The atypical antipsychotics (AAP; also known as second generation antipsychotics (SGAs)) are a group of antipsychotic drugs (antipsychotic drugs in general are also known as major tranquilizers and neuroleptics, although the latter is usually reserved for the typical antipsychotics) used to treat psychiatric conditions. Some atypical antipsychotics have received regulatory approval (e.g. by the FDA of the US, the TGA of Australia, the MHRA of the UK) for schizophrenia, bipolar disorder, autism, and as an adjunct in major depressive disorder.
Both generations of medication tend to block receptors in the brain's dopamine pathways. Atypicals are less likely – than the most widely used typical antipsychotic haloperidol – to cause extrapyramidal motor control disabilities in patients such as unsteady Parkinson's disease-type movements, body rigidity, and involuntary tremors. However, only a few of the atypicals have been demonstrated to be superior to lesser-used, low-potency first-generation antipsychotics in this regard.
As experience with these agents has grown, several studies have questioned the utility of broadly characterizing antipsychotic drugs as "atypical/second generation" as opposed to "first generation," noting that each agent has its own efficacy and side-effect profile. It has been argued that a more nuanced view in which the needs of individual patients are matched to the properties of individual drugs is more appropriate. Although atypical antipsychotics are thought to be safer than typical antipsychotics, they still have severe side effects, including tardive dyskinesia (a serious movement disorder), neuroleptic malignant syndrome, and increased risk of stroke, sudden cardiac death, blood clots, and diabetes. Significant weight gain may also occur. Critics have argued that "the time has come to abandon the terms first-generation and second-generation antipsychotics, as they do not merit this distinction."
- 1 Medical uses
- 2 Adverse effects
- 3 Pharmacology
- 4 History
- 5 Society and culture
- 6 See also
- 7 Notes
- 8 References
- 9 External links
Atypical antipsychotics are typically used to treat schizophrenia or bipolar disorder. They are also frequently used to treat agitation associated with dementia, anxiety disorder, Autism Spectrum Disorder, and obsessive-compulsive disorder (an off-label use). In dementia, they should only be considered after other treatments have failed and if the patient is a risk to himself and/or others.
The first-line psychiatric treatment for schizophrenia is antipsychotic medication, which can reduce the positive symptoms of psychosis in about 8–15 days. Antipsychotics, however, fail to significantly improve the negative symptoms and cognitive dysfunction.
The choice of which antipsychotic to use for a specific patient is based on benefits, risks, and costs. It is debatable whether, as a class, typical or atypical antipsychotics are better. Both have equal drop-out and symptom relapse rates when typicals are used at low to moderate dosages. There is a good response in 40–50% of patients, a partial response in 30–40%, and treatment resistance (failure of symptoms to respond satisfactorily after six weeks to two of three different antipsychotics) in the remaining 20%. Clozapine is an effective treatment for those who respond poorly to other drugs, but it has the potentially serious side effect of agranulocytosis (lowered white blood cell count) in 1–4% of patients.
Efficacy in the treatment of schizophrenia
The utility of broadly grouping the antipsychotics into first generation and atypical categories has been challenged. It has been argued that a more nuanced view, matching the properties of individual drugs to the needs of specific patients is preferable. While the atypical (second-generation) antipsychotics were marketed as offering greater efficacy in reducing psychotic symptoms while reducing side effects (and extrapyramidal symptoms in particular) than typical medications, the results showing these effects often lacked robustness, and the assumption was increasingly challenged even as atypical prescriptions were soaring. In 2005 the US government body NIMH published the results of a major independent (not funded by the pharmaceutical companies) multi-site, double-blind study (the CATIE project). This study compared several atypical antipsychotics to an older typical antipsychotic, perphenazine, among 1,493 persons with schizophrenia. The study found that only olanzapine outperformed perphenazine in discontinuation rate (the rate at which people stopped taking it due to its effects). The authors noted an apparent superior efficacy of olanzapine to the other drugs in terms of reduction in psychopathology and rate of hospitalizations, but olanzapine was associated with relatively severe metabolic effects such as a major weight gain problem (averaging 9.4 lbs over 18 months) and increases in glucose, cholesterol, and triglycerides. No other atypical studied (risperidone, quetiapine, and ziprasidone) did better than the typical perphenazine on the measures used, nor did they produce fewer adverse effects than the typical antipsychotic perphenazine (a result supported by a meta-analysis by Leucht et al. published in The Lancet), although more patients discontinued perphenazine owing to extrapyramidal effects compared to the atypical agents (8% vs. 2% to 4%, P=0.002). A phase 2 part of this CATIE study roughly replicated these findings. Compliance has not been shown to be different between the two types. Overall evaluations of the CATIE and other studies have led many researchers to question the first-line prescribing of atypicals over typicals, or even to question the distinction between the two classes.
