Epistemis

Clinical Biochemistry of Exosomes and Extracellular Vesicles | Treaty of Critical Medicine and Surgery

Biochemistry · Basic Sciences

How it begins

Detailed and exhaustive study of the cellular, structural and molecular biology of extracellular vesicles. Methodological analysis for its isolation, analytical characterization using state-of-the-art biophysical techniques, and its profound clinical relevance in translational oncology, cardiovascular diseases, neurodegeneration and regenerative medicine.

What it covers

  1. Extracellular Vesicles
  2. Taxonomy, General Classification and Cellular Origin of Extracellular Vesicles (EV)
  3. · 1.1 · Taxonomic Classification of Vesicular Populations
  4. · 1.2 · Evolutionary Importance of Vesicular Intercellular Communication
  5. Exosome Biogenesis Mechanisms: The ESCRT-Dependent Pathway
  6. · 2.1 · Sequential Recruitment and Cargo Sorting
  7. · 2.2 · ESCRT-III Polymerization and Cleavage Mechanism (Abscission)
  8. ESCRT-Independent Biogenesis Pathways and Direct Ectosome Budding
  9. · 3.1 · Ceramide Dynamics and Spontaneous Curvature of the Bilayer
  10. · 3.2 · The Role of Tetraspanins in the Organization of Membrane Microdomains
  11. · 3.3 · Biochemistry of Ectosome Budding in the Plasma Membrane
  12. The Lipid Bilayer of Extracellular Vesicles: Composition and Biophysical Properties
  13. · 4.1 · Lipid Enrichment and Structure in "Rafts" or Lipid Rafts
  14. · 4.2 · Biophysical Properties: Transition Temperature and Stability
  15. The Proteomic Landscape of Extracellular Vesicles: Key and Signature Proteins
  16. · 5.1 · Signature Tetraspanins and their Molecular Interaction
  17. · 5.2 · Rab Family GTPases and SNARE Fusion Machinery
  18. The Nucleic Acid Cargo of EVs: Interference RNA and DNA
  19. · 6.1 · RNA Selection and Classification Mechanisms (RNA Sorting)
  20. · 6.2 · Characterization of Intratumoral RNA Species and Epigenetic Functionality
  21. EV Physical Isolation Methodologies: Differential Ultracentrifugation
  22. · 7.1 · Sequential Differential Ultracentrifugation Protocol (dUC)
  23. · 7.2 · Density Gradient Fractionation (Sucrose vs. Iodixanol)
  24. Advanced Purification Techniques: Molecular Exclusion Chromatography
  25. · 8.1 · Biophysical Principle of Chromatographic Separation
  26. · 8.2 · Comparison of Performance and Purity of Isolation Methods
  27. · 8.3 · Innovative Isolation Methodologies
  28. Biophysical and Biochemical Characterization Techniques of EVs
  29. · 9.1 · ATN Principle and the Stokes-Einstein Equation
  30. · 9.2 · High Resolution Microscopy (TEM, Cryo-TEM, AFM)
  31. Mechanisms of Intercellular Communication and EV Internalization
  32. · 10.1 · Primary Interaction Pathways on the Cell Surface
  33. Role of EVs in Oncogenesis and Epithelial-Mesenchymal Transition (EMT)
  34. · 11.1 · Reprogramming of the Tumor Microenvironment
  35. · 11.2 · Modulation of E-Cadherin Loss and Snail/Twist Activation
  36. Construction of the Pre-Metastatic Niche and Organotropism
  37. · 12.1 · Metastatic Organotropism Mediated by Vesicular Integrins
  38. · 12.2 · Systemic Immunosuppression and Remote Immune Evasion
  39. Cardiovascular Physiopathology and Thrombogenesis
  40. · 13.1 · EV of Platelet Origin as Initiators of Thrombus and Atherosclerosis
  41. · 13.2 · Post-Acute Myocardial Infarction (AMI) Cardiac Remodeling
  42. Neurobiology and Propagation of Proteopathies in the CNS
  43. · 14.1 · Propagation of Beta-Amyloid and Tau Protein Oligomers in Alzheimer's
  44. Clinical Biochemistry and Applications of EVs in Liquid Biopsy
  45. · 15.1 · Characterization of Clinical Diagnostic Biofluids
  46. Analytical Interferences, Standardization and MISEV Guides
  47. · 16.1 · Interferences from Chylomicrons, VLDL, Albumin and Tamm-Horsfall
  48. · 16.2 · Marker Categories According to the MISEV Guides
  49. Exosomes as Therapeutic Delivery Vectors
  50. · 17.1 · Advantages of EVs over Synthetic Liposomes
  51. · 17.2 · Surface Engineering Modifications (Surface Engineering)
  52. Pharmaceutical Regulation, Good Manufacturing Practices (GMP) and Clinical Challenges
  53. · 18.1 · Challenges in Mass Production: Hollow Fiber Bioreactors
  54. · 18.2 · Regulatory Challenges and Biological Potency Testing
  55. · 18.3 · Key Principles in the Clinical Biochemistry and Pathophysiology of EVs

The complete study guide is in the app

This page summarizes the outline. The full interactive study guide —with high-yield diagrams, clinical tables, and board review cases— can be read inside Epistemis, completely offline and ad-free.

Subject
Biochemistry
Category
Basic Sciences
Type
Study Guide
Sections
55
Reviewed
2026-08-02
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