Medicine

Molecular Medicine at IgMin Research | Medicine Group

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Molecular medicine is a cutting-edge discipline that merges insights from molecular biology, genetics, and medicine to understand the underlying mechanisms of diseases at the molecular level. This field seeks to unravel the intricate molecular pathways and cellular processes that contribute to health and disease. By dissecting the molecular basis of disorders, researchers can develop targeted therapies, precision medicine approaches, and innovative diagnostic tools.

The study of molecular medicine involves investigating genes, proteins, signaling pathways, and other molecular components that drive biological functions. This knowledge is integral for identifying biomarkers, understanding disease progression, and devising strategies to intervene and restore cellular balance. Molecular medicine has revolutionized the way we approach diagnosis, treatment, and prevention of a wide range of medical conditions.

  • Genetic Disorders and Therapies
  • Molecular Diagnostics
  • Molecular Imaging
  • Precision Medicine
  • Biomarker Discovery
  • Molecular Pathology
  • Pharmacogenomics
  • Personalized Therapeutics
  • Molecular Oncology
  • Molecular Immunology
  • Molecular Neurobiology
  • Cellular Signaling
  • Molecular Targets for Drug Development
  • Molecular Epidemiology
  • Molecular Genetics
  • Proteomics
  • Transcriptomics
  • Metabolomics
  • Molecular Mechanisms of Aging
  • Molecular Cardiology
  • Molecular Hematology
  • Molecular Endocrinology
  • Molecular Infectious Diseases
  • Molecular Theranostics
  • Molecular Health Interventions

Medicine Group (1)

Brief Communication Article ID: igmin159
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Fibrin Contributes to an Improvement of an in vitro Wound Repair Model using Fibroblast-populated Collagen Lattices
by Mario Chopin-DoroteoAldo Montes de Oca-Delgado, Rosa M Salgado and Edgar Krötzsch

Incisional acute wounds of the skin are characterized by a rapid biomechanical response by stromal cell contraction that joins the wound lips through the fibrin cloth. In this work, we have performed an in vitro model using Fibroblast-Populated Collagen Lattices (FPCLs) that partially mimic that physiological process. ...Injured FPCLs under relaxed or stressed conditions were evaluated over time, and cross-sections of the lattices were stained with picrosirius red. Wounds filled with fibrin in relaxed FPCLs were closed earlier than controls, the fibrillar pattern of the collagen lattice was different between the wound and the edges of the lattice. On the other hand, stressed FPCLs did not close wounds, even those filled with fibrin, because the tension generated from the lattice borders maintained high tension towards the wound. Controls or fibrin-treated stressed FPCLs, showed high tension in the wound matrix, characterized by the high packing of collagen observed like yellow-red birefringent fibers when stained by picrosirius red. Despite wounds that remain open, fibrin-treated FPCLs exhibited less wound area than controls. With this work, we have demonstrated that FPCL models can be used to study wound closure, mainly when they are improved with other elements of the wound environment that allow us to analyze the biological process.

Dermatology Molecular MedicinePathology