It has been suggested that there is no validity to the term "second-generation antipsychotic drugs" and that the drugs that currently occupy this category are not identical to each other in mechanism, efficacy, and side-effect profiles. 
In bipolar disorder, SGAs are most commonly used to rapidly control acute mania and mixed episodes, often in conjunction with mood stabilizers (which tend to have a delayed onset of action in such cases) such as lithium and valproate. In milder cases of mania or mixed episodes, mood stabilizer monotherapy may be attempted first. SGAs are also used to treat other aspects of the disorder (such as acute bipolar depression or as a prophylactic treatment) as adjuncts or as a monotherapy, depending on the drug. Both quetiapine and olanzapine have demonstrated significant efficacy in all three treatment phases of bipolar disorder. Lurasidone (trade name Latuda) has demonstrated some efficacy in the acute depressive phase of bipolar disorder.
Major depressive disorder
- Quetiapine — the only AAP approved as an adjunct for the treatment of MDD in Australia
- Risperidone Not approved for MDD
- Ziprasidone — which has only demonstrated adjunctive benefit in an open-label study.
Only aripiprazole, olanzapine, and quetiapine have specifically been approved for MDD by the FDA in the United States. Quetiapine and lurasidone have been approved, as monotherapies, for bipolar depression, but as of present, lurasidone has not been approved for MDD.
Both risperidone and aripiprazole have received FDA labelling for autism.
Comparison table of efficacy
|Relative efficacy of SGAs|
|Generic Drug Name||Schizophrenia||Mania||Bipolar Maintenance||Bipolar Depression||Adjunct in Major Depressive Disorder|
|Amisulpride||+++||?||?||?||? (+++ as a dysthymia monotherapy, however)|
|Asenapine||++/+||++||++||? (some evidence has suggested efficacy in treating depressive symptoms in mixed/manic episodes)||?|
|Olanzapine||+++||+++||++||+++/++ (+++ when combined with fluoxetine)||++|
And these are currently under development but are not yet licensed:
The side effects reportedly associated with the various atypical antipsychotics vary and are medication-specific. Generally speaking, atypical antipsychotics are widely believed to have a lower likelihood for the development of tardive dyskinesia than the typical antipsychotics. However, tardive dyskinesia typically develops after long-term (possibly decades) use of antipsychotics. It is not clear, then, if atypical antipsychotics, having been in use for a relatively short time, produce a lower incidence of tardive dyskinesia.
Some of the other side effects that have been suggested is that atypical antipsychotics increase the risk of cardiovascular disease. The research that Kabinoff et al. evaluated found that the increase in cardiovascular disease is seen regardless of the treatment they receive, instead it is caused by many different factors such as lifestyle or diet.
Sexual side effects have also been reported when taking atypical antipsychotics. In males antipsychotics reduce sexual interest, impair sexual performance with the main difficulties being failure to ejaculate. In females there may be abnormal menstrual cycles and infertility. In both males and females the breasts may become enlarged and a fluid will sometimes ooze from the nipples. Sexual adverse effects caused by some anti-psychotics are a result of an increase of prolactin. Sulpiride and Amisulpiride and in less extense Risperdone and paliperidone cause a high increase of prolactin.
In April 2005, the US Food and Drug Administration (FDA) issued an advisory and subsequent black box warning regarding the risks of atypical anti psychotic use among elderly patients with dementia. The FDA advisory was associated with decreases in the use of atypical antipsychotics, especially among elderly patients with dementia. Subsequent research reports confirmed the mortality risks associated with the use of both conventional and atypical antipsychotics to treat patients with dementia. Consequently, in 2008 the FDA issued although a black box warning for classical neuroleptics. Data on treatment efficacies are strongest for atypical antipsychotics. Adverse effects in patients with dementia include an increased risk of mortality and cerebrovascular events, as well as metabolic effects, extrapyramidal symptoms, falls, cognitive worsening, cardiac arrhythmia, and pneumonia. Conventional antipsychotics may pose an even greater safety risk. Moreover, high potential conventional antipsychotics like haloperidol may be associated with the highest risk followed by low potential neuroleptics thereafter risperidone and olanzapine. Quetiapine seemed to have a lower risk. No clear efficacy evidence exists to support the use of alternative psychotropic classes (e.g. antidepressants, anticonvulsants).
