Tuesday 27 March 2012

Omeprazole 10 mg gastro-resistant capsules





1. Name Of The Medicinal Product



Omeprazole 10 mg gastro-resistant capsules, hard


2. Qualitative And Quantitative Composition



Omeprazole 10 mg: one capsule contains 10 mg of omeprazole.



Excipient: Lactose monohydrate.



Each 10 mg capsule contains 1 mg of lactose monohydrate



For a full list of excipients, see section 6.1.



3. Pharmaceutical Form



Gastro-resistant capsule, hard



Pink / Pink, size '3' hard gelatin capsules imprinted with 'E' on pink cap and '65' on pink body with black ink filled with white to off-white granules covered with a gastro-resistant coating.



4. Clinical Particulars



4.1 Therapeutic Indications



Omeprazole capsules are indicated for:



Adults



• Treatment of duodenal ulcers



• Prevention of relapse of duodenal ulcers



• Treatment of gastric ulcers



• Prevention of relapse of gastric ulcers



• In combination with appropriate antibiotics, Helicobacter pylori (H. pylori) eradication in peptic ulcer disease



• Treatment of NSAID-associated gastric and duodenal ulcers



• Prevention of NSAID-associated gastric and duodenal ulcers in patients at risk



• Treatment of reflux esophagitis



• Long-term management of patients with healed reflux esophagitis



• Treatment of symptomatic gastro-esophageal reflux disease



• Treatment of Zollinger-Ellison syndrome



Paediatric use



Children over 1 year of age and



• Treatment of reflux esophagitis



• Symptomatic treatment of heartburn and acid regurgitation in gastro-esophageal reflux disease



Children and adolescents over 4 years of age



• In combination with antibiotics in treatment of duodenal ulcer caused by H. pylori



4.2 Posology And Method Of Administration



Posology in adults



Treatment of duodenal ulcers



The recommended dose in patients with an active duodenal ulcer is 20 mg omeprazole once daily. In most patients healing occurs within two weeks. For those patients who may not be fully healed after the initial course, healing usually occurs during a further two weeks treatment period. In patients with poorly responsive duodenal ulcer 40 mg omeprazole once daily is recommended and healing is usually achieved within four weeks.



Prevention of relapse of duodenal ulcers



For the prevention of relapse of duodenal ulcer in H. pylori negative patients or when H. pylori eradication is not possible the recommended dose is 20 mg omeprazole once daily. In some patients a daily dose of 10 mg may be sufficient. In case of therapy failure, the dose can be increased to 40 mg.



Treatment of gastric ulcers



The recommended dose is 20 mg omeprazole once daily. In most patients healing occurs within four weeks. For those patients who may not be fully healed after the initial course, healing usually occurs during a further four weeks treatment period. In patients with poorly responsive gastric ulcer 40 mg omeprazole once daily is recommended and healing is usually achieved within eight weeks.



Prevention of relapse of gastric ulcers



For the prevention of relapse in patients with poorly responsive gastric ulcer the recommended dose is 20 mg omeprazole once daily. If needed the dose can be increased to 40 mg omeprazole once daily.



H. pylori eradication in peptic ulcer disease



For the eradication of H. pylori the selection of antibiotics should consider the individual patient's drug tolerance, and should be undertaken in accordance with national, regional and local resistance patterns and treatment guidelines.



• omeprazole 20 mg + clarithromycin 500 mg + amoxicillin 1,000 mg, each twice daily for one week, or



• omeprazole 20 mg + clarithromycin 250 mg (alternatively 500 mg) + metronidazole 400 mg (or 500 mg or tinidazole 500 mg), each twice daily for one week or



• omeprazole 40 mg once daily with amoxicillin 500 mg and metronidazole 400 mg (or 500 mg or tinidazole 500 mg), both three times a day for one week.



In each regimen, if the patient is still H. pylori positive, therapy may be repeated.



Treatment of NSAID-associated gastric and duodenal ulcers



For the treatment of NSAID-associated gastric and duodenal ulcers, the recommended dose is 20 mg omeprazole once daily. In most patients healing occurs within four weeks. For those patients who may not be fully healed after the initial course, healing usually occurs during a further four weeks treatment period.



Prevention of NSAID-associated gastric and duodenal ulcers in patients at risk



For the prevention of NSAID-associated gastric ulcers or duodenal ulcers in patients at risk (age > 60, previous history of gastric and duodenal ulcers, previous history of upper GI bleeding) the recommended dose is 20 mg omeprazole once daily.



Treatment of reflux esophagitis



The recommended dose is 20 mg omeprazole once daily. In most patients healing occurs within four weeks. For those patients who may not be fully healed after the initial course, healing usually occurs during a further four weeks treatment period.



In patients with severe esophagitis 40 mg omeprazole once daily is recommended and healing is usually achieved within eight weeks.



Long-term management of patients with healed reflux esophagitis



For the long-term management of patients with healed reflux esophagitis the recommended dose is 10 mg omeprazole once daily. If needed, the dose can be increased to 20-40 mg omeprazole once daily.



Treatment of symptomatic gastro-esophageal reflux disease



The recommended dose is 20 mg omeprazole daily. Patients may respond adequately to 10 mg daily, and therefore individual dose adjustment should be considered.



If symptom control has not been achieved after four weeks treatment with 20 mg omeprazole daily, further investigation is recommended.



Treatment of Zollinger-Ellison syndrome



In patients with Zollinger-Ellison syndrome the dose should be individually adjusted and treatment continued as long as clinically indicated. The recommended initial dose is 60 mg omeprazole daily. All patients with severe disease and inadequate response to other therapies have been effectively controlled and more than 90% of the patients maintained on doses of 20-120 mg omeprazole daily. When the dose exceeds 80 mg omeprazole daily, the dose should be divided and given twice daily.



Posology in children



Children over 1 year of age and



Treatment of reflux esophagitis



Symptomatic treatment of heartburn and acid regurgitation in gastro-esophageal reflux disease



The posology recommendations are as follows:













Age




Weight




Posology







10-20 kg




10 mg once daily. The dose can be increased to 20 mg once daily if needed







> 20 kg




20 mg once daily. The dose can be increased to 40 mg once daily if needed



Reflux esophagitis: The treatment time is 4-8 weeks.



Symptomatic treatment of heartburn and acid regurgitation in gastro-esophageal reflux disease: The treatment time is 2–4 weeks. If symptom control has not been achieved after 2–4 weeks the patient should be investigated further.



Children and adolescents over 4 years of age



Treatment of duodenal ulcer caused by H. pylori



When selecting appropriate combination therapy, consideration should be given to official national, regional and local guidance regarding bacterial resistance, duration of treatment (most commonly 7 days but sometimes up to 14 days), and appropriate use of antibacterial agents.



The treatment should be supervised by a specialist.



