Can you take Flavalta with Succinylcholine?

The EPINEPHrine in Flavalta has a moderate potential interaction with Acidosis.

Acidosis, hypoxia, and hypercapnia may reduce the effectiveness of sympathomimetic amines in raising blood pressure. These conditions should be corrected before initiating therapy with sympathomimetic amines, if possible. Monitoring the patients acid-base balance, carbon dioxide levels, and oxygen saturation is recommended.

Succinylcholine has a major potential interaction with Allergies.

Some neuromuscular blocking agents stimulate the release of histamine, which can cause wheezing, bronchospasm, increased bronchial secretions, hypotension, tachycardia, and circulatory collapse. Hypotension may also occur due to ganglionic blockade or as a complication of positive pressure respiration. Tubocurarine appears to be the most potent inducer of histamine, followed by metocurine (no longer commercially available in the U.S.) and succinylcholine. Other agents with varying but lesser degrees of histamine-releasing properties include atracurium, mivacurium, and pancuronium (at excessive dosages). Therapy with these neuromuscular blocking agents should be administered cautiously in patients with clinically significant cardiovascular disease and/or a history of asthma or severe allergic reactions. Certain agents may prolong the QTc interval, especially during general anesthesia in pediatric patients. The initial dosage and rate of administration may need to be reduced, and hemodynamic and respiratory status carefully monitored. Neuromuscular blocking agents that appear to have little or no histamine-inducing effects include cisatracurium, doxacurium, pipecuronium, rocuronium, and vecuronium.

Succinylcholine has a major potential interaction with Asthma.

Some neuromuscular blocking agents stimulate the release of histamine, which can cause wheezing, bronchospasm, increased bronchial secretions, hypotension, tachycardia, and circulatory collapse. Hypotension may also occur due to ganglionic blockade or as a complication of positive pressure respiration. Tubocurarine appears to be the most potent inducer of histamine, followed by metocurine (no longer commercially available in the U.S.) and succinylcholine. Other agents with varying but lesser degrees of histamine-releasing properties include atracurium, mivacurium, and pancuronium (at excessive dosages). Therapy with these neuromuscular blocking agents should be administered cautiously in patients with clinically significant cardiovascular disease and/or a history of asthma or severe allergic reactions. Certain agents may prolong the QTc interval, especially during general anesthesia in pediatric patients. The initial dosage and rate of administration may need to be reduced, and hemodynamic and respiratory status carefully monitored. Neuromuscular blocking agents that appear to have little or no histamine-inducing effects include cisatracurium, doxacurium, pipecuronium, rocuronium, and vecuronium.

Succinylcholine has a major potential interaction with Burns, External.

The use of succinylcholine is contraindicated in patients after the acute phase of injury following major burns. These patients are more likely to develop significant hyperkalemia which may lead to cardiac arrest. The risk of hyperkalemia typically peaks at about 7 to 10 days after injury.

The EPINEPHrine in Flavalta has a major potential interaction with Cardiovascular Conditions and Disorders.

Sympathomimetic agents may cause adverse cardiovascular effects, particularly when used in high dosages and/or in susceptible patients. In cardiac tissues, these agents may produce positive chronotropic and inotropic effects via stimulation of beta- 1 adrenergic receptors. Cardiac output, oxygen consumption, and the work of the heart may be increased. In the peripheral vasculature, vasoconstriction may occur via stimulation of alpha-1 adrenergic receptors. Palpitations, tachycardia, arrhythmia, hypertension, reflex bradycardia, coronary occlusion, cerebral vasculitis, myocardial infarction, cardiac arrest, and death have been reported. Some of these agents, particularly ephedra alkaloids (ephedrine, ma huang, phenylpropanolamine), may also predispose patients to hemorrhagic and ischemic stroke. Therapy with sympathomimetic agents should generally be avoided or administered cautiously in patients with sensitivity to sympathomimetic amines, hyperthyroidism, or underlying cardiovascular or cerebrovascular disorders. These agents should not be used in patients with severe coronary artery disease or severe/uncontrolled hypertension.

Succinylcholine has a major potential interaction with Cardiovascular Conditions and Disorders.

