Forces in Function
The Common Vein Copyright 2007
Principles
Physiology relates to the interaction of the forces in the body. The forces have both physical and chemical forms.
Genetic Forces
71586b08.800 brain parts masks pink anatomy genetics genes generations coronal projections MRI Davidoff art Davidoff MD |
Forces in the Central Nervous System
Chemical Forces Allowing Impulse Transmission Across a Synapse
Electrical Transmission Along a Nerve
Forces in the Cardiovascular System
Creating Pressure Gradients
Mechanical and Electrical Forces
33808b.800 heart cardiac physiology pressure EKG ECG pressure curves diagram LV aorta LA left atrium left ventricle systole diastole acv waves Davidoff MD |
Elastic Forces
Respiratory System
Moving Forces
32634b10
45771 chest lungs fx normal chest CT anatomy Courtesy Ashley Davidoff MD Davidoff art 45769 45770 45771 45772 45773 45774 45775 45776 |
Gradients Createrd at the Alveolar Level
Courtesy Ashley Davidoff MD. 42445b08b Davidoff art |
Chemical Forces Used to Maintain Patency of Alveoli
This a grape like cluster of normal alveoli. Courtesy Ashley Davidoff MD 32163 code lung alveolus terminal bronchiole respiratory bronchiole RS normal anatomy drawing Davidoff art |
Gastrointestinal System
Chemical Forces ? Acid Production by the Stomach for Antimicrobial Action
49462 chest esophagus PH probe intraoperative monitoring for aspiration of stomach contents CXR plain X-Ray of the chest Davidoff MD |
Forces for the Processing of Food
Genitourinary Tract
Pressure Gradients and Osmotic Gradients
31843 kidney ureters bladder post void calyces pelvis post void forces physiology contraction IVP physiology Plain X-ray KUB Davidoff MD |
Muscular Forces
47757b02 24 week fetus arm hand biceps thumb index finger human opposing thumb and index grape in hand normasl anatomy MRI Davidoff MD concepts Davidoff food in the body |
80753pb01.800 Dancers Arielle Davidoff art Davidoff photography Courtesy Ashley Davidoff MD |
64163b01 health youth age time physiology boy running happy davidoff photgraphy Davidoff MD |
Skeletal System
47717c01 bone spine lumbar spine scotty dog pedicles normal obliques Davidoff animals in the body plain film X-ray Davidoff MD |
49464 bone femur fx healed fracture compensation total knee replacement plain X-Ray Davidoff MD 49465 |
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DOMElement Object ( [schemaTypeInfo] => [tagName] => table [firstElementChild] => (object value omitted) [lastElementChild] => (object value omitted) [childElementCount] => 1 [previousElementSibling] => (object value omitted) [nextElementSibling] => (object value omitted) [nodeName] => table [nodeValue] => The Initial Filter ? Bowman?s Capsule ? and then Countercurrent Mechanism in the Tubes of Henle to Generate a Gradient to Recapture Water and Excrete and Secrete Uriniferous Waste 16100b.800 kidney renal arteriole Bowman?s capsule filter tubule proximal convoluted tubule distal convoluted tubule collecting tubule ureter countercurrent mechanisms urine production gradients membrane flter bladder urethra drawing Davidoff art Davidoff MD [nodeType] => 1 [parentNode] => (object value omitted) [childNodes] => (object value omitted) [firstChild] => (object value omitted) [lastChild] => (object value omitted) [previousSibling] => (object value omitted) [nextSibling] => (object value omitted) [attributes] => (object value omitted) [ownerDocument] => (object value omitted) [namespaceURI] => [prefix] => [localName] => table [baseURI] => [textContent] => The Initial Filter ? Bowman?s Capsule ? and then Countercurrent Mechanism in the Tubes of Henle to Generate a Gradient to Recapture Water and Excrete and Secrete Uriniferous Waste 16100b.800 kidney renal arteriole Bowman?s capsule filter tubule proximal convoluted tubule distal convoluted tubule collecting tubule ureter countercurrent mechanisms urine production gradients membrane flter bladder urethra drawing Davidoff art Davidoff MD )
