejection in Renal Transplant Patients Rapamune Oral Solution The safety and efficacy of Rapamune Oral Solution for the prevention of organ rejection following renal transplantation were assessed in two randomized, double-blind, multicenter, controlled trials.

These studies compared two dose levels of Rapamune Oral Solution (2 mg and 5 mg, once daily) with azathioprine (Study 1) or placebo (Study 2) when administered in combination with cyclosporine and corticosteroids.

Study 1 was conducted in the United States at 38 sites.

Seven hundred nineteen (719) patients were enrolled in this trial and randomized following transplantation; 284 were randomized to receive Rapamune Oral Solution 2 mg/day; 274 were randomized to receive Rapamune Oral Solution 5 mg/day, and 161 to receive azathioprine 2–3 mg/kg/day.

Study 2 was conducted in Australia, Canada, Europe, and the United States, at a total of 34 sites.

Five hundred seventy-six (576) patients were enrolled in this trial and randomized before transplantation; 227 were randomized to receive Rapamune Oral Solution 2 mg/day; 219 were randomized to receive Rapamune Oral Solution 5 mg/day, and 130 to receive placebo.

In both studies, the use of antilymphocyte antibody induction therapy was prohibited.

In both studies, the primary efficacy endpoint was the rate of efficacy failure in the first 6 months after transplantation.

Efficacy failure was defined as the first occurrence of an acute rejection episode (confirmed by biopsy), graft loss, or death.

The tables below summarize the results of the primary efficacy analyses from these trials.

Rapamune Oral Solution, at doses of 2 mg/day and 5 mg/day, significantly reduced the incidence of efficacy failure (statistically significant at the < 0.025 level; nominal significance level adjusted for multiple [2] dose comparisons) at 6 months following transplantation compared with both azathioprine and placebo.

TABLE 8: INCIDENCE (%) OF EFFICACY FAILURE AT 6 AND 24 MONTHS FOR STUDY 1 Patients received cyclosporine and corticosteroids.

, Includes patients who prematurely discontinued treatment.

Parameter Rapamune Oral Solution 2 mg/day (n = 284) Rapamune Oral Solution 5 mg/day (n = 274) Azathioprine 2–3 mg/kg/day (n = 161) Efficacy failure at 6 months Primary endpoint.

18.7 16.8 32.3 Components of efficacy failure Biopsy-proven acute rejection 16.5 11.3 29.2 Graft loss 1.1 2.9 2.5 Death 0.7 1.8 0 Lost to follow-up 0.4 0.7 0.6 Efficacy failure at 24 months 32.8 25.9 36.0 Components of efficacy failure Biopsy-proven acute rejection 23.6 17.5 32.3 Graft loss 3.9 4.7 3.1 Death 4.2 3.3 0 Lost to follow-up 1.1 0.4 0.6 TABLE 9: INCIDENCE (%) OF EFFICACY FAILURE AT 6 AND 36 MONTHS FOR STUDY 2 Patients received cyclosporine and corticosteroids.

, Includes patients who prematurely discontinued treatment.

Parameter Rapamune Oral Solution 2 mg/day (n = 227) Rapamune Oral Solution 5 mg/day (n = 219) Placebo (n = 130) Efficacy failure at 6 months Primary endpoint.

30.0 25.6 47.7 Components of efficacy failure Biopsy-proven acute rejection 24.7 19.2 41.5 Graft loss 3.1 3.7 3.9 Death 2.2 2.7 2.3 Lost to follow-up 0 0 0 Efficacy failure at 36 months 44.1 41.6 54.6 Components of efficacy failure Biopsy-proven acute rejection 32.2 27.4 43.9 Graft loss 6.2 7.3 4.6 Death 5.7 5.9 5.4 Lost to follow-up 0 0.9 0.8 Patient and graft survival at 1 year were co-primary endpoints.

The following table shows graft and patient survival at 1 and 2 years in Study 1, and 1 and 3 years in Study 2.

The graft and patient survival rates were similar in patients treated with Rapamune and comparator-treated patients.

TABLE 10: GRAFT AND PATIENT SURVIVAL (%) FOR STUDY 1 (12 AND 24 MONTHS) AND STUDY 2 (12 AND 36 MONTHS) Patients received cyclosporine and corticosteroids.

, Includes patients who prematurely discontinued treatment.

Parameter Rapamune Oral Solution 2 mg/day Rapamune Oral Solution 5 mg/day Azathioprine 2–3 mg/kg/day Placebo Study 1 (n = 284) (n = 274) (n = 161) Graft survival Month 12 94.7 92.7 93.8 Month 24 85.2 89.1 90.1 Patient survival Month 12 97.2 96.0 98.1 Month 24 92.6 94.9 96.3 Study 2 (n = 227) (n = 219) (n = 130) Graft survival Month 12 89.9 90.9 87.7 Month 36 81.1 79.9 80.8 Patient survival Month 12 96.5 95.0 94.6 Month 36 90.3 89.5 90.8 The reduction in the incidence of first biopsy-confirmed acute rejection episodes in patients treated with Rapamune compared with the control groups included a reduction in all grades of rejection.

In Study 1, which was prospectively stratified by race within center, efficacy failure was similar for Rapamune Oral Solution 2 mg/day and lower for Rapamune Oral Solution 5 mg/day compared with azathioprine in Black patients.

In Study 2, which was not prospectively stratified by race, efficacy failure was similar for both Rapamune Oral Solution doses compared with placebo in Black patients.

The decision to use the higher dose of Rapamune Oral Solution in Black patients must be weighed against the increased risk of dose-dependent adverse events that were observed with the Rapamune Oral Solution 5-mg dose [ see Adverse Reactions (6.1) ].

TABLE 11: PERCENTAGE OF EFFICACY FAILURE BY RACE AT 6 MONTHS Patients received cyclosporine and corticosteroids.

, Includes patients who prematurely discontinued treatment.

Parameter Rapamune Oral Solution 2 mg/day Rapamune Oral Solution 5 mg/day Azathioprine 2–3 mg/kg/day Placebo Study 1 Black (n = 166) 34.9 (n = 63) 18.0 (n = 61) 33.3 (n = 42) Non-Black 14.0 (n = 221) 16.4 (n = 213) 31.9 (n = 119) (n = 553) Study 2 Black (n = 66) 30.8 (n = 26) 33.7 (n = 27) 38.5 (n = 13) Non-Black 29.9 (n = 201) 24.5 (n = 192) 48.7 (n = 117) (n = 510) Mean glomerular filtration rates (GFR) post-transplant were calculated by using the Nankivell equation at 12 and 24 months for Study 1, and 12 and 36 months for Study 2.

Mean GFR was lower in patients treated with cyclosporine and Rapamune Oral Solution compared with those treated with cyclosporine and the respective azathioprine or placebo control.

TABLE 12: OVERALL CALCULATED GLOMERULAR FILTRATION RATES (Mean ± SEM, cc/min) BY NANKIVELL EQUATION POST-TRANSPLANT Includes patients who prematurely discontinued treatment.

, Patients who had a graft loss were included in the analysis with GFR set to 0.0.

Parameter Rapamune Oral Solution 2 mg/day Rapamune Oral Solution 5 mg/day Azathioprine 2–3 mg/kg/day Placebo Study 1 Month 12 57.4 ± 1.3 (n = 269) 54.6 ± 1.3 (n = 248) 64.1 ± 1.6) (n = 149) Month 24 58.4 ± 1.5 (n = 221) 52.6 ± 1.5 (n = 222) 62.4 ± 1.9 (n = 132) Study 2 Month 12 52.4 ± 1.5 (n = 211) 51.5 ± 1.5 (n = 199) 58.0 ± 2.1 (n = 117) Month 36 48.1 ± 1.8 (n = 183) 46.1 ± 2.0 (n = 177) 53.4 ± 2.7 (n = 102) Within each treatment group in Studies 1 and 2, mean GFR at one-year post-transplant was lower in patients who experienced at least one episode of biopsy-proven acute rejection, compared with those who did not.

Renal function should be monitored, and appropriate adjustment of the immunosuppressive regimen should be considered in patients with elevated or increasing serum creatinine levels [ see Warnings and Precautions (5.8) ].

Rapamune Tablets The safety and efficacy of Rapamune Oral Solution and Rapamune Tablets for the prevention of organ rejection following renal transplantation were demonstrated to be clinically equivalent in a randomized, multicenter, controlled trial [ see Clinical Pharmacology (12.3) ].

14.2 Cyclosporine Withdrawal Study in Renal Transplant Patients The safety and efficacy of Rapamune as a maintenance regimen were assessed following cyclosporine withdrawal at 3 to 4 months after renal transplantation.

Study 3 was a randomized, multicenter, controlled trial conducted at 57 centers in Australia, Canada, and Europe.

Five hundred twenty-five (525) patients were enrolled.

All patients in this study received the tablet formulation.

This study compared patients who were administered Rapamune, cyclosporine, and corticosteroids continuously with patients who received this same standardized therapy for the first 3 months after transplantation (pre-randomization period) followed by the withdrawal of cyclosporine.

During cyclosporine withdrawal, the Rapamune dosages were adjusted to achieve targeted sirolimus whole blood trough concentration ranges (16 to 24 ng/mL until month 12, then 12 to 20 ng/mL thereafter, expressed as chromatographic assay values).

At 3 months, 430 patients were equally randomized to either continue Rapamune with cyclosporine therapy or to receive Rapamune as a maintenance regimen following cyclosporine withdrawal.

Eligibility for randomization included no Banff Grade 3 acute rejection or vascular rejection episode in the 4 weeks before random assignment, serum creatinine ≤ 4.5 mg/dL, and adequate renal function to support cyclosporine withdrawal (in the opinion of the investigator).

The primary efficacy endpoint was graft survival at 12 months after transplantation.

Secondary efficacy endpoints were the rate of biopsy-confirmed acute rejection, patient survival, incidence of efficacy failure (defined as the first occurrence of either biopsy-proven acute rejection, graft loss, or death), and treatment failure (defined as the first occurrence of either discontinuation, acute rejection, graft loss, or death).

The following table summarizes the resulting graft and patient survival at 12, 24, and 36 months for this trial.

At 12, 24, and 36 months, graft and patient survival were similar for both groups.

TABLE 13: GRAFT AND PATIENT SURVIVAL (%): STUDY 3 Includes patients who prematurely discontinued treatment.

Parameter Rapamune with Cyclosporine Therapy (n = 215) Rapamune Following Cyclosporine Withdrawal (n = 215) Graft Survival Month 12 Primary efficacy endpoint.

