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©The Author(s) 2024.
World J Psychiatry. Aug 19, 2024; 14(8): 1148-1164
Published online Aug 19, 2024. doi: 10.5498/wjp.v14.i8.1148
Published online Aug 19, 2024. doi: 10.5498/wjp.v14.i8.1148
Drug category | Drug name | Gene | Genotype group | Pharmgkb top FDA label testing level | Available clinical guidelines | Major clinically relevant drug-gene interactions |
Anti-dementia drugs | Donepezil | CYP2D6 | UM or PM | Actionable PGx | No data | May result in altered systemic concentrations |
Anti-dementia drugs | Galantamine | CYP2D6 | PM | Informative PGx | No data | Results in higher drug exposure compared to NMs |
Antidepressants | Amitriptyline | CYP2C19 | UM, IM or PM | No data | CPIC, DPWG | May result in altered conversion of tertiary amines to secondary amines |
Antidepressants | Amitriptyline | CYP2D6 | UM, IM or PM | Actionable PGx | CPIC, DPWG | May result in altered systemic concentrations |
Antidepressants | Bupropion | CYP2D6 | Testing required | Potential drug-drug interaction | ||
Antidepressants | Citalopram | CYP2C19 | PM | Actionable PGx | CPIC, DPWG | Results in higher drug exposure and higher risk of adverse reaction (QT prolongation) compared to NMs |
Antidepressants | Clomipramine | CYP2C19 | UM | Actionable PGx | CPIC, DPWG | Results in decreased drug exposure and increased risk of ineffectiveness compared to NMs |
Antidepressants | Clomipramine | CYP2D6 | PM | Actionable PGx | CPIC, DPWG | May result in altered systemic concentrations |
Antidepressants | Desvenlafaxine | CYP2D6 | PM | Informative PGx | CPIC | No difference in plasma concentration from NMs |
Antidepressants | Doxepin | CYP2C19 | IM or PM | Actionable PGx | CPIC, DPWG | Results in higher drug exposure compared to NMs |
Antidepressants | Doxepin | CYP2D6 | UM, IM or PM | Actionable PGx | CPIC, DPWG | May result in altered systemic concentrations |
Antidepressants | Duloxetine | CYP2D6 | PM | Actionable PGx | CPIC, DPWG | Potential drug-drug Interaction. May result in higher drug exposure |
Antidepressants | Escitalopram | CYP2C19 | UM, IM or PM | Actionable PGx | CPIC, DPWG | May result in altered systemic concentrations |
Antidepressants | Fluvoxamine | CYP2D6 | PM | Actionable PGx | CPIC, DPWG | Results in higher drug exposure compared to NMs |
Antidepressants | Imipramine | CYP2C19 | PM | No data | DPWG | Results in higher drug exposure and higher risk of adverse reaction compared to NMs. Avoid use in PMs |
Antidepressants | Imipramine | CYP2D6 | UM, IM or PM | Actionable PGx | CPIC, DPWG | May result in altered systemic concentrations |
Antidepressants | Nortriptyline | CYP2D6 | UM, IM or PM | Actionable PGx | CPIC, DPWG | May result in altered systemic concentrations |
Antidepressants | Paroxetine | CYP2D6 | UM, IM or PM | Criteria Not Met | CPIC, DPWG | May result in altered systemic concentrations |
Antidepressants | Sertraline | CYP2C19 | PM | No data | CPIC, DPWG | Results in higher drug exposure and higher risk of adverse reaction compared to NMs |
Antidepressants | Venlafaxine | CYP2D6 | PM | Actionable PGx | CPIC, DPWG | Results in altered parent drug and metabolite concentrations |
Antidepressants | Vortioxetine | CYP2D6 | PM | Actionable PGx | CPIC | Results in higher drug exposure compared to NMs |
Antidepressants | Amoxapine | CYP2D6 | UM, IM or PM | Actionable PGx | No data | May result in altered systemic concentrations |
Antidepressants | Desipramine | CYP2D6 | UM, IM or PM | Actionable PGx | CPIC | May result in altered systemic concentrations |
Antidepressants | Trimipramine | CYP2D6 | UM, IM or PM | Actionable PGx | CPIC | May result in altered systemic concentrations |
Antiepileptics | Carbamazepine | HLA-A | *31: 01 positive | Actionable PGx | CPIC, DPWG, CPNDS | Results in higher risk of adverse reaction risk (severe skin reactions) compared to NMs |