Some neuromuscular blocking agents stimulate the release of histamine, which can cause wheezing, bronchospasm, increased bronchial secretions, hypotension, tachycardia, and circulatory collapse. Hypotension may also occur due to ganglionic blockade or as a complication of positive pressure respiration. Tubocurarine appears to be the most potent inducer of histamine, followed by metocurine (no longer commercially available in the U.S.) and succinylcholine. Other agents with varying but lesser degrees of histamine-releasing properties include atracurium, mivacurium, and pancuronium (at excessive dosages). Therapy with these neuromuscular blocking agents should be administered cautiously in patients with clinically significant cardiovascular disease and/or a history of asthma or severe allergic reactions. Certain agents may prolong the QTc interval, especially during general anesthesia in pediatric patients. The initial dosage and rate of administration may need to be reduced, and hemodynamic and respiratory status carefully monitored. Neuromuscular blocking agents that appear to have little or no histamine-inducing effects include cisatracurium, doxacurium, pipecuronium, rocuronium, and vecuronium.

Succinylcholine has a major potential interaction with Cerebral Vascular Disorder.

The use of succinylcholine is contraindicated in patients with upper motor neuron injury that can be a sequelae of cerebral vasculopathy. The risk of hyperkalemia is increased in these patients.

The EPINEPHrine in Flavalta has a major potential interaction with Dehydration.

The use of sympathomimetic amines has been infrequently associated with significant hypotension especially in dehydrated patients secondary to the drug's beta-2 mediated vasodilation. Hypovolemia should be corrected, if possible, before administering sympathomimetic amines. Blood pressure and ECG should be monitored at regular intervals. Monitoring of cardiac output and pulmonary wedge pressure may also be desired.

The EPINEPHrine in Flavalta has a moderate potential interaction with Diabetes Mellitus.

Sympathomimetic agents may cause increases in blood glucose concentrations. These effects are usually transient and slight but may be significant with dosages higher than those normally recommended. Therapy with sympathomimetic agents should be administered cautiously in patients with diabetes mellitus. Closer monitoring of blood glucose concentrations may be appropriate.

Succinylcholine has a moderate potential interaction with Glaucoma/Intraocular Hypertension.

The use of succinylcholine has been associated with an increase in intraocular pressure. Therapy with succinylcholine should be administered cautiously in patients with narrow-angle glaucoma.

The lidocaine in Flavalta has a major potential interaction with Heart Block.

The use of lidocaine is contraindicated in patients with Stokes-Adam syndrome, Wolff-Parkinson White syndrome, or second- or third-degree AV block in the absence of a functional artificial pacemaker, or congenital QT prolongation.

Succinylcholine has a moderate potential interaction with Heart Block.

The use of succinylcholine may exacerbate bradycardia via vagal stimulation leading to asystole, especially after a second dose. Therapy with succinylcholine should be administered cautiously in patients with bradycardia.

The lidocaine in Flavalta has a major potential interaction with Heart Failure.

Antiarrhythmic agents can induce severe hypotension (particularly with IV administration) or induce or worsen congestive heart failure (CHF). Patients with primary cardiomyopathy or inadequately compensated CHF are at increased risk. Antiarrhythmic agents should be administered cautiously and dosage and/or frequency of administration modified in patients with hypotension or adequately compensated CHF. Alternative therapy should be considered unless these conditions are secondary to cardiac arrhythmia.

Succinylcholine has a major potential interaction with Hemorrhagic Stroke.

The use of succinylcholine is contraindicated in patients after the acute phase of injury following major burns, multiple trauma, extensive denervation of skeletal muscle, or upper motor neuron injury. has been associated with an elevation in potassium levels due to rapid release of potassium from intracellular sites. Therapy with succinylcholine should be administered cautiously in patients with hyperkalemic states such as extensive soft-tissue trauma, burns, chronic abdominal infections, and subarachnoid hemorrhage.

Succinylcholine has a major potential interaction with History (Familial) - Musculoskeletal Disorder.

The use of succinylcholine is contraindicated in patients with a personal or family history of skeletal muscle myopathies. Acute rhabdomyolysis with hyperkalemia followed by ventricular arrhythmias, cardiac arrest, and death have been reported following the administration of succinylcholine in apparently healthy children who were later found to have undiagnosed skeletal muscle myopathy, most frequently Duchenne muscular dystrophy. Immediate treatment of hyperkalemia should be instituted whenever a healthy appearing infant or child develops cardiac arrest with no obvious cause soon after administration of succinylcholine.

Succinylcholine has a major potential interaction with History - Musculoskeletal Disorder.

The use of succinylcholine is contraindicated in patients with a personal or family history of skeletal muscle myopathies. Acute rhabdomyolysis with hyperkalemia followed by ventricular arrhythmias, cardiac arrest, and death have been reported following the administration of succinylcholine in apparently healthy children who were later found to have undiagnosed skeletal muscle myopathy, most frequently Duchenne muscular dystrophy. Immediate treatment of hyperkalemia should be instituted whenever a healthy appearing infant or child develops cardiac arrest with no obvious cause soon after administration of succinylcholine.