95.3 Survival including loss to follow-up as an event.

97.2 Month 24 91.6 94.0 Month 36 Initial planned duration of the study.

87.0 91.6 Patient Survival Month 12 97.2 98.1 Month 24 94.4 95.8 Month 36 91.6 94.0 The following table summarizes the results of first biopsy-proven acute rejection at 12 and 36 months.

There was a significant difference in first biopsy-proven rejection rates between the two groups after randomization and through 12 months.

Most of the post-randomization acute rejections occurred in the first 3 months following randomization.

TABLE 14: INCIDENCE OF FIRST BIOPSY-PROVEN ACUTE REJECTION (%) BY TREATMENT GROUP AT 36 MONTHS: STUDY 3 Includes patients who prematurely discontinued treatment.

, All patients received corticosteroids.

Period Rapamune with Cyclosporine Therapy (n = 215) Rapamune Following Cyclosporine Withdrawal (n = 215) Pre-randomization Randomization occurred at 3 months ± 2 weeks.

9.3 10.2 Post-randomization through 12 months 4.2 9.8 Post-randomization from 12 to 36 months 1.4 0.5 Post-randomization through 36 months 5.6 10.2 Total at 36 months 14.9 20.5 Patients receiving renal allografts with ≥ 4 HLA mismatches experienced significantly higher rates of acute rejection following randomization to the cyclosporine withdrawal group, compared with patients who continued cyclosporine (15.3% versus 3.0%).

Patients receiving renal allografts with ≤ 3 HLA mismatches demonstrated similar rates of acute rejection between treatment groups (6.8% versus 7.7%) following randomization.

The following table summarizes the mean calculated GFR in Study 3 (cyclosporine withdrawal study).

TABLE 15: CALCULATED GLOMERULAR FILTRATION RATES (mL/min) BY NANKIVELL EQUATION AT 12, 24, AND 36 MONTHS POST-TRANSPLANT: STUDY 3 Includes patients who prematurely discontinued treatment.

, Patients who had a graft loss were included in the analysis and had their GFR set to 0.0.

, All patients received corticosteroids.

Parameter Rapamune with Cyclosporine Therapy Rapamune Following Cyclosporine Withdrawal Month 12 Mean ± SEM 53.2 ± 1.5 (n = 208) 59.3 ± 1.5 (n = 203) Month 24 Mean ± SEM 48.4 ± 1.7 (n = 203) 58.4 ± 1.6 (n = 201) Month 36 Mean ± SEM 47.0 ± 1.8 (n = 196) 58.5 ± 1.9 (n = 199) The mean GFR at 12, 24, and 36 months, calculated by the Nankivell equation, was significantly higher for patients receiving Rapamune as a maintenance regimen following cyclosporine withdrawal than for those in the Rapamune with cyclosporine therapy group.

Patients who had an acute rejection prior to randomization had a significantly higher GFR following cyclosporine withdrawal compared to those in the Rapamune with cyclosporine group.

There was no significant difference in GFR between groups for patients who experienced acute rejection post-randomization.

Although the initial protocol was designed for 36 months, there was a subsequent amendment to extend this study.

The results for the cyclosporine withdrawal group at months 48 and 60 were consistent with the results at month 36.

Fifty-two percent (112/215) of the patients in the Rapamune with cyclosporine withdrawal group remained on therapy to month 60 and showed sustained GFR.

14.3 High-Immunologic Risk Renal Transplant Patients Rapamune was studied in a one-year, clinical trial in high risk patients (Study 4) who were defined as Black transplant recipients and/or repeat renal transplant recipients who lost a previous allograft for immunologic reasons and/or patients with high panel-reactive antibodies (PRA; peak PRA level > 80%).

Patients received concentration-controlled sirolimus and cyclosporine (MODIFIED), and corticosteroids per local practice.

The Rapamune dose was adjusted to achieve target whole blood trough sirolimus concentrations of 10–15 ng/mL (chromatographic method) throughout the 12-month study period.

The cyclosporine dose was adjusted to achieve target whole blood trough concentrations of 200–300 ng/mL through week 2, 150–200 ng/mL from week 2 to week 26, and 100–150 ng/mL from week 26 to week 52 [ see Clinical Pharmacology (12.3) ] for the observed trough concentrations ranges.

Antibody induction was allowed per protocol as prospectively defined at each transplant center, and was used in 88.4% of patients.

The study was conducted at 35 centers in the United States.

A total of 224 patients received a transplant and at least one dose of sirolimus and cyclosporine and was comprised of 77.2% Black patients, 24.1% repeat renal transplant recipients, and 13.5% patients with high PRA.

Efficacy was assessed with the following endpoints, measured at 12 months: efficacy failure (defined as the first occurrence of biopsy-confirmed acute rejection, graft loss, or death), first occurrence of graft loss or death, and renal function as measured by the calculated GFR using the Nankivell formula.

The table below summarizes the result of these endpoints.

TABLE 16: EFFICACY FAILURE, GRAFT LOSS OR DEATH AND CALCULATED GLOMERULAR FUNCTION RATES (mL/min) BY NANKIVELL EQUATION AT 12 MONTHS POST-TRANSPLANT: STUDY 4 Parameter Rapamune with Cyclosporine, Corticosteroids (n = 224) Efficacy Failure (%) 23.2 Graft Loss or Death (%) 9.8 Renal Function (mean ± SEM) Calculated glomerular filtration rate by Nankivell equation.

, Patients who had graft loss were included in this analysis with GFR set to 0.

52.6 ± 1.6 (n = 222) Patient survival at 12 months was 94.6%.

The incidence of biopsy-confirmed acute rejection was 17.4% and the majority of the episodes of acute rejection were mild in severity.

14.4 Conversion from Calcineurin Inhibitors to Rapamune in Maintenance Renal Transplant Patients Conversion from calcineurin inhibitors (CNI) to Rapamune was assessed in maintenance renal transplant patients 6 months to 10 years post-transplant (Study 5).

This study was a randomized, multicenter, controlled trial conducted at 111 centers globally, including US and Europe, and was intended to show that renal function was improved by conversion from CNI to Rapamune.

Eight hundred thirty (830) patients were enrolled and stratified by baseline calculated glomerular filtration rate (GFR, 20–40 mL/min versus greater than 40 mL/min).

In this trial there was no benefit associated with conversion with regard to improvement in renal function and a greater incidence of proteinuria in the Rapamune conversion arm.

In addition, enrollment of patients with baseline calculated GFR less than 40 mL/min was discontinued due to a higher rate of serious adverse events, including pneumonia, acute rejection, graft loss and death [ see Adverse Reactions (6.4) ].

This study compared renal transplant patients (6–120 months after transplantation) who were converted from calcineurin inhibitors to Rapamune, with patients who continued to receive calcineurin inhibitors.

Concomitant immunosuppressive medications included mycophenolate mofetil (MMF), azathioprine (AZA), and corticosteroids.

Rapamune was initiated with a single loading dose of 12–20 mg, after which dosing was adjusted to achieve a target sirolimus whole blood trough concentration of 8–20 ng/mL (chromatographic method).

The efficacy endpoint was calculated GFR at 12 months post-randomization.

Additional endpoints included biopsy-confirmed acute rejection, graft loss, and death.

Findings in the patient stratum with baseline calculated GFR greater than 40 mL/min (Rapamune conversion, n = 497; CNI continuation, n = 246) are summarized below: There was no clinically or statistically significant improvement in Nankivell GFR compared to baseline.

TABLE 17: RENAL FUNCTION IN STABLE RENAL TRANSPLANT PATIENTS IN PATIENTS WITH BASELINE GFR > 40 mL/min THE RAPAMUNE CONVERSION STUDY (STUDY 5) Parameter Rapamune conversion N = 496 CNI continuation N = 245 Difference (95% CI) GFR mL/min (Nankivell) at 1 year 59.0 57.7 1.3 (-1.1, 3.7) GFR mL/min (Nankivell) at 2 year 53.7 52.1 1.6 (-1.4, 4.6) The rates of acute rejection, graft loss, and death were similar at 1 and 2 years.

Treatment-emergent adverse events occurred more frequently during the first 6 months after Rapamune conversion.

The rates of pneumonia were significantly higher for the sirolimus conversion group.

While the mean and median values for urinary protein to creatinine ratio were similar between treatment groups at baseline, significantly higher mean and median levels of urinary protein excretion were seen in the Rapamune conversion arm at 1 year and at 2 years, as shown in the table below [ see Warnings and Precautions (5.9) ].

In addition, when compared to patients who continued to receive calcineurin inhibitors, a higher percentage of patients had urinary protein to creatinine ratios > 1 at 1 and 2 years after sirolimus conversion.

This difference was seen in both patients who had a urinary protein to creatinine ratio ≤ 1 and those who had a protein to creatinine ratio > 1 at baseline.

More patients in the sirolimus conversion group developed nephrotic range proteinuria, as defined by a urinary protein to creatinine ratio > 3.5 (46/482 [9.5%] versus 9/239 [3.8%]), even when the patients with baseline nephrotic range proteinuria were excluded.

The rate of nephrotic range proteinuria was significantly higher in the sirolimus conversion group compared to the calcineurin inhibitor continuation group with baseline urinary protein to creatinine ratio > 1 (13/29 versus 1/14), excluding patients with baseline nephrotic range proteinuria.

TABLE 18: MEAN AND MEDIAN VALUES FOR URINARY PROTEIN TO CREATININE RATIO (mg/mg) BETWEEN TREATMENT GROUPS AT BASELINE, 1 AND 2 YEARS IN THE STRATUM WITH BASELINE CALCULATED GFR > 40 mL/min Study period Sirolimus Conversion CNI Continuation N Mean ± SD Median N Mean ± SD Median p-value Baseline 410 0.35 ± 0.76 0.13 207 0.28 ± 0.61 0.11 0.381 1 year 423 0.88 ± 1.61 0.31 203 0.37 ± 0.88 0.14 <0.001 2 years 373 0.86 ± 1.48 0.32 190 0.47 ± 0.98 0.13 <0.001 The above information should be taken into account when considering conversion from calcineurin inhibitors to Rapamune in stable renal transplant patients due to the lack of evidence showing that renal function improves following conversion, and the finding of a greater increment in urinary protein excretion, and an increased incidence of treatment-emergent nephrotic range proteinuria following conversion to Rapamune.

This was particularly true among patients with existing abnormal urinary protein excretion prior to conversion.

14.5 Conversion from a CNI-based Regimen to a Sirolimus-based Regimen in Liver Transplant Patients Conversion from a CNI-based regimen to a Rapamune-based regimen was assessed in stable liver transplant patients 6–144 months post-transplant.

The clinical study was a 2:1 randomized, multi-center, controlled trial conducted at 82 centers globally, including the US and Europe, and was intended to show that renal function was improved by conversion from a CNI to Rapamune without adversely impacting efficacy or safety.