Antiepileptics | Carbamazepine | HLA-B | *15: 02 positive | Testing required | CPIC, DPWG, CPNDS | Results in higher risk of adverse reaction risk (severe skin reactions) compared to NMs. Consider alternative therapies, or use only if potential benefits outweigh risks |
Antiepileptics | Lamotrigine | HLA-B | *15: 02 positive | No data | DPWG | Results in higher risk of adverse reaction risk (lamotrigine-induced SJS/TEN). Avoid use in patients with *15: 02 positive allele |
Antiepileptics | Oxcarbazepine | HLA-B | *15: 02 positive | Testing required | CPIC, DPWG | Results in increased risk of adverse reaction (severe skin reactions) |
Antiepileptics | Phenytoin | CYP2C9 | IM or PM | Testing recommended | CPIC, DPWG | May result in higher drug exposure and higher risk of adverse reaction (CNS toxicity) compared to NMs |
Antiepileptics | Phenytoin | HLA-B | *15: 02 positive | Testing recommended | CPIC, DPWG | May result in higher risk of adverse reaction (SJS/TEN) compared to NMs |
Antiepileptics | Valproic acid | POLG | A467T and W748S mutations | Testing required | No data | Results in increased risk of adverse reaction (acute liver failure and resultant deaths). The use is contraindicated in patients with POLG mutations |
Antimigraine preparations | Clonidine | CYP2D6 | UM, IM or PM | No data | DPWG | No significant effect (No recommendation). Possible alternative for atomoxetine in variant CYP2D6 metabolisers |
Antipsychotics | Aripiprazole | CYP2D6 | PM | Actionable PGx | DPWG | Results in higher drug exposure compared to NMs and higher risk of adverse reaction |
Antipsychotics | Clozapine | CYP2D6 | PM | Actionable PGx | DPWG | Results in higher drug exposure compared to NMs |
Antipsychotics | Haloperidol | CYP2D6 | UM or PM | Actionable PGx | DPWG | Results in increased risk of adverse reaction In PMs and higher risk of reduced effectiveness In UMs |
Antipsychotics | Olanzapine | CYP2D6 | PM | Informative PGx | DPWG | No significant effect (No recommendation) |
Antipsychotics | Paliperidone | CYP2D6 | PM | Informative PGx | No data | No significant difference in exposure or clearance compared to NMs |
Antipsychotics | Perphenazine | CYP2D6 | PM | Actionable PGx | No data | Results in higher drug exposure and higher risk of adverse reaction compared to NMs |
Antipsychotics | Pimozide | CYP2D6 | PM | Testing required | DPWG | Results in higher drug exposure compared to NMs |
Antipsychotics | Quetiapine | CYP3A4 | PM | No data | DPWG | Results in decreased conversion of systemic parent drug (quetiapine) to the active metabolite. Use alternative therapy |
Antipsychotics | Risperidone | CYP2D6 | UM, IM or PM | Informative PGx | DPWG | Results in altered parent drug and metabolite concentrations |
Anxiolytics | Clobazam | CYP2C19 | IM or PM | Actionable PGx | No data | Results in increased active metabolite concentrations and increased risk of adverse reaction as compared to NMs |
Anxiolytics | Diazepam | CYP2C19 | PM | Actionable PGx | No data | May result in altered systemic concentrations |
Psycholeptics and psychoanaleptics in combination | Fluoxetine | CYP2D6 | PM | Actionable PGx | CPIC, DPWG | Results in higher drug exposure compared to NMs |
Psycholeptics and psychoanaleptics in combination | Fluoxetine | FKBP5 | PM | Actionable PGx | CPIC, DPWG | Results in higher drug exposure compared to NMs |
Psychostimulants, agents used for adhd and nootropics | Atomoxetine | CYP2D6 | PM | Actionable PGx | CPIC, DPWG | Results in higher drug exposure and higher risk of adverse reaction compared to NMs |
Psychostimulants, agents used for adhd and nootropics | Modafinil | CYP2D6 | PM | Actionable PGx | No data | May require dose modification when administered with medication metabolized by CYP2C19 |
Machine learning category | Description | Machine learning techniques used | Algorithm | Uses | Ref. |
