Drugs to Know 2 Flashcards
Phenelzine
Monoamine Oxidase Inhibitor (MAOI)
inhibits metabolism of NE, 5HT, and dopamine; increased effectiveness of synaptic transmission by increasing the amount of neurotransmitter released per action potential
Selegiline
Monoamine Oxidase Inhibitor (MAOI)
Depression: inhibits metabolism of NE, 5HT, and dopamine; increased effectiveness of synaptic transmission by increasing the amount of neurotransmitter released per action potential
Anti-Parkinson: inhibition of MAO to increase DA storage in vesicles; MAOI for dopaminergic neurons but is essentially inactive against MAO in noradrenergic neurons (except in very high doses)
Tranylcypromine
Monoamine Oxidase Inhibitor (MAOI)
inhibits metabolism of NE, 5HT, and dopamine; increased effectiveness of synaptic transmission by increasing the amount of neurotransmitter released per action potential
Amitriptyline
Tricyclic Antidepressants (TCA)
blocks reuptake of NE and 5HT
Desipramine
Tricyclic Antidepressants (TCA)
blocks reuptake of NE and 5HT
Imipramine
Tricyclic Antidepressants (TCA)
blocks reuptake of NE and 5HT
Nortriptyline
Tricyclic Antidepressants (TCA)
blocks reuptake of NE and 5HT
Citalopram
Selective Serotonin Reuptake Inhibitor (SSRI)
blocks reuptake of 5HT (highly selective); leads to increased concentration in the synaptic gap
Escitalopram
Selective Serotonin Reuptake Inhibitor (SSRI)
blocks reuptake of 5HT (highly selective); leads to increased concentration in the synaptic gap
Fluoxetine
Selective Serotonin Reuptake Inhibitor (SSRI)
blocks reuptake of 5HT (highly selective); leads to increased concentration in the synaptic gap
Paroxetine
Selective Serotonin Reuptake Inhibitor (SSRI)
blocks reuptake of 5HT (highly selective); leads to increased concentration in the synaptic gap
Sertraline
Selective Serotonin Reuptake Inhibitor (SSRI)
blocks reuptake of 5HT (highly selective); leads to increased concentration in the synaptic gap
Duloxetine
Serotonin/Norepinephrine Reuptake Inhibitor (SNRI)
blocks reuptake of NE and 5HT
Venlafaxine
Serotonin/Norepinephrine Reuptake Inhibitor (SNRI)
blocks reuptake of NE and 5HT
Bupropion
Atypical Antidepressant
weak dopamine and NE reuptake inhibitor
Mirtazapine
Atypical Antidepressant
enhances serotonin and NE neurotransmission (blocks presynaptic alpha-2 receptors); potent antihistamine activity (sedative)
Nefazodone
Atypical Antidepressant
weak inhibitor of serotonin reuptake; potent antihistamine activity (sedative)
Trazodone
Atypical Antidepressant
weak inhibitor of serotonin reuptake; potent antihistamine activity (sedative)
Alprazolam
Benzodiazepine
binding to receptor increases the affinity of GABA for its receptor; enhances the inhibitory effect of GABA; also decreases the release of GABA
Chlordiazepoxide
Benzodiazepine
binding to receptor increases the affinity of GABA for its receptor; enhances the inhibitory effect of GABA; also decreases the release of GABA
Clorazepate
Benzodiazepine
binding to receptor increases the affinity of GABA for its receptor; enhances the inhibitory effect of GABA; also decreases the release of GABA
Clonazepam
Benzodiazepine
binding to receptor increases the affinity of GABA for its receptor; enhances the inhibitory effect of GABA; also decreases the release of GABA
Diazepam
Benzodiazepine
binding to receptor increases the affinity of GABA for its receptor; enhances the inhibitory effect of GABA; also decreases the release of GABA
Estazolam
Benzodiazepine
binding to receptor increases the affinity of GABA for its receptor; enhances the inhibitory effect of GABA; also decreases the release of GABA
Flurazepam
Benzodiazepine
binding to receptor increases the affinity of GABA for its receptor; enhances the inhibitory effect of GABA; also decreases the release of GABA
Lorazepam
Benzodiazepine
binding to receptor increases the affinity of GABA for its receptor; enhances the inhibitory effect of GABA; also decreases the release of GABA
Midazolam
Benzodiazepine
binding to receptor increases the affinity of GABA for its receptor; enhances the inhibitory effect of GABA; also decreases the release of GABA
Oxazepam
Benzodiazepine
binding to receptor increases the affinity of GABA for its receptor; enhances the inhibitory effect of GABA; also decreases the release of GABA
