Primary FRCA MCQ/SBA Revision Day 23rd
... a) Equals systemic vascular resistance b) If increased, will result in decreased LVEDV c) Is likely to be low in heart failure d) Will be low in a dilated ventricle e) Is decreased in mitral regurgitation 7) Concerning the splanchnic circulation: a) The adult liver normally receives approximately on ...
... a) Equals systemic vascular resistance b) If increased, will result in decreased LVEDV c) Is likely to be low in heart failure d) Will be low in a dilated ventricle e) Is decreased in mitral regurgitation 7) Concerning the splanchnic circulation: a) The adult liver normally receives approximately on ...
doc
... 3. Which of the following P and R combinations would produce the highest blood flow? (P, R ; units not important) (A) 50, 22, (B) 50, 58, (C) 50, 120, (D) 50, 1 or (E) 50, 1.8. 4. An animal with a closed circulatory system would _______. (A) generally have a relatively high blood volume relative t ...
... 3. Which of the following P and R combinations would produce the highest blood flow? (P, R ; units not important) (A) 50, 22, (B) 50, 58, (C) 50, 120, (D) 50, 1 or (E) 50, 1.8. 4. An animal with a closed circulatory system would _______. (A) generally have a relatively high blood volume relative t ...
2nd test – BIOL 1010 – Sp 08 – 3:30 1. Which of the following is NOT
... A. each impulse starts in the AV node B. each impulse starts in the right ventricle C. the atria contract first and then the ventricles D. all of the above 22. (T or F) As long as dad is Rh negative, there is never any concern about Erythroblastois fetalis in his child. 23. Secretions from which of ...
... A. each impulse starts in the AV node B. each impulse starts in the right ventricle C. the atria contract first and then the ventricles D. all of the above 22. (T or F) As long as dad is Rh negative, there is never any concern about Erythroblastois fetalis in his child. 23. Secretions from which of ...
Cardiovascular System Crossword Puzzle Answer Key Across
... 26. ARRHYTHMIA—Irregular heart rate & rhythm; can be too fast (tachycardia), too slow (bradycardia); too early (premature contraction), too irregular (fibrillation) 27. ATHEROSCLEROSIS—Hardening of the arteries due to buildup of plaque in the walls of the arteries 28. MYOCARDIUM—Heart muscle 30. HYP ...
... 26. ARRHYTHMIA—Irregular heart rate & rhythm; can be too fast (tachycardia), too slow (bradycardia); too early (premature contraction), too irregular (fibrillation) 27. ATHEROSCLEROSIS—Hardening of the arteries due to buildup of plaque in the walls of the arteries 28. MYOCARDIUM—Heart muscle 30. HYP ...
Mitral Valve Regurgitation
... blood in the heart through the mitral valve. The mitral valve is 1 of 4 valves in the heart. It lies on the left side of the heart between the left upper chamber (atrium) and lower chamber (ventricle). The valve has 2 flaps called leaflets that normally close every time the ventricle squeezes to pum ...
... blood in the heart through the mitral valve. The mitral valve is 1 of 4 valves in the heart. It lies on the left side of the heart between the left upper chamber (atrium) and lower chamber (ventricle). The valve has 2 flaps called leaflets that normally close every time the ventricle squeezes to pum ...
Slide 1
... Prevents blood movement from L. ventricle to L. atrium Inner lining of heart chamber Layer largely composed of cardiac muscle tissue Space containing serous fluid to reduce friction during heartbeats Drains blood from myocardial capillaries Supplies blood to heart muscle Distributes blood to body or ...
... Prevents blood movement from L. ventricle to L. atrium Inner lining of heart chamber Layer largely composed of cardiac muscle tissue Space containing serous fluid to reduce friction during heartbeats Drains blood from myocardial capillaries Supplies blood to heart muscle Distributes blood to body or ...
Circulatory System
... atherosclerosis – plaque build-up on arterial walls, or arteriosclerosis – loss of elasticity and thickening of wall. Amount of damage depends on size of area deprived of oxygen ...