All of the atypical antipsychotics warn about the possibility of tardive dyskinesia in their package inserts and in the PDR. It is not possible to truly know the risks of tardive dyskinesia when taking atypicals, because tardive dyskinesia can take many decades to develop and the atypical antipsychotics are not old enough to have been tested over a long enough period of time to determine all of the long-term risks. One hypothesis as to why atypicals have a lower risk of tardive dyskinesia is because they are much less fat-soluble than the typical antipsychotics and because they are readily released from D2 receptor and brain tissue. The typical antipsychotics remain attached to the D2 receptors and accumulate in the brain tissue which may lead to TD.
Recently, metabolic concerns have been of grave concern to clinicians, patients and the FDA. In 2003, the Food and Drug Administration (FDA) required all manufacturers of atypical antipsychotics to change their labeling to include a warning about the risks of hyperglycemia and diabetes with atypical antipsychotics. It must also be pointed out that although all atypicals must carry the warning on their labeling, some evidence shows that atypicals are not equal in their effects on weight and insulin sensitivity. The general consensus is that clozapine and olanzapine are associated with the greatest effects on weight gain and decreased insulin sensitivity, followed by risperidone and quetiapine. Ziprasidone and aripiprazole are thought to have the smallest effects on weight and insulin resistance, but clinical experience with these newer agents is not as developed as that with the older agents. The mechanism of these adverse effects is not completely understood but it is believed to result from a complex interaction between a number of pharmacologic actions of these drugs. Their effects on weight are believed to mostly derive from their actions on the H1 and 5-HT2C receptors, while their effects on insulin sensitivity are believed to be the result of a combination of their effects on body weight (as increased body mass is known to be a risk factor for insulin resistance) and their antagonistic effects on the M3receptor. Some of the newer agents, however, such as risperidone and its metabolite paliperidone, ziprasidone, lurasidone, aripiprazole, asenapine and iloperidone have clinically-insignificant effects on the M3 receptor and appear to carry a lower risk of insulin resistance. Whereas clozapine, olanzapine and quetiapine (indirectly via its active metabolite, norquetiapine) all antagonise the M3 receptor at therapeutic-relevant concentrations.
Recent evidence suggests a role of the α1 adrenoceptor and 5-HT2A receptor in the metabolic effects of atypical antipsychotics. The 5-HT2A receptor, however, is also believed to play a crucial role in the therapeutic advantages of atypical antipsychotics over their predecessors, the typical antipsychotics.
A study by Sernyak and colleagues found that the prevalence of diabetes in atypical antipsychotic treatments was statistically significantly higher than that of conventional treatment. The authors of this study suggest that it is a causal relationship the Kabinoff et al. suggest the findings only suggest a temporal association. Kabinoff et al. suggest that there is insufficient data from large studies to demonstrate a consistent or significant difference in the risk of insulin resistance during treatment with various atypical antipsychotics.