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DOMElement Object ( [schemaTypeInfo] => [tagName] => td [firstElementChild] => (object value omitted) [lastElementChild] => (object value omitted) [childElementCount] => 2 [previousElementSibling] => [nextElementSibling] => [nodeName] => td [nodeValue] => Chewing Carbohydrates with Chemical Action of Amylase results in Glucose Availability [nodeType] => 1 [parentNode] => (object value omitted) [childNodes] => (object value omitted) [firstChild] => (object value omitted) [lastChild] => (object value omitted) [previousSibling] => (object value omitted) [nextSibling] => (object value omitted) [attributes] => (object value omitted) [ownerDocument] => (object value omitted) [namespaceURI] => [prefix] => [localName] => td [baseURI] => [textContent] => Chewing Carbohydrates with Chemical Action of Amylase results in Glucose Availability )
DOMElement Object ( [schemaTypeInfo] => [tagName] => table [firstElementChild] => (object value omitted) [lastElementChild] => (object value omitted) [childElementCount] => 1 [previousElementSibling] => (object value omitted) [nextElementSibling] => (object value omitted) [nodeName] => table [nodeValue] => PH probe to Detect Gastric Acid Reflux During Surgery 49462 chest esophagus PH probe intraoperative monitoring for aspiration of stomach contents CXR plain X-Ray of the chest Davidoff MD [nodeType] => 1 [parentNode] => (object value omitted) [childNodes] => (object value omitted) [firstChild] => (object value omitted) [lastChild] => (object value omitted) [previousSibling] => (object value omitted) [nextSibling] => (object value omitted) [attributes] => (object value omitted) [ownerDocument] => (object value omitted) [namespaceURI] => [prefix] => [localName] => table [baseURI] => [textContent] => PH probe to Detect Gastric Acid Reflux During Surgery 49462 chest esophagus PH probe intraoperative monitoring for aspiration of stomach contents CXR plain X-Ray of the chest Davidoff MD )
DOMElement Object ( [schemaTypeInfo] => [tagName] => td [firstElementChild] => (object value omitted) [lastElementChild] => (object value omitted) [childElementCount] => 1 [previousElementSibling] => [nextElementSibling] => [nodeName] => td [nodeValue] => 49462 chest esophagus PH probe intraoperative monitoring for aspiration of stomach contents CXR plain X-Ray of the chest Davidoff MD [nodeType] => 1 [parentNode] => (object value omitted) [childNodes] => (object value omitted) [firstChild] => (object value omitted) [lastChild] => (object value omitted) [previousSibling] => (object value omitted) [nextSibling] => (object value omitted) [attributes] => (object value omitted) [ownerDocument] => (object value omitted) [namespaceURI] => [prefix] => [localName] => td [baseURI] => [textContent] => 49462 chest esophagus PH probe intraoperative monitoring for aspiration of stomach contents CXR plain X-Ray of the chest Davidoff MD )
DOMElement Object ( [schemaTypeInfo] => [tagName] => td [firstElementChild] => (object value omitted) [lastElementChild] => (object value omitted) [childElementCount] => 2 [previousElementSibling] => [nextElementSibling] => [nodeName] => td [nodeValue] => PH probe to Detect Gastric Acid Reflux During Surgery [nodeType] => 1 [parentNode] => (object value omitted) [childNodes] => (object value omitted) [firstChild] => (object value omitted) [lastChild] => (object value omitted) [previousSibling] => (object value omitted) [nextSibling] => (object value omitted) [attributes] => (object value omitted) [ownerDocument] => (object value omitted) [namespaceURI] => [prefix] => [localName] => td [baseURI] => [textContent] => PH probe to Detect Gastric Acid Reflux During Surgery )
DOMElement Object ( [schemaTypeInfo] => [tagName] => table [firstElementChild] => (object value omitted) [lastElementChild] => (object value omitted) [childElementCount] => 1 [previousElementSibling] => (object value omitted) [nextElementSibling] => (object value omitted) [nodeName] => table [nodeValue] => Chemical Force of Surfactant to Keep the Alveoli Open during Respiration This a grape like cluster of normal alveoli. Courtesy Ashley Davidoff MD 32163 code lung alveolus terminal bronchiole respiratory bronchiole RS normal anatomy drawing Davidoff art [nodeType] => 1 [parentNode] => (object value omitted) [childNodes] => (object value omitted) [firstChild] => (object value omitted) [lastChild] => (object value omitted) [previousSibling] => (object value omitted) [nextSibling] => (object value omitted) [attributes] => (object value omitted) [ownerDocument] => (object value omitted) [namespaceURI] => [prefix] => [localName] => table [baseURI] => [textContent] => Chemical Force of Surfactant to Keep the Alveoli Open during Respiration This a grape like cluster of normal alveoli. Courtesy Ashley Davidoff MD 32163 code lung alveolus terminal bronchiole respiratory bronchiole RS normal anatomy drawing Davidoff art )
