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The development of biomedical research and technologies with high throughput and intensive use of data has caused researchers to develop strategies for analyzing, integrating and interpreting the huge amounts of data they generate. Although many statistical methods have been developed to work with "big data", the experience of using artificial intelligence methods shows that the latter can be especially suitable for medical purposes. The results of process modeling and data analysis using machine learning reveal a large heterogeneity of pathophysiological factors and processes contributing to the disease, which indicates the need to adapt or "personalize" medicines, taking into account the nuances and often unique features that patients possess. Experimental in situ study of individual patients' pathologies in combination with computer modeling and functional analysis makes it possible to develop new methods of patient treatment and decision-making assistance systems for doctors. This approach can be called full-fledged personalized medicine. Given how important data-intensive analyses are to identify appropriate intervention goals and treatment strategies for a person with a disease, computer modeling based on medical data about a patient can, in particular, predict the manifestations of ischemia and postoperative pathologies for the heart and other organs. In this way, our laboratory develops 3 main areas:

1) Development of new personalized computational digital technologies and machine learning approaches for the prediction and treatment of organ socially significant diseases

2) Development of new methods of biological tissue repair and enhancement of their regenerative potential

3) Development of methods for early diagnosis and selection of treatment of socially significant diseases based on studies of patient pathologies

  1. Cell and tissue culture
  2. Histochemistry
  3. Fluorescence microscopy
  4. Confocal microscopy
  5. Atomic Force Microscopy (AFM)
  6. Scanning electron microscopy (SEM)
  7. Working with laboratory animals
  8. Mapping
  9. Tissue Engineering
  10. Machine learning
  11. Neural networks
  12. Patch clamp

Research directions

Development of new personalized computational digital technologies and machine learning approaches for the prediction and treatment of organ socially significant diseases

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Development of new personalized computational digital technologies and machine learning approaches for the prediction and treatment of organ socially significant diseases
- Prognosis and criteria for the treatment of hypertrophic cardiomyopathy - Modeling of ablation therapy for diffuse atrial fibrosis - Modeling and prognosis of complications in ischemic organ disease (CHD, UPS, COPD, postoperative ischemia) - Algorithms for predicting and detecting organ functionality in open surgeries and in transplantation operations (heart, lungs, kidneys, ureter, etc.)

Development of new methods of biological tissue repair and enhancement of their regenerative potential

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Development of new methods of biological tissue repair and enhancement of their regenerative potential
- Study of the possibility and effectiveness of cell therapy based on new in situ biological substrates and the effect of the paracrine effect on differentiation and replacement of the damaged area - Study of the prospects for using mesenchymal cells for the treatment of cardiac and muscle injuries - Study of the use of viral vectors for transdifferentiation of scar tissue and the creation of regenerative methods based on direct transdifferentiation of cells from terminal stages to replace scar tissue fabrics in situ

Publications and patents

Partners

Lab address

Долгопрудный, Институтский переулок, 9
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