Succinylcholine has a major potential interaction with Hyperkalemia.

The use of succinylcholine is contraindicated in patients after the acute phase of injury following major burns, multiple trauma, extensive denervation of skeletal muscle, or upper motor neuron injury. has been associated with an elevation in potassium levels due to rapid release of potassium from intracellular sites. Therapy with succinylcholine should be administered cautiously in patients with hyperkalemic states such as extensive soft-tissue trauma, burns, chronic abdominal infections, and subarachnoid hemorrhage.

The lidocaine in Flavalta has a moderate potential interaction with Hyperkalemia.

Electrolyte imbalance can alter the therapeutic effectiveness of antiarrhythmic agents. Hypokalemia and hypomagnesemia can reduce the effectiveness of antiarrhythmic agents. In some cases, these disorders can exaggerate the degree of QTc prolongation and increase the potential for torsade de pointes. Hyperkalemia can potentiate the toxic effects of antiarrhythmic agents. Electrolyte imbalance should be corrected prior to initiating antiarrhythmic therapy. Clinical monitoring of cardiac function and electrolyte concentrations is recommended.

The EPINEPHrine in Flavalta has a major potential interaction with Hyperthyroidism.

Sympathomimetic agents may cause adverse cardiovascular effects, particularly when used in high dosages and/or in susceptible patients. In cardiac tissues, these agents may produce positive chronotropic and inotropic effects via stimulation of beta- 1 adrenergic receptors. Cardiac output, oxygen consumption, and the work of the heart may be increased. In the peripheral vasculature, vasoconstriction may occur via stimulation of alpha-1 adrenergic receptors. Palpitations, tachycardia, arrhythmia, hypertension, reflex bradycardia, coronary occlusion, cerebral vasculitis, myocardial infarction, cardiac arrest, and death have been reported. Some of these agents, particularly ephedra alkaloids (ephedrine, ma huang, phenylpropanolamine), may also predispose patients to hemorrhagic and ischemic stroke. Therapy with sympathomimetic agents should generally be avoided or administered cautiously in patients with sensitivity to sympathomimetic amines, hyperthyroidism, or underlying cardiovascular or cerebrovascular disorders. These agents should not be used in patients with severe coronary artery disease or severe/uncontrolled hypertension.

The lidocaine in Flavalta has a moderate potential interaction with Hypokalemia.

Electrolyte imbalance can alter the therapeutic effectiveness of antiarrhythmic agents. Hypokalemia and hypomagnesemia can reduce the effectiveness of antiarrhythmic agents. In some cases, these disorders can exaggerate the degree of QTc prolongation and increase the potential for torsade de pointes. Hyperkalemia can potentiate the toxic effects of antiarrhythmic agents. Electrolyte imbalance should be corrected prior to initiating antiarrhythmic therapy. Clinical monitoring of cardiac function and electrolyte concentrations is recommended.

The lidocaine in Flavalta has a major potential interaction with Hypotension.

Antiarrhythmic agents can induce severe hypotension (particularly with IV administration) or induce or worsen congestive heart failure (CHF). Patients with primary cardiomyopathy or inadequately compensated CHF are at increased risk. Antiarrhythmic agents should be administered cautiously and dosage and/or frequency of administration modified in patients with hypotension or adequately compensated CHF. Alternative therapy should be considered unless these conditions are secondary to cardiac arrhythmia.

The lidocaine in Flavalta has a major potential interaction with Liver Disease.

Lidocaine is rapidly and extensively metabolized by the liver. Less than 10% is eliminated unchanged in the urine. Several inactive and two active forms (MEGX and GX) have been identified. MEGX and GX exhibit antiarrhythmic and convulsant properties. GX accumulates during prolonged intravenous lidocaine infusion. The pharmacokinetic disposition of lidocaine is altered by changes in hepatic function, including hepatic blood flow. Therapy with lidocaine should be administered cautiously and dosing modifications for repeated or loading and maintenance doses may be necessary. Clinical monitoring of cardiac (continuous ECG) is required and serum metabolite concentrations and monitoring hepatic function are recommended.

The lidocaine in Flavalta has a moderate potential interaction with Magnesium Imbalance.

Electrolyte imbalance can alter the therapeutic effectiveness of antiarrhythmic agents. Hypokalemia and hypomagnesemia can reduce the effectiveness of antiarrhythmic agents. In some cases, these disorders can exaggerate the degree of QTc prolongation and increase the potential for torsade de pointes. Hyperkalemia can potentiate the toxic effects of antiarrhythmic agents. Electrolyte imbalance should be corrected prior to initiating antiarrhythmic therapy. Clinical monitoring of cardiac function and electrolyte concentrations is recommended.