Temazepam
Benzodiazepine
binding to receptor increases the affinity of GABA for its receptor; enhances the inhibitory effect of GABA; also decreases the release of GABA
Triazolam
Benzodiazepine
binding to receptor increases the affinity of GABA for its receptor; enhances the inhibitory effect of GABA; also decreases the release of GABA
Flumazenil
Benzodiazepine Antagonist
antagonist at benzodiazepine binding site; rapidly reduces cellular effects of benzodiazepines
Busprione
serotonin receptor agonist used to treat anxiety
Pentobarbital
Barbiturate
binding to receptor increases the affinity of GABA for its receptor; enhances the inhibitory effect of GABA
Phenobarbital
Barbiturate
binding to receptor increases the affinity of GABA for its receptor; enhances the inhibitory effect of GABA
Secobarbital
Barbiturate
binding to receptor increases the affinity of GABA for its receptor; enhances the inhibitory effect of GABA
Eszopiclone
Benzo-Like
high affinity for the benzodiazepine binding site of GABA receptors; mimic effects of BZDs
Zaleplon
Benzo-Like
high affinity for the benzodiazepine binding site of GABA receptors; mimic effects of BZDs
Zolpidem
Benzo-Like
high affinity for the benzodiazepine binding site of GABA receptors; mimic effects of BZDs
Reamelteon
melatonin receptor agonist
Acamprosate
Treatment of Alcohol Dependence
poorly understood MOA
Disulfiram
Treatment of Alcohol Dependence
inhibits aldehyde dehydrogenase; blocks important oxidation step; causes acetaldehyde accumulation in the blood (causes flushing, tachycardia, hyperventilation, nausea); patients avoid alcohol in order to avoid above effects
Naltrexone
Treatment of Alcohol Dependence
long-acting opiate antagonist; used along with psychotherapy support
Chlorpromazine
First Generation Antipsychotic
dopamine antagonist; decreases effectiveness of DA to produce action potential by blocking post-synaptic dopamine receptors
Fluphenazine
First Generation Antipsychotic
dopamine antagonist; decreases effectiveness of DA to produce action potential by blocking post-synaptic dopamine receptors
Haloperidol
First Generation Antipsychotic
dopamine antagonist; decreases effectiveness of DA to produce action potential by blocking post-synaptic dopamine receptors
Thioridazine
First Generation Antipsychotic
dopamine antagonist; decreases effectiveness of DA to produce action potential by blocking post-synaptic dopamine receptors
Thiothixene
First Generation Antipsychotic
dopamine antagonist; decreases effectiveness of DA to produce action potential by blocking post-synaptic dopamine receptors
Aripiprazole
Second Generation Antipsychotic
dopamine and 5HT receptor antagonists; have activity at more dopamine receptors than First Generation Antipsychotics
Clozapine
Second Generation Antipsychotic
dopamine and 5HT receptor antagonists; have activity at more dopamine receptors than First Generation Antipsychotics
Lurasidone
Second Generation Antipsychotic
dopamine and 5HT receptor antagonists; have activity at more dopamine receptors than First Generation Antipsychotics
Olanzapine
Second Generation Antipsychotic
dopamine and 5HT receptor antagonists; have activity at more dopamine receptors than First Generation Antipsychotics
Quetiapine
Second Generation Antipsychotic
dopamine and 5HT receptor antagonists; have activity at more dopamine receptors than First Generation Antipsychotics
Risperidone
Second Generation Antipsychotic
dopamine and 5HT receptor antagonists; have activity at more dopamine receptors than First Generation Antipsychotics
Ziprasidone
Second Generation Antipsychotic
dopamine and 5HT receptor antagonists; have activity at more dopamine receptors than First Generation Antipsychotics
Carbamazepine
Drugs Used to Treat Mania and Bipolar Disorder
anti-epileptic
Lithium
Drugs Used to Treat Mania and Bipolar Disorder
MOA not understood; appears to inhibit two signal transduction pathways; effects on synthesis and release of NE, 5HT, and DA; effects on cellular actions of above neurotransmitters
Valproic Acid
Drugs Used to Treat Mania and Bipolar Disorder
anti-epileptic
Levodopa/Carbidopa
Anti-Parkinson Drugs
boost DA synthesis- increases content of DA vesicles, increases amount of DA released, increased activation of postsynaptic receptors