Comparison table of adverse effects
|Comparison of side effects for atypical antipsychotics|
|Generic Name||Weight gain||Metabolic Effects||EPS||High
|Sedation||Hypotension / Orthostasis||QTc prolongation||Anti-ACheffects||Other adverse effects|
|Amisulpride||+||+||+||++||-||-||+++||-||Seizures, suicidal ideation|
|Aripiprazole||0-10%||0-10%||10-20%||-||10-20%||0-10%||-||-||Seizures (0.1-0.3%), anxiety, rhabdomyolysis, pancreatitis (<0.1%), agranulocytosis (<1%), leukopenia, neutropenia, suicidal ideation, angioedema (0.1-1%)|
|Asenapine||0-10%||20%||0-10%||0-10%||10-20%||0-10%||+||-||Immune hypersensitivity reaction, angioedema, suicidal ideation|
|Clozapine||20-30%||0-15%||-||-||>30%||20-30%||+||+++||Seizures (3-5%), agranulocytosis (1.3%), leukopenia, pneumonia, respiratory arrest, angle-closure glaucoma, eosinophilia (1%), thrombocytopenia, Stevens-Johnson syndrome, myocarditis, erythema multiforme and abnormal peristalsis|
|Iloperidone||0-10%||0-10%||0-10%||-||10-20%||0-10%||++||-||Suicidal ideation (0.4-1.1%), syncope (0.4%)|
|Lurasidone||-||-||>30%||-||20-30%||-||+||+||Agranulocytosis, seizures (<1%), elevated serum creatinine (2-4%)|
|Melperone||+||+||+/-||-||+/++||+/++||++||-||Agranulocytosis, neutropenia and leukopenia|
|Olanzapine||20-30%||0-15%||20-30%||20-30%||>30%||0-10%||+||+||Acute haemorrhagic pancreatitis, immune hypersensitivity reaction, seizures (0.9%), status epilepticus, suicidal ideation (0.1-1%)|
|Paliperidone||0-10%||-||10-20%||0-10%||20-30%||0-10%||+/- (7%)||-||Agranulocytosis, leukopenia, priapism, dysphagia|
|Perospirone||?||?||>30%||+||+||+||?||-||Insomnia in up to 23%, CPK elevation neuroleptic malignant syndrome|
|Quetiapine||20-30%||0-15%||10-20%||-||>30%||0-10%||++||+||Agranulocytosis, leukopenia, neutropenia (0.3%), anaphylaxis, seizures (0.05-0.5%), priapism, tardive dyskinesia (0.1-5%), suicidal ideation, pancreatitis, syncope (0.3-1%)|
|Remoxipride||+/-||-||-||-||-||+/-||?||-||There is a risk of aplastic anaemia risk which is what led to its removal from the market.|
|Risperidone||10-20%||0-10%||20-30%||>30%||>30%||0-10%||+||-||Syncope (1%), pancreatitis, hypothermia, agranulocytosis, leukopenia, neutropenia, thrombocytopenia, thrombotic thrombocytopenic purpura, cerebrovascular incident (<5%), tardive dyskinesia (<5%), priapism, neuroleptic malignant syndrome (<1%), Gynecomastia, Galactorrhea|
|Ziprasidone||0-10%||0-10%||0-10%||-||20-30%||0-10%||++||-||Syncope (0.6%), dysphagia (0.1-2%), bone marrow suppression, seizure (0.4%), priapism|
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The atypical antipsychotics integrate with the 5ht2-receptors, norepinephrine and dopamine receptors, have important role of schizophrenia. An activated 5HT2A-receptor upregulates the D2-receptor which can cause paranoia and psychosis in humans. Therefore, many antipsychotics block the 5HT2A-receptor. Blockade of 5HT2A receptor release dopamine in the brain just as with 5HT2C. 5HT2C activated blocks dopamine and inhibit norepinephrine release. Blockade of 5ht2C-receptor increases serotonin, releasing norepinephrine and releases dopamine within the brain. But neuronal reuptake of norepinephrine is limited sharply by some antipsychotics, for example Ziprasidone. Increased norepinephrine can cause increased glucose levels, it will say blood sugar levels. Increased blood sugar level by increased norepinephrine gives hunger in many humans, why weight gain occurs with some antipsychotics if the norepinephrine not is inhibited. The affinity for 5ht2A-receptor is often very very much higher compared to the dopamine D2-receptor in many antipsychotics, by blocking 5ht2A the D2-receptor is downregulated but some gives also extra function by its chemical to block the dopamine D2-receptor which is seen in antipsychotics. The 5ht7-receptor is very potent for mitigation of bipolar conditions and antidepressant effect. Also inhibition of norepinephrine stabilize mood in humans, touching of H1D-receptor have its antidepressant effect to. But the H1-receptors are linked to weight gain. Blockade of 5ht7-receptor can make it hard to sleep. Lurasidone, Risperidone and Abilify is very potent for the 5ht7-receptor. To have partial agonism at 5ht1A-receptor can give absence of weight gain for an antipsychotic, this is very relevant for Ziprasidone, but it gives risk for prolonged QTc intervals. On other hand, blockade of the 5ht3-receptor removes the risk for prolonged QTc but then has its bigger risk for weight gain. Relation to the 5ht3-receptor increases calorie uptake and glucose, this is seen in the Clozapine and Olanzapine. Other ways for dopamine resolving is to have agonism at both D2-receptor and 5ht1A-receptor will normalize the dopamine level in the brain, this occurs with Haldol and Abilify.
