Answer:
dF(g(t)/dt = < (4/t) , (16/t)*ln(t) , (192/t)*[ln(t)]² >
Step-by-step explanation:
if g(t)=u=ln(t⁴) = 4*ln(t) and F(u)= <u,u²/2,u³/3> , then
F(g(t))=< ln(t⁴),[ln(t⁴)]²/2,[ln(t⁴)]³/3>
dF(g(t)/dt = dF(u(t))/du * du(t)/dt = < 1 , [ln(t⁴)] , 3*[ln(t⁴)]² > * (4/t) = < 1 * (4/t), [ln(t⁴)] * (4/t) , 3*[ln(t⁴)]² * (4/t) > = < (4/t) , (16/t)*ln(t) , (192/t)*[ln(t)]² >
then
dF(g(t)/dt = < (4/t) , (16/t)*ln(t) , (192/t)*[ln(t)]² >
In this exercise we have to use our knowledge of vectors and indicate the function that will be formed, so we have to:
[tex]dF(g(t)/dt = < (4/t) , (16/t)*ln(t) , (192/t)*[ln(t)]^2 >[/tex]
Then given that the functions of g(t) and f(t) as:
[tex]g(t)=u=ln(t^4) = 4*ln(t) \\ F(u)= [/tex]
Combining the two functions we find an equation like:
[tex]F(g(t))=< ln(t^4),[ln(t^4)]^2/2,[ln(t^4)]^3/3>[/tex]
Now solving differently, we have that results in:
[tex]dF(g(t)/dt = dF(u(t))/du * du(t)/dt \\= < 1 , [ln(t^4)] , 3*[ln(t^4)]^2 > * (4/t) \\= < 1 * (4/t), [ln(t^4)] * (4/t) , 3*[ln(t^4)]^2 * (4/t) >\\dF(g(t)/dt = < (4/t) , (16/t)*ln(t) , (192/t)*[ln(t)]^2 >[/tex]
See more about vectores at brainly.com/question/13188123