A total of 607 patients were enrolled.

The study failed to demonstrate superiority of conversion to a Rapamune-based regimen compared to continuation of a CNI-based regimen in baseline-adjusted GFR, as estimated by Cockcroft-Gault, at 12 months (62 mL/min in the Rapamune conversion group and 63 mL/min in the CNI continuation group).

The study also failed to demonstrate non-inferiority, with respect to the composite endpoint consisting of graft loss and death (including patients with missing survival data) in the Rapamune conversion group compared to the CNI continuation group (6.6% versus 5.6%).

The number of deaths in the Rapamune conversion group (15/393, 3.8%) was higher than in the CNI continuation group (3/214, 1.4%), although the difference was not statistically significant.

The rates of premature study discontinuation (primarily due to adverse events or lack of efficacy), adverse events overall (infections, specifically), and biopsy-proven acute liver graft rejection at 12 months were all significantly greater in the Rapamune conversion group compared to the CNI continuation group.

14.6 Pediatric Renal Transplant Patients Rapamune was evaluated in a 36-month, open-label, randomized, controlled clinical trial at 14 North American centers in pediatric (aged 3 to < 18 years) renal transplant patients considered to be at high-immunologic risk for developing chronic allograft nephropathy, defined as a history of one or more acute allograft rejection episodes and/or the presence of chronic allograft nephropathy on a renal biopsy.

Seventy-eight (78) subjects were randomized in a 2:1 ratio to Rapamune (sirolimus target concentrations of 5 to 15 ng/mL, by chromatographic assay, n = 53) in combination with a calcineurin inhibitor and corticosteroids or to continue calcineurin-inhibitor-based immunosuppressive therapy (n = 25).

The primary endpoint of the study was efficacy failure as defined by the first occurrence of biopsy-confirmed acute rejection, graft loss, or death, and the trial was designed to show superiority of Rapamune added to a calcineurin-inhibitor-based immunosuppressive regimen compared to a calcineurin-inhibitor-based regimen.

The cumulative incidence of efficacy failure up to 36 months was 45.3% in the Rapamune group compared to 44.0% in the control group, and did not demonstrate superiority.

There was one death in each group.

The use of Rapamune in combination with calcineurin inhibitors and corticosteroids was associated with an increased risk of deterioration of renal function, serum lipid abnormalities (including, but not limited to, increased serum triglycerides and cholesterol), and urinary tract infections [ see Warnings and Precautions (5.8) ].

This study does not support the addition of Rapamune to calcineurin-inhibitor-based immunosuppressive therapy in this subpopulation of pediatric renal transplant patients.

14.7 Lymphangioleiomyomatosis Patients The safety and efficacy of Rapamune for treatment of lymphangioleiomyomatosis (LAM) were assessed in a randomized, double-blind, multicenter, controlled trial.

This study compared Rapamune (dose-adjusted to maintain blood trough concentrations between 5–15 ng/mL) with placebo for a 12-month treatment period, followed by a 12-month observation period.

Eighty-nine (89) patients were enrolled; 43 patients were randomized to receive placebo and 46 patients to receive Rapamune.

The primary endpoint was the difference between the groups in the rate of change (slope) per month in forced expiratory volume in 1 second (FEV1).

During the treatment period, the FEV1 slope was -12±2 mL per month in the placebo group and 1±2 mL per month in the Rapamune group (treatment difference = 13 mL (95% CI: 7, 18).

The absolute between-group difference in the mean change in FEV1 during the 12-month treatment period was 153 mL, or approximately 11% of the mean FEV1 at enrollment.

Similar improvements were seen for forced vital capacity (FVC).

After discontinuation of Rapamune, the decline in lung function resumed in the Rapamune group and paralleled that in the placebo group (see Figure 1 ).

FIGURE 1: CHANGE IN FORCED EXPIRATORY VOLUME IN 1 SECOND (FEV1) DURING THE TREATMENT AND OBSERVATION PHASES OF THE STUDY IN LAM PATIENTS The rate of change over 12 months of vascular endothelial growth factor-D (VEGF-D), a lymphangiogenic growth factor which has been shown to be elevated in patients with LAM, was significantly different in the Rapamune-treated group (-88.0 ± 16.6 pg/mL/month) compared to placebo (-2.42 ± 17.2 pg/mL/month) with a treatment difference of -86 pg/mL/month (95% CI: -133, -39).

The absolute between-group difference in the mean change in VEGF-D during the 12-month treatment period was -1017.2, or approximately 50% of the mean VEGF-D at enrollment.

Figure 1

HOW SUPPLIED

16 /STORAGE AND HANDLING Since Rapamune is not absorbed through the skin, there are no special precautions.

However, if direct contact of the oral solution occurs with the skin or eyes, wash skin thoroughly with soap and water; rinse eyes with plain water.

Do not use RAPAMUNE after the expiration date that is located on the blister and carton.

The expiration date refers to the last day of that month.

16.1 Rapamune Oral Solution Each Rapamune Oral Solution carton, NDC 0008-1030-06, contains one 2 oz (60 mL fill) amber glass bottle of sirolimus (concentration of 1 mg/mL), one oral syringe adapter for fitting into the neck of the bottle, sufficient disposable amber oral syringes and caps for daily dosing, and a carrying case.

Rapamune Oral Solution bottles should be stored protected from light and refrigerated at 2°C to 8°C (36°F to 46°F).

Once the bottle is opened, the contents should be used within one month.

If necessary, the patient may store the bottles at room temperatures up to 25°C (77°F) for a short period of time (e.g., not more than 15 days for the bottles).

An amber syringe and cap are provided for dosing, and the product may be kept in the syringe for a maximum of 24 hours at room temperatures up to 25°C (77°F) or refrigerated at 2°C to 8°C (36°F to 46°F).

The syringe should be discarded after one use.

After dilution, the preparation should be used immediately.

Rapamune Oral Solution provided in bottles may develop a slight haze when refrigerated.

If such a haze occurs, allow the product to stand at room temperature and shake gently until the haze disappears.

The presence of this haze does not affect the quality of the product.

16.2 Rapamune Tablets Rapamune Tablets are available as follows: • NDC 0008-1040-05, 0.5 mg, tan, triangular-shaped tablets marked “RAPAMUNE 0.5 mg” on one side; bottle containing 100 tablets.

• NDC 0008-1040-10, 0.5 mg, tan, triangular-shaped tablets marked “RAPAMUNE 0.5 mg” on one side; in Redipak ® cartons of 100 tablets (10 blister cards of 10 tablets each).

• NDC 0008-1041-05, 1 mg, white, triangular-shaped tablets marked “RAPAMUNE 1 mg” on one side; bottle containing 100 tablets.

• NDC 0008-1041-10, 1 mg, white, triangular-shaped tablets marked “RAPAMUNE 1 mg” on one side; in Redipak ® cartons of 100 tablets (10 blister cards of 10 tablets each).

• NDC 0008-1042-05, 2 mg, yellow-to-beige triangular-shaped tablets marked “RAPAMUNE 2 mg” on one side; bottle containing 100 tablets.

Rapamune Tablets should be stored at 20° to 25°C [USP Controlled Room Temperature] (68° to 77°F).

Use cartons to protect blister cards and strips from light.

Dispense in a tight, light-resistant container as defined in the USP.

RECENT MAJOR CHANGES

Warnings and Precautions, Angioedema ( 5.5 ) 4/2017 Warnings and Precautions, Embryo-Fetal Toxicity ( 5.15 ) 1/2018

GERIATRIC USE

8.5 Geriatric Use Clinical studies of Rapamune Oral Solution or Tablets did not include sufficient numbers of patients ≥ 65 years to determine whether they respond differently from younger patients.

Data pertaining to sirolimus trough concentrations suggest that dose adjustments based upon age in geriatric renal patients are not necessary.

Differences in responses between the elderly and younger patients have not been identified.

In general, dose selection for an elderly patient should be cautious, usually starting at the low end of the dosing range, reflecting the greater frequency of decreased hepatic, or cardiac function, and of concomitant disease or other drug therapy.

DOSAGE FORMS AND STRENGTHS

3 • Oral Solution: 60 mg per 60 mL in amber glass bottle ( 3.1 ).

• Tablets: 0.5 mg, 1 mg, 2 mg ( 3.2 ).

3.1 Rapamune Oral Solution • 60 mg per 60 mL in amber glass bottle.

3.2 Rapamune Tablets • 0.5 mg, tan, triangular-shaped tablets marked “RAPAMUNE 0.5 mg” on one side.

• 1 mg, white, triangular-shaped tablets marked “RAPAMUNE 1 mg” on one side.

• 2 mg, yellow-to-beige triangular-shaped tablets marked “RAPAMUNE 2 mg” on one side.

MECHANISM OF ACTION

12.1 Mechanism of Action Sirolimus inhibits T-lymphocyte activation and proliferation that occurs in response to antigenic and cytokine (Interleukin [IL]-2, IL-4, and IL-15) stimulation by a mechanism that is distinct from that of other immunosuppressants.

Sirolimus also inhibits antibody production.

In cells, sirolimus binds to the immunophilin, FK Binding Protein-12 (FKBP-12), to generate an immunosuppressive complex.

The sirolimus:FKBP-12 complex has no effect on calcineurin activity.

This complex binds to and inhibits the activation of the mammalian target of rapamycin (mTOR), a key regulatory kinase.

This inhibition suppresses cytokine-driven T-cell proliferation, inhibiting the progression from the G 1 to the S phase of the cell cycle.

Studies in experimental models show that sirolimus prolongs allograft (kidney, heart, skin, islet, small bowel, pancreatico-duodenal, and bone marrow) survival in mice, rats, pigs, and/or primates.

Sirolimus reverses acute rejection of heart and kidney allografts in rats and prolongs the graft survival in presensitized rats.

In some studies, the immunosuppressive effect of sirolimus lasts up to 6 months after discontinuation of therapy.

This tolerization effect is alloantigen-specific.

In rodent models of autoimmune disease, sirolimus suppresses immune-mediated events associated with systemic lupus erythematosus, collagen-induced arthritis, autoimmune type I diabetes, autoimmune myocarditis, experimental allergic encephalomyelitis, graft-versus-host disease, and autoimmune uveoretinitis.

Lymphangioleiomyomatosis involves lung tissue infiltration with smooth muscle-like cells that harbor inactivating mutations of the tuberous sclerosis complex (TSC) gene (LAM cells).

Loss of TSC gene function activates the mTOR signaling pathway, resulting in cellular proliferation and release of lymphangiogenic growth factors.

Sirolimus inhibits the activated mTOR pathway and thus the proliferation of LAM cells.

