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The French physician Poiseuille discovered that the volume V of blood (in cubic centimeters per unit time) flowing through an artery with inner radius R (in centimeters) can be modeled by V(R) = kR^4 where k = π/(8vl) is constant
(here, ν represents the viscosity of blood and l is the length of the artery).
(a) Find the rate of change of the volume V of blood flowing
through the artery with respect to the radius R.
(b) Find the rate of change when R = 0.03 and when R = 0.04.
(c) If the radius of a partially clogged artery is increased from
0.03 cm to 0.04 cm, estimate the effect on the rate of change
of the volume V with respect to R of the blood flowing
through the enlarged artery.
NOTE: I am not seeking the answer but the set up for all three parts only. I will do the math work.
Thank you.
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Here again dV/dr is your starting point.
B.
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Here again dV/dr is your starting point.
B.
This will take some time to do. Bob, the questions posted are the questions for which the author does not provide a sample for.
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Bob wrote:Here again dV/dr is your starting point.
B.
This will take some time to do. Bob, the questions posted are the questions for which the author does not provide a sample for.
(a). Take the derivative of V(R) with respect to R. I.e use the power rule or the limit definition of the derivative.
(b). Plug in R = 0.03 and R = 0.04 into the derivative of V(R).
(c). Determine V'(0.04) - V'(0.03) to find the increase (or decrease) of the rate at which blood is flowing.
Last edited by Mathegocart (2021-04-19 13:41:57)
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mathland wrote:Bob wrote:Here again dV/dr is your starting point.
B.
This will take some time to do. Bob, the questions posted are the questions for which the author does not provide a sample for.
(a). Take the derivative of V(R) with respect to R. I.e use the power rule or the limit definition of the derivative.
(b). Plug in R = 0.03 and R = 0.04 into the derivative of V(R).
(c). Determine V'(0.04) - V'(0.03) to find the increase (or decrease) of the rate at which blood is flowing.
Thank you. I will do as you said.
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