The posology recommendations are as follows:












Weight




Posology




15–30 kg




Combination with two antibiotics: omeprazole 10 mg, amoxicillin 25 mg/kg body weight and clarithromycin 7.5 mg/kg body weight are all administrated together two times daily for one week.




31–40 kg




Combination with two antibiotics: omeprazole 20 mg, amoxicillin 750 mg and clarithromycin 7.5 mg/kg body weight are all administrated two times daily for one week.




> 40 kg




Combination with two antibiotics: omeprazole 20 mg, amoxicillin 1 g and clarithromycin 500 mg are all administrated two times daily for one week.



Special populations



Impaired renal function



Dose adjustment is not needed in patients with impaired renal function (see section 5.2).



Impaired hepatic function



In patients with impaired hepatic function a daily dose of 10–20 mg may be sufficient (see section 5.2).



Elderly (> 65 years old)



Dose adjustment is not needed in the elderly (see section 5.2).



Method of administration



It is recommended to take omeprazole capsules in the morning, preferably without food, swallowed whole with half a glass of water. The capsules must not be chewed or crushed.



For patients with swallowing difficulties and for children who can drink or swallow semi-solid food



Patients can open the capsule and swallow the contents with half a glass of water or after mixing the contents in a slightly acidic fluid e.g., fruit juice or applesauce, or in non-carbonated water. Patients should be advised that the dispersion should be taken immediately (or within 30 minutes) and always be stirred just before drinking and rinsed down with half a glass of water.



Alternatively patients can suck the capsule and swallow the pellets with half a glass of water. The enteric-coated pellets must not be chewed.



4.3 Contraindications



Hypersensitivity to omeprazole, substituted benzimidazoles or to any of the excipients.



Omeprazole like other proton pump inhibitors (PPIs) must not be used concomitantly with nelfinavir (see section 4.5).



4.4 Special Warnings And Precautions For Use



In the presence of any alarm symptom (e.g. significant unintentional weight loss, recurrent vomiting, dysphagia, haematemesis or melena) and when gastric ulcer is suspected or present, malignancy should be excluded, as treatment may alleviate symptoms and delay diagnosis.



Co-administration of atazanavir with proton pump inhibitors is not recommended (see section 4.5). If the combination of atazanavir with a proton pump inhibitor is judged unavoidable, close clinical monitoring (e.g virus load) is recommended in combination with an increase in the dose of atazanavir to 400 mg with 100 mg of ritonavir; omeprazole 20 mg should not be exceeded.



Omeprazole, as all acid-blocking medicines, may reduce the absorption of vitamin B12 (cyanocobalamin) due to hypo- or achlorhydria. This should be considered in patients with reduced body stores or risk factors for reduced vitamin B12 absorption on long-term therapy.



Omeprazole is a CYP2C19 inhibitor. When starting or ending treatment with omeprazole, the potential for interactions with drugs metabolised through CYP2C19 should be considered. An interaction is observed between clopidogrel and omeprazole (see section 4.5). The clinical relevance of this interaction is uncertain. As a precaution, concomitant use of omeprazole and clopidogrel should be discouraged.



Some children with chronic illnesses may require long-term treatment although it is not recommended.



Treatment with proton pump inhibitors may lead to slightly increased risk of gastrointestinal infections such as Salmonella and Campylobacter (see section 5.1).



As in all long-term treatments, especially when exceeding a treatment period of 1 year, patients should be kept under regular surveillance.



This medicinal product contains lactose. Therefore patients with rare hereditary problems of galactose intolerance, the Lapp lactase deficiency or glucose-galactose malabsorption should not take this medicine.



4.5 Interaction With Other Medicinal Products And Other Forms Of Interaction



Effects of omeprazole on the pharmacokinetics of other active substances



Active substances with pH dependent absorption



The decreased intragastric acidity during treatment with omeprazole might increase or decrease the absorption of active substances with a gastric pH dependent absorption.



Nelfinavir, atazanavir



The plasma levels of nelfinavir and atazanavir are decreased in case of co-administration with omeprazole.



Concomitant administration of omeprazole with nelfinavir is contraindicated (see section 4.3). Co-administration of omeprazole (40 mg once daily) reduced mean nelvinavir exposure by ca. 40% and the mean exposure of the pharmacologically active metabolite M8 was reduced by ca. 75 –90%. The interaction may also involve CYP2C19 inhibition.



Concomitant administration of omeprazole with atazanavir is not recommended (see section 4.4). Concomitant administration of omeprazole (40 mg once daily) and atazanavir 300 mg/ritonavir 100 mg to healthy volunteers resulted in a 75% decrease of the atazanavir exposure. Increasing the atazanavir dose to 400 mg did not compensate for the impact of omeprazole on atazanavir exposure. The co-administration of omeprazole (20 mg once daily) with atazanavir 400 mg/ritonavir 100 mg to healthy volunteers resulted in a decrease of approximately 30% in the atazanavir exposure as compared to atazanavir 300 mg/ritonavir 100 mg once daily.



Digoxin



Concomitant treatment with omeprazole (20 mg daily) and digoxin in healthy subjects increased the bioavailability of digoxin by 10%. Digoxin toxicity has been rarely reported. However caution should be exercised when omeprazole is given at high doses in elderly patients. Therapeutic drug monitoring of digoxin should be then reinforced.



Clopidogrel



In a crossover clinical study, clopidogrel (300 mg loading dose followed by 75 mg/day) alone and with omeprazole (80 mg at the same time as clopidogrel) were administered for 5 days. The exposure to the active metabolite of clopidogrel was decreased by 46% (Day 1) and 42% (Day 5) when clopidogrel and omeprazole were administered together. Mean inhibition of platelet aggregation (IPA) was diminished by 47% (24 hours) and 30% (Day 5) when clopidogrel and omeprazole were administered together. In another study it was shown that administering clopidogrel and omeprazole at different times did not prevent their interaction that is likely to be driven by the inhibitory effect of omeprazole on CYP2C19. Inconsistent data on the clinical implications of this PK/PD interaction in terms of major cardiovascular events have been reported from observational and clinical studies.



Other active substances



The absorption of posaconazole, erlotinib, ketoconazol and itraconazol is significantly reduced and thus clinical efficacy may be impaired. For posaconazole and erlotinib concomitant use should be avoided.



Active substances metabolised by CYP2C19



Omeprazole is a moderate inhibitor of CYP2C19, the major omeprazole metabolising enzyme. Thus, the metabolism of concomitant active substances also metabolised by CYP2C19, may be decreased and the systemic exposure to these substances increased. Examples of such drugs are R-warfarin and other vitamin K antagonists, cilostazol, diazepam and phenytoin.



Cilostazol



Omeprazole, given in doses of 40 mg to healthy subjects in a cross-over study, increased Cmax and AUC for cilostazol by 18% and 26% respectively, and one of its active metabolites by 29% and 69% respectively.