Succinylcholine has a major potential interaction with Malignant Hyperthermia.

The use of succinylcholine is contraindicated in patients with a personal or family history of malignant hyperthermia. Succinylcholine administration has been associated with acute onset of malignant hyperthermia, especially during the concomitant use of volatile anesthetics. If malignant hyperthermia occurs, anesthesia should be discontinued and supportive measures rendered promptly, including rapid cooling, inhalation of 100% oxygen, control of acidosis, support of circulation, and assurance of adequate urinary output. In addition, intravenous dantrolene sodium is recommended.

Succinylcholine has a moderate potential interaction with Myasthenia Gravis.

Depolarizing agents, including succinylcholine, should be used with caution in patients with known neuromuscular junction disease. The succinylcholine-induced neuromuscular blockade may be prolonged in patients with myasthenia gravis (MG). Care should be exercised when using this agent in patients with existing, previously diagnosed MG.

Succinylcholine has a major potential interaction with Myopathy.

The use of succinylcholine is contraindicated in patients with a personal or family history of skeletal muscle myopathies. Acute rhabdomyolysis with hyperkalemia followed by ventricular arrhythmias, cardiac arrest, and death have been reported following the administration of succinylcholine in apparently healthy children who were later found to have undiagnosed skeletal muscle myopathy, most frequently Duchenne muscular dystrophy. Immediate treatment of hyperkalemia should be instituted whenever a healthy appearing infant or child develops cardiac arrest with no obvious cause soon after administration of succinylcholine.

The EPINEPHrine in Flavalta has a moderate potential interaction with Neurological Disorders.

Epinephrine should be administered with caution to patients with Parkinson's disease as these patients may experience psychomotor agitation or notice a temporary worsening of symptoms.

The EPINEPHrine in Flavalta has a moderate potential interaction with Parkinsonism.

Epinephrine should be administered with caution to patients with Parkinson's disease as these patients may experience psychomotor agitation or notice a temporary worsening of symptoms.

The EPINEPHrine in Flavalta has a major potential interaction with Pheochromocytoma.

Sympathomimetic agents may cause adverse cardiovascular effects, particularly when used in high dosages and/or in susceptible patients. In cardiac tissues, these agents may produce positive chronotropic and inotropic effects via stimulation of beta- 1 adrenergic receptors. Cardiac output, oxygen consumption, and the work of the heart may be increased. In the peripheral vasculature, vasoconstriction may occur via stimulation of alpha-1 adrenergic receptors. Palpitations, tachycardia, arrhythmia, hypertension, reflex bradycardia, coronary occlusion, cerebral vasculitis, myocardial infarction, cardiac arrest, and death have been reported. Some of these agents, particularly ephedra alkaloids (ephedrine, ma huang, phenylpropanolamine), may also predispose patients to hemorrhagic and ischemic stroke. Therapy with sympathomimetic agents should generally be avoided or administered cautiously in patients with sensitivity to sympathomimetic amines, hyperthyroidism, or underlying cardiovascular or cerebrovascular disorders. These agents should not be used in patients with severe coronary artery disease or severe/uncontrolled hypertension.

Succinylcholine has a major potential interaction with Pulmonary Impairment.

Neuromuscular blocking agents can cause respiratory depression and paralysis. Therapy with neuromuscular blocking agents should be administered cautiously in patients with pulmonary impairment. Treatment of respiratory paralysis consists of positive-pressure artificial respiration with oxygen and maintenance of a patent airway until the recovery of normal respiration is assured.

The lidocaine in Flavalta has a major potential interaction with Renal Dysfunction.

Lidocaine is primarily eliminated by the kidney. Less than 10% is eliminated unchanged in the urine. Two active metabolites (MEGX and GX) have been identified that exhibit antiarrhythmic and convulsant properties. GX accumulates during prolonged intravenous lidocaine infusion. Serum concentrations of lidocaine and the active metabolites are increased and the half-life prolonged in patients with renal impairment. Therapy with lidocaine should be administered cautiously and dosing modified for repeated or maintenance doses in patients with compromised renal function. Clinical monitoring of cardiac function (continual ECG) is required and serum metabolite concentrations and monitoring renal function are recommended.

The lidocaine in Flavalta has a major potential interaction with Seizures.

Seizures have occurred during lidocaine therapy and have been associated with the rapid administration of a large intravenous doses or accumulation of active metabolites with maintenance therapy. Therapy with lidocaine should be administered cautiously to patients with or predisposed to seizure disorders. Clinical monitoring of cardiac (continuous ECG) is required, and serum metabolite concentrations are recommended.