... atherosclerosis – plaque build-up on arterial walls, or arteriosclerosis – loss of elasticity and thickening of wall. Amount of damage depends on size of area deprived of oxygen ...
Notes
... atherosclerosis – plaque build-up on arterial walls, or arteriosclerosis – loss of elasticity and thickening of wall. Amount of damage depends on size of area deprived of oxygen ...
... atherosclerosis – plaque build-up on arterial walls, or arteriosclerosis – loss of elasticity and thickening of wall. Amount of damage depends on size of area deprived of oxygen ...
• • OBJECTIVES
... lungs caused by back pressure in the lung veins. This results from malfunctioning of the heart. ...
... lungs caused by back pressure in the lung veins. This results from malfunctioning of the heart. ...
Slide ()
... Schematic of cardiac morphogenesis. Oblique views of whole embryo and frontal views of cardiac precursors during human cardiac development are shown. Day 15: First heart field cells form a crescent shape in the anterior embryo with second heart field cells medial to the first heart field. Day 21: Se ...
... Schematic of cardiac morphogenesis. Oblique views of whole embryo and frontal views of cardiac precursors during human cardiac development are shown. Day 15: First heart field cells form a crescent shape in the anterior embryo with second heart field cells medial to the first heart field. Day 21: Se ...
Functions Pump Blood transport system around body Carries O2
... atherosclerosis – plaque build-up on arterial walls, or arteriosclerosis – loss of elasticity and thickening of wall. Amount of damage depends on size of area deprived of oxygen ...
... atherosclerosis – plaque build-up on arterial walls, or arteriosclerosis – loss of elasticity and thickening of wall. Amount of damage depends on size of area deprived of oxygen ...
CIRCULATORY SYSTEM
... The Circulatory system and exercise • Cardiovascular fitness is the ability to exercise the body for long periods of time. It requires a strong heart and clear blood vessels to supply the muscles with oxygen. • Select 4 activities that are cardiovascular and ...
... The Circulatory system and exercise • Cardiovascular fitness is the ability to exercise the body for long periods of time. It requires a strong heart and clear blood vessels to supply the muscles with oxygen. • Select 4 activities that are cardiovascular and ...
Cardiovascular System Notes
... Both tunica media and tunica adventitia are absent in veins and capillaries ...
... Both tunica media and tunica adventitia are absent in veins and capillaries ...
circulatory system
... blood from the left ventricle to the body • Pulmonary artery – carries oxygen-poor blood from the right ventricle to the lungs • Pulmonary vein – carries oxygen-rich blood from the lungs to the left atrium • Superior vena cava – carries oxygen-poor blood to the right atrium from the upper parts of t ...
... blood from the left ventricle to the body • Pulmonary artery – carries oxygen-poor blood from the right ventricle to the lungs • Pulmonary vein – carries oxygen-rich blood from the lungs to the left atrium • Superior vena cava – carries oxygen-poor blood to the right atrium from the upper parts of t ...
circulatory system - Franklin Middle School
... • The human heart is a muscular pump composed of cardiac muscle that allows for continued rhythmic contraction. • It is located in the middle of your chest right behind the sternum and just to the left. • It is the size of your fist. ...
... • The human heart is a muscular pump composed of cardiac muscle that allows for continued rhythmic contraction. • It is located in the middle of your chest right behind the sternum and just to the left. • It is the size of your fist. ...
N120 Quiz #1 (20 Items): REVIEW BLUEPRINT
... psychologic stressors such as exercise, fever, pain, hypotension, hypovolemia, anemia, hypoxia, hypoglycemia, myocardial ischemia, heart failure (HF), hyperthyroidism, anxiety, and fear. It can also be an effect of certain drugs. o Angina may result from sinus tachycardia due to the increased myocar ...
... psychologic stressors such as exercise, fever, pain, hypotension, hypovolemia, anemia, hypoxia, hypoglycemia, myocardial ischemia, heart failure (HF), hyperthyroidism, anxiety, and fear. It can also be an effect of certain drugs. o Angina may result from sinus tachycardia due to the increased myocar ...
