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Subspeciality surgery
Coronary artery disease: Clinical (To be retired)
Valvular heart disease: Clinical (To be retired)
Pericardial disease: Clinical (To be retired)
Aortic aneurysms and dissections: Clinical (To be retired)
Chest trauma: Clinical (To be retired)
Pleural effusion: Clinical (To be retired)
Pneumothorax: Clinical (To be retired)
Lung cancer: Clinical (To be retired)
Anatomy clinical correlates: Thoracic wall
Anatomy clinical correlates: Heart
Anatomy clinical correlates: Pleura and lungs
Anatomy clinical correlates: Mediastinum
Adrenergic antagonists: Beta blockers
ACE inhibitors, ARBs and direct renin inhibitors
cGMP mediated smooth muscle vasodilators
Lipid-lowering medications: Statins
Lipid-lowering medications: Fibrates
Miscellaneous lipid-lowering medications
Antiplatelet medications
Benign hyperpigmented skin lesions: Clinical (To be retired)
Skin cancer: Clinical (To be retired)
Blistering skin disorders: Clinical (To be retired)
Bites and stings: Clinical (To be retired)
Burns: Clinical (To be retired)
Anatomy clinical correlates: Olfactory (CN I) and optic (CN II) nerves
Anatomy clinical correlates: Trigeminal nerve (CN V)
Anatomy clinical correlates: Facial (CN VII) and vestibulocochlear (CN VIII) nerves
Anatomy clinical correlates: Glossopharyngeal (CN IX), vagus (X), spinal accessory (CN XI) and hypoglossal (CN XII) nerves
Anatomy clinical correlates: Skull, face and scalp
Anatomy clinical correlates: Ear
Anatomy clinical correlates: Temporal regions, oral cavity and nose
Anatomy clinical correlates: Bones, fascia and muscles of the neck
Anatomy clinical correlates: Vessels, nerves and lymphatics of the neck
Anatomy clinical correlates: Viscera of the neck
Antihistamines for allergies
Stroke: Clinical (To be retired)
Seizures: Clinical (To be retired)
Headaches: Clinical (To be retired)
Traumatic brain injury: Clinical (To be retired)
Neck trauma: Clinical (To be retired)
Brain tumors: Clinical (To be retired)
Lower back pain: Clinical (To be retired)
Anatomy clinical correlates: Olfactory (CN I) and optic (CN II) nerves
Anatomy clinical correlates: Oculomotor (CN III), trochlear (CN IV) and abducens (CN VI) nerves
Anatomy clinical correlates: Trigeminal nerve (CN V)
Anatomy clinical correlates: Facial (CN VII) and vestibulocochlear (CN VIII) nerves
Anatomy clinical correlates: Glossopharyngeal (CN IX), vagus (X), spinal accessory (CN XI) and hypoglossal (CN XII) nerves
Anatomy clinical correlates: Vertebral canal
Anatomy clinical correlates: Spinal cord pathways
Anatomy clinical correlates: Cerebral hemispheres
Anatomy clinical correlates: Anterior blood supply to the brain
Anatomy clinical correlates: Cerebellum and brainstem
Anatomy clinical correlates: Posterior blood supply to the brain
Anticonvulsants and anxiolytics: Barbiturates
Anticonvulsants and anxiolytics: Benzodiazepines
Nonbenzodiazepine anticonvulsants
Migraine medications
Osmotic diuretics
Antiplatelet medications
Thrombolytics
Eye conditions: Refractive errors, lens disorders and glaucoma: Pathology review
Eye conditions: Retinal disorders: Pathology review
Eye conditions: Inflammation, infections and trauma: Pathology review
Anatomy clinical correlates: Olfactory (CN I) and optic (CN II) nerves
Anatomy clinical correlates: Oculomotor (CN III), trochlear (CN IV) and abducens (CN VI) nerves
Anatomy clinical correlates: Eye
Joint pain: Clinical (To be retired)
Lower back pain: Clinical (To be retired)
Anatomy clinical correlates: Clavicle and shoulder
Anatomy clinical correlates: Axilla
Anatomy clinical correlates: Arm, elbow and forearm
Anatomy clinical correlates: Wrist and hand
Anatomy clinical correlates: Median, ulnar and radial nerves
Anatomy clinical correlates: Bones, joints and muscles of the back
Anatomy clinical correlates: Hip, gluteal region and thigh
Anatomy clinical correlates: Knee
Anatomy clinical correlates: Leg and ankle
Anatomy clinical correlates: Foot
Traumatic brain injury: Clinical (To be retired)
Neck trauma: Clinical (To be retired)
Chest trauma: Clinical (To be retired)
Abdominal trauma: Clinical (To be retired)
Penile conditions: Pathology review
Prostate disorders and cancer: Pathology review
Testicular tumors: Pathology review
Kidney stones: Clinical (To be retired)
Renal cysts and cancer: Clinical (To be retired)
Urinary incontinence: Pathology review
Testicular and scrotal conditions: Pathology review
Anatomy clinical correlates: Male pelvis and perineum
Anatomy clinical correlates: Female pelvis and perineum
Anatomy clinical correlates: Other abdominal organs
Anatomy clinical correlates: Inguinal region
Androgens and antiandrogens
PDE5 inhibitors
Adrenergic antagonists: Alpha blockers
Peripheral vascular disease: Clinical (To be retired)
Leg ulcers: Clinical (To be retired)
Aortic aneurysms and dissections: Clinical (To be retired)
Anatomy clinical correlates: Anterior and posterior abdominal wall
Adrenergic antagonists: Beta blockers
Lipid-lowering medications: Statins
Lipid-lowering medications: Fibrates
Miscellaneous lipid-lowering medications
Antiplatelet medications
Thrombolytics
Lipid-lowering medications: Fibrates
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Evan Debevec-McKenney
Fibrates are a group of lipid-lowering medications, along with statins and niacin.
These medications are very effective at lowering triglyceride levels in the blood, but are less effective at controlling cholesterol.
Now, triglycerides make up most of your body fat, and they consist of a glycerol and 3 fatty acids.
So when we eat a box of chili fries, the fatty acids and cholesterol are absorbed into the cells in the small intestine.
The fatty acids are then converted into triglycerides.
However, triglycerides and cholesterol are not water soluble, so they can’t travel freely in the blood. To fix this, our body makes “shipping boxes” called lipoproteins.
These containers consist of a shell made of phospholipids and protein tags that act as instructions for their destination.
So after absorption, the small intestinal cells package the triglycerides and cholesterol into the largest, but least dense lipoproteins, called chylomicrons.
These are released into the lymphatic system and then enter the bloodstream via the subclavian vein. Then, they travel through the blood to reach the liver and other tissues in the body.
Now in the blood vessels near these tissues, we have an enzyme called lipoprotein lipase, which can break down triglycerides into fatty acids.
Cells in the nearby tissue can then use these fatty acids to generate ATP.
Adipose tissue can synthesize a lot of lipoprotein lipases, which means they have access to a lot of fatty acids.
Now, instead of using the fatty acids for energy, they pick them up, convert them back into triglycerides, and store them for later use.
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