New approaches to the treatment of cardiovascular diseases


New approaches to the treatment of cardiovascular diseases

I. Preventive strategies: behind the line of traditional

Cardiovascular diseases (SVD) remain a leading cause of mortality around the world, despite significant progress in treatment. However, the focus is increasingly shifting in the direction of prevention, and new approaches go beyond traditional recommendations, such as diet and physical exercises.

1.1. Personalized preventive medicine:

Instead of universal recommendations, personalized preventive medicine uses genetic information, lifestyle, environmental factors and data on the patient’s microbioma to develop individual SSZ risk strategies.

  • Genetic testing: The determination of genetic predispositions to hypertension, hyperlipidemia, atherosclerosis and other risk factors of the SVD allows doctors to offer targeted interventions in the early stages. For example, patients with a genetic risk of hypercholesterolemia can begin hypolipidemic therapy at a younger age than those who have a risk below.
  • Pharmacogenomy: The study of the effect of genetics on a person’s reaction to medicines allows you to select the most effective and safe drugs for monitoring blood pressure, cholesterol and other risk factors, minimizing side effects.
  • Analysis of microbioma: The composition of the intestinal microbioma has a significant effect on the health of the cardiovascular system. Dysbacteriosis can contribute to inflammation, an increase in the level of trimethylamine-n-oxide (TMAO), which is associated with an increased risk of SVD. Personalized recommendations on diet and probiotics based on the analysis of microbioma can help restore the balance of intestinal flora and reduce the risk of SVD.
  • Wearable devices and Big Data: Fitness trackers and smart watches collect huge amounts of data on physical activity, dream, heart rate and other parameters. Analysis of these data using machine learning algorithms allows you to identify the early signs of SVD and develop personalized health improvement programs.

1.2. Target Nutricotic therapy:

In addition to traditional recommendations for healthy nutrition, nutricetics, such as Coenzym Q10, omega-3 fatty acids, resveratrol and vitamin K2, are studied for their potential role in reducing the risk of SVD.

  • Coenzim Q10 (COQ10): A powerful antioxidant that plays a key role in the production of energy in cells, including heart cells. COQ10 can help improve the function of the endothelium, reduce blood pressure and improve heart failure symptoms.
  • Omega-3 fatty acids: Reduce the level of triglycerides, reduce the risk of blood clots, have anti -inflammatory effects and can improve endothelium function. It is recommended to consume fatty fish, such as salmon, mackerel and sardines, or take additives with omega-3.
  • Resveratrol: Contained in red wine, grapes and berries. It has antioxidant and anti-inflammatory properties and can help protect the cardiovascular system from damage.
  • Vitamin K2: He plays an important role in calcium metabolism and helps to prevent its deposition in the arteries, reducing the risk of calcification of blood vessels and atherosclerosis.

1.3. Psychosocial factors:

Chronic stress, depression, anxiety, and social isolation are significant risk factors of the CVD. Integration of methods for reducing stress, such as meditation, yoga and cognitive-behavioral therapy, in preventive programs can significantly improve the health of the cardiovascular system.

  • Mindfulness-based stress reduction (MBSR): The method of reducing stress, based on awareness, which teaches patients to realize their thoughts and feelings without condemnation. MBSR can help reduce blood pressure, improve endothelium function and reduce stress hormones.
  • Cognitive-behavioral therapy (KPT): Helps patients to change the negative thoughts and behavior that contribute to stress, anxiety and depression. KPT can help improve the adaptation to the disease, reduce the risk of repeated heart attacks and improve the quality of life.
  • Social support: Strong social ties and support from the family and friends have a positive effect on the health of the cardiovascular system. Participation in support groups, volunteer activities and maintaining social contacts can help reduce the risk of SVD.

1.4. Environment and SSZ:

Air pollution, noise and other environmental factors can have a negative effect on the health of the cardiovascular system. Increased awareness of the influence of the environment on the SVD and the development of measures to reduce pollution and improve the quality of life in cities are important areas of preventive medicine.

  • Air pollution: Small particles contained in the contaminated air can penetrate the lungs and blood, causing inflammation, oxidative stress and vascular damage. A decrease in air pollution can significantly reduce the risk of CVD.
  • Noise: The chronic effect of noise, especially at night, can increase blood pressure, increase the risk of heart attacks and strokes. The development of noise-protective measures in cities can improve the health of the cardiovascular system.
  • Lack of greenery: Life in areas with a lack of green spaces is associated with an increased risk of SVD. An increase in the number of parks, gardens and other green zones in cities can help improve the health of the cardiovascular system.