DOMElement Object ( [schemaTypeInfo] => [tagName] => td [firstElementChild] => (object value omitted) [lastElementChild] => (object value omitted) [childElementCount] => 1 [previousElementSibling] => [nextElementSibling] => [nodeName] => td [nodeValue] => This a grape like cluster of normal alveoli. Courtesy Ashley Davidoff MD 32163 code lung alveolus terminal bronchiole respiratory bronchiole RS normal anatomy drawing Davidoff art [nodeType] => 1 [parentNode] => (object value omitted) [childNodes] => (object value omitted) [firstChild] => (object value omitted) [lastChild] => (object value omitted) [previousSibling] => (object value omitted) [nextSibling] => (object value omitted) [attributes] => (object value omitted) [ownerDocument] => (object value omitted) [namespaceURI] => [prefix] => [localName] => td [baseURI] => [textContent] => This a grape like cluster of normal alveoli. Courtesy Ashley Davidoff MD 32163 code lung alveolus terminal bronchiole respiratory bronchiole RS normal anatomy drawing Davidoff art )
DOMElement Object ( [schemaTypeInfo] => [tagName] => td [firstElementChild] => (object value omitted) [lastElementChild] => (object value omitted) [childElementCount] => 2 [previousElementSibling] => [nextElementSibling] => [nodeName] => td [nodeValue] => Chemical Force of Surfactant to Keep the Alveoli Open during Respiration [nodeType] => 1 [parentNode] => (object value omitted) [childNodes] => (object value omitted) [firstChild] => (object value omitted) [lastChild] => (object value omitted) [previousSibling] => (object value omitted) [nextSibling] => (object value omitted) [attributes] => (object value omitted) [ownerDocument] => (object value omitted) [namespaceURI] => [prefix] => [localName] => td [baseURI] => [textContent] => Chemical Force of Surfactant to Keep the Alveoli Open during Respiration )
DOMElement Object ( [schemaTypeInfo] => [tagName] => table [firstElementChild] => (object value omitted) [lastElementChild] => (object value omitted) [childElementCount] => 1 [previousElementSibling] => (object value omitted) [nextElementSibling] => (object value omitted) [nodeName] => table [nodeValue] => Oxygen Gradients Created by the Lungs Across the Alveolar Membrane This diagram again shows the alveolus in teal, the arteriolar component of the capillary with red cells in blue and venular component replenished by oxygen in red. As noted above, the PO2 of the arterial blood is 40mmHg while the inspired air is 104mmHg. A pressure gradient thus exists and diffusion from the high to the low pressure occurs with a net movement of oxygen into the blood to equilibrate the pressure. Venous blood is now rich in oxygen with a PO2 of 104mmHg.Courtesy Ashley Davidoff MD. 42445b08b Davidoff art [nodeType] => 1 [parentNode] => (object value omitted) [childNodes] => (object value omitted) [firstChild] => (object value omitted) [lastChild] => (object value omitted) [previousSibling] => (object value omitted) [nextSibling] => (object value omitted) [attributes] => (object value omitted) [ownerDocument] => (object value omitted) [namespaceURI] => [prefix] => [localName] => table [baseURI] => [textContent] => Oxygen Gradients Created by the Lungs Across the Alveolar Membrane This diagram again shows the alveolus in teal, the arteriolar component of the capillary with red cells in blue and venular component replenished by oxygen in red. As noted above, the PO2 of the arterial blood is 40mmHg while the inspired air is 104mmHg. A pressure gradient thus exists and diffusion from the high to the low pressure occurs with a net movement of oxygen into the blood to equilibrate the pressure. Venous blood is now rich in oxygen with a PO2 of 104mmHg.Courtesy Ashley Davidoff MD. 42445b08b Davidoff art )