Phenytoin



Monitoring phenytoin plasma concentration is recommended during the first two weeks after initiating omeprazole treatment and, if a phenytoin dose adjustment is made, monitoring and a further dose adjustment should occur upon ending omeprazole treatment.



Unknown mechanism



Saquinavir



Concomitant administration of omeprazole with saquinavir/ritonavir resulted in increased plasma levels up to approximately 70% for saquinavir associated with good tolerability in HIV-infected patients.



Tacrolimus



Concomitant administration of omeprazole has been reported to increase the serum levels of tacrolimus. A reinforced monitoring of tacrolimus concentrations as well as renal function (creatinine clearance) should be performed, and dosage of tacrolimus adjusted if needed.



Effects of other active substances on the pharmacokinetics of omeprazole



Inhibitors CYP2C19 and/or CYP3A4



Since omeprazole is metabolised by CYP2C19 and CYP3A4, active substances known to inhibit CYP2C19 or CYP3A4 (such as clarithromycin and voriconazole) may lead to increased omeprazole serum levels by decreasing omeprazole's rate of metabolism. Concomitant voriconazole treatment resulted in more than doubling of the omeprazole exposure. As high doses of omeprazole have been well-tolerated adjustment of the omeprazole dose is not generally required. However, dose adjustment should be considered in patients with severe hepatic impairment and if long-term treatment is indicated.



Inducers of CYP2C19 and/or CYP3A4



Active substances known to induce CYP2C19 or CYP3A4 or both (such as rifampicin and St John's wort) may lead to decreased omeprazole serum levels by increasing omeprazole's rate of metabolism.



4.6 Pregnancy And Lactation



Results from three prospective epidemiological studies (more than 1000 exposed outcomes) indicate no adverse effects of omeprazole on pregnancy or on the health of the foetus/newborn child. Omeprazole can be used during pregnancy.



Omeprazole is excreted in breast milk but is not likely to influence the child when therapeutic doses are used.



4.7 Effects On Ability To Drive And Use Machines



Omeprazole is not likely to affect the ability to drive or use machines. Adverse drug reactions such as dizziness and visual disturbances may occur (see section 4.8). If affected, patients should not drive or operate machinery.



4.8 Undesirable Effects



The most common side effects (1-10% of patients) are headache, abdominal pain, constipation, diarrhoea, flatulence and nausea/vomiting.



The following adverse drug reactions have been identified or suspected in the clinical trials programme for omeprazole and post-marketing. None was found to be dose-related. Adverse reactions listed below are classified according to frequency and System Organ Class (SOC). Frequency categories are defined according to the following convention: Very common (




























































































SOC/frequency




Adverse reaction




Blood and lymphatic system disorders


 


Rare:




Leukopenia, thrombocytopenia




Very rare:




Agranulocytosis, pancytopenia




Immune system disorders


 


Rare:




Hypersensitivity reactions e.g. fever, angioedema and anaphylactic reaction/shock




Metabolism and nutrition disorders


 


Rare:




Hyponatraemia




Very rare:




Hypomagnesaemia




Psychiatric disorders


 


Uncommon:




Insomnia




Rare:




Agitation, confusion, depression




Very rare:




Aggression, hallucinations




Nervous system disorders


 


Common:




Headache




Uncommon:




Dizziness, paraesthesia, somnolence




Rare:




Taste disturbance




Eye disorders


 


Rare:




Blurred vision




Ear and labyrinth disorders


 


Uncommon:




Vertigo




Respiratory, thoracic and mediastinal disorders


 


Rare:




Bronchospasm




Gastrointestinal disorders


 


Common:




Abdominal pain, constipation, diarrhoea, flatulence, nausea/vomiting




Rare:




Dry mouth, stomatitis, gastrointestinal candidiasis




Hepatobiliary disorders


 


Uncommon:




Increased liver enzymes




Rare:




Hepatitis with or without jaundice




Very rare:




Hepatic failure, encephalopathy in patients with pre-existing liver disease




Skin and subcutaneous tissue disorders


 


Uncommon:




Dermatitis, pruritus, rash, urticaria




Rare:




Alopecia, photosensitivity




Very rare:




Erythema multiforme, Stevens-Johnson syndrome, toxic epidermal necrolysis (TEN)




Musculoskeletal and connective tissue disorders


 


Rare:




Arthralgia, myalgia




Very rare:




Muscular weakness




Renal and urinary disorders


 


Rare:




Interstitial nephritis




Reproductive system and breast disorders


 


Very rare:




Gynaecomastia




General disorders and administration site conditions


 


Uncommon:




Malaise, peripheral oedema




Rare:




Increased sweating



Paediatric population



The safety of omeprazole has been assessed in a total of 310 children aged 0 to 16 years with acid-related disease. There are limited long term safety data from 46 children who received maintenance therapy of omeprazole during a clinical study for severe erosive esophagitis for up to 749 days. The adverse event profile was generally the same as for adults in short- as well as in long-term treatment. There are no long term data regarding the effects of omeprazole treatment on puberty and growth.



4.9 Overdose



There is limited information available on the effects of overdoses of omeprazole in humans. In the literature, doses of up to 560 mg have been described, and occasional reports have been received when single oral doses have reached up to 2,400 mg omeprazole (120 times the usual recommended clinical dose). Nausea, vomiting, dizziness, abdominal pain, diarrhoea and headache have been reported. Also apathy, depression and confusion have been described in single cases.



The symptoms described have been transient, and no serious outcome has been reported. The rate of elimination was unchanged (first order kinetics) with increased doses. Treatment, if needed, is symptomatic.



5. Pharmacological Properties



5.1 Pharmacodynamic Properties



Pharmacotherapeutic group: Drugs for peptic ulcer and gastro-oesophageal reflux disease, proton pump inhibitors, ATC code: A02BC01



Mechanism of action



Omeprazole, a racemic mixture of two enantiomers reduces gastric acid secretion through a highly targeted mechanism of action. It is a specific inhibitor of the acid pump in the parietal cell. It is rapidly acting and provides control through reversible inhibition of gastric acid secretion with once daily dosing.



Omeprazole is a weak base and is concentrated and converted to the active form in the highly acidic environment of the intracellular canaliculi within the parietal cell, where it inhibits the enzyme H+ K+-ATPase - the acid pump. This effect on the final step of the gastric acid formation process is dose-dependent and provides for highly effective inhibition of both basal acid secretion and stimulated acid secretion, irrespective of stimulus.



Pharmacodynamic effects



All pharmacodynamic effects observed can be explained by the effect of omeprazole on acid secretion.



Effect on gastric acid secretion



Oral dosing with omeprazole once daily provides for rapid and effective inhibition of daytime and night-time gastric acid secretion with maximum effect being achieved within 4 days of treatment. With omeprazole 20 mg, a mean decrease of at least 80% in 24-hour intragastric acidity is then maintained in duodenal ulcer patients, with the mean decrease in peak acid output after pentagastrin stimulation being about 70% 24 hours after dosing.



