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Hypotension

Mention must be made of the u.se of o- or p-hydroxystyryl thiazolo dyes as indicators for protolytic titrations in nonaqueous media (145). and of the hypotensive action of some neotrinuclear thiazolo cyanines in experiments on animals (146). [Pg.80]

Many other bisben2ylisoquinoliae alkaloids, such as tetrandriae (80), from Cjcleapeltata Hook., are also known. Compound (80), for example, although it causes hypotension and hepatotoxicity ia mammals, ia other tests, possessed enough anticancer activity to be considered for preclioical evaluation (55). The arrow poison tubocurare prepared from Chondrendendron spp. also contains the bisben2yhsoquiQoline alkaloid tubocurariae (9). [Pg.545]

The resuspended and formulated Fraction II precipitate normally contains some aggregated IgG and trace substances that can cause hypotensive reactions in patients, such as the enzyme prekail ikrein activator (186). These features restrict this type of product to intramuscular adininistration. Further processing is required if products suitable for intravenous adininistration are required. Processes used for this purpose include treatment at pH 4 with the enzyme pepsin [9001-75-6] being added if necessary (131,184), or further purification by ion-exchange chromatography (44). These and other methods have been fiiUy reviewed (45,185,187,188). Intravenous immunoglobulin products are usually suppHed in the freeze-dried state but a product stable in the solution state is also available (189). [Pg.532]

Dorex is very toxic (see Table 2) and must be handled with extreme care. Because it may produce severe dermatitis on moist skin, it is difficult to use in hot, humid climates inhalation of the dust or spray may irritate the mucous membranes. Whereas symptoms may include a flushed face, tachycardia, headache, vertigo, and hypotension, it does not produce the typical cyanide effect. [Pg.424]

Combined Hj /H2 receptor stimulation by histamine is responsible for vasodilation-related symptoms, such as hypotension, flushing, and headache, as well as for tachycardia stimulated indirecdy through vasodilation and catecholamine secretion. [Pg.139]

Neurotensin. This hormone has been isolated and characterized from acid—acetone extracts of bovine hypothalamus (118) on the basis of its hypotensive activity. Immunoreactive neurotensin is present in mammalian gut and is distributed throughout the central nervous system its highest concentration is in the hypothalamus and in the substantia gelatinosa of the spinal cord (119). Its overall brain distribution is not unlike that of enkephalin ( ) ... [Pg.204]

Biologica.1 Activities a.ndAna.logues, The many pharmacological actions of neurotensin include hypotension, increased vascular permeabihty, hyperglycemia, increased intestinal motility, and inhibition of gastric acid secretion (120). In the brain, it produces analgesia at remarkably low doses (121). [Pg.204]

Acute intoxication with DHBs occurs mainly by the oral route symptoms are close to those induced by phenol poisoning including nausea, vomiting, diarrhea, tachypnea, pulmonary edema, and CNS excitation with possibiUty of seizures followed by CNS depression. Convulsions are more frequent with catechol as well as hypotension due to peripheral vasoconstriction. Hypotension and hepatitis seem more frequent with hydroquinone and resorcinol. Methemoglobinemia and hepatic injury may be noted within a few days after intoxication by DHBs. [Pg.494]

SRIF acts as an excitatory neuromodulator in the CNS inhibiting the release of TRH, corticotropin-releasing hormone (CRH), growth hormone releasing factor (GHRH), and NE. It produces general arousal and hypotension. It inhibits the release of a number of peptides and modulators in the GI tract. [Pg.575]

Eupatin (69, R = H) and Eupatoretin (69, R = CH3), which are isolated from thistle perennials, show moderate cytotoxicity against human carcinoma of the nasopharynx (236). Baicaleia (70) salts exhibit antiallergic and antiinflammatory activity. 3,4,5-Trimethoxyphenoxyacetamides are hypotensives and diuretics and are useful for controlling arrhythmia duting anesthesia (237). [Pg.388]

