A narcotic analgesic structurally related to METHADONE. Only the dextro-isomer has an analgesic effect; the levo-isomer appears to exert an antitussive effect.
A narcotic antagonist with analgesic properties. It is used for the control of moderate to severe pain.
An opioid analgesic related to MORPHINE but with less potent analgesic properties and mild sedative effects. It also acts centrally to suppress cough.
Analgesic antipyretic derivative of acetanilide. It has weak anti-inflammatory properties and is used as a common analgesic, but may cause liver, blood cell, and kidney damage.
Compounds with activity like OPIATE ALKALOIDS, acting at OPIOID RECEPTORS. Properties include induction of ANALGESIA or NARCOSIS.
Single preparations containing two or more active agents, for the purpose of their concurrent administration as a fixed dose mixture.

Postoperative analgesia and vomiting, with special reference to day-case surgery: a systematic review. (1/68)

BACKGROUND: Day-case surgery is of great value to patients and the health service. It enables many more patients to be treated properly, and faster than before. Newer, less invasive, operative techniques will allow many more procedures to be carried out. There are many elements to successful day-case surgery. Two key components are the effectiveness of the control of pain after the operation, and the effectiveness of measures to minimise postoperative nausea and vomiting. OBJECTIVES: To enable those caring for patients undergoing day-case surgery to make the best choices for their patients and the health service, this review sought the highest quality evidence on: (1) the effectiveness of the control of pain after an operation; (2) the effectiveness of measures to minimise postoperative nausea and vomiting. METHODS: Full details of the search strategy are presented in the report. RESULTS - ANALGESIA: The systematic reviews of the literature explored whether different interventions work and, if they do work, how well they work. A number of conclusions can be drawn. RESULTS-ANALGESIA, INEFFECTIVE INTERVENTIONS: There is good evidence that some interventions are ineffective. They include: (1) transcutaneous electrical nerve stimulation in acute postoperative pain; (2) the use of local injections of opioids at sites other than the knee joint; (3) the use of dihydrocodeine, 30 mg, in acute postoperative pain (it is no better than placebo). RESULTS-ANALGESIA, INTERVENTIONS OF DOUBTFUL VALUE: Some interventions may be effective but the size of the effect or the complication of undertaking them confers no measurable benefit over conventional methods. Such interventions include: (1) injecting morphine into the knee joint after surgery: there is a small analgesic benefit which may last for up to 24 hours but there is no clear evidence that the size of the benefit is of any clinical value; (2) manoeuvres to try and anticipate pain by using pre-emptive analgesia; these are no more effective than standard methods; (3) administering non-steroidal anti-inflammatory drugs (NSAIDs) by injection or per rectum in patients who can swallow; this appears to be no more effective than giving NSAIDs by mouth and, indeed, may do more harm than good; (4) administering codeine in single doses; this has poor analgesic efficacy. RESULTS-ANALGESIA, INTERVENTIONS OF PROVEN VALUE: These include a number of oral analgesics including (at standard doses): (1) dextropropoxyphene; (2) tramadol; (3) paracetamol; (4) ibuprofen; (5) diclofenac. Diclofenac and ibuprofen at standard doses give analgesia equivalent to that obtained with 10 mg of intramuscular morphine. Each will provide at least 50% pain relief from a single oral dose in patients with moderate or severe postoperative pain. Paracetamol and codeine combinations also appear to be highly effective, although there is little information on the standard doses used in the UK. The relative effectiveness of these analgesics is compared in an effectiveness 'ladder' which can inform prescribers making choices for individual patients, or planning day-case surgery. Dose-response relationships show that higher doses of ibuprofen may be particularly effective. Topical NSAIDs (applied to the skin) are effective in minor injuries and chronic pain but there is no obvious role for them in day-case surgery. RESULTS-POSTOPERATIVE NAUSEA AND VOMITING: The proportion of patients who may feel nauseated or vomit after surgery is very variable, despite similar operations and anaesthetic techniques. Systematic review can still lead to clear estimations of effectiveness of interventions. Whichever anti-emetic is used, the choice is often between prophylactic use (trying to prevent anyone vomiting) and treating those people who do feel nauseated or who may vomit. Systematic reviews of a number of different anti-emetics show clearly that none of the anti-emetics is sufficiently effective to be used for prophylaxis. (ABSTRACT TRUNCATE  (+info)