Oral dosing with omeprazole 20 mg maintains an intragastric pH of



As a consequence of reduced acid secretion and intragastric acidity, omeprazole dose-dependently reduces/normalizes acid exposure of the esophagus in patients with gastro-esophageal reflux disease. The inhibition of acid secretion is related to the area under the plasma concentration-time curve (AUC) of omeprazole and not to the actual plasma concentration at a given time.



No tachyphylaxis has been observed during treatment with omeprazole.



Effect on H. pylori



H. pylori is associated with peptic ulcer disease, including duodenal and gastric ulcer disease. H. pylori is a major factor in the development of gastritis. H. pylori together with gastric acid are major factors in the development of peptic ulcer disease. H. pylori is a major factor in the development of atrophic gastritis which is associated with an increased risk of developing gastric cancer.



Eradication of H. pylori with omeprazole and antimicrobials is associated with high rates of healing and long-term remission of peptic ulcers.



Dual therapies have been tested and found to be less effective than triple therapies. They could, however, be considered in cases where known hypersensitivity precludes use of any triple combination.



Other effects related to acid inhibition



During long-term treatment gastric glandular cysts have been reported in a somewhat increased frequency. These changes are a physiological consequence of pronounced inhibition of acid secretion, are benign and appear to be reversible.



Decreased gastric acidity due to any means including proton pump inhibitors, increases gastric counts of bacteria normally present in the gastrointestinal tract. Treatment with acid-reducing drugs may lead to slightly increased risk of gastrointestinal infections such as Salmonella and Campylobacter.



Paediatric use



In a non-controlled study in children (1 to 16 years of age) with severe reflux esophagitis, omeprazole at doses of 0.7 to 1.4 mg/kg improved esophagitis level in 90% of the cases and significantly reduced reflux symptoms. In a single-blind study, children aged 0–24 months with clinically diagnosed gastro-esophageal reflux disease were treated with 0.5, 1.0 or 1.5 mg omeprazole/kg. The frequency of vomiting/regurgitation episodes decreased by 50% after 8 weeks of treatment irrespective of the dose.



Eradication of H. pylori in children



A randomised, double blind clinical study (Héliot study) concluded that omeprazole in combination with two antibiotics (amoxicillin and clarithromycin), was safe and effective in the treatment of H. pylori infection in children age 4 years old and above with gastritis: H. pylori eradication rate: 74.2% (23/31 patients) with omeprazole + amoxicillin + clarithromycin versus 9.4% (3/32 patients) with amoxicillin + clarithromycin. However, there was no evidence of any clinical benefit with respect to dyspeptic symptoms. This study does not support any information for children aged less than 4 years.



5.2 Pharmacokinetic Properties



Absorption



Omeprazole and omeprazole magnesium are acid labile and are therefore administered orally as enteric-coated granules in capsules or tablets. Absorption of omeprazole is rapid, with peak plasma levels occurring approximately 1-2 hours after dose. Absorption of omeprazole takes place in the small intestine and is usually completed within 3-6 hours. Concomitant intake of food has no influence on the bioavailability. The systemic availability (bioavailability) from a single oral dose of omeprazole is approximately 40%. After repeated once-daily administration, the bioavailability increases to about 60%.



Distribution



The apparent volume of distribution in healthy subjects is approximately 0.3 l/kg body weight. Omeprazole is 97% plasma protein bound.



Metabolism



Omeprazole is completely metabolised by the cytochrome P450 system (CYP). The major part of its metabolism is dependent on the polymorphically expressed CYP2C19, responsible for the formation of hydroxyomeprazole, the major metabolite in plasma. The remaining part is dependent on another specific isoform, CYP3A4, responsible for the formation of omeprazole sulphone. As a consequence of high affinity of omeprazole to CYP2C19, there is a potential for competitive inhibition and metabolic drug-drug interactions with other substrates for CYP2C19. However, due to low affinity to CYP3A4, omeprazole has no potential to inhibit the metabolism of other CYP3A4 substrates. In addition, omeprazole lacks an inhibitory effect on the main CYP enzymes.



Approximately 3% of the Caucasian population and 15-20% of Asian populations lack a functional CYP2C19 enzyme and are called poor metabolisers. In such individuals the metabolism of omeprazole is probably mainly catalysed by CYP3A4. After repeated once-daily administration of 20 mg omeprazole, the mean AUC was 5 to 10 times higher in poor metabolisers than in subjects having a functional CYP2C19 enzyme (extensive metabolisers). Mean peak plasma concentrations were also higher, by 3 to 5 times. These findings have no implications for the posology of omeprazole.



Excretion



The plasma elimination half-life of omeprazole is usually shorter than one hour both after single and repeated oral once-daily dosing. Omeprazole is completely eliminated from plasma between doses with no tendency for accumulation during once-daily administration. Almost 80% of an oral dose of omeprazole is excreted as metabolites in the urine, the remainder in the faeces, primarily originating from bile secretion.



The AUC of omeprazole increases with repeated administration. This increase is dose-dependent and results in a non-linear dose-AUC relationship after repeated administration. This time- and dose-dependency is due to a decrease of first pass metabolism and systemic clearance probably caused by an inhibition of the CYP2C19 enzyme by omeprazole and/or its metabolites (e.g. the sulphone).



No metabolite has been found to have any effect on gastric acid secretion.



Special populations



Impaired hepatic function



The metabolism of omeprazole in patients with liver dysfunction is impaired, resulting in an increased AUC. Omeprazole has not shown any tendency to accumulate with once daily dosing.



Impaired renal function



The pharmacokinetics of omeprazole, including systemic bioavailability and elimination rate, are unchanged in patients with reduced renal function.



Elderly



The metabolism rate of omeprazole is somewhat reduced in elderly subjects (75-79 years of age).



Paediatric patients



During treatment with the recommended doses to children from the age of 1 year, similar plasma concentrations were obtained as compared to adults. In children younger than 6 months, clearance of omeprazole is low due to low capacity to metabolise omeprazole.



5.3 Preclinical Safety Data



Gastric ECL-cell hyperplasia and carcinoids, have been observed in life-long studies in rats treated with omeprazole. These changes are the result of sustained hypergastrinaemia secondary to acid inhibition. Similar findings have been made after treatment with H2-receptor antagonists, proton pump inhibitors and after partial fundectomy. Thus, these changes are not from a direct effect of any individual active substance.