Amantadine
Anti-Parkinson Drug
MOA in Parkinson’s is unknown; also an antiviral (inhibits viral uncoating; possibly more than usual DA-containing vesicles in the axon terminal are induced to release contents into the synapse; affects all dopaminergic neurons in the brain
Apomorphine
Anti-Parkinson Drug- Dopamine Agonist
induces DA release; enhances release without directly affecting synthesis or metabolism of DA
Pramipexole
Anti-Parkinson Drug- Dopamine Agonist
induces DA release; enhances release without directly affecting synthesis or metabolism of DA
Ropinirole
Anti-Parkinson Drug- Dopamine Agonist
induces DA release; enhances release without directly affecting synthesis or metabolism of DA
Rotigotine
Anti-Parkinson Drug- Dopamine Agonist
induces DA release; enhances release without directly affecting synthesis or metabolism of DA
Resagiline
Anti-Parkinson Drug- MAOI
inhibition of MAO to increase DA storage in vesicles; MAOI for dopaminergic neurons but is essentially inactive against MAO in noradrenergic neurons (except in very high doses)
Entacapone
Anti-Parkinson Drug- COMT Inhibitor
catechol-O-methyltransferase appears to interfere with levodopa uptake; entacapone inhibits this enzyme which increases the bioavailability of levodopa
Benztropine
Anti-Parkinson Drug- Antimuscarinic Agent
reduces cholinergic influence; assumes imbalance can be corrected by reducing cholinergic influence; blocks cholinergic receptors
Biperiden
Anti-Parkinson Drug- Antimuscarinic Agent
reduces cholinergic influence; assumes imbalance can be corrected by reducing cholinergic influence
Trihexphenidyl
Anti-Parkinson Drug- Antimuscarinic Agent
reduces cholinergic influence; assumes imbalance can be corrected by reducing cholinergic influence; blocks cholinergic receptors
Donepezil
Treatment of Alzheimer’s- Cholinesterase Inhibitor
Binds reversibly to acetylcholinesterase; inhibits activity of the enzyme; leads to an increase in acetylcholine in the synapse; maximizes the remaining pool of ACh by inhibiting breakdown
Galantamine
Treatment of Alzheimer’s- Cholinesterase Inhibitor
Binds reversibly to acetylcholinesterase; inhibits activity of the enzyme; leads to an increase in acetylcholine in the synapse; maximizes the remaining pool of ACh by inhibiting breakdown
Rivastigmine
Treatment of Alzheimer’s- Cholinesterase Inhibitor
Binds reversibly to acetylcholinesterase; inhibits activity of the enzyme; leads to an increase in acetylcholine in the synapse; maximizes the remaining pool of ACh by inhibiting breakdown
Memantine
Treatment of Alzheimer’s- NMDA Receptor Antagonist
binds to glutamine receptors on the post-synaptic neuron; prevents binding of glutamine; theory is that blockage of NMDA receptors reduces cytotoxic effects on neurons caused by Ca influx across the plasma membranes
Caffeine
Drugs of Abuse: Psychomotor Stimulants
Methylxanthine
several proposed mechanisms; most important: blockade of adenosine receptors in CNS; adenosine inhibits dopamine release; caffeine indirectly enhances dopamine transmission
Theophylline
Drugs of Abuse: Psychomotor Stimulants
Methylxanthine
several proposed mechanisms; most important: blockade of adenosine receptors in CNS; adenosine inhibits dopamine release; caffeine indirectly enhances dopamine transmission
Nicotine
Drugs of Abuse: Psychomotor Stimulants
Parasympathetic Agonist
low doses: causes ganglionic stimulation;
high doses: causes ganglionic blockade;
affects nicotinic receptors in the PNS ganglia as well as dopamine neurons in the CNS- enhances DA transmission and impairs regulatory systems
Varenicline
Drugs of Abuse: Psychomotor Stimulants
Parasympathetic Agonist
partial agonist at neuronal nicotinic acetylcholine receptors in CNS; produces less of an effect than nicotine
Cocaine
Drugs of Abuse: Psychomotor Stimulants
blocks reuptake of monoamines; NE, 5-HT, DA (especially); prolongs the effects of these neurotransmitters; increased DA in pleasure system of brain causes intense euphoria; chronic use actually depletes DA (triggers craving)
Amphetamine
Drugs of Abuse: Amphetamines