Prevalence of drugs used in cases of alleged sexual assault. (2/68)

In recent years, there has been an increase in the number of reports in the U.S. of the use of drugs, often in conjunction with alcohol, to commit sexual assault. A study was undertaken to assess the prevalence of drug use in sexual assault cases in which substances are suspected of being involved. Law enforcement agencies, emergency rooms, and rape crisis centers across the U.S. were offered the opportunity to submit urine samples collected from victims of alleged sexual assault, where drug use was suspected, for analysis of alcohol and drugs which may be associated with sexual assault. Each sample was tested by immunoassay for amphetamines, barbiturates, benzodiazepines, cocaine metabolite (benzoylecgonine), cannabinoids, methaqualone, opiates, phencyclidine and propoxyphene. The positive screen results were confirmed by gas chromatography-mass spectroscopy (GC-MS). In addition, each sample was tested for flunitrazepam metabolites and gamma-hydroxybutyrate (GHB) by GC-MS and for ethanol by gas chromatography-flame ionization detection (GC-FID). Over a 26-month period, 1179 samples were collected and analyzed from 49 states, Puerto Rico, and the District of Columbia. The states sending the most samples were California (183), Texas (119), Florida (61), Pennsylvania (61), New York (61), Minnesota (50), Illinois (47), Indiana (44), Michigan (40), Maryland (37), Virginia (32), and Massachusetts (31). Four-hundred sixty eight of the samples were found negative for all the substances tested; 451 were positive for ethanol, 218 for cannabinoids, 97 for benzoylecgonine, 97 for benzodiazepines, 51 for amphetamines, 48 for GHB, 25 for opiates, 17 for propoxyphene, and 12 for barbiturates. There were no samples identified as positive for phencyclidine or methaqualone. In addition, 35% of the drug-positive samples contained multiple drugs. This study indicates that, with respect to alleged sexual assault cases, the prevalence of ethanol is very high, followed by cannabinoids, cocaine, benzodiazepines, amphetamines, and GHB. Although only a couple of substances have been implicated with sexual assault, this study has shown that almost 20 different substances have been associated with this crime. This study also raises the concern of illicit and licit drug use in sexual assault cases and suggests the need to test for a range of drugs in these cases. It also highlights the need to test for GHB, which is not generally tested for in a normal toxicology screen.  (+info)

Binding and hydrolysis of meperidine by human liver carboxylesterase hCE-1. (3/68)

Human liver carboxylesterases catalyze the hydrolysis of apolar drug or xenobiotic esters into more soluble acid and alcohol products for elimination. Two carboxylesterases, hCE-1 and hCE-2, have been purified and characterized with respect to their role in cocaine and heroin hydrolysis. The binding of meperidine (Demerol) and propoxyphene (Darvon) was examined in a competitive binding, spectrophotometric assay. The hCE-1 and hCE-2 bound both drugs, with Ki values in the 0.4- to 1.3-mM range. Meperidine was hydrolyzed to meperidinic acid and ethanol by hCE-1 but not hCE-2. The Km of hCE-1 for meperidine was 1.9 mM and the kcat (catalytic rate constant) was 0.67 min-1. Hydrolysis of meperidine by hCE-1 was consistent with its specificity for hydrolysis of esters containing simple aliphatic alcohol substituents. Hence, hCE-1 in human liver microsomes may play an important role in meperidine elimination. Propoxyphene was not hydrolyzed by hCE-1 or hCE-2. This observation is consistent with the absence of a major hydrolytic pathway for propoxyphene metabolism in humans.  (+info)

Hypersensitivity pneumonitis associated with co-proxamol (paracetamol + dextropropoxyphene) therapy. (4/68)

A 61-year-old man developed hypersensitivity pneumonitis and skin rash in close association with taking co-proxamol. These problems occurred in spite of being treated with prednisolone 40 mg daily (20 mg daily at the time of presentation) for assumed cranial arteritis. A therapeutic challenge with paracetamol was negative and the patient continues to take this drug. It seems likely that this patient's rash and hypersensitivity pneumonitis was caused by dextropropoxyphene. Dextropropoxyphene has not been reported previously as a cause of hypersensitivity pneumonitis.  (+info)

Norpropoxyphene-induced cardiotoxicity is associated with changes in ion-selectivity and gating of HERG currents. (5/68)