6. Pharmaceutical Particulars



6.1 List Of Excipients



Capsule content:



Lactose monohydrate



Sodium laurilsulfate



Cellulose, microcrystalline (E460)



Hydroxypropylcellulose (E463)



Mannitol (E421)



Disodium hydrogen phosphate dihydrate (E339)



Hypromellose (E464)



Triethyl citrate (E1505)



Talc (E553b)



Methacrylic acid: ethyl acrylate copolymer (1:1)



Glycerol Monostearate 40-55



Polysorbate 80 (E433)



Titanium dioxide (E171)



Capsule shell:



Iron Oxide Red (E172)



Titanium Dioxide (E171)



Gelatin



Sodium laurilsulfate



Printing ink:



Shellac (E904)



Propylene Glycol (E1520)



Iron Oxide Black (E172)



Potassium hydroxide (E525)



6.2 Incompatibilities



Not applicable.



6.3 Shelf Life



2 years



6.4 Special Precautions For Storage



Store below 30°C



6.5 Nature And Contents Of Container



Omeprazole Aurobindo capsules are available in PVC/Polyamide/Aluminium/ PVC/Paper/Aluminium blister packs and HDPE bottle packs.



PVC/Polyamide/Aluminium/PVC/Paper/ Aluminium blister pack: 7, 14, 15, 28, 30, 50, 56, 60, 98, 100 and 500 capsules



HDPE bottle with silica gel desiccant contained in the polypropylene cap: 14, 28, 50 and 500 capsules



Not all pack sizes may be marketed.



6.6 Special Precautions For Disposal And Other Handling



Any unused product or waste material should be disposed of in accordance with local requirements.



7. Marketing Authorisation Holder



Milpharm Limited



Ares, Odyssey Business Park



West End Road



South Ruislip HA4 6QD



United Kingdom



8. Marketing Authorisation Number(S)



PL 16363/0213



9. Date Of First Authorisation/Renewal Of The Authorisation



07/06/2011



10. Date Of Revision Of The Text



07/06/2011




Monday 26 March 2012

Procainamide capsules





Dosage Form: capsules

Warning

The prolonged administration of Procainamide often leads to the development of a positive anti-nuclear antibody (ANA) test, with or without symptoms of lupus erythematosus-like syndrome. If a positive ANA titer develops, the benefits versus risks of continued Procainamide therapy should be assessed.




Procainamide Description


Procainamide hydrochloride, a Group 1A cardiac antiarrhythmic drug, is p-amino-N-[2-(diethylamino)ethyl]-benzamide monohydrochloride. It differs from procaine which is the p-aminobenzoyl ester of 2-(diethylamino)-ethanol. Procainamide as the free base has a PKa of 9.23; the monohydrochloride is very soluble in water. Its structural formula is:



C13H21N3O•HCl M.W. 271.79


Procainamide hydrochloride, is a white to tan odorless, crystalline salt that is readily soluble in water.


Procainamide hydrochloride is available as 250 mg, 375 mg, or 500 mg capsules for oral administration and contains the following inactive ingredients: anhydrous lactose, glacial acetic acid, magnesium stearate, methylparaben, pregelatinized starch, propylparaben, silicon dioxide, sodium lauryl sulfate, stearic acid and talc. Additional inactive ingredients in the gelatin capsule include (250 mg and 500 mg) FD&C Yellow No. 6, D&C Yellow No. 10, titanium dioxide; (375 mg) FD&C Yellow No. 6, titanium dioxide. The 250 mg capsule also contains glycerine.



Procainamide - Clinical Pharmacology


Procainamide (PA) increases the effective refractory period of the atria, and to a lesser extent the bundle of His-Purkinje system and ventricles of the heart. It reduces impulse conduction velocity in the atria, His-Purkinje fibers, and ventricular muscle, but has variable effects on the atrioventricular (A-V) node, a direct slowing action and a weaker vagolytic effect which may speed A-V conduction slightly. Myocardial excitability is reduced in the atria, Purkinje fibers, papillary muscles, and ventricles by an increase in the threshold for excitation, combined with inhibition of ectopic pacemaker activity by retardation of the slow phase of diastolic depolarization, thus decreasing automaticity especially in ectopic sites. Contractility of the undamaged heart is usually not affected by therapeutic concentrations, although slight reduction of cardiac output may occur, and may be significant in the presence of myocardial damage. Therapeutic levels of PA may exert vagolytic effects and produce slight acceleration of heart rate, while high or toxic concentrations may prolong A-V conduction time or induce A-V block, or even cause abnormal automaticity and spontaneous firing, by unknown mechanisms.


The electrocardiogram may reflect these effects by showing slight sinus tachycardia (due to anticholinergic action) and widened QRS complexes and, less regularly, prolonged Q-T and P-R intervals (due to longer systole and slower conduction), as well as some decreases in QRS and T wave amplitude. These direct effects of PA on electrical activity, conduction, responsiveness, excitability and automaticity are characteristic of Group 1A antiarrhythmic agent, the prototype for which is quinidine; PA effects are very similar. However, PA has weaker vagal blocking action than does quinidine, does not induce alpha-adrenergic blockade, and is less depressing to cardiac contractility.


Ingested PA is resistant to digestive hydrolysis, and the drug is well absorbed from the entire small intestine surface, but individual patients vary in their completeness of absorption of PA. Following oral administration of Procainamide hydrochloride, plasma PA levels peak in approximately 45 to 120 minutes. About 15 to 20 percent of PA is reversibly bound to plasma proteins, and considerable amounts are more slowly and reversibly bound to tissues of the heart, liver, lung, and kidney. The apparent volume of distribution eventually reaches about 2 liters per kilogram body weight with a half-time of approximately five minutes. While PA has been shown in the dog to cross the blood-brain barrier, it did not concentrate in the brain at levels higher than in plasma. It is not known if PA crosses the placenta. Plasma esterases are far less active in hydrolysis of PA than of procaine. The half-time for elimination is three to four hours in patients with normal renal function, but reduced creatinine clearance and advancing age each prolong the half-time of elimination of PA.


A significant fraction of the circulating PA may be metabolized in hepatocytes to N-acetylProcainamide (NAPA), ranging from 16 to 21 percent of an administered dose in “slow acetylators” to 24 to 33 percent in “fast-acetylators”. Since NAPA also has significant antiarrhythmic activity and somewhat slower renal clearance than PA, both hepatic acetylation rate capability and renal function, as well as age, have significant effects on the effective biological half-time of therapeutic action of administered PA and NAPA derivative. Trace amounts may be excreted in the urine as free and conjugated p-aminobenzoic acid, 30 to 60 percent as unchanged PA, and 6 to 52 percent as the NAPA derivative. Both PA and NAPA are eliminated by active tubular secretion as well as by glomerular filtration. Action of PA on the central nervous system is not prominent, but high plasma concentrations may cause tremors. While therapeutic plasma levels for PA have been reported to be 3 to 10 µg/mL, certain patients such as those which sustained ventricular tachycardia may need higher levels for adequate control. This may justify the increased risk of toxicity (see OVERDOSAGE). Where programmed ventricular stimulation has been used to evaluate efficacy of PA in preventing recurrent ventricular tachyarrhythmias, higher plasma levels (mean, 13.6 µg/mL) of PA were found necessary for adequate control.