Supervised learning | Supervised learning algorithm learns from labelled examples to train a model to predict future outcomes with high accuracy | Random forests, support vector machines, artificial neural networks | Classification, regression, sequence labelling | Predict treatment responses based on genomic profiles, aid in therapy selection | Nasteski et al[27] |
Unsupervised learning | Unsupervised machine learning discerns patterns in unlabelled datasets to predict relationships and meaningful patterns | K-means clustering, principal component analysis | Clustering, dimensionality reduction | Identify patterns and relationships within patient data for treatment planning and prognostic analyses | Ghahramani[28] |
Reinforcement learning | Reinforcement learning integrates user feedback to refine decision-making, enhancing the model's performance | Q-learning, Policy gradients | Sequential decision making | Optimize treatment selection by maximizing cumulative rewards over time | Sutton et al[29] |
Psychiatric disorder | Machine learning method | Datatypes | Dataset features | Findings | Ref. |
Bipolar disorder | Decision tree, random forest | Gene expression | RBPMS2, LILRA5 (male responders); ABRACL, FHL3, NBPF14 (female responders) | Predicted lithium responders in bipolar patients with AUC = 0.92 | Eugene et al[36] |
Major depressive disorder | ARPNet model-linear regression | SNPs, DNA methylation, demographic | Neuroimaging biomarkers, Genetic variants, DNA methylation, demographic information | Predicted the most effective antidepressant with 84% accuracy | Chang et al[37] |
Major depressive disorder | Deep learning-MFNNs | SNPs, demographic, clinical | Genome-wide associations, marital status, age, sex, suicide attempt status, baseline hamilton rating scale for depression score, depressive episodes | Conducted GWAS to identify SNP associations with antidepressant treatment response and remission. MFNN models achieved high accuracy (AUC = 0.82 for response, AUC = 0.81 for remission). | Lin et al[39] |
Major depressive disorder | Tree-based ensemble structure | Clinical, demographic | Clinical variables (patients with depression from STAR*D) | Predicted clinical antidepressant remission with 59% accuracy | Chekroud et al[40] |
Major depressive disorder | Elastic net | Clinical, demographic | Clinical variables: Patients with major depressive disorder (GENDEN participants) | Forecasted antidepressant response with AUC = 0.72 | Iniesta et al[41] |
Treatment-resistant depression | Random forest | SNPs, clinical | SNP (rs6265 (BDNF gene), rs6313 (HTR2A gene), rs7430 (PPP3CC gene), Clinical variable - Melancholia | Predicted antidepressant treatment outcome with 25% accuracy | Kautzky et al[42] |
Major depressive disorder | SVM, decision trees | SNPs | rs2036270 SNP (RARB gene), rs7037011 SNP (LOC105375971 gene) | Estimated antidepressant treatment response with 52% accuracy | Maciukiewicz et al[43] |
Bipolar disorder | Random forest | Clinical | Clinical variables (patients with bipolar disorder treated primarily with lithium) | Predicted responders for lithium treatment outcome with AUC = 0.8 | Nunes et al[44] |
Late-life depression | Alternating decision tree | Clinical, demographic | Mini-mental status examination scores, age, structural imaging | Predicted antidepressant treatment response with 89% accuracy | Patel et al[45] |
Major depressive disorder | Random forest | SNPs | SNPs (rs5743467, rs2741130, rs2702877, rs696692, rs17137566, rs10516436) | Predicted antidepressant therapy response with AUC > 0.7 and accuracy > 69% | Athreya et al[46] |
- Citation: Okpete UE, Byeon H. Challenges and prospects in bridging precision medicine and artificial intelligence in genomic psychiatric treatment. World J Psychiatry 2024; 14(8): 1148-1164
- URL: https://www.wjgnet.com/2220-3206/full/v14/i8/1148.htm
- DOI: https://dx.doi.org/10.5498/wjp.v14.i8.1148