OBJECTIVE: Norpropoxyphene (NP) is a major metabolite of propoxyphene (P), a relatively weak mu-opioid receptor agonist. Toxic blood concentrations ranging from 3 to 180 mumol/l have been reported and the accumulation of NP in cardiac tissue leads to naloxone-insensitive cardiotoxicity. Since several lines of evidence suggest that not only block of INa but also IK block may contribute to the non-opioid cardiotoxic effects of P and NP, we investigated the effects of P and NP on HERG channels. HERG presumably encodes IKr, the rapidly-activating delayed rectifier K+ current, which is known to have an important role in initiating repolarization of action potentials in cardiac myocytes. METHODS: Using the 2-microelectrode voltage clamp technique we investigated the interaction of P and NP with HERG channels, expressed in Xenopus oocytes. RESULTS: Our experiments show that low drug concentrations (5 mumol/l) facilitate HERG currents, while higher drug concentrations block HERG currents (IC50-values of approx. 40 mumol/l) and dramatically shift the reversal potential to a more positive value because of a 30-fold increased Na(+)-permeability. P and NP also alter gating of HERG channels by slowing down channel activation and accelerating channel deactivation kinetics. The mutant S631C nullifies the effect of P and NP on the channel's K(+)-selectivity. CONCLUSION: P and NP show a complex and unique drug-channel interaction, which includes altering ion-selectivity and gating. Site-directed mutagenesis suggests that an interaction with S631 contributes to the drug-induced disruption of K(+)-selectivity. No specific role of the minK subunit in the HERG block mechanism could be determined.  (+info)

An unusual multiple drug intoxication case involving citalopram. (6/68)

A 47-year-old male with a history of drug abuse and suicide attempts was found dead at home. The death scene investigation showed evidence of cocaine abuse and multiple drug ingestion. Citralopram, a new selective serotonin reuptake inhibitor, cocaine, oxycodone, promethazine, propoxyphene, and norpropoxyphene were identified and quantitated in the postmortem samples by gas chromatography-mass spectrometry. The concentration of citalopram in the femoral blood was 0.88 mg/L. The heart blood concentration was 1.16 mg/L. Femoral blood concentrations of the other drugs were as follows: cocaine, 0.03 mg/L; oxycodone, 0.06 mg/L; promethazine, 0.02 mg/L; propoxyphene, 0.02 mg/L; and norpropoxyphene, 0.07 mg/L. Other tissue samples were also analyzed. The concentrations of cocaine, oxycodone, promethazine, and propoxyphene in the blood, liver, brain, and gastric contents did not suggest an intentional overdose. However, the possibility of multiple drug interactions including citalopram was evident. In this case, the citalopram concentrations were consistent with those reported in fatal cases involving multiple drug use. Citalopram was present in urine at a concentration of 0.9 mg/L.  (+info)

Drug- and mutagenesis-induced changes in the selectivity filter of a cardiac two-pore background K+ channel. (7/68)

OBJECTIVE: As compared with voltage-gated K(+) channels (Kv-type), our knowledge of the structure-function and pharmacology of two-pore background K(+) channels is still very limited. Here we have used a drug- and mutagenesis-based approach to study the effect of the antidepressant fluoxetine (FL) and analgesic D-norpropoxyphene (NORP) on the cardiac two-pore background K(+) channel. METHODS: Whole-cell currents of the cTBAK-1 channel expressed in Xenopus laevis oocytes were investigated using conventional two-microelectrode voltage-clamp recording method combined with functional mutagenesis of the channel protein. RESULTS: Both drugs inhibit cTBAK-1 current: FL proved to be a voltage-dependent pore-blocker, while NORP induced a change in the selectivity of cTBAK-1 giving rise to a shift in the reversal potential (E(rev)) toward more positive voltages due to an increased Na(+) permeability. Mutations were introduced into the selectivity filter of the first (Y105F) and the second (F211Y) pore to mimic the P-region of HERG (GFGN) and Kv1.1 (GYGD) channels. Point mutations in the channel resulted in two distinct phenotypes of cTBAK-1: the mutant Y105F channel lost its selectivity and was unaffected by NORP, in contrast to the F211Y mutant. CONCLUSION: FL and NORP block the current of cTBAK-1 channels differently, the latter modified the selectivity of the channel pore. Our mutagenesis study revealed that NORP interacts with the selectivity filter of cTBAK-1. The significant role of the GYGD motif in this type of K(+) channels is emphasized.  (+info)

