All Calculus 1 Resources
Example Questions
Example Question #811 : Differential Functions
Find for the follow function:
To make solving easier, take the natural log of both sides of the equations:
Use the natural log properties of .
Now take the derivative of both sides of the equation, note that the derivative of is in this case. Must also use the power rule for . The general equation is
Applying the power rule:
Now simplify for :
Example Question #812 : Differential Functions
Find for the function below:
Hint: Use implicit differentiation.
To make solving easier, take the natural log of both sides of the equations:
Use the natural log properties of
Now take the derivative of both sides of the equation, note that the derivative of is in this case.
Plug the definition of back into:
Example Question #1842 : Calculus
Find for the function below:
Hint: Use implicit differentiation.
To make solving easier, take the natural log of both sides of the equations:
Use the natural log properties of and
Now take the derivative of both sides of the equation, note that the derivative of is in this case. The derivative of is
Simplify and combine both the terms under a common denominator.
Example Question #821 : Differential Functions
Find for the function below:
Hint: Use implicit differentiation.
To make solving easier, take the natural log of both sides of the equations:
Use the natural log properties of
Now take the derivative of both sides of the equation, note that the derivative of is in this case. Must also use the power rule for the term. The general equation is
Example Question #631 : How To Find Differential Functions
Find for the function below:
Hint: Use implicit differentiation.
To take the derivative of any term:
Step 1: Take whatever is inside the and divide it by 1.
Step 2: Take the derivative of the inside and multiply it by step 1: Don't for get to use the product rule and remember that the derivative of is .
Product Rule:
Multiply the step 1 product by the step 2 product.
Now isolate just for dy/dx
Place the terms on the same sides.
Divide both sides by the term attached to the and simplify.
Example Question #632 : How To Find Differential Functions
Find for the function below:
Hint: Use implicit differentiation.
Take the derivative of each term and remember that the derivative of is .
Now isolate for
Example Question #633 : How To Find Differential Functions
Find for the follow function:
To take the derivative of any term:
Step 1: Take whatever is inside the and divide it by 1.
Step 2: Take the derivative of the inside and multiply it by step 1:
Put the terms together to simplify:
Isolate for :
Example Question #634 : How To Find Differential Functions
Find the first derivative of the following function:
To solve, simply use the product rule and power rule for derivatives.
Product rule:
Power rule:
where
Thus,
Therefore,
Example Question #635 : How To Find Differential Functions
Determine the slope of the line that is normal to the function at the point
A line that is normal, that is to say perpendicular to a function at any given point will be normal to this slope of the line tangent to the function at that point.
The slope of the tangent can be found by taking the derivative of the function and evaluating the value of the derivative at a point of interest.
Taking the derivative of the function at the point
The slope of the tangent is
Since the slope of the normal line is perpendicular, it is the negative reciprocal of this value
Example Question #636 : How To Find Differential Functions
Determine the slope of the line that is normal to the function at the point
A line that is normal, that is to say perpendicular to a function at any given point will be normal to this slope of the line tangent to the function at that point.
The slope of the tangent can be found by taking the derivative of the function and evaluating the value of the derivative at a point of interest.
We'll need to make use of the following derivative rule(s):
Trigonometric derivative:
Note that u may represent large functions, and not just individual variables!
Taking the derivative of the function at the point
The slope of the tangent is
Since the slope of the normal line is perpendicular, it is the negative reciprocal of this value
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