Unlocking Personalized Medicine - Top 25 Genes in Pharmacogenomics
Unlocking Personalized Medicine: Top 25 Genes in Pharmacogenomics
Imagine a world where medications are tailored to your DNA, maximizing effectiveness and minimizing side effects. This is the power of pharmacogenomics, a field revolutionizing healthcare by analyzing how genes influence drug response.
25 Key Genes Driving Pharmacogenomics:
While numerous genes contribute to drug response, these 25 stand out:
- CYP2D6: Metabolizes antidepressants, antipsychotics, and pain relievers. Variations impact efficacy and adverse reactions.
- CYP2C19: Metabolizes antiplatelet agents and proton pump inhibitors. Genetic differences affect breakdown speed and effectiveness.
- CYP2C9: Metabolizes warfarin and NSAIDs. Variations alter metabolism, impacting bleeding risk.
- VKORC1: Influences warfarin effectiveness, requiring personalized dosage.
- SLCO1B1: Transports drugs to the liver. Variations affect statin concentration and potential side effects.
- TPMT: Metabolizes thiopurine drugs used in cancer and autoimmune diseases. Variations increase toxicity risk.
- HLA-B: Linked to severe skin reactions to medications like carbamazepine and abacavir.
- DPYD: Metabolizes 5-fluorouracil (chemotherapy). Variations increase toxicity risk.
- UGT1A1: Metabolizes bilirubin. Variations can lead to jaundice with certain medications.
- NAT2: Metabolizes isoniazid and hydralazine. Variations affect metabolism and side effect risk.
- COMT: Breaks down dopamine. Variations influence Parkinson‘s disease medication effectiveness.
- MTHFR: Involved in folate metabolism. Impacts response to methotrexate and some antidepressants.
- CACNA1S: Influences malignant hyperthermia risk with certain anesthetics.
- RYR1: Also impacts malignant hyperthermia risk.
- G6PD: Crucial for red blood cell function. Deficiency can cause hemolytic anemia with certain drugs.
- SCN5A: Affects cardiac arrhythmia risk in response to some medications.
- ABCB1: Involved in drug transport. Variations impact absorption and elimination.
- IFNL3: Predicts response to interferon-based therapies for hepatitis C.
- HLA-DQA1 and HLA-DQB1: Linked to type 1 diabetes risk with certain medications.
- CYP3A4: Metabolizes a wide range of drugs, including statins and immunosuppressants.
- CYP2B6: Metabolizes bupropion and efavirenz. Variations impact metabolism and side effects.
- CYP1A2: Metabolizes caffeine, theophylline, and some antidepressants.
- SLC6A4: Influences response to SSRIs (antidepressants).
- BDNF: Affects response to antidepressants and mental health medications.
- KCNJ11: Influences response to certain diabetes medications.
- NUDT15: crucial role in metabolizing thiopurines, a class of drugs used to treat various conditions, including cancer, inflammatory bowel disease (IBD), and autoimmune disorders
Mapmygenome‘s Medicamap: Your Personalized Pharmacogenomic Solution
Medicamap analyzes your DNA for variations in these crucial genes, helping you:
- Predict Drug Response: Identify effective medications and potential adverse reactions.
- Optimize Dosage: Minimize side effects and maximize efficacy with personalized dosage.
- Prevent Adverse Reactions: Identify potential drug-gene interactions.
- Proactive Healthcare: Make informed medication decisions with your healthcare provider.
Unlock the power of personalized medicine with Medicamap. Take control of your health and optimize your medication journey today.
References:
- Table of Pharmacogenomic Biomarkers in Drug Labeling - FDA
- Population pharmacogenomics: an update on ethnogeographic differences and opportunities for precision public health - PMC - PubMed Central
- Pharmacogenomics: The Right Drug to the Right Person - PMC
- Pharmacogenomics: Current Actionable Variants - SciELO México