Co-proxamol and suicide: a study of national mortality statistics and local non-fatal self poisonings. (8/68)

OBJECTIVES: To examine the incidence of suicides due to co-proxamol compared with tricyclic antidepressants and paracetamol, and to compare fatality rates for self poisonings with these drugs. DESIGN: Analysis of routinely collected national and local data on suicides and self poisonings. SETTING: Records of suicides in England and Wales 1997-9; non-fatal self poisonings in Oxford District 1997-9. DATA SOURCES: Office for National Statistics and Oxford monitoring system for attempted suicide. MAIN OUTCOME MEASURES: Incidence of suicides with co-proxamol or tricyclic antidepressants or paracetamol. Ratios of fatal to non-fatal self poisonings. RESULTS: Co-proxamol alone accounted for 5% of all suicides. Of 4162 drug related suicides, 18% (766) involved co-proxamol alone, 22% (927) tricyclic antidepressants alone, and 9% (368) paracetamol alone. A higher proportion of suicides in the 10-24 year age group were due to co-proxamol than in the other age groups. The odds of dying after overdose with co-proxamol was 2.3 times (95% confidence interval 2.1 to 2.5) that for tricyclic antidepressants and 28.1 times (24.9 to 32.9) that for paracetamol. CONCLUSIONS: Self poisoning with co-proxamol is particularly dangerous and contributes substantially to drug related suicides. Restricting availability of co-proxamol could have an important role in suicide prevention.  (+info)

Dextropropoxyphene is a mild narcotic analgesic (pain reliever) that is prescribed for the relief of moderate to moderately severe pain. It is a synthetic opioid and works by binding to opiate receptors in the brain, spinal cord, and other areas of the body to reduce the perception of pain. Dextropropoxyphene is available in immediate-release and extended-release tablets, usually in combination with acetaminophen (also known as paracetamol).

Dextropropoxyphene has a narrow therapeutic index, which means that there is only a small range between the effective dose and a potentially toxic dose. It also has a high potential for abuse and addiction, and its use has been associated with serious side effects such as respiratory depression, seizures, and cardiac arrhythmias. In 2010, the U.S. Food and Drug Administration (FDA) withdrew approval for all dextropropoxyphene-containing products due to these safety concerns.

Meptazinol is a synthetic opioid analgesic with both agonist and antagonist properties. It is primarily used for the relief of moderate to severe pain, although its use is less common than other opioids due to its side effect profile. Meptazinol works by binding to opioid receptors in the brain and spinal cord, reducing the perception of pain and increasing tolerance to painful stimuli. It may also produce a sedative effect and can cause respiratory depression at high doses.

Meptazinol is available in various forms, including tablets and injectable solutions, and its use is typically reserved for short-term pain management in hospital settings. Common side effects of meptazinol include nausea, vomiting, dizziness, and sweating. Less commonly, it may cause more serious side effects such as hallucinations, seizures, and cardiovascular problems.

It is important to note that meptazinol and other opioids carry a risk of addiction and physical dependence, and their use should be closely monitored by a healthcare professional.

Codeine is a opiate analgesic, commonly used for its pain-relieving and cough suppressant properties. It is typically prescribed for mild to moderately severe pain, and is also found in some over-the-counter cold and cough medications. Codeine works by binding to opioid receptors in the brain and spinal cord, which helps to reduce the perception of pain. Like other opiates, codeine can produce side effects such as drowsiness, constipation, and respiratory depression, and it carries a risk of dependence and addiction with long-term use. It is important to follow your healthcare provider's instructions carefully when taking codeine, and to inform them of any other medications you are taking, as well as any medical conditions you may have.

Acetaminophen is a medication used to relieve pain and reduce fever. It is a commonly used over-the-counter drug and is also available in prescription-strength formulations. Acetaminophen works by inhibiting the production of prostaglandins, chemicals in the body that cause inflammation and trigger pain signals.

Acetaminophen is available in many different forms, including tablets, capsules, liquids, and suppositories. It is often found in combination with other medications, such as cough and cold products, sleep aids, and opioid pain relievers.

While acetaminophen is generally considered safe when used as directed, it can cause serious liver damage or even death if taken in excessive amounts. It is important to follow the dosing instructions carefully and avoid taking more than the recommended dose, especially if you are also taking other medications that contain acetaminophen.