II. New diagnostic methods: accuracy and non -invasiveness

Traditional methods for the diagnosis of SSZ, such as electrocardiography (ECG) and echocardiography (echocardiography), are still important, but new diagnostic methods provide greater accuracy, non-invasiveness and allow the identification of SVDs in the early stages.

2.1. Modern visualization methods:

  • Computer tomographic angiography (KTA): The non -invasive method that allows you to visualize the coronary arteries and identify the presence of plaques and stenosis. KTA can be used to evaluate the risk of developing SVD and determine the need to conduct invasive coronary angiography.
  • Magnetic resonance imaging (MRI) of the heart: Allows you to evaluate the structure and function of the heart, identify the presence of scars, inflammation and other pathologies. MRI of the heart can be used to diagnose cardiomyopathy, myocarditis and other heart diseases.
  • Positron emission tomography (PET) of the heart: Assesses myocardial metabolism and allows you to identify areas of ischemia and non -viable myocardium. PET of the heart can be used to assess the effectiveness of treatment and determine the need for revascularization.
  • Trehmer EchoKG (3D EchoKG): Provides a more accurate assessment of the structure and function of the heart than the traditional two -dimensional echocardiography. 3D ECHOCG can be used to evaluate the function of the heart valves, the size of the heart chambers and identify congenital heart defects.

2.2. Biomarkers:

A blood test for certain biomarkers can help identify the early signs of the SVD and evaluate the risk of their development.

  • Highly sensitive Troponin: The marker of myocardial damage, which can be increased in acute coronary syndromes. Highly sensitive troponin tests allow you to detect even small myocardial damage, which allows you to quickly diagnose and treat acute myocardial infarction.
  • N-tone promotional sodium peptide (NT-PROBNP): The hormone, which is released by the heart in response to a stretch of the walls of the ventricles. An increased NT-PROBNP level indicates heart failure.
  • Lipoprotein (A) (LP (A)): Genetically determined lipoprotein, which is associated with an increased risk of SVD. Measurement of the LP (A) level can help identify patients with a high risk of SVD, even with a normal level of LDL cholesterol.
  • Trimethylamine-n-oxide (TMAO): Metabolite, which is formed in the intestines as a result of processing of choline, lecithin and carnitine. The increased level of TMAO is associated with the increased risk of the CVD.
  • Inflammatory markers: Highly sensitive C-reactive protein (HS-CRP), Interleukin-6 (IL-6) and the factor of alpha tumor necrosis (TNF-α) are inflammation markers that are associated with the increased risk of SVD.

2.3. New technologies:

  • Artificial intelligence (AI) in diagnosis: Machine learning algorithms can analyze the ECG, ECHOCG, KTA and MRI images to identify signs of SVD with high accuracy. AI can help doctors in making decisions and increase diagnostic effectiveness.
  • Wearable sensors and telemedicine: Wearable sensors, such as smart watches and fitness trackers, can continuously monitor blood pressure, heart rate, ECG and other parameters. Telemedicine allows patients to remotely consult with doctors and receive treatment, which is especially important for patients living in remote areas or having limited mobility.

III. Innovative treatment methods: revascularization and replacement of valves

In recent years, new and improved methods of treatment of SVD have appeared, including myocardial revascularization and replacement of heart valves.

3.1. New stents:

  • Bchaocassitating stents (BRS): Stations made of materials that are dissolved in the body over time. BRS allows you to restore the normal function of blood vessels after their implantation, reducing the risk of late thrombosis of stents and repeated revascularization.
  • Stations with a new generation of medicinal coating (des): Stents covered with drugs that prevent tissue growth inside the stent and reduce the risk of restenosis. New generation des is have improved biomobosis.

3.2. Coronary angioplasty using a physiological assessment:

  • Field reserve of blood flow (FFR): A method that measures the pressure in the coronary artery before and after stenosis to determine how stenosis limits the blood flow to the myocardium. FFR allows doctors to make more reasonable decisions on the need for angioplasty.
  • Instant wave free from rest (IFR): The alternative FFR method, which does not require the introduction of adenosine for maximum vasodilation. IFR can be used in patients who are contraindicated in adenosine.