Isoflurane is a respiratory depressant (71). At concentrations which are associated with surgical levels of anesthesia, there is Htde or no depression of myocardial function. In experimental animals, isoflurane is the safest of the oral clinical agents (72). Cardiac output is maintained despite a decrease in stroke volume. This is usually because of an increase in heart rate. The decrease in blood pressure can be used to produce "deHberate hypotension" necessary for some intracranial procedures (73). This agent produces less sensitization of the human heart to epinephrine relative to the other inhaled anesthetics. Isoflurane potentiates the action of neuromuscular blockers and when used alone can produce sufficient muscle relaxation (74). Of all the inhaled agents currently in use, isoflurane is metabolized to the least extent (75). Unlike halothane, isoflurane does not appear to produce Hver injury and unlike methoxyflurane, isoflurane is not associated with renal toxicity. [Pg.409]

Propanidid. Propanidid [1421-14-3] (Epontol), C gH2yNO, (7) a derivative of the propyl ester of homo vanillic acid, has been in clinical use in Europe for a number of years. Its main advantage is rapid onset of action and a fast recovery which, like etomidate, is because of rapid metaboHsm by esterases rather than redistribution (108). Excretion is rapid 75 to 90% of the dmg is eliminated as metaboUtes within two hours. Propanidid side effects include hypotension, tachycardia, and hyperventilation followed by apnea, as well as excitatory side effects such as tremor and involuntary muscle movement (109). [Pg.411]

Morphine has certain undesirable side effects. Among these are respiratory depression, nausea, and vomiting, depression of the cough reflex, cardiovascular depression and hypotension, smooth muscle contraction (constipation), and histamine release (93). Morphine s onset of action, duration, and low therapeutic indices have prompted a search for a more effective opiate iv anesthetic. Extreme simplification of the complex morphine molecule has resulted in anilido —piperidines, the fentanyl class of extremely potent opiate iv anesthetics (118,119). [Pg.411]

Normally, dietary tyramine is broken down in the gastrointestinal tract by MAO and is not absorbed. In the presence of MAOI, however, all of its potent sympathomimetic actions are seen. Other side effects of MAOI include excessive CNS stimulation, orthostatic hypotension, weight gain, and in rare cases hepatotoxicity. Because the monoamine oxidase inhibitors exhibit greater toxicity, yet no greater therapeutic response than other, newer agents, clinical use has been markedly curtailed. The primary use for MAOIs is in the treatment of atypical depressions, eg, those associated with increased appetite, phobic anxiety, hypersomnolence, and fatigues, but not melancholia (2). [Pg.466]

Agent or class CNS effects Orthostatic hypotension Arrhythmias Anticholinergic effects Weight change... [Pg.468]

Doridosine. Doridosine, AJ -methyhsoguanosine, (35) was isolated from the dorid nudibranchs of Anisodoris nobilis and the sponge, Tedania (106,107). The injection of (35) into the saphenous vein of anesthetized rats produces hypotension and bradycardia almost immediately. The observed changes in the electrocardiograms are minor and indicate Httie interference with conduction of the impulse within the heart (see Cardiovascularagents). [Pg.122]

The Class I agents have many similar side effects and toxicities. The anticholinergic side effects include dry mouth, constipation, and urinary hesitancy and retention. Common gastrointestinal (GI) side effects include nausea, vomiting, diarrhea, and anorexia. Cardiovascular adverse effects are hypotension, tachycardia, arrhythmias, and myocardial depression, especially in patients with congestive heart failure. Common central nervous system (CNS) side effects are headache, dizziness, mental confusion, hallucinations, CNS stimulation, paraesthesias, and convulsions. [Pg.112]

The cardiovascular adverse effects associated with quinidine therapy are hypotension and tachycardia, both of which are related to its a-adrenoceptor blocking actions. The tachycardia may be a reflex adjustment to the fall in blood pressure or may also be a direct action of the dmg on sympathetic nerve terminals leading to an increased release of NE. Quinidine also produces ringing in the ears (cinchonism) (1,2). [Pg.113]

Toxic effects of propranolol are related to its blocking P-adrenoceptor blocking actions. They include cardiac failure, hypotension, hypoglycemia, and bronchospasm. Propranolol is lipophilic and crosses the blood—brain barrier. Complaints of fatigue, lethargy, mental depression, nightmares, hallucinations, and insomnia have been reported. GI side effects include nausea, vomiting, diarrhea, and constipation (1,2). [Pg.119]

Because of its brief half-life and minimal hpid solubihty, the side effects of esmolol are transient and include hypotension, cold extremities, dyspnea (from bronchospasms), bradycardia, nausea, vomiting, and headaches (41). [Pg.119]

