Asked by Anonymous
a collapsible plastic bag contains a gluccose solution. If the average gauge pressure in the atery is 1.33x10^4Pa, what must be the minimum height h, of the bag in order to infuse gluccose into the artery? Assume that the specific gravity of the solution is 1.02.
(1.02)(1.33x10^4)=(1x10^3kg/m^3)(9.8)(h)
h=1.38 (I don't know how to get the answer in the back of the book, 1.33m)
(1.02)(1.33x10^4)=(1x10^3kg/m^3)(9.8)(h)
h=1.38 (I don't know how to get the answer in the back of the book, 1.33m)
Answers
Answered by
bobpursley
the specific gravity should be on the mass side (right side) of the equation.
Answered by
Alan
Gauge Pressure(P) = Density(p) x gravity(g) x height(h)
1.33x10^4Pa = 1.02* x 9.8m/s x h
*: Specific gravity = ratio of density of solution to water .:. Density = 1.02(no units)
.:. h = 1.33x10^4 / 1.02 x 9.8
= 1330.5m^3
= 1.33m
1.33x10^4Pa = 1.02* x 9.8m/s x h
*: Specific gravity = ratio of density of solution to water .:. Density = 1.02(no units)
.:. h = 1.33x10^4 / 1.02 x 9.8
= 1330.5m^3
= 1.33m
Answered by
Samuel
How did you find pressure...
If 1.33×10⁴Pa is for density...
And 1.02 is Specific Gravity
If 1.33×10⁴Pa is for density...
And 1.02 is Specific Gravity
Answered by
Sydney
1.33m
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