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Example Questions
Example Question #161 : Integrals
Given that , determine:
Since , we know that
By the fundamental theorem of calculus:
Example Question #162 : Integrals
Find of
This is a Second Fundamental Theorem of Calculus. Since derivatives and anti-derivatives annihilate each other, we simply need to plug in the bounds into the function and multiply each by their derivative, respectively.
The second term drops out since the derivative of zero is zero.
In the first term, we again have two functions that annihilate each other:
Example Question #21 : Fundamental Theorem Of Calculus
This is a Second Fundamental Theorem of Calculus problem. Since the derivative cancels out the integral, we just need to plug in the bounds into the function (top bound - bottom bottom) and multiply each by their derivative.
.
Example Question #21 : Fundamental Theorem Of Calculus
Differentiate:
Differentiate:
Use the Second Fundamental Theorem of Calculus:
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If the function is continuous on an open interval
and if
is in
, then for a function
defined by
, we have
.
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To understand how to apply the second FTOC, notice that in our case is a function of a function. The chainrule will therefore have to be applied as well. To see how this works, let
. The function can now be written in the form:
Now we can go back to writing in terms of , the derivative is,
Example Question #25 : Fundamental Theorem Of Calculus
In exponentially decaying systems, often times the solutions to differential equations take on the form of an integral called Duhamel's Integral. This is given by:
Where is a constant and
is a function that represents an external force.
Equations of the form are sinusoidal functions, where
is the imaginary constant. Determine the external force
needed to produce solutions
of sinusoidal behavior
We plug in into our formula and determine the external force
.
Taking the derivative of each side with respect to , and applying the fundamental theorem of calculus:
Solving for ,
Example Question #171 : Integrals
In harmonic systems, often times the solutions to differential equations take on the form of an integral called Duhamel's Integral. This is given by:
Where is a constant and
is a function that represents an external force.
What external force is needed in order to obtain if
?
In order to solve this, we substitute into our equation and solve for
:
Taking the derivative of each side with respect to , we get that:
Using the fundamental theorem of calculus:
Solving for :
Since ,
Example Question #171 : Introduction To Integrals
Let
Find .
The Fundamental Theorem of Calculus tells us that
therefore,
From here plug in 0 into this equation.
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