INDICATIONS AND USAGE

1 Rapamune is an mTOR inhibitor immunosuppressant indicated for the prophylaxis of organ rejection in patients aged ≥13 years receiving renal transplants.

3.

Patients at low- to moderate-immunologic risk: Use initially with cyclosporine (CsA) and corticosteroids.

CsA withdrawal is recommended 2–4 months after transplantation ( 1.1 ).

4.

Patients at high-immunologic risk: Use in combination with CsA and corticosteroids for the first 12 months following transplantation ( 1.1 ).

Safety and efficacy of CsA withdrawal has not been established in high risk patients ( 1.1 , 1.2 , 14.3 ).

Rapamune is an mTOR inhibitor indicated for the treatment of patients with lymphangioleiomyomatosis ( 1.3 ).

1.1 Prophylaxis of Organ Rejection in Renal Transplantation Rapamune (sirolimus) is indicated for the prophylaxis of organ rejection in patients aged 13 years or older receiving renal transplants.

In patients at low-to moderate-immunologic risk , it is recommended that Rapamune be used initially in a regimen with cyclosporine and corticosteroids; cyclosporine should be withdrawn 2 to 4 months after transplantation [ see Dosage and Administration (2.2) ].

In patients at high-immunologic risk (defined as Black recipients and/or repeat renal transplant recipients who lost a previous allograft for immunologic reason and/or patients with high panel-reactive antibodies [PRA; peak PRA level > 80%]), it is recommended that Rapamune be used in combination with cyclosporine and corticosteroids for the first year following transplantation [ see Dosage and Administration (2.3) , Clinical Studies (14.3) ].

1.2 Limitations of Use in Renal Transplantation Cyclosporine withdrawal has not been studied in patients with Banff Grade 3 acute rejection or vascular rejection prior to cyclosporine withdrawal, those who are dialysis-dependent, those with serum creatinine > 4.5 mg/dL, Black patients, patients of multi-organ transplants, secondary transplants, or those with high levels of panel-reactive antibodies [ see Clinical Studies (14.2) ].

In patients at high-immunologic risk , the safety and efficacy of Rapamune used in combination with cyclosporine and corticosteroids has not been studied beyond one year; therefore after the first 12 months following transplantation, any adjustments to the immunosuppressive regimen should be considered on the basis of the clinical status of the patient [ see Clinical Studies (14.3) ].

In pediatric patients , the safety and efficacy of Rapamune have not been established in patients < 13 years old, or in pediatric (< 18 years) renal transplant patients considered at high-immunologic risk [ see Adverse Reactions (6.5) , Clinical Studies (14.6) ].

The safety and efficacy of de novo use of Rapamune without cyclosporine have not been established in renal transplant patients [ see Warnings and Precautions (5.12) ].

The safety and efficacy of conversion from calcineurin inhibitors to Rapamune in maintenance renal transplant patients have not been established [ see Clinical Studies (14.4) ].

1.3 Treatment of Patients with Lymphangioleiomyomatosis Rapamune (sirolimus) is indicated for the treatment of patients with lymphangioleiomyomatosis (LAM).

PEDIATRIC USE

8.4 Pediatric Use Renal Transplant The safety and efficacy of Rapamune in pediatric patients < 13 years have not been established.

The safety and efficacy of Rapamune Oral Solution and Rapamune Tablets have been established for prophylaxis of organ rejection in renal transplantation in children ≥ 13 years judged to be at low- to moderate-immunologic risk.

Use of Rapamune Oral Solution and Rapamune Tablets in this subpopulation of children ≥ 13 years is supported by evidence from adequate and well-controlled trials of Rapamune Oral Solution in adults with additional pharmacokinetic data in pediatric renal transplantation patients [ see Clinical Pharmacology (12.3) ].

Safety and efficacy information from a controlled clinical trial in pediatric and adolescent (< 18 years of age) renal transplant patients judged to be at high-immunologic risk, defined as a history of one or more acute rejection episodes and/or the presence of chronic allograft nephropathy, do not support the chronic use of Rapamune Oral Solution or Tablets in combination with calcineurin inhibitors and corticosteroids, due to the higher incidence of lipid abnormalities and deterioration of renal function associated with these immunosuppressive regimens compared to calcineurin inhibitors, without increased benefit with respect to acute rejection, graft survival, or patient survival [ see Clinical Studies (14.6) ].

Lymphangioleiomyomatosis The safety and efficacy of Rapamune in pediatric patients < 18 years have not been established.

PREGNANCY

8.1 Pregnancy Pregnancy Category C: Sirolimus was embryo/fetotoxic in rats when given in doses approximately 0.2 to 0.5 the human doses (adjusted for body surface area).

Embryo/fetotoxicity was manifested as mortality and reduced fetal weights (with associated delays in skeletal ossification).

However, no teratogenesis was evident.

In combination with cyclosporine, rats had increased embryo/feto mortality compared with sirolimus alone.

There were no effects on rabbit development at a maternally toxic dosage approximately 0.3 to 0.8 times the human doses (adjusted for body surface area).

There are no adequate and well-controlled studies in pregnant women.

Effective contraception must be initiated before Rapamune therapy, during Rapamune therapy, and for 12 weeks after Rapamune therapy has been stopped.

NUSRING MOTHERS

8.3 Nursing Mothers Sirolimus is excreted in trace amounts in milk of lactating rats.

It is not known whether sirolimus is excreted in human milk.

The pharmacokinetic and safety profiles of sirolimus in infants are not known.

Because many drugs are excreted in human milk, and because of the potential for adverse reactions in nursing infants from sirolimus, a decision should be made whether to discontinue nursing or to discontinue the drug, taking into account the importance of the drug to the mother.

BOXED WARNING

WARNING: IMMUNOSUPPRESSION, USE IS NOT RECOMMENDED IN LIVER OR LUNG TRANSPLANT PATIENTS • Increased susceptibility to infection and the possible development of lymphoma and other malignancies may result from immunosuppression Increased susceptibility to infection and the possible development of lymphoma may result from immunosuppression.

Only physicians experienced in immunosuppressive therapy and management of renal transplant patients should use Rapamune ® for prophylaxis of organ rejection in patients receiving renal transplants.

Patients receiving the drug should be managed in facilities equipped and staffed with adequate laboratory and supportive medical resources.

The physician responsible for maintenance therapy should have complete information requisite for the follow-up of the patient [ see Warnings and Precautions (5.1) ] .

• The safety and efficacy of Rapamune (sirolimus) as immunosuppressive therapy have not been established in liver or lung transplant patients, and therefore, such use is not recommended [ see Warnings and Precautions (5.2 , 5.3) ] .

• Liver Transplantation – Excess Mortality, Graft Loss, and Hepatic Artery Thrombosis (HAT) The use of Rapamune in combination with tacrolimus was associated with excess mortality and graft loss in a study in de novo liver transplant patients.

Many of these patients had evidence of infection at or near the time of death.

In this and another study in de novo liver transplant patients, the use of Rapamune in combination with cyclosporine or tacrolimus was associated with an increase in HAT; most cases of HAT occurred within 30 days post-transplantation and most led to graft loss or death [ see Warnings and Precautions (5.2) ].

• Lung Transplantation – Bronchial Anastomotic Dehiscence Cases of bronchial anastomotic dehiscence, most fatal, have been reported in de novo lung transplant patients when Rapamune has been used as part of an immunosuppressive regimen [ see Warnings and Precautions (5.3) ].

WARNING: IMMUNOSUPPRESSION, USE IS NOT RECOMMENDED IN LIVER OR LUNG TRANSPLANT PATIENTS See Full Prescribing Information for complete Boxed Warning.

• Increased susceptibility to infection and the possible development of lymphoma and other malignancies may result from immunosuppression ( 5.1 ).

Only physicians experienced in immunosuppressive therapy and management of renal transplant patients should use Rapamune for prophylaxis of organ rejection in patients receiving renal transplants.

• The safety and efficacy of Rapamune as immunosuppressive therapy have not been established in liver or lung transplant patients, and therefore, such use is not recommended ( 5.2 , 5.3 ).

• Liver Transplantation – Excess mortality, graft loss, and hepatic artery thrombosis ( 5.2 ).

• Lung Transplantation – Bronchial anastomotic dehiscence ( 5.3 ).

WARNING AND CAUTIONS

5 WARNINGS AND PRECAUTIONS • Hypersensitivity Reactions ( 5.4 ) • Angioedema ( 5.5 ) • Fluid Accumulation and Impairment of Wound Healing ( 5.6 ) • Hyperlipidemia ( 5.7 ) • Decline in Renal Function ( 5.8 ) • Proteinuria ( 5.9 ) • Latent Viral Infections ( 5.10 ) • Interstitial Lung Disease/Non-Infectious Pneumonitis ( 5.11 ) • De Novo Use Without Cyclosporine ( 5.12 ) • Increased Risk of Calcineurin Inhibitor-Induced Hemolytic Uremic Syndrome/ Thrombotic Thrombocytopenic Purpura/ Thrombotic Microangiopathy ( 5.13 ) • Embryo-Fetal Toxicity ( 5.15 , 8.1 ) 5.1 Increased Susceptibility to Infection and the Possible Development of Lymphoma Increased susceptibility to infection and the possible development of lymphoma and other malignancies, particularly of the skin, may result from immunosuppression.

The rates of lymphoma/lymphoproliferative disease observed in Studies 1 and 2 were 0.7–3.2% (for Rapamune-treated patients) versus 0.6–0.8% (azathioprine and placebo control) [ see Adverse Reactions (6.1) and (6.2) ].

Oversuppression of the immune system can also increase susceptibility to infection, including opportunistic infections such as tuberculosis, fatal infections, and sepsis.

Only physicians experienced in immunosuppressive therapy and management of organ transplant patients should use Rapamune for prophylaxis of organ rejection in patients receiving renal transplants.

Patients receiving the drug should be managed in facilities equipped and staffed with adequate laboratory and supportive medical resources.

The physician responsible for maintenance therapy should have complete information requisite for the follow-up of the patient.

5.2 Liver Transplantation – Excess Mortality, Graft Loss, and Hepatic Artery Thrombosis The safety and efficacy of Rapamune as immunosuppressive therapy have not been established in liver transplant patients; therefore, such use is not recommended.

The use of Rapamune has been associated with adverse outcomes in patients following liver transplantation, including excess mortality, graft loss and hepatic artery thrombosis (HAT).

In a study in de novo liver transplant patients, the use of Rapamune in combination with tacrolimus was associated with excess mortality and graft loss (22% in combination versus 9% on tacrolimus alone).

Many of these patients had evidence of infection at or near the time of death.

