The velocity and pressure of blood is slowest and lowest in the capillary beds. which of the following is not an accurate description of the benefits of slow, low pressure blood in the capillary beds?
- lower pressure in the capillary bed to increase pressure in the venous circulation.
- lower pressure reduces the chance of injury to delicate capillary vessels.
- lower pressure on the venous end of the capillary bed allows for greater reabsorption of fluid back to the plasma.
- slower blood flow through capillaries allows more time for diffusion to take place in the capillary bed.

The statement 'lower pressure in the capillary bed helps to increase pressure in the venous circulation' is NOT an accurate description of the benefits of low-pressure blood in the capillary beds.

In conclusion, the statement 'lower pressure in the capillary bed helps to increase pressure in the venous circulation' is NOT an accurate description of the benefits of low-pressure blood in the capillary beds.

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The statement that is not accurate is A. Lower pressure in the capillary bed helps to increase pressure in the venous circulation.

Explanation:

Capillaries can be described as essential blood vessels which connect arteries to the veins. Apart from transportation of blood, they are involved in the exchange of gases, essential nutrients and wastes from the tissues.

The walls of the capillary are very thin. Hence, the blood pressure in the capillaries should be low to avoid the capillaries from bursting.

The slow blood pressure and thin walls of the capillaries make it ideal for the diffusion of gases; oxygen and carbon dioxide mainly.

Hence, all other options are correct except option A.

videntify the dna change shown in the diagram and explain how that change can result in the increased genetic diversity often seen among siblings.identify the dna change shown in the diagram and explain how that change can result in the increased genetic diversity often seen among siblings.

the oxygenated blood then leaves the lungs through pulmonary veins, which return it to the left heart, completing the pulmonary cycle. this blood then enters the left atrium, which pumps it through the mitral valve into the left ventricle. from the left ventricle, the blood passes through the aortic valve to the aorta.

deoxygenated blood leaves through the right ventricle through the pulmonary artery. from the right atrium, the blood is pumped through the tricuspid valve (or right atrioventricular valve), into the right ventricle.