Definitions & Key takeaways
Dalton's law states that the total pressure of a gas is the sum of the individual pressures of all the gas molecules in the container. In other words, it's the average pressure exerted by all the gas particles in a given system. This law is fundamental in determining the behavior of gasses under different conditions, such as changes in temperature or volume.
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1.2.
Breathing cycle and regulation
Lung volumes and capacities
Alveolar surface tension and surfactant
Compliance of lungs and chest wall
Gas exchange in the lungs, blood and tissues
Respiratory system anatomy and physiology
Pharmacodynamics: Agonist, partial agonist and antagonist
Baroreceptors
Blood brain barrier
Chemoreceptors
Pulmonary chemoreceptors and mechanoreceptors
Metabolic alkalosis
Metabolic acidosis
Respiratory alkalosis
Chronic obstructive pulmonary disease (COPD): Clinical
Respiratory acidosis
Anatomy of the vagus nerve (CN X)
Deep vein thrombosis and pulmonary embolism: Pathology review
Anatomy of the glossopharyngeal nerve (CN IX)
Blood components
Platelet plug formation (primary hemostasis)
Coagulation (secondary hemostasis)
Role of Vitamin K in coagulation
Development of the cardiovascular system
Cardiovascular system anatomy and physiology
Coronary circulation
Blood pressure, blood flow, and resistance
Compliance of blood vessels
Resistance to blood flow
Stroke volume, ejection fraction, and cardiac output
Cardiac contractility
Frank-Starling relationship
Cardiac preload
Cardiac afterload
Measuring cardiac output (Fick principle)
Cardiac cycle
Pressure-volume loops
Changes in pressure-volume loops
Normal heart sounds
Action potentials in myocytes
Action potentials in pacemaker cells
Excitability and refractory periods
Cardiac excitation-contraction coupling
Cardiac conduction system
ECG basics
ECG intervals
ECG axis
ECG normal sinus rhythm
ECG rate and rhythm
Renin-angiotensin-aldosterone system
Erythropoietin
Clot retraction and fibrinolysis
Sympathetic nervous system
Adrenergic receptors
Parasympathetic nervous system
Cholinergic receptors
Anatomic and physiologic dead space
Ventilation
Zones of pulmonary blood flow
Regulation of pulmonary blood flow
Ventilation-perfusion ratios and V/Q mismatch
Airflow, pressure, and resistance
Dalton's law
Henry's law
Fick's laws of diffusion
Oxygen-hemoglobin dissociation curve
Oxygen binding capacity and oxygen content
Breathing control
Pulmonary changes at high altitude and altitude sickness
Cardiac muscle histology
Anatomy of the lungs and tracheobronchial tree
Cardiac conduction velocity
Cardiac work
Physiological changes during exercise
Anatomy of the heart
Anatomy of the coronary circulation
Combined pressure-volume curves for the lung and chest wall
Pulmonary changes during exercise
Muscle contraction
Muscles of the thoracic wall
Vessels and nerves of the thoracic wall
Anatomy of the pleura
Anatomy of the diaphragm
Reading a chest X-ray
Electron transport chain and oxidative phosphorylation
Deep vein thrombosis
Cell signaling pathways
Pharmacodynamics: Drug-receptor interactions
Glycolysis
Citric acid cycle
Carbon dioxide transport in blood
Fetal circulation
Pressures in the cardiovascular system
Adrenergic antagonists: Beta blockers
Adrenergic antagonists: Alpha blockers
Bronchodilators: Beta 2-agonists and muscarinic antagonists
Pulmonary embolism
Restrictive lung diseases
Development of the respiratory system