In this and another study in de novo liver transplant patients, the use of Rapamune in combination with cyclosporine or tacrolimus was associated with an increase in HAT (7% in combination versus 2% in the control arm); most cases of HAT occurred within 30 days post-transplantation, and most led to graft loss or death.

In a clinical study in stable liver transplant patients 6–144 months post-liver transplantation and receiving a CNI-based regimen, an increased number of deaths was observed in the group converted to a Rapamune-based regimen compared to the group who was continued on a CNI-based regimen, although the difference was not statistically significant (3.8% versus 1.4%) [ see Clinical Studies (14.5) ].

5.3 Lung Transplantation – Bronchial Anastomotic Dehiscence Cases of bronchial anastomotic dehiscence, most fatal, have been reported in de novo lung transplant patients when Rapamune has been used as part of an immunosuppressive regimen.

The safety and efficacy of Rapamune as immunosuppressive therapy have not been established in lung transplant patients; therefore, such use is not recommended.

5.4 Hypersensitivity Reactions Hypersensitivity reactions, including anaphylactic/anaphylactoid reactions, angioedema, exfoliative dermatitis and hypersensitivity vasculitis, have been associated with the administration of Rapamune [ see Adverse Reactions (6.7) ].

5.5 Angioedema Rapamune has been associated with the development of angioedema.

The concomitant use of Rapamune with other drugs known to cause angioedema, such as angiotensin-converting enzyme (ACE) inhibitors, may increase the risk of developing angioedema.

Elevated sirolimus levels (with/without concomitant ACE inhibitors) may also potentiate angioedema [ see Drug Interactions (7.2) ].

In some cases, the angioedema has resolved upon discontinuation or dose reduction of Rapamune.

5.6 Fluid Accumulation and Impairment of Wound Healing There have been reports of impaired or delayed wound healing in patients receiving Rapamune, including lymphocele and wound dehiscence [ see Adverse Reactions (6.1) ].

Mammalian target of rapamycin (mTOR) inhibitors such as sirolimus have been shown in vitro to inhibit production of certain growth factors that may affect angiogenesis, fibroblast proliferation, and vascular permeability.

Lymphocele, a known surgical complication of renal transplantation, occurred significantly more often in a dose-related fashion in patients treated with Rapamune [ see Adverse Reactions (6.1) ].

Appropriate measures should be considered to minimize such complications.

Patients with a body mass index (BMI) greater than 30 kg/m 2 may be at increased risk of abnormal wound healing based on data from the medical literature.

There have also been reports of fluid accumulation, including peripheral edema, lymphedema, pleural effusion, ascites, and pericardial effusions (including hemodynamically significant effusions and tamponade requiring intervention in children and adults), in patients receiving Rapamune.

5.7 Hyperlipidemia Increased serum cholesterol and triglycerides requiring treatment occurred more frequently in patients treated with Rapamune compared with azathioprine or placebo controls in Studies 1 and 2 [ see Adverse Reactions (6.1) ].

There were increased incidences of hypercholesterolemia (43–46%) and/or hypertriglyceridemia (45–57%) in patients receiving Rapamune compared with placebo controls (each 23%).

The risk/benefit should be carefully considered in patients with established hyperlipidemia before initiating an immunosuppressive regimen including Rapamune.

Any patient who is administered Rapamune should be monitored for hyperlipidemia.

If detected, interventions such as diet, exercise, and lipid-lowering agents should be initiated as outlined by the National Cholesterol Education Program guidelines.

In clinical trials of patients receiving Rapamune plus cyclosporine or Rapamune after cyclosporine withdrawal, up to 90% of patients required treatment for hyperlipidemia and hypercholesterolemia with anti-lipid therapy (e.g., statins, fibrates).

Despite anti-lipid management, up to 50% of patients had fasting serum cholesterol levels >240 mg/dL and triglycerides above recommended target levels.

The concomitant administration of Rapamune and HMG-CoA reductase inhibitors resulted in adverse reactions such as CPK elevations (3%), myalgia (6.7%) and rhabdomyolysis (<1%).

In these trials, the number of patients was too small and duration of follow-up too short to evaluate the long-term impact of Rapamune on cardiovascular mortality.

During Rapamune therapy with or without cyclosporine, patients should be monitored for elevated lipids, and patients administered an HMG-CoA reductase inhibitor and/or fibrate should be monitored for the possible development of rhabdomyolysis and other adverse effects, as described in the respective labeling for these agents.

5.8 Decline in Renal Function Renal function should be closely monitored during the co-administration of Rapamune with cyclosporine, because long-term administration of the combination has been associated with deterioration of renal function.

Patients treated with cyclosporine and Rapamune were noted to have higher serum creatinine levels and lower glomerular filtration rates compared with patients treated with cyclosporine and placebo or azathioprine controls (Studies 1 and 2).

The rate of decline in renal function in these studies was greater in patients receiving Rapamune and cyclosporine compared with control therapies.

Appropriate adjustment of the immunosuppressive regimen, including discontinuation of Rapamune and/or cyclosporine, should be considered in patients with elevated or increasing serum creatinine levels.

In patients at low- to moderate-immunologic risk, continuation of combination therapy with cyclosporine beyond 4 months following transplantation should only be considered when the benefits outweigh the risks of this combination for the individual patients.

Caution should be exercised when using agents (e.g., aminoglycosides and amphotericin B) that are known to have a deleterious effect on renal function.

In patients with delayed graft function, Rapamune may delay recovery of renal function.

5.9 Proteinuria Periodic quantitative monitoring of urinary protein excretion is recommended.

In a study evaluating conversion from calcineurin inhibitors (CNI) to Rapamune in maintenance renal transplant patients 6–120 months post-transplant, increased urinary protein excretion was commonly observed from 6 through 24 months after conversion to Rapamune compared with CNI continuation [ see Clinical Studies (14.4) , Adverse Reactions (6.4) ].

Patients with the greatest amount of urinary protein excretion prior to Rapamune conversion were those whose protein excretion increased the most after conversion.

New onset nephrosis (nephrotic syndrome) was also reported as a treatment-emergent adverse reaction in 2.2% of the Rapamune conversion group patients in comparison to 0.4% in the CNI continuation group of patients.

Nephrotic range proteinuria (defined as urinary protein to creatinine ratio > 3.5) was also reported in 9.2% in the Rapamune conversion group of patients in comparison to 3.7% in the CNI continuation group of patients.

In some patients, reduction in the degree of urinary protein excretion was observed for individual patients following discontinuation of Rapamune.

The safety and efficacy of conversion from calcineurin inhibitors to Rapamune in maintenance renal transplant patients have not been established.

5.10 Latent Viral Infections Immunosuppressed patients are at increased risk for opportunistic infections, including activation of latent viral infections.

These include BK virus-associated nephropathy, which has been observed in renal transplant patients receiving immunosuppressants, including Rapamune.

This infection may be associated with serious outcomes, including deteriorating renal function and renal graft loss [ see Adverse Reactions (6.7) ].

Patient monitoring may help detect patients at risk for BK virus-associated nephropathy.

Reduction in immunosuppression should be considered for patients who develop evidence of BK virus-associated nephropathy.

Cases of progressive multifocal leukoencephalopathy (PML), sometimes fatal have been reported in patients treated with immunosuppressants, including Rapamune.

PML commonly presents with hemiparesis, apathy, confusion, cognitive deficiencies and ataxia.

Risk factors for PML include treatment with immunosuppressant therapies and impairment of immune function.

In immunosuppressed patients, physicians should consider PML in the differential diagnosis in patients reporting neurological symptoms and consultation with a neurologist should be considered as clinically indicated.

Consideration should be given to reducing the amount of immunosuppression in patients who develop PML.

In transplant patients, physicians should also consider the risk that reduced immunosuppression represents to the graft.

5.11 Interstitial Lung Disease/Non-Infectious Pneumonitis Cases of interstitial lung disease [ILD] (including pneumonitis, bronchiolitis obliterans organizing pneumonia [BOOP], and pulmonary fibrosis), some fatal, with no identified infectious etiology have occurred in patients receiving immunosuppressive regimens including Rapamune.

In some cases, the ILD was reported with pulmonary hypertension (including pulmonary arterial hypertension [PAH]) as a secondary event.

In some cases, the ILD has resolved upon discontinuation or dose reduction of Rapamune.

The risk may be increased as the trough sirolimus concentration increases [ see Adverse Reactions (6.7) ].

5.12 De Novo Use Without Cyclosporine The safety and efficacy of de novo use of Rapamune without cyclosporine is not established in renal transplant patients.

In a multicenter clinical study, de novo renal transplant patients treated with Rapamune, mycophenolate mofetil (MMF), steroids, and an IL-2 receptor antagonist had significantly higher acute rejection rates and numerically higher death rates compared to patients treated with cyclosporine, MMF, steroids, and IL-2 receptor antagonist.

A benefit, in terms of better renal function, was not apparent in the treatment arm with de novo use of Rapamune without cyclosporine.

These findings were also observed in a similar treatment group of another clinical trial.

5.13 Increased Risk of Calcineurin Inhibitor-Induced Hemolytic Uremic Syndrome/Thrombotic Thrombocytopenic Purpura/Thrombotic Microangiopathy The concomitant use of Rapamune with a calcineurin inhibitor may increase the risk of calcineurin inhibitor-induced hemolytic uremic syndrome/thrombotic thrombocytopenic purpura/thrombotic microangiopathy (HUS/TTP/TMA) [ see Adverse Reactions (6.7) ].

5.14 Antimicrobial Prophylaxis Cases of Pneumocystis carinii pneumonia have been reported in transplant patients not receiving antimicrobial prophylaxis.

Therefore, antimicrobial prophylaxis for Pneumocystis carinii pneumonia should be administered for 1 year following transplantation.

Cytomegalovirus (CMV) prophylaxis is recommended for 3 months after transplantation, particularly for patients at increased risk for CMV disease.

5.15 Embryo-Fetal Toxicity Based on animal studies and the mechanism of action [ see Clinical Pharmacology (12.1) ], Rapamune may cause fetal harm when administered to a pregnant woman.

In animal studies, mTOR inhibitors caused embryo-fetal toxicity when administered during the period of organogenesis at maternal exposures that were equal to or less than human exposures at the recommended lowest starting dose.

Advise pregnant women of the potential risk to a fetus.

Advise women of childbearing potential to avoid becoming pregnant and to use effective contraception while using Rapamune and for 12 weeks after ending treatment [ see Use in Specific Populations (8.1) ] .

5.16 Different Sirolimus Trough Concentration Reported between Chromatographic and Immunoassay Methodologies Currently in clinical practice, sirolimus whole blood concentrations are being measured by various chromatographic and immunoassay methodologies.

Patient sample concentration values from different assays may not be interchangeable [ see Dosage and Administration (2.5) ].