Note: Unless otherwise specified, the drugs below serve as antagonists/inverse agonists at the receptors listed.
|Aripiprazole||+||++++ (PA)||+++ (PA)||+ (PA)||+++ (PA)||+||+++||++ (PA)||+||+++ (PA)||++/+||+||-||-||++/+|
|Blonanserin||-||++++||++++||+||-||?||+++||+||+||+/-||+ (RC)||+ (RC)||+||?||-|
|Ziprasidone||+++/++||+++||+++||+++/++||+++ (PA)||+++ (PA)||++++||+++(PA)||++||+++||+++/++||++||-||-||++|
|Zotepine||+++/++||+++||++++/+++||+++||++ (PA)||+++||++++||++++ (RC)||++++||++++/+++||+++||+++/++||++ (RC)||++ (RC)||++++|
|RC||Cloned rat receptor|
Atypical antipsychotics are most commonly administered orally. Antipsychotics can also be injected, but this method is not as common. They are lipid-soluble, are readily absorbed from the digestive tract, and can easily pass the blood–brain barrier and placental barriers. Once in the brain, the antipsychotics work at the synapse by binding to the receptor. Antipsychotics are completely metabolized in the body and the metabolites are excreted in urine. These drugs have relatively long half-lives. Each drug has a different half-life, but the occupancy of the D2 receptor falls off within 24 hours with atypical antipsychotics, while lasting over 24 hours for the typical antipsychotics. This may explain why relapse into psychosis happens quicker with atypical antipsychotics than with typical antipsychotics, as the drug is excreted faster and is no longer working in the brain. Physical dependence with these drugs is very rare. However, if the drug is abruptly discontinued, psychotic symptoms, movement disorders, and sleep difficulty may be observed. It is possible that withdrawal is rarely seen because the AAP are stored in body fat tissues and slowly released.
|Pharmacokinetic parameters of available atypical antipsychotics|
|Drug||Route(s) of Administration[Note 1]||Half-life (t1/2 in hours)||Volume of distribution (Vd in L/kg)||Protein binding||Excretion||Enzymes involved in metabolism||Bioavailability||Peak plasma time (h)||Cmax (ng/mL)|
|Amisulpride||Oral||12||5.8||16%||Urine (50%), faeces (20%; 70% of this is as unchanged drug)[Note 2]||?||48%||Two peaks: 1 hr & 3-4 hrs post-oral dosing||39±3 (1 hr), 54±4 (3-4 hrs)|
|Aripiprazole||Oral, intramuscular (including depot)||75 (94 for active metabolite)||4.9||99%||Faeces (55%), urine (25%)||CYP2D6 & CYP3A4||87% (Oral), 100% (IM)||3-5||?|
|Asenapine||Sublingual||24||20-25||95%||Urine (50%), faeces (40%)||CYP1A2 & UGT1A4||35% (sublingual), <2% (Oral)||0.5-1.5||4|
|Blonanserin||Oral||10.7 (single 4 mg dose), 12 (single 8 mg dose), 16.2 (single 12 mg dose), 67.9 (repeated bid dosing)||?||>99.7%||Urine (59%), faeces (30%)||CYP3A4||84% (Oral)||<2||0.14 (single 4 mg dose), 0.45 (single 8 mg dose), 0.76 (single 12 mg dose), 0.57 (bid dosing)|
|Clozapine||Oral||8 hours (single dosing), 12 (twice daily dosing)||4.67||97%||Urine (50%), faeces (30%)||CYP1A2, CYP3A4, CYP2D6||50-60%||1.5-2.5||102-771|
|Iloperidone||Oral||?||1340-2800||95%||Urine (45-58%), faeces (20-22%)||CYP2D6 & CYP3A4||96%||2-4||?|
|Lurasidone||Oral||18||6173||99%||Faeces (80%), urine (9%)||CYP3A4||9-19%||1-3||?|
|Melperone||Oral, intramuscular||3-4 (Oral), 6 (IM)||7-9.9||50%||Urine (70% as metabolites; 5-10.4% unchanged drug)||?||65% (tablet), 87% (IM), 54% (oral syrup)||0.5-3||75-324 (repeated dosing)|
|Olanzapine||Oral, intramuscular (including depot)||30||1000||93%||Urine (57%), faeces (30%)||CYP1A2, CYP2D6||>60%||6 (Oral)||?|
|Paliperidone||Oral, intramuscular (including depot)||23 (Oral)||390-487||74%||Urine (80%), faeces (11%)||CYP2D6, CYP3A4||28%||24 (Oral)||?|
|Perospirone||Oral||?||?||92%||Urine (0.4% as unchanged drug)||?||?||1.5||1.9-5.7|
|Quetiapine||Oral||6 (IR), 7 (XR)||6-14||83%||Urine (73%), faeces (20%)||CYP3A4||100%||1.5 (IR), 6 (XR)||?|
|Risperidone||Oral, intramuscular (including depot)||3 (EM) (oral), 20 (PM) (oral)||1-2||90%, 77% (metabolite)||Urine (70%), faeces (14%)||CYP2D6||70%||3 (EM), 17 (PM)||?|