3.3. Transcate replacement of the aortic valve (TAVR):

  • New generations of TAVR valves: The new generation TAVR valves have an improved design and a lower risk of complications, such as a parallevular leak and a stroke.
  • Expansion of indications for TAVR: Initially, the TAVR was approved for patients with a high risk of surgical replacement of the aortic valve. Currently, TAVR is approved for patients with intermediate and even low risk, which makes it available for a wider circle of patients.

3.4. Transcatter correction of mitral failure:

  • Mitraclip: A device that sews the mitral valve sash, reducing mitral failure. Mitraaclip is an alternative to surgical correction of mitral failure in high risk patients.
  • Other transcate devices: Currently, other transcatter devices are being developed for correcting mitral failure, such as devices for annuloplasty and replacing the mitral valve.

3.5. Robotized heart surgery:

  • Advantages of robotic surgery: Robotized heart surgery allows operations through small incisions, which leads to less pain, lower risk of complications and faster recovery.
  • The use of robotic surgery: The robotic heart surgery can be used to perform various operations, such as coronary shunting, replacing heart valves and correction of congenital heart defects.

IV. Drug therapy: new drugs and strategies

The pharmaceutical industry continues to develop new drugs and strategies for the treatment of SSZ.

4.1. PCSK9 inhibitors:

  • The mechanism of action: PCSK9 (Protein of Subtilisin/Kexin Type 9) is a protein that regulates the level of LDL cholesterol in the blood. PCSK9 inhibitors block the PCSK9 action, which leads to a decrease in LDL cholesterol.
  • Clinical effectiveness: PCSK9 inhibitors significantly reduce LDL cholesterol and reduce the risk of SVD, such as myocardial infarction and stroke.

4.2. Na+-glucose coter vehicle 2 type (SGLT2):

  • The mechanism of action: SGLT2 is a protein that is responsible for reabsorption of glucose in the kidneys. SGLT2 inhibitors block SGLT2, which leads to eliminating glucose in urine and reducing blood sugar.
  • Clinical effectiveness: SGLT2 inhibitors reduce the risk of cardiac failure, cardiovascular death and progression of chronic renal disease in patients with type 2 diabetes and cardiovascular diseases. They can also be useful in patients with heart failure that do not suffer from diabetes.

4.3. New anticoagulants (PLA):

  • Advantages of the PLA: The LLC have several advantages compared to warfarin, a traditional anticoagulant. The PLA has a more predictable effect, do not require regular monitoring of the IN and have a lower risk of bleeding.
  • Types of the PLA: There are various types of the PLA, such as Dabigatran, Rivaroxaban, Apixban and Edoxaban.

4.4. Preparations for the treatment of heart amyloidosis:

  • Tafamidis: Transstigetin stabilizer, which prevents its improper coagulation and deposition in the heart. Tapamidis improves survival and quality of life in patients with transstinutine heart amyloidosis.

4.5. Gene therapy:

  • General therapy potential: Gene therapy has the potential for the treatment of SSZ, by delivery of genes that encode useful proteins into heart cells.
  • Examples of genetic therapy: Gene therapy is studied for the treatment of heart failure, coronary heart disease and hypercholesterolemia.

V. Rehabilitation and secondary prevention: integrated approach

Rehabilitation and secondary prevention play an important role in improving the health and quality of life of patients who have undergone SSZ.

5.1. Cardiorebilitation:

  • Cardiorebalization components: Cardiorebalization includes physical exercises, consultations on nutrition issues, psychological support and training of patients.
  • Advantages Cardio -Rabilization: Cardiorebalization improves physical endurance, reduces blood pressure, cholesterol and the risk of repeated heart attacks.

5.2. Telereabilitation:

  • The advantages of television rehabilitation: Telebalization allows patients to undergo cardiorebilitation at home, which makes it more affordable and convenient.
  • Application of televisionhab: Telebalization can be used to monitor physical activity, blood pressure and other parameters, as well as to provide patients with consultations and support.

5.3. Psychological support:

  • The importance of psychological support: Depression, anxiety and stress are often found in patients who have undergone CVD. Psychological support helps patients cope with these problems and improve the quality of life.
  • Types of psychological support: Psychological support may include individual or group therapy, as well as the use of stress reduction methods such as meditation and yoga.

5.4. Optimization of drug therapy:

  • The importance of optimizing drug therapy: It is important that patients who have undergone CVD receive optimal drug therapy to reduce the risk of repeated heart attacks and strokes.
  • Principles of optimization of drug therapy: Optimization of drug therapy includes the selection of correct drugs in the correct doses, as well as control over side effects.