5.17 Skin Cancer Events Patients on immunosuppressive therapy are at increased risk for skin cancer.

Exposure to sunlight and ultraviolet (UV) light should be limited by wearing protective clothing and using a sunscreen with a high protection factor [ see Adverse Reactions (6.1 , 6.2 , 6.7) ] .

5.18 Interaction with Strong Inhibitors and Inducers of CYP3A4 and/or P-gp Avoid concomitant use of Rapamune with strong inhibitors of CYP3A4 and/or P-gp (such as ketoconazole, voriconazole, itraconazole, erythromycin, telithromycin, or clarithromycin) or strong inducers of CYP3A4 and/or P-gp (such as rifampin or rifabutin) [ see Drug Interactions (7.2) ].

INFORMATION FOR PATIENTS

17 PATIENT COUNSELING INFORMATION Advise patients, their families, and their caregivers to read the Medication Guide and assist them in understanding its contents.

The complete text of the Medication Guide is reprinted at the end of the document.

See FDA-Approved Medication Guide .

17.1 Dosage Patients should be given complete dosage instructions [ see FDA-Approved Medication Guide ].

17.2 Skin Cancer Events Patients should be told that exposure to sunlight and ultraviolet (UV) light should be limited by wearing protective clothing and using a sunscreen with a high protection factor because of the increased risk for skin cancer [ see Warnings and Precautions (5.17) ].

17.3 Pregnancy Risks Women of childbearing potential should be informed of the potential risks during pregnancy and told that they should use effective contraception prior to initiation of Rapamune therapy, during Rapamune therapy, and for 12 weeks after Rapamune therapy has been stopped [ see Use in Specific Populations (8.1) ].

DOSAGE AND ADMINISTRATION

2 Rapamune is to be administered orally once daily, consistently with or without food [ see Dosage and Administration (2.5) , Clinical Pharmacology (12.3) ].

Tablets should not be crushed, chewed or split.

Patients unable to take the tablets should be prescribed the solution and instructed in its use.

Renal Transplant Patients: • Administer once daily by mouth, consistently with or without food ( 2 ).

• Administer the initial dose as soon as possible after transplantation and 4 hours after CsA ( 2.1 , 7.1 ).

• Adjust the Rapamune maintenance dose to achieve sirolimus trough concentrations within the target-range ( 2.5 ).

• Hepatic impairment: Reduce maintenance dose in patients with hepatic impairment ( 2.7 , 8.6 , 12.3 ).

In renal transplant patients at low-to moderate-immunologic risk : • Rapamune and CsA Combination Therapy: One loading dose of 6 mg on day 1, followed by daily maintenance doses of 2 mg ( 2.2 ).

• Rapamune Following CsA Withdrawal: 2–4 months post-transplantation, withdraw CsA over 4–8 weeks ( 2.2 ).

In renal transplant patients at high-immunologic risk: • Rapamune and CsA Combination Therapy (for the first 12 months post-transplantation): One loading dose of up to 15 mg on day 1, followed by daily maintenance doses of 5 mg ( 2.3 ).

Lymphangioleiomyomatosis Patients: • Administer once daily by mouth, consistently with or without food ( 2 ).

• Recommended initial Rapamune dose is 2 mg/day ( 2.4 ).

• Adjust the Rapamune dose to achieve sirolimus trough concentrations between 5–15 ng/mL ( 2.4 ).

• Hepatic impairment: Reduce maintenance dose in patients with hepatic impairment ( 2.7 , 8.6 , 12.3 ).

Therapeutic drug monitoring is recommended for all patients ( 2.5 , 5.16 ).

2.1 General Dosing Guidance for Renal Transplant Patients The initial dose of Rapamune should be administered as soon as possible after transplantation.

It is recommended that Rapamune be taken 4 hours after administration of cyclosporine oral solution (MODIFIED) and or/cyclosporine capsules (MODIFIED) [ see Drug Interactions (7.2) ].

Frequent Rapamune dose adjustments based on non-steady-state sirolimus concentrations can lead to overdosing or underdosing because sirolimus has a long half-life.

Once Rapamune maintenance dose is adjusted, patients should continue on the new maintenance dose for at least 7 to 14 days before further dosage adjustment with concentration monitoring.

In most patients, dose adjustments can be based on simple proportion: new Rapamune dose = current dose × (target concentration/current concentration).

A loading dose should be considered in addition to a new maintenance dose when it is necessary to increase sirolimus trough concentrations: Rapamune loading dose = 3 × (new maintenance dose – current maintenance dose).

The maximum Rapamune dose administered on any day should not exceed 40 mg.

If an estimated daily dose exceeds 40 mg due to the addition of a loading dose, the loading dose should be administered over 2 days.

Sirolimus trough concentrations should be monitored at least 3 to 4 days after a loading dose(s).

Two milligrams (2 mg) of Rapamune Oral Solution have been demonstrated to be clinically equivalent to 2 mg Rapamune Tablets; hence, at this dose these two formulations are interchangeable.

However, it is not known if higher doses of Rapamune Oral Solution are clinically equivalent to higher doses of Rapamune Tablets on a mg-to-mg basis [ see Clinical Pharmacology (12.3) ].

2.2 Renal Transplant Patients at Low- to Moderate-Immunologic Risk Rapamune and Cyclosporine Combination Therapy For de novo renal transplant patients, it is recommended that Rapamune Oral Solution and Tablets be used initially in a regimen with cyclosporine and corticosteroids.

A loading dose of Rapamune equivalent to 3 times the maintenance dose should be given, i.e.

a daily maintenance dose of 2 mg should be preceded with a loading dose of 6 mg.

Therapeutic drug monitoring should be used to maintain sirolimus drug concentrations within the target-range [ see Dosage and Administration (2.5) ].

Rapamune Following Cyclosporine Withdrawal At 2 to 4 months following transplantation, cyclosporine should be progressively discontinued over 4 to 8 weeks, and the Rapamune dose should be adjusted to obtain sirolimus whole blood trough concentrations within the target-range [ see Dosage and Administration (2.5) ].

Because cyclosporine inhibits the metabolism and transport of sirolimus, sirolimus concentrations may decrease when cyclosporine is discontinued, unless the Rapamune dose is increased [ see Clinical Pharmacology (12.3) ].

2.3 Renal Transplant Patients at High-Immunologic Risk In patients with high-immunologic risk, it is recommended that Rapamune be used in combination with cyclosporine and corticosteroids for the first 12 months following transplantation [ see Clinical Studies (14.3) ].

The safety and efficacy of this combination in high-immunologic risk patients has not been studied beyond the first 12 months.

Therefore, after the first 12 months following transplantation, any adjustments to the immunosuppressive regimen should be considered on the basis of the clinical status of the patient.

For patients receiving Rapamune with cyclosporine, Rapamune therapy should be initiated with a loading dose of up to 15 mg on day 1 post-transplantation.

Beginning on day 2, an initial maintenance dose of 5 mg/day should be given.

A trough level should be obtained between days 5 and 7, and the daily dose of Rapamune should thereafter be adjusted [ see Dosage and Administration (2.5) ].

The starting dose of cyclosporine should be up to 7 mg/kg/day in divided doses and the dose should subsequently be adjusted to achieve target whole blood trough concentrations [ see Dosage and Administration (2.5) ].

Prednisone should be administered at a minimum of 5 mg/day.

Antibody induction therapy may be used.

2.4 Dosing in Patients with Lymphangioleiomyomatosis For patients with lymphangioleiomyomatosis, the initial Rapamune dose should be 2 mg/day.

Sirolimus whole blood trough concentrations should be measured in 10–20 days, with dosage adjustment to maintain concentrations between 5–15 ng/mL [ see Dosage and Administration (2.5) ].

In most patients, dose adjustments can be based on simple proportion: new Rapamune dose = current dose × (target concentration/current concentration).

Frequent Rapamune dose adjustments based on non-steady-state sirolimus concentrations can lead to overdosing or under dosing because sirolimus has a long half-life.

Once Rapamune maintenance dose is adjusted, patients should continue on the new maintenance dose for at least 7 to 14 days before further dosage adjustment with concentration monitoring.

Once a stable dose is achieved, therapeutic drug monitoring should be performed at least every three months.

2.5 Therapeutic Drug Monitoring Monitoring of sirolimus trough concentrations is recommended for all patients, especially in those patients likely to have altered drug metabolism, in patients ≥ 13 years who weigh less than 40 kg, in patients with hepatic impairment, when a change in the Rapamune dosage form is made, and during concurrent administration of strong CYP3A4 inducers and inhibitors [ see Drug Interactions (7) ].

Therapeutic drug monitoring should not be the sole basis for adjusting Rapamune therapy.

Careful attention should be made to clinical signs/symptoms, tissue biopsy findings, and laboratory parameters.

When used in combination with cyclosporine, sirolimus trough concentrations should be maintained within the target-range [ see Clinical Studies (14) , Clinical Pharmacology (12.3) ].

Following cyclosporine withdrawal in transplant patients at low- to moderate-immunologic risk, the target sirolimus trough concentrations should be 16 to 24 ng/mL for the first year following transplantation.

Thereafter, the target sirolimus concentrations should be 12 to 20 ng/mL.

The above recommended 24-hour trough concentration ranges for sirolimus are based on chromatographic methods.

Currently in clinical practice, sirolimus whole blood concentrations are being measured by both chromatographic and immunoassay methodologies.

Because the measured sirolimus whole blood concentrations depend on the type of assay used, the concentrations obtained by these different methodologies are not interchangeable [ see Warnings and Precautions (5.16) , Clinical Pharmacology (12.3) ].

Adjustments to the targeted range should be made according to the assay utilized to determine sirolimus trough concentrations.

Since results are assay and laboratory dependent, and the results may change over time, adjustments to the targeted therapeutic range must be made with a detailed knowledge of the site-specific assay used.

Therefore, communication should be maintained with the laboratory performing the assay.

A discussion of different assay methods is contained in Clinical Therapeutics, Volume 22, Supplement B, April 2000 [ see References (15) ].

2.6 Patients with Low Body Weight The initial dosage in patients ≥ 13 years who weigh less than 40 kg should be adjusted, based on body surface area, to 1 mg/m 2 /day.

The loading dose should be 3 mg/m 2 .

2.7 Patients with Hepatic Impairment It is recommended that the maintenance dose of Rapamune be reduced by approximately one third in patients with mild or moderate hepatic impairment and by approximately one half in patients with severe hepatic impairment.

It is not necessary to modify the Rapamune loading dose [ see Use in Specific Populations (8.6) , Clinical Pharmacology (12.3) ].

2.8 Patients with Renal Impairment Dosage adjustment is not needed in patients with impaired renal function [ see Use in Specific Populations (8.7) ].