DOMElement Object ( [schemaTypeInfo] => [tagName] => td [firstElementChild] => (object value omitted) [lastElementChild] => (object value omitted) [childElementCount] => 2 [previousElementSibling] => [nextElementSibling] => [nodeName] => td [nodeValue] => This diagram again shows the alveolus in teal, the arteriolar component of the capillary with red cells in blue and venular component replenished by oxygen in red. As noted above, the PO2 of the arterial blood is 40mmHg while the inspired air is 104mmHg. A pressure gradient thus exists and diffusion from the high to the low pressure occurs with a net movement of oxygen into the blood to equilibrate the pressure. Venous blood is now rich in oxygen with a PO2 of 104mmHg.Courtesy Ashley Davidoff MD. 42445b08b Davidoff art [nodeType] => 1 [parentNode] => (object value omitted) [childNodes] => (object value omitted) [firstChild] => (object value omitted) [lastChild] => (object value omitted) [previousSibling] => (object value omitted) [nextSibling] => (object value omitted) [attributes] => (object value omitted) [ownerDocument] => (object value omitted) [namespaceURI] => [prefix] => [localName] => td [baseURI] => [textContent] => This diagram again shows the alveolus in teal, the arteriolar component of the capillary with red cells in blue and venular component replenished by oxygen in red. As noted above, the PO2 of the arterial blood is 40mmHg while the inspired air is 104mmHg. A pressure gradient thus exists and diffusion from the high to the low pressure occurs with a net movement of oxygen into the blood to equilibrate the pressure. Venous blood is now rich in oxygen with a PO2 of 104mmHg.Courtesy Ashley Davidoff MD. 42445b08b Davidoff art )
DOMElement Object ( [schemaTypeInfo] => [tagName] => td [firstElementChild] => (object value omitted) [lastElementChild] => (object value omitted) [childElementCount] => 2 [previousElementSibling] => [nextElementSibling] => [nodeName] => td [nodeValue] => Oxygen Gradients Created by the Lungs Across the Alveolar Membrane [nodeType] => 1 [parentNode] => (object value omitted) [childNodes] => (object value omitted) [firstChild] => (object value omitted) [lastChild] => (object value omitted) [previousSibling] => (object value omitted) [nextSibling] => (object value omitted) [attributes] => (object value omitted) [ownerDocument] => (object value omitted) [namespaceURI] => [prefix] => [localName] => td [baseURI] => [textContent] => Oxygen Gradients Created by the Lungs Across the Alveolar Membrane )
DOMElement Object ( [schemaTypeInfo] => [tagName] => table [firstElementChild] => (object value omitted) [lastElementChild] => (object value omitted) [childElementCount] => 1 [previousElementSibling] => (object value omitted) [nextElementSibling] => (object value omitted) [nodeName] => table [nodeValue] => Mechanical Forces Bringing Air to Alveoli Chest Wall, Diaphragm, Alveolar Expansion The five major layers that keep the air moving include the outer bony cage, the muscular layer represented in maroon, the pleural complex (orange yellow orange) the lung (blue) and surfactant within the alveolus. (pink) Courtesy Ashley Davidoff MD. 42530b05b09b01a08 Davidoff art [nodeType] => 1 [parentNode] => (object value omitted) [childNodes] => (object value omitted) [firstChild] => (object value omitted) [lastChild] => (object value omitted) [previousSibling] => (object value omitted) [nextSibling] => (object value omitted) [attributes] => (object value omitted) [ownerDocument] => (object value omitted) [namespaceURI] => [prefix] => [localName] => table [baseURI] => [textContent] => Mechanical Forces Bringing Air to Alveoli Chest Wall, Diaphragm, Alveolar Expansion The five major layers that keep the air moving include the outer bony cage, the muscular layer represented in maroon, the pleural complex (orange yellow orange) the lung (blue) and surfactant within the alveolus. (pink) Courtesy Ashley Davidoff MD. 42530b05b09b01a08 Davidoff art )
DOMElement Object ( [schemaTypeInfo] => [tagName] => td [firstElementChild] => (object value omitted) [lastElementChild] => (object value omitted) [childElementCount] => 1 [previousElementSibling] => [nextElementSibling] => [nodeName] => td [nodeValue] => The five major layers that keep the air moving include the outer bony cage, the muscular layer represented in maroon, the pleural complex (orange yellow orange) the lung (blue) and surfactant within the alveolus. (pink) Courtesy Ashley Davidoff MD. 42530b05b09b01a08 Davidoff art [nodeType] => 1 [parentNode] => (object value omitted) [childNodes] => (object value omitted) [firstChild] => (object value omitted) [lastChild] => (object value omitted) [previousSibling] => (object value omitted) [nextSibling] => (object value omitted) [attributes] => (object value omitted) [ownerDocument] => (object value omitted) [namespaceURI] => [prefix] => [localName] => td [baseURI] => [textContent] => The five major layers that keep the air moving include the outer bony cage, the muscular layer represented in maroon, the pleural complex (orange yellow orange) the lung (blue) and surfactant within the alveolus. (pink) Courtesy Ashley Davidoff MD. 42530b05b09b01a08 Davidoff art )
