Henry's law
Henry's law
Block test 2
Block test 2
Introduction to the cardiovascular system
Introduction to the lymphatic system
Anatomy of the heart
Anatomy of the coronary circulation
Anatomy clinical correlates: Heart
Anatomy of the superior mediastinum
Anatomy of the inferior mediastinum
Anatomy clinical correlates: Mediastinum
Development of the cardiovascular system
Fetal circulation
Cardiac muscle histology
Artery and vein histology
Cardiovascular system anatomy and physiology
Coronary circulation
Blood pressure, blood flow, and resistance
Pressures in the cardiovascular system
Laminar flow and Reynolds number
Resistance to blood flow
Compliance of blood vessels
Control of blood flow circulation
Microcirculation and Starling forces
Measuring cardiac output (Fick principle)
Stroke volume, ejection fraction, and cardiac output
Cardiac contractility
Frank-Starling relationship
Cardiac preload
Cardiac afterload
Law of Laplace
Cardiac and vascular function curves
Altering cardiac and vascular function curves
Cardiac work
Cardiac cycle
Pressure-volume loops
Changes in pressure-volume loops
Physiological changes during exercise
Cardiovascular changes during postural change
Normal heart sounds
Action potentials in myocytes
Action potentials in pacemaker cells
Excitability and refractory periods
Cardiac excitation-contraction coupling
Cardiac conduction system
Cardiac conduction velocity
ECG basics
ECG intervals
ECG normal sinus rhythm
ECG QRS transition
ECG axis
ECG rate and rhythm
Baroreceptors
Chemoreceptors
Renin-angiotensin-aldosterone system
Anatomy of the larynx and trachea
Bones and joints of the thoracic wall
Muscles of the thoracic wall
Vessels and nerves of the thoracic wall
Anatomy of the pleura
Anatomy of the lungs and tracheobronchial tree
Anatomy of the diaphragm
Anatomy clinical correlates: Thoracic wall
Anatomy clinical correlates: Pleura and lungs
Development of the respiratory system
Trachea and bronchi histology
Bronchioles and alveoli histology
Respiratory system anatomy and physiology
Reading a chest X-ray
Lung volumes and capacities
Anatomic and physiologic dead space
Alveolar surface tension and surfactant
Compliance of lungs and chest wall
Combined pressure-volume curves for the lung and chest wall
Ventilation
Zones of pulmonary blood flow
Regulation of pulmonary blood flow
Pulmonary shunts
Ventilation-perfusion ratios and V/Q mismatch
Breathing cycle
Airflow, pressure, and resistance
Ideal (general) gas law
Boyle's law
Dalton's law
Henry's law
Graham's law
Gas exchange in the lungs, blood and tissues
Diffusion-limited and perfusion-limited gas exchange
Alveolar gas equation
Oxygen binding capacity and oxygen content
Oxygen-hemoglobin dissociation curve
Carbon dioxide transport in blood
Breathing control
Pulmonary chemoreceptors and mechanoreceptors
Pulmonary changes at high altitude and altitude sickness
Pulmonary changes during exercise
Neonatal respiratory distress syndrome
Asthma
Pneumothorax
Pulmonary embolism
Deep vein thrombosis and pulmonary embolism: Pathology review
Obstructive lung diseases: Pathology review
Restrictive lung diseases: Pathology review
Antihistamines for allergies
Bronchodilators: Beta 2-agonists and muscarinic antagonists
Blood components
Blood histology
Flashcards
Henry's law
0 of 17 complete
Key Takeaways
Henry's law states that the amount of a gas that will dissolve in a liquid is proportional to the partial pressure of the gas above the liquid. This law explains why gasses with high solubility will have a higher concentration in the blood than less soluble gasses, despite having the same partial pressure.