The side effects and toxic reactions to verapamil iaclude upper GI upset, constipation, di22iaess, headaches, flushing and burning, edema, hypotension, bradycardia, and various conduction disturbances. Verapamil has negative iaotropic activity and may precipitate heart failure ia patients having ventricular dysfunction (1,2). [Pg.120]

Isoproterenol is given sublingually or by iv. It is metabolized by monoamine oxidase and catechol-0-methyltransferase in brain, Hver, and other adrenergically innervated organs. The pharmacological effects of isoproterenol are transient because of rapid inactivation and elimination. About 60% is excreted unchanged. Adverse effects using isoproterenol therapy include nervousness, hypotension, weakness, dizziness, headache, and tachycardia (86). [Pg.120]

Adenosine in large doses produces vasodilation resulting in facial flushing, Hghtheadedness, dizziness, and hypotension. Shortness of breath and... [Pg.120]

Amiodarone dilates arteriolar vascular smooth muscle, especiady coronary arteries, and thus exhibits antianginal effects. Its effects on the peripheral vasculature to decrease resistance leads to a decrease in left ventricular stroke work and a decrease in myocardial oxygen consumption. The dmg rarely produces hypotension that requires discontinuation of the dmg (1,2). [Pg.121]

Adverse effects with bretylium include hypotension, nausea, vomiting, parotid gland tenderness, and arrhythmogenesis (1,2). [Pg.121]

Sotalol is rapidly and almost completely (>90%) absorbed. Bioavahabhity of absorbed dmg is 89—100%. Peak plasma levels are achieved in 2—4 h. Sotalol is 50% bound to plasma proteins. Plasma half-life of the compound is about 5.2 h. No metabolites of sotalol have been identified indicating littie metabolism. The dmg is excreted mainly by the kidneys (80—90%) and about 10% is eliminated in the feces. The plasma half-life is prolonged in patients having renal failure. Kinetics of the compound are not affected by changes in liver function (1,2). Sotalol has ah the adverse effects of -adrenoceptor blockers including myocardial depression, bradycardia, transient hypotension, and proarrhythmic effects (1,2). [Pg.121]


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A hypotensive activity

Acetylcholine, hypotensive effect

Aldesleukin (interleukin hypotension

Alpha-adrenergic blockers hypotension caused

Amitriptyline, a tricyclic antidepressant, causes sedation and orthostatic hypotension