Indications and Usage for Procainamide


Procainamide hydrochloride capsules are indicated for the treatment of documented ventricular arrhythmias, such as sustained ventricular tachycardia, that, in the judgement of the physician, are life-threatening. Because of the proarrhythmic effects of Procainamide, its use with lesser arrhythmias is generally not recommended. Treatment of patients with asymptomatic ventricular premature contractions should be avoided.


Initiation of Procainamide treatment, as with other antiarrhythmic agents used to treat life-threatening arrhythmias, should be carried out in the hospital.


Antiarrhythmic drugs have not been shown to enhance survival in patients with ventricular arrhythmias.


Because Procainamide has the potential to produce serious hematological disorders (0.5 percent) particularly leukopenia or agranulocytosis (sometimes fatal), its use should be reserved for patients in whom, in the opinion of the physician, the benefits of treatment clearly outweigh the risks. (See WARNINGS and Boxed Warning.)



Contraindications



Complete heart block


Procainamide should not be administered to patients with complete heart block because of its effects in suppressing nodal or ventricular pacemakers and the hazard of asystole. It may be difficult to recognize complete heart block in patients with ventricular tachycardia, but if significant slowing of ventricular rate occurs during PA treatment without evidence of A-V conduction appearing, PA should be stopped. In cases of second degree A-V block or various types of hemiblock, PA should be avoided or discontinued because of the possibility of increased severity of block, unless the ventricular rate is controlled by an electrical pacemaker.



Idiosyncratic hypersensitivity


ln patients sensitive to procaine or other ester-type local anesthetics, cross sensitivity to PA is unlikely; however, it should be borne in mind, and PA should not be used if it produces acute allergic dermatitis, asthma, or anaphylactic symptoms.



Lupus Erythematosus


An established diagnosis of systemic lupus erythematosus is a contraindication to PA therapy, since aggravation of symptoms is highly likely.



Torsades de Pointes


In the unusual ventricular arrhythmia called “les torsades de pointes” (Twistings of the points), characterized by alternation of one or more ventricular premature beats in the directions of the QRS complexes on ECG in persons with prolonged Q-T and often enhanced U waves, Group 1A anti-arrhythmic drugs are contraindicated. Administration of PA in such cases may aggravate this special type of ventricular extrasystole or tachycardia instead of suppressing it.



Warnings




Mortality


In the National Heart, Lung and Blood Institute’s Cardiac Arrhythmia Suppression Trial (CAST), a long-term, multi-centered, randomized, double-blind study in patients with asymptomatic non-life-threatening ventricular arrhythmias who had a myocardial infarction more than six days but less than two years previously, an excessive mortality or non-fatal cardiac arrest rate (7.7 %) was seen in patients treated with encainide or flecainide compared with that seen in patients assigned to matched placebo-treated group (3.0 %). The average duration of treatment with encainide or flecainide in this study was ten months.


The applicability of the CAST results to other populations (e.g., those without recent myocardial infarctions) is uncertain. Considering the known proarrhythmic properties of Procainamide and the lack of evidence of improved survival for any antiarrhythmic drug in patients without life-threatening arrhythmias, the use of Procainamide as well as other antiarrhythmic agents should be reserved for patients with life-threatening ventricular arrhythmias.





Blood Dyscrasias


Agranulocytosis, bone marrow depression, neutropenia, hypoplastic anemia and thrombocytopenia in patients receiving Procainamide hydrochloride have been reported at a rate of approximately 0.5%. Most of these patients received Procainamide within the recommended dosage range. Fatalities have occurred (with approximately 20-25 percent mortality in reported cases of agranulocytosis). Since most of these events have been noted during the first 12 weeks of therapy, it is recommended that complete blood counts including white cell, differential and platelet counts be performed at weekly intervals for the first three months of therapy; and periodically thereafter. Complete blood counts should be performed promptly if the patient develops any signs of infection (such as fever, chills, sore throat or stomatitis), bruising or bleeding. If any of these hematological disorders are identified, Procainamide therapy should be discontinued. Blood counts usually return to normal within one month of discontinuation. Caution should be used in patients with pre-existing marrow failure or cytopenia of any type. (See ADVERSE REACTIONS).




Digitalis intoxication


Caution should be exercised in the use of Procainamide in arrhythmias associated with digitalis intoxication. Procainamide can suppress digitalis-induced arrythmias; however, if there is concomitant marked disturbance of atrioventricular conduction, additional depression of conduction and ventricular asystole or fibrillation may result. Therefore, use of Procainamide should be considered only if discontinuation of digitalis, and therapy with potassium, lidocaine, or phenytoin are ineffective.



First degree heart block


Caution should be exercised also if the patient exhibits or develops first degree heart block while taking PA, and dosage reduction is advised in such cases. If the block persists despite dosage reduction, continuation of PA administration must be evaluated on the basis of current benefit versus risk of increased heart block.



Predigitalization for atrial flutter or fibrillation


Patients with atrial flutter or fibrillation should be cardioverted or digitalized prior to PA administration to avoid enhancement of A-V conduction which may result in ventricular rate acceleration beyond tolerable limits. Adequate digitalization reduces but does not eliminate the possibility of sudden increase in ventricular rate as the atrial rate is slowed by PA in these arrhythmias.



Congestive heart failure


For patients in congestive heart failure, and those with acute ischemic heart disease or cardiomyopathy, caution should be used in PA therapy, since even slight depression of myocardial contractility may further reduce cardiac output of the damaged heart.



Concurrent other antiarrhythmic agents


Concurrent use of PA with other Group 1A antiarrhythmic agents such as quinidine or disopyramide may produce enhanced prolongation of conduction or depression of contractility and hypotension, especially in patients with cardiac decompensation. Such use should be reserved for patients with serious arrhythmias unresponsive to a single drug and employed only if close observation is possible.



Renal insufficiency


Renal insufficiency may lead to accumulation of high plasma levels from conventional oral doses of PA, with effects similar to those of overdosage (see OVERDOSAGE), unless dosage is adjusted for the individual patient.



Myasthenia gravis


Patients with myasthenia gravis may show worsening of symptoms from PA due to its procaine-like effect on diminishing acetylcholine release at skeletal muscle motor nerve endings, so that PA administration may be hazardous without optimal adjustment of anticholinesterase medications and other precautions.


Precautions

General


Immediately after initiation of PA therapy, patients should be closely observed for possible hypersensitivity reactions, especially if procaine or local anesthetic sensitivity is suspected, and for muscular weakness if myasthenia gravis is a possibility.


