Chapter 6: Q4MP (page 336)
Show that where U is a vector function of and .
Short Answer
It has been proved that
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Chapter 6: Q4MP (page 336)
Show that where U is a vector function of and .
It has been proved that
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Evaluate each of the integrals in Problems to as either a volume integral or a surface integral, whichever is easier.
over the region , where localid="1657282505088"
Evaluate the line integral along the paths shown in the sketch.
Given the vector.
(a) Find .
(b) Evaluate over a rectangle in the plane bounded by the lines .
(c) Evaluate around the boundary of the rectangle and thus verify Stokes' theorem for this case.
Use either Stokes' theorem or the divergence theorem to evaluate each of the following integrals in the easiest possible way.
Suppose the density varies from point to point as well as with time, that is, . If we follow the fluid along a streamline, then are function of such that the fluid velocity is
Show that then . Combine this equation with to get
(Physically, is the rate of change of density with time as we follow the fluid along a streamline; is the corresponding rate at a fixed point.) For a steady state (that is, time-independent), , but is not necessarily zero. For an incompressible fluid, . Show that then role="math" localid="1657336080397" . (Note that incompressible does not necessarily mean constant density since does not imply either time or space independence of ; consider, for example, a flow of watermixed with blobs of oil.)
Evaluate each of the following integrals in the easiest way you can.
,along the xaxis from (0,0) and localid="1659182150932" then along
a circular arc from
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