DOMElement Object ( [schemaTypeInfo] => [tagName] => td [firstElementChild] => (object value omitted) [lastElementChild] => (object value omitted) [childElementCount] => 3 [previousElementSibling] => [nextElementSibling] => [nodeName] => td [nodeValue] => Mechanical Forces Bringing Air to Alveoli Chest Wall, Diaphragm, Alveolar Expansion [nodeType] => 1 [parentNode] => (object value omitted) [childNodes] => (object value omitted) [firstChild] => (object value omitted) [lastChild] => (object value omitted) [previousSibling] => (object value omitted) [nextSibling] => (object value omitted) [attributes] => (object value omitted) [ownerDocument] => (object value omitted) [namespaceURI] => [prefix] => [localName] => td [baseURI] => [textContent] => Mechanical Forces Bringing Air to Alveoli Chest Wall, Diaphragm, Alveolar Expansion )
DOMElement Object ( [schemaTypeInfo] => [tagName] => table [firstElementChild] => (object value omitted) [lastElementChild] => (object value omitted) [childElementCount] => 1 [previousElementSibling] => (object value omitted) [nextElementSibling] => (object value omitted) [nodeName] => table [nodeValue] => Keeping the Lungs attached to the Chest Wall via A Two Layered Pleura ? Capillary Forces The coronally reformatted image of the lung parenchyma has been outlined with the visceral pleura, (pink) the pleural fluid in the pleural space, (orange) and the parietal pleura. (green) Note how at end expiration the parietal pleura in the costophrenic sulcus extends beyond the lung margin so that the visceral pleura is absent in the costophrenic sulcus and there are two layers of parietal pleura facing each other. During inspiration the lung expands into this space. Courtesy Ashley Davidoff MD 32634b10 lung pleura pulmonary 32634b10 45771 chest lungs fx normal chest CT anatomy Courtesy Ashley Davidoff MD Davidoff art 45769 45770 45771 45772 45773 45774 45775 45776 [nodeType] => 1 [parentNode] => (object value omitted) [childNodes] => (object value omitted) [firstChild] => (object value omitted) [lastChild] => (object value omitted) [previousSibling] => (object value omitted) [nextSibling] => (object value omitted) [attributes] => (object value omitted) [ownerDocument] => (object value omitted) [namespaceURI] => [prefix] => [localName] => table [baseURI] => [textContent] => Keeping the Lungs attached to the Chest Wall via A Two Layered Pleura ? Capillary Forces The coronally reformatted image of the lung parenchyma has been outlined with the visceral pleura, (pink) the pleural fluid in the pleural space, (orange) and the parietal pleura. (green) Note how at end expiration the parietal pleura in the costophrenic sulcus extends beyond the lung margin so that the visceral pleura is absent in the costophrenic sulcus and there are two layers of parietal pleura facing each other. During inspiration the lung expands into this space. Courtesy Ashley Davidoff MD 32634b10 lung pleura pulmonary 32634b10 45771 chest lungs fx normal chest CT anatomy Courtesy Ashley Davidoff MD Davidoff art 45769 45770 45771 45772 45773 45774 45775 45776 )
DOMElement Object ( [schemaTypeInfo] => [tagName] => td [firstElementChild] => (object value omitted) [lastElementChild] => (object value omitted) [childElementCount] => 4 [previousElementSibling] => [nextElementSibling] => [nodeName] => td [nodeValue] => The coronally reformatted image of the lung parenchyma has been outlined with the visceral pleura, (pink) the pleural fluid in the pleural space, (orange) and the parietal pleura. (green) Note how at end expiration the parietal pleura in the costophrenic sulcus extends beyond the lung margin so that the visceral pleura is absent in the costophrenic sulcus and there are two layers of parietal pleura facing each other. During inspiration the lung expands into this space. Courtesy Ashley Davidoff MD 32634b10 lung pleura pulmonary 32634b10 45771 chest lungs fx normal chest CT anatomy Courtesy Ashley Davidoff MD Davidoff art 45769 45770 45771 45772 45773 45774 45775 45776 [nodeType] => 1 [parentNode] => (object value omitted) [childNodes] => (object