In conversion of atrial fibrillation to normal sinus rhythm by any means, dislodgement of mural thrombi may lead to embolization, which should be kept in mind. After a day or so, steady state plasma PA levels are produced following regular oral administration of a given dose of Procainamide Hydrochloride Capsules at set intervals, with peak plasma concentrations at about 45 to 120 minutes after each dose. After achieving and maintaining therapeutic plasma concentrations and satisfactory electrocardiographic and clinical responses, continued frequent periodic monitoring of vital signs and electrocardiograms is advised. If evidence of QRS widening of more than 25 percent or marked prolongation of the Q-T interval occurs, concern for overdosage is appropriate, and reduction in dosage, is advisable if a 50 percent increase occurs. Elevated serum creatinine or urea nitrogen, reduced creatinine clearance, or history of renal insufficiency, as well as use in older patients (over age 50), provide grounds to anticipate that less than the usual dosage and longer time intervals between doses may suffice, since the urinary elimination of PA and NAPA may be reduced, leading to gradual accumulation beyond normally-predicted amounts. If facilities are available for measurement of plasma PA and NAPA, or acetylation capability, individual dose adjustment for optimal therapeutic levels may be easier, but close observation of clinical effectiveness is the most important criterion.


In the longer term, periodic complete blood counts are useful to detect possible idosyncratic hematologic effects of PA on neutrophil, platelet or red cell homeostasis; agranulocytosis has been reported to occur occasionally in patients on long-term PA therapy. A rising titer of serum ANA may precede clinical symptoms of the lupoid syndrome (see Boxed Warning above DESCRIPTION section, and ADVERSE REACTIONS). If the lupus erythematosus-like syndrome develops in a patient with recurrent life threatening arrhythmias not controlled by other agents, corticosteroid suppressive therapy may be used concomitantly with PA. Since the PA-induced lupoid syndrome rarely includes the dangerous pathologic renal changes, PA therapy may not necessarily have to be stopped unless the symptoms of serositis and the possibility of further lupoid effects are of greater risk than the benefit of PA in controlling arrhythmias. Patients with rapid acetylation capability are less likely to develop the lupoid syndrome after prolonged PA therapy.



Information for Patients


The physician is advised to explain to the patient that close cooperation in adhering to the prescribed dosage schedule is of great importance in controlling the cardiac arrhythmia safely. The patient should understand clearly that more medication is not necessarily better and may be dangerous, that skipping doses or increasing intervals between doses to suit personal convenience may lead to loss of control of the heart problem, and that “making up” missed doses by doubling up later may be hazardous.


The patient should be encouraged to disclose any past history of drug sensitivity, especially to procaine or other local anesthetic agents, or aspirin, and to report any history of kidney disease, congestive heart failure, myasthenia gravis, liver disease, or lupus erythematosus.


The patient should be counseled to report promptly any symptoms of arthralgia, myalgia, fever, chills, skin rash, easy bruising, sore throat or sore mouth, infections, dark urine or icterus, wheezing, muscular weakness, chest or abdominal pain, palpitations, nausea, vomiting, anorexia, diarrhea, hallucinations, dizziness or depression.



Laboratory Tests


Laboratory tests such as complete blood count (CBC), electrocardiogram, and serum creatinine or urea nitrogen may be indicated, depending on the clinical situation, and periodic rechecking of the CBC and ANA may be helpful in early detection of untoward reactions.



Drug Interactions


If other antiarrhythmic drugs are being used, additive effects on the heart may occur with PA administration, and dosage reduction may be necessary (see WARNINGS).


Anticholinergic drugs administered concurrently with PA may produce additive antivagal effects on A-V nodal conduction, although this is not as well documented for PA as for quinidine.


Patients taking PA who require neuromuscular blocking agents such as succinylcholine may require less than usual doses of the latter, due to PA effects on reducing acetylcholine release.



Drug/Laboratory Test Interactions


Suprapharmacologic concentrations of lidocaine and meprobamate may inhibit fluorescence of PA and NAPA, and propranolol shows a native fluorescence close to the PA/NAPA peak wavelengths, so that tests which depend on fluorescence measurement may be affected.



Carcinogenesis, Mutagenesis, Impairment of Fertility


Long term studies in animals have not been performed.



Pregnancy


Teratogenic Effects

Pregnancy Category C


Animal reproduction studies have not been conducted with PA. It also is not known whether PA can cause fetal harm when administered to a pregnant woman or can affect reproduction capacity. PA should be given to a pregnant woman only if clearly needed.



Nursing Mothers


Both PA and NAPA are excreted in human milk, and absorbed by the nursing infant. Because of the potential for serious adverse reactions in nursing infants, a decision to discontinue nursing or the drug should be made, taking into account the importance of the drug to the mother.



Pediatric Use


Safety and effectiveness in pediatric patients have not been established.



Adverse Reactions



Cardiovascular System


Hypotension following oral PA administration is rare. Hypotension and serious disturbances of cardiorhythm such as ventricular asystole or fibrillation are more common after intravenous administration (see OVERDOSAGE and WARNINGS). Second degree heart block has been reported in 2 of almost 500 patients taking PA orally.



Multisystem


A lupus erythematosus-like syndrome of arthralgia, pleural or abdominal pain, and sometimes arthritis, pleural effusion, pericarditis, fever, chills, myalgia, and possibly related hematologic or skin lesions (see below) is fairly common after prolonged PA administration, perhaps more often in patients who are slow acetylators (see Boxed Warning and PRECAUTIONS). While some series have reported less than 1 in 500, others have reported the syndrome in up to 30 percent of patients on long term oral PA therapy. If discontinuation of PA does not reverse the lupoid symptoms, corticosteroid treatment may be effective.



Hematologic


Neutropenia, thrombocytopenia, or hemolytic anemia may rarely be encountered. Agranulocytosis has occurred after repeated use of PA, and deaths have been reported (see Boxed Warning, WARNINGS section).



Skin


Angioneurotic edema, urticaria, pruritus, flushing, and maculopapular rash have also occurred occasionally (see Boxed WARNING).



Gastrointestinal


Anorexia, nausea, vomiting, abdominal pain, bitter taste, or diarrhea may occur in 3 to 4 percent of patients taking oral Procainamide.



Elevated Liver Enzymes


Elevations of transaminase with and without elevations of alkaline phosphatase and bilirubin have been reported. Some patients have had clinical symptoms (e.g., malaise, right upper quadrant pain). Deaths from liver failure have been reported.



Nervous System


Dizziness or giddiness, weakness, mental depression, and psychosis with hallucinations have been reported occasionally.



Overdosage


Progressive widening of the QRS complex, prolonged Q-T and P-R intervals, lowering of the R and T waves, as well as increasing A-V block, may be seen with doses which are excessive for a given patient. Increased ventricular extrasystoles, or even ventricular tachycardia or fibrillation may occur. After intravenous administration but seldom after oral therapy, transient high plasma levels of PA may induce hypotension, affecting systolic more than diastolic pressures especially in hypertensive patients. Such high levels may also produce central nervous depression, tremor, and even respiratory depression.