|Sertindole||Oral||72 (55-90)||20||99.5%||Urine (4%), faeces (46-56%)||CYP2D6||74%||10||?|
|Ziprasidone||Oral, intramuscular||7 (oral)||1.5||99%||Faeces (66%), urine (20%)||CYP3A4 & CYP1A2||60% (Oral), 100% (IM)||6-8||?|
The first major tranquilizer or antipsychotic medication, chlorpromazine (Thorazine), a typical antipsychotic, was discovered in 1951 and introduced into clinical practice shortly thereafter. Clozapine (Clozaril), an atypical antipsychotic, fell out of favor due to concerns over drug-induced agranulocytosis. Following research indicating its effectiveness in treatment-resistant schizophrenia and the development of an adverse event monitoring system, clozapine re-emerged as a viable antipsychotic. According to Barker (2003), the three most-accepted atypical drugs are clozapine, risperidone, and olanzapine. However, he goes on to explain that clozapine is usually the last resort when other drugs fail. Clozapine can cause agranulocytosis (a decreased number of white blood cells), requiring blood monitoring for the patient. Despite the effectiveness of clozapine for treatment-resistant schizophrenia, agents with a more favorable side-effect profile were sought-after for widespread use. During the 1990s, olanzapine, risperidone, and quetiapine were introduced, with ziprasidone and aripiprazole following in the early 2000s. The atypical anti-psychotic paliperidone was approved by the FDA in late 2006.
The atypical antipsychotics have found favor among clinicians and are now considered to be first-line treatments for schizophrenia and are gradually replacing the typical antipsychotics. In the past, most researchers have agreed that the defining characteristics of atypical antipsychotics are the decreased incidence of extrapyramidal side effects (EPS) and an absence of sustained prolactin elevation.
The terminology can still be imprecise. The definition of "atypicality" was based upon the absence of extrapyramidal side effects, but there is now a clear understanding that atypical antipsychotics can still induce these effects (though to a lesser degree than typical antipsychotics). Recent literature focuses more upon specific pharmacological actions and less upon categorization of an agent as "typical" or "atypical". There is no clear dividing line between the typical and atypical antipsychotics therefore categorization based on the action is difficult.
More recent research is questioning the notion that second-generation antipsychotics are superior to first generation typical anti-psychotics. Using a number of parameters to assess quality of life, Manchester University researchers found that typical antipsychotics were no worse than atypical antipsychotics. The research was funded by the National Health Service (NHS) of the UK. Because each medication (whether first or second generation) has its own profile of desirable and adverse effects, a neuropsychopharmacologist may recommend one of the older ("typical" or first generation) or newer ("atypical" or second generation) antipsychotics alone or in combination with other medications, based on the symptom profile, response pattern, and adverse effects history of the individual patient.
Society and culture
|Regulatory Status of Second-Generation Antipsychotics (SGAs) As of July 2013[update]|
- The route of administration in this category refers to the standard means of administration when the drug is being used in its capacity as an atypical antipsychotic, not for other purposes. For example, amisulpride can be administered intravenously as an antiemetic drug but this is not its standard route of administration when being used as an antipsychotic
- Note these values are from a study in of which amisulpride was intravenously administered
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