If you have any questions about using acetaminophen or are concerned about potential side effects, it is always best to consult with a healthcare professional.

Analgesics, opioid are a class of drugs used for the treatment of pain. They work by binding to specific receptors in the brain and spinal cord, blocking the transmission of pain signals to the brain. Opioids can be synthetic or natural, and include drugs such as morphine, codeine, oxycodone, hydrocodone, hydromorphone, fentanyl, and methadone. They are often used for moderate to severe pain, such as that resulting from injury, surgery, or chronic conditions like cancer. However, opioids can also produce euphoria, physical dependence, and addiction, so they are tightly regulated and carry a risk of misuse.

A drug combination refers to the use of two or more drugs in combination for the treatment of a single medical condition or disease. The rationale behind using drug combinations is to achieve a therapeutic effect that is superior to that obtained with any single agent alone, through various mechanisms such as:

* Complementary modes of action: When different drugs target different aspects of the disease process, their combined effects may be greater than either drug used alone.
* Synergistic interactions: In some cases, the combination of two or more drugs can result in a greater-than-additive effect, where the total response is greater than the sum of the individual responses to each drug.
* Antagonism of adverse effects: Sometimes, the use of one drug can mitigate the side effects of another, allowing for higher doses or longer durations of therapy.

Examples of drug combinations include:

* Highly active antiretroviral therapy (HAART) for HIV infection, which typically involves a combination of three or more antiretroviral drugs to suppress viral replication and prevent the development of drug resistance.
* Chemotherapy regimens for cancer treatment, where combinations of cytotoxic agents are used to target different stages of the cell cycle and increase the likelihood of tumor cell death.
* Fixed-dose combination products, such as those used in the treatment of hypertension or type 2 diabetes, which combine two or more active ingredients into a single formulation for ease of administration and improved adherence to therapy.

However, it's important to note that drug combinations can also increase the risk of adverse effects, drug-drug interactions, and medication errors. Therefore, careful consideration should be given to the selection of appropriate drugs, dosing regimens, and monitoring parameters when using drug combinations in clinical practice.

