The accompanying figure shows the velocity versus time curve for a rocket in outer space where the only significant force on the rocket is from its engines. It can be shown that the mass M t (in slugs) of the rocket at time t seconds satisfies the equation M t = T d v / d t where T is the thrust (in lb) of the rocket’s engines and v is the velocity (in ft/s) of the rocket. The thrust of the first stage of a Saturn V rocket is T = 7 , 680 , 982 lb . Use this value of T and the line segment in the figure to estimate the mass of the rocket at time t = 100 .
The accompanying figure shows the velocity versus time curve for a rocket in outer space where the only significant force on the rocket is from its engines. It can be shown that the mass M t (in slugs) of the rocket at time t seconds satisfies the equation M t = T d v / d t where T is the thrust (in lb) of the rocket’s engines and v is the velocity (in ft/s) of the rocket. The thrust of the first stage of a Saturn V rocket is T = 7 , 680 , 982 lb . Use this value of T and the line segment in the figure to estimate the mass of the rocket at time t = 100 .
The accompanying figure shows the velocity versus time curve for a rocket in outer space where the only significant force on the rocket is from its engines. It can be shown that the mass
M
t
(in slugs) of the rocket at time
t
seconds satisfies the equation
M
t
=
T
d
v
/
d
t
where
T
is the thrust (in lb) of the rocket’s engines and v is the velocity (in ft/s) of the rocket. The thrust of the first stage of a Saturn
V
rocket is
T
=
7
,
680
,
982
lb
. Use this value of
T
and the line segment in the figure to estimate the mass of the rocket at time
t
=
100
.
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