All Calculus 1 Resources
Example Questions
Example Question #2431 : Calculus
Find if
For this problem, note that:
Product Rule
To solve this problem, differentiate the expression one variable at a time, treating other variables as constants:
If we're looking for for the function then we'll begin by differentiating with respect to first:
Next, differentiate with respect to :
Now finally we'll differentiate with respect to ; remember to use the product rule:
Example Question #351 : Equations
Find for the function
For this problem, note that:
Product Rule:
To solve this problem, differentiate the expression one variable at a time, treating other variables as constants:
To find for the function , begin by differentiating with respect to :
Next, differentiate with respect to :
Finally, differentiate with respect to once more, remembering to utilize the product rule:
Example Question #2433 : Calculus
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:
Finally, rearrange terms to find :
Example Question #2434 : Calculus
Find the derivative of the following function.
None of these
To solve this derivative, we must realize that there are two parts to the function and we must use the product rule. The rule states that .
We must asle recognize that the derivative of is and the derivative of is . By these rules, the derivative is
Example Question #1401 : Functions
Find the derivative of the function.
None of these
This function is just a function inside of a function. This means we have to use the chain rule. The chain rule states that the derivative of .
The derivative of is and the derivative of is . This makes the derivative
This makes sense because .
Example Question #2436 : Calculus
Find the derivative of the function.
None of these
To find the derivative of this function, we must use the division rule. This rule states that the derivative of is . The derivative of is and the derivative of is .
Thus the derivative is
Example Question #1411 : Functions
Find the derivative of the function.
None of these
To find the derivative of this function we need to use the chain rule and multiplication rule. The chain rule states that the derivative of is . The multiplication rule states that the derivative of is. The derivative of is . The derivative of sin is cos and the derivative of cos is -sin. So lets say
then and
then
So the answer is
Example Question #1412 : Functions
What is the slope of the function at the point ?
To consider finding the slope, let's discuss the topic of the gradient.
For a function , the gradient is the sum of the derivatives with respect to each variable, multiplied by a directional vector:
It is essentially the slope of a multi-dimensional function at any given point
Knowledge of the following derivative rule will be necessary:
Trigonometric derivative:
Note that u may represent large functions, and not just individual variables!
The approach to take with this problem is to simply take the derivatives one at a time. When deriving for one particular variable, treat the other variables as constant.
Take the partial derivatives of at the point
x:
y:
The slope is
Example Question #102 : How To Find Solutions To Differential Equations
Find the slope of the function at the point .
To consider finding the slope, let's discuss the topic of the gradient.
For a function , the gradient is the sum of the derivatives with respect to each variable, multiplied by a directional vector:
It is essentially the slope of a multi-dimensional function at any given point
Knowledge of the following derivative rule will be necessary:
Derivative of an exponential:
Note that u may represent large functions, and not just individual variables!
The approach to take with this problem is to simply take the derivatives one at a time. When deriving for one particular variable, treat the other variables as constant.
Take the partial derivatives of at the point
x:
y:
The slope is
Example Question #1412 : Functions
Find the slope of the function at the point .
To consider finding the slope, let's discuss the topic of the gradient.
For a function , the gradient is the sum of the derivatives with respect to each variable, multiplied by a directional vector:
It is essentially the slope of a multi-dimensional function at any given point
Knowledge of the following derivative rule will be necessary:
Derivative of an exponential:
Note that u may represent large functions, and not just individual variables!
The approach to take with this problem is to simply take the derivatives one at a time. When deriving for one particular variable, treat the other variables as constant.
Take the partial derivatives of at the point
x:
y:
The slope is .
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