BIOL 2402 Sample Test 2 MULTIPLE CHOICE (Fill in the best
... 12. Type A blood A. has no agglutinogins. B. has A agglutinogens. C. has A anglutinins. D. has B agglutinogens. E. has both A and B agglutinins. 13. A person with type O blood should receive a blood transfusion from a donor with A. type A blood. B. type B blood. C. type O blood. D. type AB blood. E ...
... 12. Type A blood A. has no agglutinogins. B. has A agglutinogens. C. has A anglutinins. D. has B agglutinogens. E. has both A and B agglutinins. 13. A person with type O blood should receive a blood transfusion from a donor with A. type A blood. B. type B blood. C. type O blood. D. type AB blood. E ...
bio 241 – fall 2009 – examination #1
... Which one of the following is true concerning the lub-dup sounds of the heart: A. the first sound is longer and louder and is caused by closure of the tricuspid valve; the second sound is shorter and sharper and is caused by closure of the mitral valve B. the first sound is shorter and sharper and i ...
... Which one of the following is true concerning the lub-dup sounds of the heart: A. the first sound is longer and louder and is caused by closure of the tricuspid valve; the second sound is shorter and sharper and is caused by closure of the mitral valve B. the first sound is shorter and sharper and i ...
The Heart In You
... Separates the left ventricle from the aorta Opens as ventricles contract to allow oxygenated blood in the left ventricle to flow throughout body Closes as ventricles relax, preventing blood from returning to the heart. ...
... Separates the left ventricle from the aorta Opens as ventricles contract to allow oxygenated blood in the left ventricle to flow throughout body Closes as ventricles relax, preventing blood from returning to the heart. ...
A Game of X`s and O`s
... heartbeat, blood is sent throughout our bodies, carrying oxygen and nutrients to all of our cells. Each day, 2,000 gallons (more than 7,570 liters) of blood travel many times through about 60,000 miles (96,560 kilometers) of blood vessels that branch and cross, linking the cells of our organs and bo ...
... heartbeat, blood is sent throughout our bodies, carrying oxygen and nutrients to all of our cells. Each day, 2,000 gallons (more than 7,570 liters) of blood travel many times through about 60,000 miles (96,560 kilometers) of blood vessels that branch and cross, linking the cells of our organs and bo ...
Document
... Arteries carry blood toward the atria of the heart. Veins transport blood from the heart to the capillaries. Pulmonary veins carry oxygenrich blood to the heart. The pulmonary artery carries oxygen-rich blood from the lungs. Arteries carry oxygenated blood; veins carry oxygen-poor blood. ...
... Arteries carry blood toward the atria of the heart. Veins transport blood from the heart to the capillaries. Pulmonary veins carry oxygenrich blood to the heart. The pulmonary artery carries oxygen-rich blood from the lungs. Arteries carry oxygenated blood; veins carry oxygen-poor blood. ...
Final exam review
... 9 to 12 use the following choices SA Node. B AV Node C. AV Bundle 9. This is the pace maker 10. This conducts the signal from the top to the bottom of the ventricles. 11. This serves as a delay between the atria and ventricles. 12. The heart beat begins with the depolarization of this. ...
... 9 to 12 use the following choices SA Node. B AV Node C. AV Bundle 9. This is the pace maker 10. This conducts the signal from the top to the bottom of the ventricles. 11. This serves as a delay between the atria and ventricles. 12. The heart beat begins with the depolarization of this. ...
Final exam review
... 9 to 12 use the following choices ASA Node. B AV Node C. AV Bundle 9. This is the pace maker 10. This conducts the signal from the top to the bottom of the ventricles. 11. This serves as a delay between the atria and ventricles. 12. The heart beat begins with the depolarization of this. ...
... 9 to 12 use the following choices ASA Node. B AV Node C. AV Bundle 9. This is the pace maker 10. This conducts the signal from the top to the bottom of the ventricles. 11. This serves as a delay between the atria and ventricles. 12. The heart beat begins with the depolarization of this. ...