Plasma levels above 10 µg/mL are increasingly associated with toxic findings which are seen occasionally in the 10 to 12 µg/mL range, more often in the 12 to 15 µg/mL range, and commonly in patients with plasma levels greater than 15 µg/mL. A single oral dose of 2 g may produce overdosage symptoms, while 3 g may be dangerous, especially if the patient is a slow acetylator, has decreased renal function, or underlying organic heart disease.


Treatment of overdosage or toxic manifestations includes general supportive measures, close observation, monitoring of vital signs and possibly intravenous pressor agents and mechanical cardiorespiratory support. If available, PA and NAPA plasma levels may be helpful in assessing the potential degree of toxicity and response to therapy. Both PA and NAPA are removed from the circulation by hemodialysis but not peritoneal dialysis. No specific antidote for PA is known.



Procainamide Dosage and Administration


The oral dose and interval of administration should be adjusted for the individual patient, based on clinical assessment of the degree of underlying myocardial disease, the patient’s age, and renal function.


As a general guide, for younger patients with normal renal function, an initial total daily oral dose of up to 50 mg/kg of body weight of Procainamide Hydrochloride Capsules may be used, given in divided doses, every three hours, to maintain therapeutic blood levels. For older patients, especially those over 50 years of age, or for patients with renal, hepatic, or cardiac insufficiency, lesser amounts or longer intervals may produce adequate blood levels. The initial total daily dose should be divided for administration at three, four, or six hour intervals as estimated for the patient’s needs; then, the dose and interval should be adjusted for the individual.















To provide up to 50 mg per kg of body weight per day:*

* Initial dosage schedule guide only, to be adjusted for each patient individually,


based on age, cardiorenal function, blood level (if available), and clinical response.


Patients weighing:
88-110 lb (40-50 kg)250 mg q3h to 500 mg q6h
132-154 lb (60-70 kg)375 mg q3h to 750 mg q6h
176-198 lb (80-90 kg)500 mg q3h to 1 g q6h
>220 lb ( > 100 kg)625 mg q3h to 1.25 g q6h

How is Procainamide Supplied


Available as yellow capsules, imprinted 2345, containing 250 mg of Procainamide Hydrochloride USP; as orange and white capsules, imprinted 2346, containing 375 mg of Procainamide Hydrochloride USP; and as orange and yellow capsules, imprinted 2347, containing 500 mg of Procainamide Hydrochloride USP. All strengths are packaged in bottles of 100, 250 and 1000 capsules.


PHARMACIST: Dispense in a tight container as defined in the USP. Use child-resistant closure (as required).


Store at controlled room temperature 15°-30°C (59°-86°F) (See USP).


MANUFACTURED BY 0172


IVAX PHARMACEUTICALS, INC. 07/02


MIAMI, FL 33137 B14








Procainamide HYDROCHLORIDE 
Procainamide hydrochloride  capsule










Product Information
Product TypeHUMAN PRESCRIPTION DRUGNDC Product Code (Source)0172-2345
Route of AdministrationORALDEA Schedule    


















































INGREDIENTS
Name (Active Moiety)TypeStrength
Procainamide Hydrochloride (Procainamide)Active250 MILLIGRAM  In 1 CAPSULE
anhydrous lactoseInactive 
glacial acetic acidInactive 
magnesium stearateInactive 
methylparabenInactive 
pregelatinized starchInactive 
propylparabenInactive 
silicon dioxideInactive 
sodium lauryl sulfateInactive 
stearic acidInactive 
talcInactive 
FD&C Yellow No. 6Inactive 
D & C Yellow No. 10Inactive 
titanium dioxideInactive 
glycerineInactive 






















Product Characteristics
ColorYELLOWScoreno score
ShapeCAPSULESize18mm
FlavorImprint Code2345
Contains      
CoatingfalseSymboltrue


















Packaging
#NDCPackage DescriptionMultilevel Packaging
10172-2345-60100 CAPSULE In 1 BOTTLENone
20172-2345-65250 CAPSULE In 1 BOTTLENone
30172-2345-801000 CAPSULE In 1 BOTTLENone






Procainamide HYDROCHLORIDE 
Procainamide hydrochloride  capsule










Product Information
Product TypeHUMAN PRESCRIPTION DRUGNDC Product Code (Source)0172-2346
Route of AdministrationORALDEA Schedule    












































INGREDIENTS
Name (Active Moiety)TypeStrength
Procainamide Hydrochloride (Procainamide)Active375 MILLIGRAM  In 1 CAPSULE
anhydrous lactoseInactive 
glacial acetic acidInactive 
magnesium stearateInactive 
methylparabenInactive 
pregelatinized starchInactive 
propylparabenInactive 
silicon dioxideInactive 
sodium lauryl sulfateInactive 
stearic acidInactive 
talcInactive 
FD&C Yellow No. 6Inactive 
titanium dioxideInactive 






















Product Characteristics
ColorORANGE (orange) , WHITE (white)Scoreno score
ShapeCAPSULESize19mm
FlavorImprint Code2346
Contains      
CoatingfalseSymboltrue


















Packaging
#NDCPackage DescriptionMultilevel Packaging
10172-2346-60100 CAPSULE In 1 BOTTLENone
20172-2346-65250 CAPSULE In 1 BOTTLENone
30172-2346-801000 CAPSULE In 1 BOTTLENone






Procainamide HYDROCHLORIDE 
Procainamide hydrochloride  capsule










Product Information
Product TypeHUMAN PRESCRIPTION DRUGNDC Product Code (Source)0172-2347
Route of AdministrationORALDEA Schedule    















































INGREDIENTS
Name (Active Moiety)TypeStrength
Procainamide Hydrochloride (Procainamide)Active500 MILLIGRAM  In 1 CAPSULE
anhydrous lactoseInactive 
glacial acetic acidInactive 
magnesium stearateInactive 
methylparabenInactive 
pregelatinized starchInactive 
propylparabenInactive 
silicon dioxideInactive 
sodium lauryl sulfateInactive 
stearic acidInactive 
talcInactive 
FD&C Yellow No. 6Inactive 
D & C Yellow No. 10Inactive 
titanium dioxideInactive 






















Product Characteristics
ColorORANGE (orange) , YELLOW (yellow)Scoreno score
ShapeCAPSULESize22mm
FlavorImprint Code2347
Contains      
CoatingfalseSymboltrue


















Packaging
#NDCPackage DescriptionMultilevel Packaging
10172-2347-60100 CAPSULE In 1 BOTTLENone
20172-2347-65250 CAPSULE In 1 BOTTLENone
30172-2347-801000 CAPSULE In 1 BOTTLENone

Revised: 05/2007IVAX Pharmaceuticals, Inc.

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