value omitted) [firstChild] => (object value omitted) [lastChild] => (object value omitted) [previousSibling] => (object value omitted) [nextSibling] => (object value omitted) [attributes] => (object value omitted) [ownerDocument] => (object value omitted) [namespaceURI] => [prefix] => [localName] => td [baseURI] => [textContent] => The coronally reformatted image of the lung parenchyma has been outlined with the visceral pleura, (pink) the pleural fluid in the pleural space, (orange) and the parietal pleura. (green) Note how at end expiration the parietal pleura in the costophrenic sulcus extends beyond the lung margin so that the visceral pleura is absent in the costophrenic sulcus and there are two layers of parietal pleura facing each other. During inspiration the lung expands into this space. Courtesy Ashley Davidoff MD 32634b10 lung pleura pulmonary 32634b10 45771 chest lungs fx normal chest CT anatomy Courtesy Ashley Davidoff MD Davidoff art 45769 45770 45771 45772 45773 45774 45775 45776 )
DOMElement Object ( [schemaTypeInfo] => [tagName] => td [firstElementChild] => (object value omitted) [lastElementChild] => (object value omitted) [childElementCount] => 3 [previousElementSibling] => [nextElementSibling] => [nodeName] => td [nodeValue] => Keeping the Lungs attached to the Chest Wall via A Two Layered Pleura ? Capillary Forces [nodeType] => 1 [parentNode] => (object value omitted) [childNodes] => (object value omitted) [firstChild] => (object value omitted) [lastChild] => (object value omitted) [previousSibling] => (object value omitted) [nextSibling] => (object value omitted) [attributes] => (object value omitted) [ownerDocument] => (object value omitted) [namespaceURI] => [prefix] => [localName] => td [baseURI] => [textContent] => Keeping the Lungs attached to the Chest Wall via A Two Layered Pleura ? Capillary Forces )
DOMElement Object ( [schemaTypeInfo] => [tagName] => table [firstElementChild] => (object value omitted) [lastElementChild] => (object value omitted) [childElementCount] => 1 [previousElementSibling] => (object value omitted) [nextElementSibling] => (object value omitted) [nodeName] => table [nodeValue] => Fluid Gradients at the Capillary Level 42445b03d06 capillary interstitium arteriole arteriolar pressure capillary pressure venule venular presure interstitial pressure colloid osmotic pressure plasma colloid osmotic pressure Forces tending to move fluid out of the capillary is capillary pressure of 25mmHg, negative intertitial presure = 6mmHg and and interstitial osmotic pressure of 5 mmHg = total of 36mmHg Forces holding the holding the fluid in the capilaries include the plasma oncotic pressure of 28mmhg and thus the net outward force is about 8mmHg Davidoff art Davidoff drawing Davidoff MD [nodeType] => 1 [parentNode] => (object value omitted) [childNodes] => (object value omitted) [firstChild] => (object value omitted) [lastChild] => (object value omitted) [previousSibling] => (object value omitted) [nextSibling] => (object value omitted) [attributes] => (object value omitted) [ownerDocument] => (object value omitted) [namespaceURI] => [prefix] => [localName] => table [baseURI] => [textContent] => Fluid Gradients at the Capillary Level 42445b03d06 capillary interstitium arteriole arteriolar pressure capillary pressure venule venular presure interstitial pressure colloid osmotic pressure plasma colloid osmotic pressure Forces tending to move fluid out of the capillary is capillary pressure of 25mmHg, negative intertitial presure = 6mmHg and and interstitial osmotic pressure of 5 mmHg = total of 36mmHg Forces holding the holding the fluid in the capilaries include the plasma oncotic pressure of 28mmhg and thus the net outward force is about 8mmHg Davidoff art Davidoff drawing Davidoff MD )
