y=e^nx
Let's figure out the first three derivatives of it.
y=e^nx
y' = ne^nx
y'' = n²e^nx
y''' = n³e^nx
So there appears to be a pattern. The nth derivative would be (n^n)(e^nx)
2007-01-01 13:27:37
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answer #1
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answered by Wendy C 2
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Let's find a pattern.
y = e^(nx)
y' = ne^(nx)
y'' = (n^2)e^(nx)
y''' = (n^3)e^(nx)
It appears that for the nth derivative,
y(n) = (n^n)e^(nx)
As a side note, the derivative of y = e^x is NOT xe^(x - 1) because the power rule only works if the base is a variable and the power is a constant.
Hope that helps.
2007-01-01 12:53:53
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answer #2
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answered by Puggy 7
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what is the nth derivative of y=e^nx
the 1st derivative is ne^nx
the 2nd derivative would be n^2e^nx
the 3rd derivative would be n^3e^nx
the nth derivative would be n^ne^nx
2007-01-01 12:55:57
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answer #3
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answered by ironduke8159 7
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No, the exponent of e won't change. So the nth derivative is:
y(n) = (n^n)e^(nx)
2007-01-01 12:53:55
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answer #4
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answered by Northstar 7
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hi the common fee of a function, f(x), over the period [a, b] might want to be got here upon by: a million/(b - a) * (a to b)? f(x) dx right here, we've a = -7, b = 7, and f(x) = 2x + 14, so we get: a million/(b - a) * (a to b)? f(x) dx = a million/(7 + 7) * (-7 to 7)? 2x + 14 dx = a million/14 * (-7 to 7)? 2x + 14 dx = a million/14 * [x^2 + 14x] | (-7 to 7) = a million/14 * {[(7)^2 + 14(7)] - [(-7)^2 + 14(-7)]} = a million/14 * 196 = 14 So the common fee of the function f(x) = 2x + 14 on the period [-7, 7] is 14. i wish this allows!
2016-12-01 10:11:30
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answer #5
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answered by Anonymous
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a quick question eserves a quick answer : no.
e^(nx) ' = ne^(nx)
ne^(nx)' = n^2e^(nx)
etc
thus the k_the derivative
n^ke^(nx)
you are mixxing another rule : px^n' = pnx^(n-1) but that doesnt apply here
2007-01-01 16:54:32
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answer #6
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answered by gjmb1960 7
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y'=n * e^(nx)
The power does not change.
2007-01-01 12:49:04
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answer #7
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answered by Professor Maddie 4
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