5.5. Life change change:

  • The importance of changing lifestyle: Changing the lifestyle, including healthy nutrition, regular physical exercises and rejection of smoking, is an important component of the secondary prevention of the CVD.
  • Recommendations for a change in lifestyle: Patients who have undergone SSZ are recommended to adhere to a healthy diet rich in fruits, vegetables and whole -grain products, engage in physical exercises for at least 150 minutes a week and abandon smoking.

VI. Future of CVD treatment: new horizons

The treatment of SSZ continues to develop, and in the future the emergence of new and improved treatment methods is expected.

6.1. Regenerative medicine:

  • The potential of regenerative medicine: Regenerative medicine has a potential for restoring damaged myocardium and improving the function of the heart.
  • Approaches of regenerative medicine: The approaches of regenerative medicine include the use of stem cells, growth factors and tissue engineering.

6.2. Nanomedicine:

  • Humitudicia potential: Nano -medicin has the potential for the delivery of drugs directly to the heart cells, as well as for the visualization and diagnosis of SVD in the early stages.
  • Examples of taxi: Nanoparticles can be used to deliver drugs, such as chemotherapeutic drugs and anticoagulants, directly in tumors or blood clots.

6.3. Artificial heart:

  • Advantages of an artificial heart: An artificial heart can replace a damaged heart and maintain blood circulation in patients with severe heart failure.
  • Development of an artificial heart: Currently, various types of artificial hearts are being developed, which can be implanted by patients in need of heart transplant.

6.4. Biopeting hearts:

  • The potential of the heart -printing of the heart: Biopeting of the heart has the potential for creating three -dimensional heart models from patient cells, which can be used to develop new methods of treating and testing drugs.
  • Development of the Heart of Biopeting: Currently, the hearts are in the early stages of development, but it has a huge potential for the revolution in the treatment of SSZ.

6.5. Using big data and artificial intelligence:

  • Big data and AI potential: Big data and AI can be used to analyze huge volumes of clinical data and identify new SSZ risk factors, as well as for the development of personalized treatment strategies.
  • The use of big data and AI: Big data and AI can be used to predict the risk of developing SVDs, identify patients who need more aggressive treatment, and monitor the effectiveness of treatment.

VII. Ethical and social aspects of new methods of treatment

The introduction of new methods of treatment of SSZ poses a number of ethical and social issues.

7.1. Accessibility and justice:

  • Availability problem: New Methods of CVD treatment are often expensive, which can limit their accessibility for patients, especially in countries with low and average income.
  • Provision of justice: It is necessary to ensure a fair distribution of new methods of treatment of the SVD, so that all patients in need of them have the opportunity to receive them.

7.2. Informed consent:

  • The importance of informed consent: Patients should be fully informed about the risks and advantages of new methods of treatment of the SVD before giving their consent to their use.
  • Ensuring informed consent: Doctors must provide patients with clear and understandable information about new treatment methods, as well as answer all their questions.

7.3. Confidentiality:

  • Protecting Privacy: It is important to protect the confidentiality of patients receiving new methods of treatment of SVD.
  • Privacy protection measures: It is necessary to take measures to protect personal information of patients, such as data encryption and restricting access to them.

7.4. Influence on the healthcare system:

  • Influence on the budget of the healthcare system: The introduction of new methods of treatment of SVD can have a significant impact on the budget of the healthcare system.
  • Resource planning and management: It is necessary to carefully plan and manage the resources of the healthcare system in order to ensure the availability of new methods of treatment of SVD without prejudice to other important areas of healthcare.

7.5. Regulatory regulation:

  • The importance of regulatory regulation: It is necessary to develop regulatory regulation of new methods of treatment of SVD in order to ensure their safety and efficiency.
  • Principles of regulatory regulation: Regulatory regulation should be based on scientific data and take into account the ethical and social aspects of new methods of treatment.

VIII. Conclusion (artificially generated, do not include in the final version)

Despite great progress in the treatment of cardiovascular diseases, they still remain a serious problem of public health. New approaches to the treatment described in this article promise to improve the results of treatment and reduce the risk of CVD. However, it is important to take into account the ethical and social aspects of new treatment methods and ensure their accessibility for all patients in need of them. Further research and development in the field of SVD treatment are necessary to improve the health and quality of life of millions of people around the world.


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