DOMElement Object ( [schemaTypeInfo] => [tagName] => td [firstElementChild] => (object value omitted) [lastElementChild] => (object value omitted) [childElementCount] => 1 [previousElementSibling] => [nextElementSibling] => [nodeName] => td [nodeValue] => 42445b03d06 capillary interstitium arteriole arteriolar pressure capillary pressure venule venular presure interstitial pressure colloid osmotic pressure plasma colloid osmotic pressure Forces tending to move fluid out of the capillary is capillary pressure of 25mmHg, negative intertitial presure = 6mmHg and and interstitial osmotic pressure of 5 mmHg = total of 36mmHg Forces holding the holding the fluid in the capilaries include the plasma oncotic pressure of 28mmhg and thus the net outward force is about 8mmHg Davidoff art Davidoff drawing Davidoff MD [nodeType] => 1 [parentNode] => (object value omitted) [childNodes] => (object value omitted) [firstChild] => (object value omitted) [lastChild] => (object value omitted) [previousSibling] => (object value omitted) [nextSibling] => (object value omitted) [attributes] => (object value omitted) [ownerDocument] => (object value omitted) [namespaceURI] => [prefix] => [localName] => td [baseURI] => [textContent] => 42445b03d06 capillary interstitium arteriole arteriolar pressure capillary pressure venule venular presure interstitial pressure colloid osmotic pressure plasma colloid osmotic pressure Forces tending to move fluid out of the capillary is capillary pressure of 25mmHg, negative intertitial presure = 6mmHg and and interstitial osmotic pressure of 5 mmHg = total of 36mmHg Forces holding the holding the fluid in the capilaries include the plasma oncotic pressure of 28mmhg and thus the net outward force is about 8mmHg Davidoff art Davidoff drawing Davidoff MD )
DOMElement Object ( [schemaTypeInfo] => [tagName] => td [firstElementChild] => (object value omitted) [lastElementChild] => (object value omitted) [childElementCount] => 2 [previousElementSibling] => [nextElementSibling] => [nodeName] => td [nodeValue] => Fluid Gradients at the Capillary Level [nodeType] => 1 [parentNode] => (object value omitted) [childNodes] => (object value omitted) [firstChild] => (object value omitted) [lastChild] => (object value omitted) [previousSibling] => (object value omitted) [nextSibling] => (object value omitted) [attributes] => (object value omitted) [ownerDocument] => (object value omitted) [namespaceURI] => [prefix] => [localName] => td [baseURI] => [textContent] => Fluid Gradients at the Capillary Level )
DOMElement Object ( [schemaTypeInfo] => [tagName] => table [firstElementChild] => (object value omitted) [lastElementChild] => (object value omitted) [childElementCount] => 1 [previousElementSibling] => (object value omitted) [nextElementSibling] => (object value omitted) [nodeName] => table [nodeValue] => Elastic Forces This CTscan shows a theoretical changes of the aortic wall during diastole (a) sytolic expansion (b) and return to normal in diastole (c) In systole (b) the suprarenal artery is expanded by the pulse but is relatively decompressed by the the low resistance and high flow renal arteries. The infrarenal aorta is relatively more expanded in systole (b) since the iliac arteries offer a relative resistance. This increased resistance causes the elastic tissue in the aorta to stretch (b) so that the recoil in diastole (c) results in a sustained forward moving force assisting the blood to get to their most distal destination ? the feet. When the aorta starts to lose its elasticiy the recoil of systole gradually is weakened so that the aorta does not return to its normal diameter after each systolic expansion. Over many years this lack of recoil is progressive so that the resulting wall is weaker and dilated, until an aneurysm can be formed.Courtesy Ashley Davidoff 24877c03 code CVS artery aorta AAA infrarenal circulatory elasticity recoil [nodeType] => 1 [parentNode] => (object value omitted) [childNodes] => (object value omitted) [firstChild] => (object value omitted) [lastChild] => (object value omitted) [previousSibling] => (object value omitted) [nextSibling] => (object value omitted) [attributes] => (object value omitted) [ownerDocument] => (object value omitted) [namespaceURI] => [prefix] => [localName] => table [baseURI] => [textContent] => Elastic Forces This CTscan shows a theoretical changes of the aortic wall during diastole (a) sytolic expansion (b) and return to normal in diastole (c) In systole (b) the suprarenal artery is expanded by the pulse but is relatively decompressed by the the low resistance and high flow renal arteries. The infrarenal aorta is relatively more expanded in systole (b) since the iliac arteries offer a relative resistance. This increased resistance causes the elastic tissue in the aorta to stretch (b) so that the recoil in diastole (c) results in a sustained forward moving force assisting the blood to get to their most distal destination ? the feet. When the aorta starts to lose its elasticiy the recoil of systole gradually is weakened so that the aorta does not return to its normal diameter after each systolic expansion. Over many years this lack of recoil is progressive so that the resulting wall is weaker and dilated, until an aneurysm can be formed.Courtesy Ashley Davidoff 24877c03 code CVS artery aorta AAA infrarenal circulatory elasticity recoil )