However, dextropropoxyphene has one-third to one-half of the analgesic activity of codeine. Dextropropoxyphene has been found ... In Australia, dextropropoxyphene is available on prescription, both as a combined product (32.5 mg dextropropoxyphene per 325 ... Dextropropoxyphene is contraindicated in patients allergic to paracetamol (acetaminophen) or dextropropoxyphene, and in ... followed by manufacturers of dextropropoxyphene. In Australia, both pure dextropropoxyphene capsules (as napsylate, 100 mg), ...
Effects on liver of analgesics containing dextropropoxyphene and/or chlorzoxazone] ... Dextropropoxyphene-paracetamol and general convulsive crisis: case report]. Lagnaoui R, Barcat D, Fach J, Bégaud B, Longy- ... Propoxyphene (dextropropoxyphene): a critical review of a weak opioid analgesic that should remain in antiquity. Barkin RL, ... Effects on liver of analgesics containing dextropropoxyphene and/or chlorzoxazone] [Article in Swedish] ...
Effects on liver of analgesics containing dextropropoxyphene and/or chlorzoxazone] ... Dextropropoxyphene-paracetamol and general convulsive crisis: case report]. Lagnaoui R, Barcat D, Fach J, Bégaud B, Longy- ... Propoxyphene (dextropropoxyphene): a critical review of a weak opioid analgesic that should remain in antiquity. Barkin RL, ... Effects on liver of analgesics containing dextropropoxyphene and/or chlorzoxazone] [Article in Swedish] ...
UPDATE in relation to Di-Gesic (dextropropoxyphene HCl 32.5 mg/paracetamol 325 mg) and Doloxene (dextropropoxyphene napsylate) ... in relation to the ongoing supply of medications containing dextropropoxyphene. ... http://www.tga.gov.au/safety/alert-medicine-dextropropoxyphene-131010.htm. - Aspen will provide further details in relation to ...
Dextropropoxyphene. In: Aronson JK, ed. Meylers Side Effects of Drugs. 16th ed. Waltham, MA: Elsevier; 2016:906-908. ...
Dextropropoxyphene. 422. Tenderness and stiffness in knee. 1. Mild Ongoinga 432. Knee pain. 1. Mild Ongoinga ...
Hereditary coproporphyria is one of the porphyrias, a group of diseases that involves defects in heme metabolism and that results in excessive secretion of porphyrins and porphyrin precursors. Inheritance is autosomal (usually autosomal dominant, but sometimes autosomal recessive).
Dextropropoxyphene * Drug Prescriptions* / economics * Drug Therapy* / economics * Drug Utilization* / economics * Drug ...
In the United States, the most common definition of binge drinking was created by the National Institute of Alcohol Abuse and Alcoholism in 2009.[2] It says that binge drinking is a pattern of drinking alcohol that brings a persons blood alcohol content (BAC) to 0.08 or more. Blood alcohol content is the percentage of ethanol in the persons blood. (In the United States, a BAC of 0.08 means a person is legally drunk.) This means that a person would be binge drinking if:[3] ...
Snippets: NSAIDs dextropropoxyphene and antibiotic resistance. Drug information of topical interest View Article ...
Dextropropoxyphene. D08 - Enzymes and Coenzymes. 3,5-Cyclic-GMP Phosphodiesterase. 3,5-Cyclic-GMP Phosphodiesterases. ...
5) Bulk dextropropoxyphene (nondosage forms) 9273. (6) Carfentanil 9743. (7) Dihydrocodeine 9120 ...
Single-dose dextropropoxyphene in post-operative pain: a quantitative systematic review. Eur J Clin Pharmacol. 1998;54:107-12. ... Single dose dextropropoxyphene, alone and with paracetamol (acetaminophen), for postoperative pain. Cochrane Database Syst Rev ...
Acetaminophen; Dextropropoxyphene Hydrochloride. Doxicento. Doxycycline Hyclate. Elanpress. Methyldopa. Elopram. Citalopram ...
Dextropropoxyphene ( Poorly safe. Evaluate carefully. Use safer alternative or interrupt breastfeeding 3 to 7 T ½ (elimination ...
Dextropropoxyphene/Propoxyphene․․․․․․․․․․․․․․․․․․․․․․․․․․․․․․․․․․․․․․․․․․․․․․․. ․․․․․․․․․․․․․․․․․․100. Diazepam ...
QN02AC54 dextropropoxyphene, combinations excl. psycholeptics. QN02AC74 dextropropoxyphene, combinations with psycholeptics. ... QN02AC04 dextropropoxyphene. QN02AC05 bezitramide. QN02AC52 methadone, combinations excl. psycholeptics. ...
Cimetidine, erythromycin and dextropropoxyphene had no effect on the pharmacokinetics of MHD. Results with warfarin show no ...
Dextropropoxyphene Diazepam. *Dichloralphenazone *Diclofenac Na. Dienoestrol. Diethylpropion. Dihydralazine. *Dihydroergotamine ...
3) Dextropropoxyphene ([S-(R*,S*)]-a-[2-(dimethylamino)-1-methylethyl]-a-phenylbenzeneethanol, propanoate ester) ...
Sulfonylureas, troglitazone, dantrolene, chlorzoxazone, dextropropoxyphene, allopurinol, gold. Toxins. *. Aflatoxin, death cap ...
Effect of the market withdrawal of dextropropoxyphene on use of other prescribed analgesics.. Reset A; Skurtveit S; Furu K; ...
Dextropropoxyphene (alpha-(+)-4-dimethylamino-1, 17 2-diphenyl-3-methyl-2-propionoxybutane). 18 (c) Depressants. Unless ...
Prescribed opioids include morphine, codeine, methadone, buprenorphine, pethidine (meperidine), dextropropoxyphene and ...
Schifano, F., Deluca, P., & Baldacchino, A. (2004). Online prescription drugs availability; the case of dextropropoxyphene. ...
DEXTROPROPOXYPHENE DIAZEPAM DIHYDRALAZINE DIMENHYDRINATE DISOPYRAMIDE DOSULEPINE OXEPINE ECONAZOLE ENALAPRIL ENFLURANE ...
2) Dextropropoxyphene, including its salts (Darvon, Darvon-N; also found in Darvon compound and Darvocet-N, etc.). ...
Dextropropoxyphene (alpha-(+)-4-dimethylamino-1,2-diphenyl-3-methyl-2-propionoxybutane).. (c) Depressants. - Unless ...
Kick Orlaam, Dextropropoxyphene or whichever particular substance has been taking hold of your life. ...

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