is a substrate for the enzyme responsible for reuptake of NE and DA; is NOT metabolized by MAO and is instead stored in neurotransmitter storage vesicles (leaves NE and DA out of storage vesicles); causes release of intracellular stores of neurotransmitter via a reversal of the reuptake enzyme; also inhibits MAO to a certain extent
Armodafinil
Drugs of Abuse: Amphetamines
similar to amphetamine; specific for dopamine transporter; prevents reuptake of dopamine
Dexmethylphenidate
Drugs of Abuse: Amphetamines
is a substrate for the enzyme responsible for reuptake of NE and DA; is NOT metabolized by MAO and is instead stored in neurotransmitter storage vesicles (leaves NE and DA out of storage vesicles); causes release of intracellular stores of neurotransmitter via a reversal of the reuptake enzyme; also inhibits MAO to a certain extent
Dextroamphetamine
Drugs of Abuse: Amphetamines
is a substrate for the enzyme responsible for reuptake of NE and DA; is NOT metabolized by MAO and is instead stored in neurotransmitter storage vesicles (leaves NE and DA out of storage vesicles); causes release of intracellular stores of neurotransmitter via a reversal of the reuptake enzyme; also inhibits MAO to a certain extent
Lisdexamfetamine
Drugs of Abuse: Amphetamines
is a substrate for the enzyme responsible for reuptake of NE and DA; is NOT metabolized by MAO and is instead stored in neurotransmitter storage vesicles (leaves NE and DA out of storage vesicles); causes release of intracellular stores of neurotransmitter via a reversal of the reuptake enzyme; also inhibits MAO to a certain extent
Methamphetamine
Drugs of Abuse: Amphetamines
is a substrate for the enzyme responsible for reuptake of NE and DA; is NOT metabolized by MAO and is instead stored in neurotransmitter storage vesicles (leaves NE and DA out of storage vesicles); causes release of intracellular stores of neurotransmitter via a reversal of the reuptake enzyme; also inhibits MAO to a certain extent
Methylphenidate
Drugs of Abuse: Amphetamines
exact mechanism is unknown; very similar to amphetamine-
is a substrate for the enzyme responsible for reuptake of NE and DA; is NOT metabolized by MAO and is instead stored in neurotransmitter storage vesicles (leaves NE and DA out of storage vesicles); causes release of intracellular stores of neurotransmitter via a reversal of the reuptake enzyme; also inhibits MAO to a certain extent
Modafinil
Drugs of Abuse: Amphetamines
similar to amphetamine; specific for dopamine transporter; prevents reuptake of dopamine
Dronabinol
Drugs of Abuse: Hallucinogens
cannabinoid used to treat nausea
Lysergic Acid Diethylamide (LSD)
Drugs of Abuse: Hallucinogens
shows 5-HT agonist activity and activation of sympathetic nervous system; also shown to stimulate DA receptors
Phencyclidine (PCP)
Drugs of Abuse: Hallucinogens
inhibits reuptake of DA, 5-HT, and NE; main action is to block NMDA glutamate receptor; prevents passage of Ca
Tetrahydrocannabinol (THC)
Drugs of Abuse: Hallucinogens
THC receptors found on inhibitory presynaptic nerve terminals
Fentanyl
Opioid Agonist
opiate receptor activation
Heroin
Opioid Agonist
opiate receptor activation
Hydromorphone
Opioid Agonist
opiate receptor activation
Levorphanol
Opioid Agonist
opiate receptor activation
Loperamide
Opioid Agonist
opiate receptor activation; selectively targets GI opiate receptors
Meperidine
Opioid Agonist
opiate receptor activation
Methadone
Opioid Agonist
opiate receptor activation
Morphine
Opioid Agonist
opiate receptor activation
Oxycodone
Opioid Agonist
opiate receptor activation
Oxymorphone
Opioid Agonist
opiate receptor activation
Codeine
Partial Opioid Agonists (weak)
opiate receptor activation
Hydrocodone
Partial Opioid Agonists (weak)
opiate receptor activation
Tramadol
Mixed Mechanism Opioid
binds to opioid receptor weakly and inhibits reuptake of NE and serotonin
Naloxone
Opioid Antagonist
Naltrexone
Opioid Antagonist
Buprenorphine
Mixed Opioid Agonist-Antagonists
show agonist activity in drug naive patients;
show antagonist activity in patients with opioid dependence
Nalbuphine
Mixed Opioid Agonist-Antagonists
show agonist activity in drug naive patients;
show antagonist activity in patients with opioid dependence
Lortab
Opioid Combination
Percocet
Opioid Combination
Percodan
Opioid Combination
Tylenol #2/#3/#4
Opioid Combination