DOMElement Object ( [schemaTypeInfo] => [tagName] => td [firstElementChild] => (object value omitted) [lastElementChild] => (object value omitted) [childElementCount] => 2 [previousElementSibling] => [nextElementSibling] => [nodeName] => td [nodeValue] => This CTscan shows a theoretical changes of the aortic wall during diastole (a) sytolic expansion (b) and return to normal in diastole (c) In systole (b) the suprarenal artery is expanded by the pulse but is relatively decompressed by the the low resistance and high flow renal arteries. The infrarenal aorta is relatively more expanded in systole (b) since the iliac arteries offer a relative resistance. This increased resistance causes the elastic tissue in the aorta to stretch (b) so that the recoil in diastole (c) results in a sustained forward moving force assisting the blood to get to their most distal destination ? the feet. When the aorta starts to lose its elasticiy the recoil of systole gradually is weakened so that the aorta does not return to its normal diameter after each systolic expansion. Over many years this lack of recoil is progressive so that the resulting wall is weaker and dilated, until an aneurysm can be formed.Courtesy Ashley Davidoff 24877c03 code CVS artery aorta AAA infrarenal circulatory elasticity recoil [nodeType] => 1 [parentNode] => (object value omitted) [childNodes] => (object value omitted) [firstChild] => (object value omitted) [lastChild] => (object value omitted) [previousSibling] => (object value omitted) [nextSibling] => (object value omitted) [attributes] => (object value omitted) [ownerDocument] => (object value omitted) [namespaceURI] => [prefix] => [localName] => td [baseURI] => [textContent] => This CTscan shows a theoretical changes of the aortic wall during diastole (a) sytolic expansion (b) and return to normal in diastole (c) In systole (b) the suprarenal artery is expanded by the pulse but is relatively decompressed by the the low resistance and high flow renal arteries. The infrarenal aorta is relatively more expanded in systole (b) since the iliac arteries offer a relative resistance. This increased resistance causes the elastic tissue in the aorta to stretch (b) so that the recoil in diastole (c) results in a sustained forward moving force assisting the blood to get to their most distal destination ? the feet. When the aorta starts to lose its elasticiy the recoil of systole gradually is weakened so that the aorta does not return to its normal diameter after each systolic expansion. Over many years this lack of recoil is progressive so that the resulting wall is weaker and dilated, until an aneurysm can be formed.Courtesy Ashley Davidoff 24877c03 code CVS artery aorta AAA infrarenal circulatory elasticity recoil )
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DOMElement Object ( [schemaTypeInfo] => [tagName] => table [firstElementChild] => (object value omitted) [lastElementChild] => (object value omitted) [childElementCount] => 1 [previousElementSibling] => (object value omitted) [nextElementSibling] => (object value omitted) [nodeName] => table [nodeValue] => Wiggers Diagram ? Pressures in th Cardiovascular System 33808b.800 heart cardiac physiology pressure EKG ECG pressure curves diagram LV aorta LA left atrium left ventricle systole diastole acv waves Davidoff MD [nodeType] => 1 [parentNode] => (object value omitted) [childNodes] => (object value omitted) [firstChild] => (object value omitted) [lastChild] => (object value omitted) [previousSibling] => (object value omitted) [nextSibling] => (object value omitted) [attributes] => (object value omitted) [ownerDocument] => (object value omitted) [namespaceURI] => [prefix] => [localName] => table [baseURI] => [textContent] => Wiggers Diagram ? Pressures in th Cardiovascular System 33808b.800 heart cardiac physiology pressure EKG ECG pressure curves diagram LV aorta LA left atrium left ventricle systole diastole acv waves Davidoff MD )
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