A student studied the motion of a sphere falling through a liquid to determine the viscosity of the liquid and suggested that the viscosity is dependent on the square of the velocity. The viscosity of the fluid, nf, can be calculated using Given that r is the radius of the sphere=(1.2±0.1) mm g is the acceleration due to gravity = 9.81 m. s-2 Ps is the density of the sphere = 8615 kg.m-3 Ps is the density of the fluid = 1015 kg.m-3 Ve is the terminal velocity of the sphere through the fluid = (15±2) mm. s-1 use this information to calculate the best estimate of the viscosity of the fluid and the uncertainty in the best estimate, assuming errors in the radius and terminal velocity are uncorrelated. Assume the uncertainties in the other quantities are negligible.

Elements Of Electromagnetics
7th Edition
ISBN:9780190698614
Author:Sadiku, Matthew N. O.
Publisher:Sadiku, Matthew N. O.
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A student studied the motion of a sphere falling through a liquid to determine the viscosity of the liquid
and suggested that the viscosity is dependent on the square of the velocity. The viscosity of the fluid, nf,
can be calculated
using
2
grg(Ps – Pr)
V
2
Given that
r is the radius of the sphere = (1.2±0.1) mm
g is the acceleration due to gravity = 9.81 m. s-2
Ps is the density of the sphere = 8615 kg.m
is the density of the fluid = 1015 kg.m
-3
-3
Pf
V; is the terminal velocity of the sphere through the fluid = (15+2) mm. s-1
use this information to calculate the best estimate of the viscosity of the fluid
and the uncertainty in the best estimate, assuming errors in the radius and
terminal velocity are uncorrelated. Assume the uncertainties in the other
quantities are negligible.
NB: USE THE CALCULUS APPROACH TO ESTIMATE THE UNCERTAINTY
Transcribed Image Text:A student studied the motion of a sphere falling through a liquid to determine the viscosity of the liquid and suggested that the viscosity is dependent on the square of the velocity. The viscosity of the fluid, nf, can be calculated using 2 grg(Ps – Pr) V 2 Given that r is the radius of the sphere = (1.2±0.1) mm g is the acceleration due to gravity = 9.81 m. s-2 Ps is the density of the sphere = 8615 kg.m is the density of the fluid = 1015 kg.m -3 -3 Pf V; is the terminal velocity of the sphere through the fluid = (15+2) mm. s-1 use this information to calculate the best estimate of the viscosity of the fluid and the uncertainty in the best estimate, assuming errors in the radius and terminal velocity are uncorrelated. Assume the uncertainties in the other quantities are negligible. NB: USE THE CALCULUS APPROACH TO ESTIMATE THE UNCERTAINTY
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