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OxLDL: A Pivotal Mediator of Atherosclerosis and Inflammatory Processes

Cardiac Markers

Molecular Formation and Oxidative Modification

  • OxLDL forms through lipid peroxidation, transforming native low-density lipoprotein (LDL) into a reactive and potentially harmful structure.
  • Key oxidative modification pathways:
    • Interaction with free radicals
    • Enzymatic oxidation by inflammatory cells
    • Lipid peroxidation mechanisms
    • Structural alterations of apolipoprotein B-100
  • Characteristic modifications:
    • Lipid peroxidation products
    • Oxidized phospholipids
    • Structural changes in protein components
    • Generation of bioactive oxidation-specific epitopes
  • The oxidation process renders LDL pro-inflammatory and potentially atherogenic.

Cellular Interactions and Inflammatory Mechanisms

  • Complex interactions with cellular systems, especially in inflammatory and immune responses:
    • Endothelial Cell Dynamics:
      • Induces endothelial dysfunction
      • Increases vascular permeability
      • Promotes adhesion molecule expression
      • Triggers inflammatory signalling cascades
    • Macrophage Activation:
      • Stimulates foam cell formation
      • Activates scavenger receptors
      • Triggers pro-inflammatory cytokine release
      • Contributes to chronic inflammatory processes
    • Immune System Modulation:
      • Activates pattern recognition receptors
      • Stimulates innate immune responses
      • Generates oxidation-specific epitopes
      • Influences adaptive immune mechanisms
    • Oxidative Stress Amplification:
      • Generates additional reactive oxygen species
      • Perpetuates inflammatory cycles
      • Disrupts cellular antioxidant mechanisms
      • Contributes to ongoing oxidative damage

Pathological Implications and Disease Associations

  • Atherosclerosis Development:
    • Primary driver of plaque formation
    • Promotes chronic inflammatory processes
    • Facilitates lipid accumulation in arterial walls
    • Contributes to plaque instability and rupture
  • Metabolic Disorders:
    • Associated with insulin resistance
    • Influences lipid metabolism
    • Contributes to metabolic syndrome progression
    • Disrupts cellular metabolic homeostasis
  • Neurological Implications:
    • Potential role in neurodegenerative processes
    • May contribute to neuroinflammation
    • Linked to cognitive decline mechanisms
    • Interesting target for neurological research
  • Systemic Inflammatory Conditions:
    • Associated with chronic inflammatory diseases
    • Influences immune system dysregulation
    • Contributes to persistent inflammatory states
    • Potential biomarker for inflammatory processes

Suitable ELISA Kits

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