All Calculus 1 Resources
Example Questions
Example Question #341 : Equations
What is the derivative of at ?
Here you must use the chain rule,
and the rule for natural log,
.
First, you get
,
then using the chain on , you get
.
You must then remember the , which gives you
as the final derivative.
Plugging in gives .
Example Question #343 : Equations
Find for the equation:
Take the derivative of each term in the equation twice: with respect to and then with respect to . When taking the derivative with respect to one variable, treat the other variable as a constant.
For the function
The derivative is then
Now bring and terms to opposite sides of the equation:
Now rearraging variables gives :
Example Question #2421 : Calculus
Find for the following equation:
Given the function:
We'll be taking the derivative with respect to the variables and .
Beginning with the left side of the equation, only the variable appears and the derivative is:
Note that
Now for the right side of the equation, both and appear, so we'll utilize the chain rule giving the derivative:
Combining these gives the derivative of the original equation:
Since we're looking for , gather terms on one side of the equation and terms on the other side:
From there, separate terms once more to find :
Example Question #345 : Equations
Find for the equation:
For this problem, knowledge of the following derivatives is necessary:
To take the derivative of the equation
Let's begin with the left side. For each term, we'll take the derivative with respect to both variables and , treating the other variable as just a constant when we do so. The derivative of the left side is thus
Now moving to the right side, the derivative is:
Notice how since the term has no term, when we take the derivative with respect to we just get zero, since we're treating the as a constant.
Now we have the derived equation:
Bring and terms to opposite sides of the equation:
Now we can once more rearrange variables to find :
Example Question #346 : Equations
Find for the equation:
We'll be taking the derivative of each term in the equation
with respect to both and . When taking the derivative for one variable, treat the other variable as a constant:
Note that
Notice how is treated as a constant when taking the derivative with respect to and so goes to zero. The same happens when taking the derivative of with respect to
Now bring and terms to opposite sides of the equation:
Rearrange terms once more to find :
Example Question #347 : Equations
Find for the equation:
For this problem, note that:
To approach this problem, we'll take the derivative of each term twice: with respect to and then with respect to . When taking the derivative with respect to one variable, treat the other variable as a constant.
For the equation
The derivative is then
Now, bring and terms to opposite sides of the equation:
Finally, rearrange terms once more to get :
Example Question #91 : How To Find Solutions To Differential Equations
Find for the equation:
For this problem, note that:
Take the derivative of each term in the equation twice: with respect to and then with respect to . When taking the derivative with respect to one variable, treat the other variable as a constant.
For the function
The derivative of each side is
Now move and terms to opposite sides of the equation:
Finally rearrange variables to get :
Example Question #92 : How To Find Solutions To Differential Equations
Find for the equation:
For this problem, note that:
Take the derivative of each term in the equation twice: with respect to and then with respect to . When taking the derivative with respect to one variable, treat the other variable as a constant.
For the function
The derivative is then
Now bring and terms to opposite sides of the equation:
Now rearraging variables gives :
Example Question #93 : How To Find Solutions To Differential Equations
Find for the equation:
For this problem, note that:
Product rule:
Take the derivative of each term in the equation twice: with respect to and then with respect to . When taking the derivative with respect to one variable, treat the other variable as a constant.
For the function
The derivative is then
Remember to utilize the chain rule!
Now bring and terms to opposite sides of the equation:
Now rearraging variables gives :
Example Question #94 : How To Find Solutions To Differential Equations
Find for the equation:
Note that:
Product Rule:
Take the derivative of each term in the equation twice: with respect to and then with respect to . When taking the derivative with respect to one variable, treat the other variable as a constant.
For the function
The derivative is then found using the product rule to be:
Notice how the chain rule needs to be utilized an additional time when taking the derivative of the term with respect to .
Now bring and terms to opposite sides of the equation:
Now rearraging variables gives :
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