2.9 Instructions for Dilution and Administration of Rapamune Oral Solution The amber oral dose syringe should be used to withdraw the prescribed amount of Rapamune Oral Solution from the bottle.

Empty the correct amount of Rapamune from the syringe into only a glass or plastic container holding at least two (2) ounces (1/4 cup, 60 mL) of water or orange juice.

No other liquids, including grapefruit juice, should be used for dilution [ see Drug Interactions (7.3) , Clinical Pharmacology (12.3) ].

Stir vigorously and drink at once.

Refill the container with an additional volume [minimum of four (4) ounces (1/2 cup, 120 mL)] of water or orange juice, stir vigorously, and drink at once.

Rapamune Oral Solution contains polysorbate 80, which is known to increase the rate of di-(2-ethylhexyl)phthalate (DEHP) extraction from polyvinyl chloride (PVC).

This should be considered during the preparation and administration of Rapamune Oral Solution.

It is important that these recommendations be followed closely.

Метотрексат 2,5 МГ В Таблетках для приема внутрь

WARNINGS

– SEE BOXED .

Methotrexate formulations and diluents containing preservatives must not be used for intrathecal or high dose methotrexate therapy.

DRUG INTERACTIONS

Drug Interactions Concomitant administration of some NSAIDs with high dose methotrexate therapy has been reported to elevate and prolong serum methotrexate levels, resulting in deaths from severe hematologic and gastrointestinal toxicity.

Caution should be used when NSAIDs and salicylates are administered concomitantly with lower doses of methotrexate.

These drugs have been reported to reduce the tubular secretion of methotrexate in an animal model and may enhance its toxicity.

Despite the potential interactions, studies of methotrexate in patients with rheumatoid arthritis have usually included concurrent use of constant dosage regimens of NSAIDs, without apparent problems.

It should be appreciated, however, that the doses used in rheumatoid arthritis (7.5 to 20 mg/wk) are somewhat lower than those used in psoriasis and that larger doses could lead to unexpected toxicity.

Methotrexate is partially bound to serum albumin, and toxicity may be increased because of displacement by certain drugs, such as salicylates, phenylbutazone, phenytoin, and sulfonamides.

Renal tubular transport is also diminished by probenecid; use of methotrexate with this drug should be carefully monitored.

Oral antibiotics such as tetracycline, chloramphenicol, and nonabsorbable broad spectrum antibiotics, may decrease intestinal absorption of methotrexate or interfere with the enterohepatic circulation by inhibiting bowel flora and suppressing metabolism of the drug by bacteria.

Penicillins may reduce the renal clearance of methotrexate; increased serum concentrations of methotrexate with concomitant hematologic and gastrointestinal toxicity have been observed with methotrexate.

Use of methotrexate with penicillins should be carefully monitored.

The potential for increased hepatotoxicity when methotrexate is administered with other hepatotoxic agents has not been evaluated.

However, hepatotoxicity has been reported in such cases.

Therefore, patients receiving concomitant therapy with methotrexate and other potential hepatotoxins (e.g., azathioprine, retinoids, sulfa-salazine) should be closely monitored for possible increased risk of hepatotoxicity.

Methotrexate may decrease the clearance of theophylline; theophylline levels should be monitored when used concurrently with methotrexate.

Certain side effects such as mouth sores may be reduced by folate supplementation with methotrexate.

Trimethoprim/sulfa-methoxazole has been reported rarely to increase bone marrow suppression in patients receiving methotrexate, probably by an additive antifolate effect.

The use of nitrous oxide anesthesia potentiates the effect of methotrexate on folate-dependent metabolic pathways, resulting in the potential for increased toxicity such as stomatitis, myelosuppression, and neurotoxicity.

Avoid concomitant nitrous oxide anesthesia in patients receiving methotrexate.

Use caution when administering methotrexate after a recent history of nitrous oxide administration.

OVERDOSAGE

Leucovorin is indicated to diminish the toxicity and counteract the effect of inadvertently administered overdosages of methotrexate.

Leucovorin administration should begin as promptly as possible.

As the time interval between methotrexate administration and leucovorin initiation increases, the effectiveness of leucovorin in counteracting toxicity decreases.

Monitoring of the serum methotrexate concentration is essential in determining the optimal dose and duration of treatment with leucovorin.

In cases of massive overdosage, hydration and urinary alkalinization may be necessary to prevent the precipitation of methotrexate and/or its metabolites in the renal tubules.

Generally speaking, neither hemodialysis nor peritoneal dialysis has been shown to improve methotrexate elimination.

However, effective clearance of methotrexate has been reported with acute, intermittent hemodialysis using a high-flux dialyzer (Wall, SM et al: Am J Kidney Dis28(6): 846-854, 1996).

In postmarketing experience, overdose with methotrexate has generally occurred with oral and intrathecal administration, although intravenous and intramuscular overdose have also been reported.

Reports of oral overdose often indicate accidental daily administration instead of weekly (single or divided doses).

Symptoms commonly reported following oral overdose include those symptoms and signs reported at pharmacologic doses, particularly hematologic and gastrointestinal reaction.

For example, leukopenia, thrombocytopenia, anemia, pancytopenia, bone marrow suppression, mucositis, stomatitis, oral ulceration, nausea, vomiting, gastrointestinal ulceration, gastrointestinal bleeding.

In some cases, no symptoms were reported.

There have been reports of death following overdose.

In these cases, events such as sepsis or septic shock, renal failure, and aplastic anemia were also reported.

DESCRIPTION

Methotrexate, USP (formerly Amethopterin) is an antimetabolite used in the treatment of certain neoplastic diseases, severe psoriasis, and adult rheumatoid arthritis.

Chemically methotrexate is N -[4-[[(2,4-diamino-6-pteridinyl)methyl]methylamino]benzoyl]-L-glutamic acid.

The structural formula is: C 20 H 22 N 8 O 5 M.W.

454.45 Methotrexate Tablets USP for oral administration, are available in bottles of 36 and 100.

Methotrexate Tablets USP contain an amount of methotrexate sodium equivalent to 2.5 mg of methotrexate, USP.

Inactive Ingredients: Hydroxypropyl methylcellulose, lactose anhydrous, magnesium stearate, microcrystalline cellulose, polyethylene glycol, pregelatinized corn starch, propylene glycol, sodium carbonate monohydrate and talc.

structural formula

HOW SUPPLIED

Product: 50090-2345 NDC: 50090-2345-9 36 TABLET in a BOTTLE

GERIATRIC USE

Geriatric Use Clinical studies of methotrexate did not include sufficient numbers of subjects age 65 and over to determine whether they respond differently from younger subjects.

In general, dose selection for an elderly patient should be cautious reflecting the greater frequency of decreased hepatic and renal function, decreased folate stores, concomitant disease or other drug therapy (i.e.

that interfere with renal function, methotrexate or folate metabolism) in this population (See PRECAUTIONS , Drug Interactions .) Since decline in renal function may be associated with increases in adverse events and serum creatinine measurements may over estimate renal function in the elderly, more accurate methods (i.e., creatine clearance) should be considered.

Serum methotrexate levels may also be helpful.

Elderly patients should be closely monitored for early signs of hepatic, bone marrow and renal toxicity.

In chronic use situations, certain toxicities may be reduced by folate supplementation.

Post-marketing experience suggests that the occurrence of bone marrow suppression, thrombocytopenia, and pneumonitis may increase with age.

See Boxed WARNINGS and ADVERSE REACTIONS .

INDICATIONS AND USAGE

Neoplastic Diseases Methotrexate is indicated in the treatment of gestational choriocarcinoma, chorioadenoma destruens and hydatidiform mole.

Methotrexate is used in maintenance therapy in combination with other chemotherapeutic agents.

Methotrexate is used alone or in combination with other anticancer agents in the treatment of breast cancer, epidermoid cancers of the head and neck, advanced mycosis fungoides (cutaneous T cell lymphoma), and lung cancer, particularly squamous cell and small cell types.

Methotrexate is also used in combination with other chemotherapeutic agents in the treatment of advanced stage non-Hodgkin’s lymphomas.

Psoriasis Methotrexate is indicated in the symptomatic control of severe, recalcitrant, disabling psoriasis that is not adequately responsive to other forms of therapy, but only when the diagnosis has been established, as by biopsy and/or after dermatologic consultation .

It is important to ensure that a psoriasis “flare” is not due to an undiagnosed concomitant disease affecting immune responses.

Rheumatoid Arthritis including Polyarticular-Course Juvenile Rheumatoid Arthritis Methotrexate is indicated in the management of selected adults with severe, active, rheumatoid arthritis (ACR criteria), or children with active polyarticular-course juvenile rheumatoid arthritis, who have had an insufficient therapeutic response to, or are intolerant of, an adequate trial of first-line therapy including full dose non-steroidal anti-inflammatory agents (NSAIDs).

Aspirin, NSAIDs, and/or low dose steroids may be continued, although the possibility of increased toxicity with concomitant use of NSAIDs including salicylates has not been fully explored.

(See PRECAUTIONS , Drug Interactions .) Steroids may be reduced gradually in patients who respond to methotrexate.

Combined use of methotrexate with gold, penicillamine, hydroxychloroquine, sulfasalazine, or cytotoxic agents, has not been studied and may increase the incidence of adverse effects.

Rest and physiotherapy as indicated should be continued.

PEDIATRIC USE

Pediatric Use Safety and effectiveness in pediatric patients have been established only in cancer chemotherapy and in polyarticular-course juvenile rheumatoid arthritis.

Published clinical studies evaluating the use of methotrexate in children and adolescents (i.e., patients 2 to 16 years of age) with JRA demonstrated safety comparable to that observed in adults with rheumatoid arthritis.

(See CLINICAL PHARMACOLOGY , ADVERSE REACTIONS and DOSAGE AND ADMINISTRATION .)

PREGNANCY

Pregnancy Psoriasis and rheumatoid arthritis: Methotrexate is in Pregnancy Category X.

See CONTRAINDICATIONS .

NUSRING MOTHERS

Nursing Mothers See CONTRAINDICATIONS .

BOXED WARNING

WARNINGS METHOTREXATE SHOULD BE USED ONLY BY PHYSICIANS WHOSE KNOWLEDGE AND EXPERIENCE INCLUDE THE USE OF ANTIMETABOLITE THERAPY BECAUSE OF THE POSSIBILITY OF SERIOUS TOXIC REACTIONS (WHICH CAN BE FATAL): METHOTREXATE SHOULD BE USED ONLY IN LIFE THREATENING NEOPLASTIC DISEASES, OR IN PATIENTS WITH PSORIASIS OR RHEUMATOID ARTHRITIS WITH SEVERE, RECALCITRANT, DISABLING DISEASE WHICH IS NOT ADEQUATELY RESPONSIVE TO OTHER FORMS OF THERAPY.

