From: Lipids dysregulation in diseases: core concepts, targets and treatment strategies
Treatment Category | Treatment | Mechanism of Action | Indications | Examples | Notes | Reference |
---|---|---|---|---|---|---|
Lifestyle Modifications | Dietary Changes | Lowers LDL-C, triglycerides; increases HDL-C and fiber intake | General management of lipid levels | Mediterranean diet, DASH diet | Essential first-line approach; improves lipid profiles significantly | [128] |
 | Physical Activity | Reduces LDL-C and triglycerides; increases HDL-C | General management, especially for overweight/obesity | 150 min of moderate exercise per week | Aerobic exercise is highly recommended for improving cardiovascular health | [129] |
 | Weight Management | Reduces LDL-C, triglycerides; increases HDL-C | Obesity-related dyslipidemia | Behavioral weight loss programs | Even modest weight loss can lead to substantial improvements in lipid profiles | [130] |
 | Smoking Cessation | Increases HDL-C; reduces oxidative stress | High cardiovascular risk, improves overall health | Smoking cessation programs | Essential for cardiovascular risk reduction; improves lipid levels and vascular function | [131] |
 | Alcohol Moderation | Reduces triglycerides; decreases cardiovascular risk | Management of triglyceride levels | Limiting intake to moderate levels | Excessive alcohol intake significantly impacts triglyceride levels and overall health | [132] |
Pharmacological Therapies | Statins | Inhibit HMG-CoA reductase; decrease cholesterol synthesis | High LDL-C, atherosclerosis, cardiovascular disease risk | Atorvastatin, Rosuvastatin, Pitavastatin | Most effective first-line therapy; newer statins like rosuvastatin show greater LDL-C reduction and improved safety profiles. | [133] |
 | Ezetimibe | Blocks cholesterol absorption in the small intestine | High LDL-C, used in combination with statins or alone | Ezetimibe | Enhances LDL-C lowering when combined with statins; effective for statin-intolerant patients. | [134] |
 | PCSK9 Inhibitors | Prevent degradation of LDL receptors; increase LDL-C clearance | Severe hypercholesterolemia, familial hypercholesterolemia | Alirocumab, Evolocumab | Latest class of lipid-lowering drugs; highly effective for those with severe LDL-C elevations. | [135] |
 | Fibrates | Activate PPAR-α; increase HDL-C, reduce triglycerides | Hypertriglyceridemia, mixed dyslipidemia | Fenofibrate, Pemafibrate | Newer fibrates like pemafibrate offer improved efficacy and safety over older agents. | [136] |
 | Niacin | Inhibits hepatic VLDL secretion; raises HDL-C, lowers triglycerides | Low HDL-C, high triglycerides | Extended-release niacin | New formulations reduce flushing; effectiveness in raising HDL-C and lowering triglycerides can be significant but may be limited by side effects. | [137] |
 | Bile Acid Sequestrants | Bind bile acids; increase hepatic cholesterol uptake | High LDL-C, often used with statins for additive effect | Colesevelam, Cholestyramine | Newer agents like colesevelam have better tolerability; effective in lowering LDL-C and improving glycemic control. | [138] |
 | Omega-3 Fatty Acids | Reduce hepatic triglyceride production; anti-inflammatory effects | Severe hypertriglyceridemia | Icosapent ethyl, Omega-3 carboxylic acids | Prescription omega-3s such as icosapent ethyl show significant cardiovascular risk reduction and triglyceride lowering. | [139] |
 | Bempedoic Acid | Inhibits ATP-citrate lyase; reduces cholesterol synthesis | High LDL-C, especially when used with statins or in statin-intolerant patients | Bempedoic acid | New agent that offers LDL-C reduction; can be used in conjunction with other therapies. | [140] |
Advanced Interventions | Lipoprotein Apheresis | Removes LDL and other lipoproteins from the blood | Severe FH, refractory to pharmacotherapy | - | Used for patients with extreme dyslipidemia; requires regular treatments to maintain LDL-C reductions. | [141] |
 | Gene Therapy | Corrects genetic mutations affecting lipid metabolism | Familial hypercholesterolemia (under research) | - | Promising experimental approach for addressing genetic causes of dyslipidemia; ongoing research into efficacy and safety. | [142] |
 | RNA-based Therapies | Target specific RNA molecules to modulate lipid metabolism | High LDL-C, specific genetic profiles | Inclisiran, other small interfering RNAs | Inclisiran targets PCSK9 mRNA to lower LDL-C; shows promise for long-term LDL-C reduction with biannual dosing. | [143] |
 | Monoclonal Antibodies | Target specific proteins involved in lipid metabolism | Severe hypercholesterolemia, mixed dyslipidemia | Evinacumab (in clinical trials) | Targets ANGPTL3 to lower LDL-C and triglycerides; novel approach with potential for high-risk populations. | [144] |
 | Cholesterol Ester Transfer Protein (CETP) Inhibitors | Increase HDL-C by preventing cholesterol transfer from HDL to LDL | Low HDL-C, atherosclerosis | Anacetrapib (development phase) | CETP inhibitors are in development; aim to raise HDL-C and reduce cardiovascular risk. | [145] |
Regular Monitoring and Follow-Up | Monitoring & Adjustments | Assesses treatment response and side effects; adjusts therapy | Ongoing management of lipid disorders | Routine lipid panels, advanced imaging | Essential for optimizing treatment efficacy and adapting to changes in lipid levels | [146] |