Amlodipine hypotension caused

Anaphylactic systemic hypotension

Anti-hypotensive agents

Antihypertensive and Hypotensive Drugs

Antipsychotic drugs orthostatic hypotension

Antiviral Hypotensive

Arteriolar dilation, hypotension caused

Beta-adrenoceptor antagonists hypotension

Betaxolol hypotension

Blockers hypotensive action

Blood pressure Hypertension Hypotension

Blood pressure Hypotension

Blood substitutes hypotension

Blood volume hypotension

Bradycardia hypotension

Caffeine orthostatic hypotension

Calcium antagonists hypotension caused

Cannabinoids, antagonists hypotensive action

Chlorella hypotensive components

Clonidine hypotension caused

Clonidine hypotensive action

Clonidine orthostatic hypotension

Debrisoquine hypotensive effect

Disopyramide hypotension caused

Diuretic drugs hypotensive action

Diuretics postural hypotension

Doxazosin hypotension caused

Ephedrine hypotension, treatment

Esmolol hypotension

Fentanyl hypotension

Fluid loss, hypotension caused

For hypotension

GABA hypotensive effect

Hemodialysis hypotension

Heparins hypotension

Hyper/hypotension

Hypertension hypotension

Hypokalemia hypotension

Hyponatremia Hypotension

Hypotension INDEX

Hypotension allergic drug reaction

Hypotension alpha-blocking drugs causing

Hypotension amantadine

Hypotension aminoglycosides

Hypotension amphetamine

Hypotension and

Hypotension anesthesia

Hypotension antagonists

Hypotension antidepressants causing

Hypotension antipsychotic drug toxicity

Hypotension antipsychotic-induced

Hypotension arterial

Hypotension beta-adrenoceptor

Hypotension beta-blocker-induced

Hypotension caused

Hypotension chlorpromazine

Hypotension clomipramine

Hypotension clonidine

Hypotension cocaine abuse

Hypotension dextran

Hypotension diphenhydramine

Hypotension disopyramide

Hypotension docetaxel

Hypotension doxycycline

Hypotension droperidol

Hypotension drugs producing

Hypotension emergency

Hypotension epidural anaesthesia

Hypotension first-dose

Hypotension first-dose, with antihypertensives

Hypotension from antidepressant drugs

Hypotension from antipsychotic drugs

Hypotension gentamicin

Hypotension haloperidol

Hypotension hematologic

Hypotension immunoglobulin

Hypotension inhibitors

Hypotension interleukin-2 treatment

Hypotension intravenous

Hypotension ipecac

Hypotension levodopa causing

Hypotension lidocaine

Hypotension mexiletine

Hypotension midazolam

Hypotension neonatal

Hypotension opioid-induced

Hypotension pathophysiology

Hypotension pentamidine

Hypotension phosphates

Hypotension postural

Hypotension postural/orthostatic

Hypotension propanidid

Hypotension remedies

Hypotension sepsis with

Hypotension spinal

Hypotension spinal anaesthesia

Hypotension streptokinase

Hypotension sympatholytics

Hypotension tacrolimus

Hypotension treatment

Hypotension tricyclic antidepressant-induced

Hypotension vancomycin

Hypotension verapamil

Hypotension vincristine

Hypotension with

Hypotension with angiotensin receptor blockers

Hypotension with barbiturates

Hypotension with diuretics

Hypotension with hemodialysis

Hypotension with nitrates

Hypotension, definition

Hypotension, nicotinic acid

Hypotension, paradoxical

Hypotensive

Hypotensive Constituents, Kuwanons G and

Hypotensive General

Hypotensive action

Hypotensive action mechanism

Hypotensive action of Morus alba

Hypotensive action of Morus species

Hypotensive action of clonidine

Hypotensive action of mulberrofuran

Hypotensive activity

Hypotensive activity roots

Hypotensive agent

Hypotensive agents, peripheral dilating

Hypotensive agents, pyrimidines

Hypotensive alkaloids

Hypotensive and

Hypotensive and spasmolytic

Hypotensive drug 2 receptor agonist

Hypotensive drug adrenergic agonist

Hypotensive drug beta-blocker

Hypotensive drug choice

Hypotensive drug inhibitor

Hypotensive drug latanoprost

Hypotensive drug pilocarpine

Hypotensive drug systemic effects

Hypotensive drug timolol

Hypotensive drugs

Hypotensive effect

Hypotensive effect of methyldopa

Hypotensive ephedra

Hypotensive hawthorn

Hypotensive mistletoe

Hypotensive peptides

Hypotensive peptides bradykinin

Hypotensive peptides pharmacology

Hypotensive peptides physiology

Hypotensive peptides vascular effects

Hypotensive response

Hypotensive shock

Influence on Orthostatic Hypotension

Intravenous immunoglobulin hypotension

Iridoids hypotensive activity

Ketamine hypotension

Kuwanon hypotensive action

Losartan hypotension

Metoclopramide hypotension

Midodrine, orthostatic hypotension

Mild hypotension

Minoxidil hypotension caused

Morphine hypotension

Natural products as anti-hypotensive drugs

Nausea orthostatic hypotension

Octreotide orthostatic hypotension

Olanzapine hypotension

Orthostatic hypotension

Orthostatic hypotension alpha-blocking drugs causing

Orthostatic hypotension bromocriptine

Orthostatic hypotension cannabis

Orthostatic hypotension levodopa causing

Orthostatic hypotension prazosin

Orthostatic hypotension with antidepressants

Paclitaxel hypotension

Postural hypotension chronic

Postural hypotension levodopa causing

Postural hypotension with levodopa

Postural hypotension, with monoamine oxidase

Postural hypotension, with monoamine oxidase inhibitors

Propofol hypotension

Protamine hypotension

Quetiapine orthostatic hypotension

Ranitidine hypotension

Remifentanil hypotension

Reserpine hypotension caused

Sedative-hypnotics hypotension caused

Spinal anesthesia hypotension

Stem cells hypotension

Sulfites hypotension

Symptomatic hypotension

Systemic arterial pressures hypotension

Terazosin hypotension caused

Theophylline hypotension caused

Used in the Treatment of Chronic Postural Hypotension

Valsartan hypotension

Venous dilation, hypotension caused

Verapamil hypotension caused

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