DEATHS HAVE BEEN REPORTED WITH THE USE OF METHOTREXATE IN THE TREATMENT OF MALIGNANCY, PSORIASIS, AND RHEUMATOID ARTHRITIS.

PATIENTS SHOULD BE CLOSELY MONITORED FOR BONE MARROW, LIVER, LUNG AND KIDNEY TOXICITIES.

(See PRECAUTIONS .) PATIENTS SHOULD BE INFORMED BY THEIR PHYSICIAN OF THE RISKS INVOLVED AND BE UNDER A PHYSICIAN’S CARE THROUGHOUT THERAPY.

Methotrexate has been reported to cause fetal death and/or congenital anomalies.

Therefore, it is not recommended for women of childbearing potential unless there is clear medical evidence that the benefits can be expected to outweigh the considered risks.

Pregnant women with psoriasis or rheumatoid arthritis should not receive methotrexate.

(See CONTRAINDICATIONS .) Methotrexate elimination is reduced in patients with impaired renal function, ascites, or pleural effusions.

Such patients require especially careful monitoring for toxicity, and require dose reduction or, in some cases, discontinuation of methotrexate administration.

Unexpectedly severe (sometimes fatal) bone marrow suppression, aplastic anemia, and gastrointestinal toxicity have been reported with concomitant administration of methotrexate (usually in high dosage) along with some non-steroidal anti-inflammatory drugs (NSAIDs).

(See PRECAUTIONS , Drug Interactions .) Methotrexate causes hepatotoxicity, fibrosis and cirrhosis, but generally only after prolonged use.

Acutely, liver enzyme elevations are frequently seen.

These are usually transient and asymptomatic, and also do not appear predictive of subsequent hepatic disease.

Liver biopsy after sustained use often shows histologic changes, and fibrosis and cirrhosis have been reported; these latter lesions may not be preceded by symptoms or abnormal liver function tests in the psoriasis population.

For this reason, periodic liver biopsies are usually recommended for psoriatic patients who are under long-term treatment.

Persistent abnormalities in liver function tests may precede appearance of fibrosis or cirrhosis in the rheumatoid arthritis population.

(See PRECAUTIONS , Organ System Toxicity , Hepatic .) Methotrexate-induced lung disease is a potentially dangerous lesion, which may occur acutely at any time during therapy and which has been reported at doses as low as 7.5 mg/week.

It is not always fully reversible.

Pulmonary symptoms (especially a dry, nonproductive cough) may require interruption of treatment and careful investigation.

Diarrhea and ulcerative stomatitis require interruption of therapy; otherwise, hemorrhagic enteritis and death from intestinal perforation may occur.

Malignant lymphomas, which may regress following withdrawal of methotrexate, may occur in patients receiving low-dose methotrexate and, thus, may not require cytotoxic treatment.

Discontinue methotrexate first and, if the lymphoma does not regress, appropriate treatment should be instituted.

Like other cytotoxic drugs, methotrexate may induce “tumor lysis syndrome” in patients with rapidly growing tumors.

Appropriate supportive and pharmacologic measures may prevent or alleviate this complication.

Severe, occasionally fatal, skin reactions have been reported following single or multiple doses of methotrexate.

Reactions have occurred within days of oral, intramuscular, intravenous, or intrathecal methotrexate administration.

Recovery has been reported with discontinuation of therapy.

(See PRECAUTIONS , Organ System Toxicity , Skin ).

Potentially fatal opportunistic infections, especially Pneumocystis carinii pneumonia, may occur with methotrexate therapy.

Methotrexate given concomitantly with radiotherapy may increase the risk of soft tissue necrosis and osteonecrosis.

INFORMATION FOR PATIENTS

Information for Patients Patients should be informed of the early signs and symptoms of toxicity, of the need to see their physician promptly if they occur, and the need for close follow-up, including periodic laboratory tests to monitor toxicity.

Both the physician and pharmacist should emphasize to the patient that the recommended dose is taken weekly in rheumatoid arthritis and psoriasis, and that mistaken daily use of the recommended dose has led to fatal toxicity.

Patients should be encouraged to read the Patient Instructions sheet within the Dose Pack.

Prescriptions should not be written or refilled on a PRN basis.

Patients should be informed of the potential benefit and risk in the use of methotrexate.

The risk of effects on reproduction should be discussed with both male and female patients taking methotrexate.

DOSAGE AND ADMINISTRATION

Neoplastic Diseases Oral administration in tablet form is often preferred when low doses are being administered since absorption is rapid and effective serum levels are obtained.

Choriocarcinoma and similar trophoblastic diseases: Methotrexate is administered orally or intramuscularly in doses of 15 to 30 mg daily for a five-day course.

Such courses are usually repeated for 3 to 5 times as required, with rest periods of one or more weeks interposed between courses, until any manifesting toxic symptoms subside.

The effectiveness of therapy is ordinarily evaluated by 24 hour quantitative analysis of urinary chorionic gonadotropin (hCG), which should return to normal or less than 50 IU/24 hr usually after the third or fourth course and usually be followed by a complete resolution of measurable lesions in 4 to 6 weeks.

One to two courses of methotrexate after normalization of hCG is usually recommended.

Before each course of the drug careful clinical assessment is essential.

Cyclic combination therapy of methotrexate with other antitumor drugs has been reported as being useful.

Since hydatidiform mole may precede choriocarcinoma, prophylactic chemotherapy with methotrexate has been recommended.

Chorioadenoma destruens is considered to be an invasive form of hydatidiform mole.

Methotrexate is administered in these disease states in doses similar to those recommended for choriocarcinoma.

Leukemia: Acute lymphoblastic leukemia in pediatric patients and young adolescents is the most responsive to present day chemotherapy.

In young adults and older patients, clinical remission is more difficult to obtain and early relapse is more common.

Methotrexate alone or in combination with steroids was used initially for induction of remission in acute lymphoblastic leukemias.

More recently corticosteroid therapy, in combination with other antileukemic drugs or in cyclic combinations with methotrexate included, has appeared to produce rapid and effective remissions.

When used for induction, methotrexate in doses of 3.3 mg/m 2 in combination with 60 mg/m 2 of prednisone, given daily, produced remissions in 50% of patients treated, usually within a period of 4 to 6 weeks.

Methotrexate in combination with other agents appears to be the drug of choice for securing maintenance of drug-induced remissions.

When remission is achieved and supportive care has produced general clinical improvement, maintenance therapy is initiated, as follows: Methotrexate is administered 2 times weekly either by mouth or intramuscularly in total weekly doses of 30 mg/m 2 .

It has also been given in doses of 2.5 mg/kg intravenously every 14 days.

If and when relapse does occur, reinduction of remission can again usually be obtained by repeating the initial induction regimen.

A variety of combination chemotherapy regimens have been used for both induction and maintenance therapy in acute lymphoblastic leukemia.

The physician should be familiar with the new advances in antileukemic therapy.

Lymphomas: In Burkitt’s tumor, Stages I-II, methotrexate has produced prolonged remissions in some cases.

Recommended dosage is 10 to 25 mg/day orally for 4 to 8 days.

In Stage III, methotrexate is commonly given concomitantly with other anti-tumor agents.

Treatment in all stages usually consists of several courses of the drug interposed with 7 to 10 day rest periods.

Lymphosarcomas in Stage III may respond to combined drug therapy with methotrexate given in doses of 0.625 to 2.5 mg/kg daily.

Mycosis Fungoides (cutaneous T cell lymphoma): Therapy with methotrexate as a single agent appears to produce clinical responses in up to 50% of patients treated.

Dosage in early stages is usually 5 to 50 mg once weekly.

Dose reduction or cessation is guided by patient response and hematologic monitoring.

Methotrexate has also been administered twice weekly in doses ranging from 15 to 37.5 mg in patients who have responded poorly to weekly therapy.

Psoriasis, Rheumatoid Arthritis, and Juvenile Rheumatoid Arthritis Adult Rheumatoid Arthritis: Recommended Starting Dosage Schedules 1.

Single oral doses of 7.5 mg once weekly.

2.

Divided oral dosages of 2.5 mg at 12 hour intervals for 3 doses given as a course once weekly.

Polyarticular-Course Juvenile Rheumatoid Arthritis: The recommended starting dose is 10 mg/m 2 given once weekly.

For either adult RA or polyarticular-course JRA dosages may be adjusted gradually to achieve an optimal response.

Limited experience shows a significant increase in the incidence and severity of serious toxic reactions, especially bone marrow suppression, at doses greater than 20 mg/wk in adults.

Although there is experience with doses up to 30 mg/m 2 /wk in children, there are too few published data to assess how doses over 20 mg/m 2 /wk might affect the risk of serious toxicity in children.

Experience does suggest, however, that children receiving 20 to 30 mg/m 2 /wk (0.65 to 1.0 mg/kg/wk) may have better absorption and fewer gastrointestinal side effects if methotrexate is administered either intramuscularly or subcutaneously.

Therapeutic response usually begins within 3 to 6 weeks and the patient may continue to improve for another 12 weeks or more.

The optimal duration of therapy is unknown.

Limited data available from long-term studies in adults indicate that the initial clinical improvement is maintained for at least two years with continued therapy.

When methotrexate is discontinued, the arthritis usually worsens within 3 to 6 weeks.

The patient should be fully informed of the risks involved and should be under constant supervision of the physician.

(See Information for Patients under PRECAUTIONS .) Assessment of hematologic, hepatic, renal, and pulmonary function should be made by history, physical examination, and laboratory tests before beginning, periodically during, and before reinstituting methotrexate therapy.

(See PRECAUTIONS .) Appropriate steps should be taken to avoid conception during methotrexate therapy.

(See PRECAUTIONS and CONTRAINDICATIONS .) All schedules should be continually tailored to the individual patient.

An initial test dose may be given prior to the regular dosing schedule to detect any extreme sensitivity to adverse effects.

(See ADVERSE REACTIONS .) Maximal myelosuppression usually occurs in seven to ten days.

Psoriasis: Recommended Starting Dose Schedules 1.

Weekly single oral, IM or IV dose schedule: 10 to 25 mg per week until adequate response is achieved.

2.

Divided oral dose schedule: 2.5 mg at 12-hour intervals for three doses.

Dosages in each schedule may be gradually adjusted to achieve optimal clinical response; 30 mg/week should not ordinarily be exceeded.

Once optimal clinical response has been achieved, each dosage schedule should be reduced to the lowest possible amount of drug and to the longest possible rest period.

The use of methotrexate may permit the return to conventional topical therapy, which should be encouraged.