Lutembacher's syndrome
Lutembacher's syndrome is a form of congenital heart disease. Lutembacher's syndrome was first described by a French cardiologist by the name of Rene' Lutembacher (1884–1968) of Paris, France in 1916. Lutembacher syndrome is a rare disease that affects one of the chambers of the heart as well as a valve of the heart. Lutembacher's syndrome is known to affect females more often than males. Lutembacher is an extremely rare disease. Lutembacher's can affect children or adults; the person can either be born with the disorder or develop it later in life.Lutembacher affects more specifically the atria of the heart and the mitral or biscupid valve. The disorder itself is known more specifically as both congenital atrial septal defect (ASD) and acquired mitral stenosis (MS). Congenital (at birth) atrial septal defect refers to a hole being in the septum or wall that separates the two atria; this condition is usually seen in fetuses and infants. Mitral stenosis refers to mitral valve leaflets (or valve flaps) sticking to each other making the opening for blood to pass from the atrium to the ventricles very small. With the valve being so small, blood has difficulty passing through the left atrium into the left ventricle. There are several types of septal defects that may occur with Lutembacher's syndrome: ASD Ostium Secundum or ASD (Primium); Ostium Secundum is the most prevalent.Lutembacher is caused indirectly as the result of heart damage or disorders and not something that is necessarily infectious. Lutembacher's syndrome is caused by either birth defects where the heart fails to close all holes in the walls between the atria or from an episode of rheumatic fever where damage is done to the heart valves such as the mitral valve and resultant in an opening of heart wall between atria. With Lutembacher's syndrome, a fetus or infant is usually seen to have a hole in their heart wall (interatrial) separating their right and left atria. Normally during fetal development, blood bypasses the lungs and is oxygenated from the placenta. Blood passes from the umbilical cord and flows into the left atrium through an opening called the foramen ovale; the formaen ovale is a hole between the two atria. Once a baby is born and the lungs begin to fill with air and the blood flow of the heart changes, a tissue flap (somewhat like a trap door) called the septum primium closes the foramen ovale or hole between the two atria and becomes part of the atrial wall. The failure of the hole between the two atria to close after birth leads to a disorder called ASD primium. The most common problems with an opening found in the heart with Lutembacher's syndrome is Ostium Secundum. Ostium Secundum is a hole that is found within the flap of tissue (septum primium) that will eventually close the hole between the two atria after birth. With either type of ASD, ASD will usually cause the blood flow from the right atrium to skip going to the right ventricle and instead flow to the left atrium. If mitral stenosis (the hardening of flap of tissue known as a valve which opens and closes between the left atrium and ventricle to control blood flow) is also present, blood will flow into the right atrium through the hole between the atria wall instead of flowing into the left ventricle and systemic circulation. Eventually this leads to other problems such as the right ventricle failing and a reduced blood flow to the left ventricle.In addition to the ASD, acquired MS can be present either from an episode of rheumatic fever (the mother has or had rheumatic fever during the pregnancy) or the child being born with the disorder (congenital MS). With the combination of both ASD and MS, the heart can be under severe strain as it tries to move blood throughout the heart and lungs. To correct Lutembacher's syndrome, surgery is often done. There are several types of surgeries depending on the cause of Lutembacher's syndrome(ASD Primium or ASD Ostium Secundum with Mitral Stenosis): Suturing (stitching) or placing a patch of tissue (similar to skin grafting) over the hole to completely close the opening Reconstructing of the mitral and tricuspid valve while patching any holes in the heart Device closure of ASD (e.g. Amplatzer umbrella or CardioSEAL to seal the hole Percutaneous transcatheter therapy Transcatheter therapy of balloon valvuloplasty to correct MS↑ ↑ 2.0 2.1 2.2 2.3 2.4 ↑ 3.0 3.1 3.2 3.3 3.4 ↑ ↑ ↑ 6.0 6.1 6.2 6.3 ↑