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Example Questions
Example Question #2781 : Calculus 3
Find
is defined as the partial derivative of
taken with respect to
. Any other variable is treated as a constant.
Finding the partial derivative with respect to ,
We use the power rule on and the definition of trigonometric derivatives as we take the derivative and find that
As such
Example Question #2787 : Calculus 3
Find the value of for
at
Note that for this problem, we're told to take the derivative with respect to one particular variable. This is known as taking a partial derivative; often it is denoted with the Greek character delta, , or by the subscript of the variable being considered such as
or
.
Knowledge of the following derivative rules will be necessary:
Derivative of an exponential:
Note that u may represent large functions, and not just individual variables!
Taking the partial derivative of at
We find:
Example Question #421 : Partial Derivatives
Find the value of for
at
Note that for this problem, we're told to take the derivative with respect to one particular variable. This is known as taking a partial derivative; often it is denoted with the Greek character delta, , or by the subscript of the variable being considered such as
or
.
Taking the partial derivative of at
We find:
Example Question #422 : Partial Derivatives
Find the value of for
at
Note that for this problem, we're told to take the derivative with respect to one particular variable. This is known as taking a partial derivative; often it is denoted with the Greek character delta, , or by the subscript of the variable being considered such as
or
.
Knowledge of the following derivative rules will be necessary:
Trigonometric derivative:
Note that u may represent large functions, and not just individual variables!
Taking the partial derivative of at
We find:
Example Question #423 : Partial Derivatives
Find the value of for
at
Note that for this problem, we're told to take the derivative with respect to one particular variable. This is known as taking a partial derivative; often it is denoted with the Greek character delta, , or by the subscript of the variable being considered such as
or
.
Knowledge of the following derivative rules will be necessary:
Trigonometric derivative:
Product rule:
Note that u may represent large functions, and not just individual variables!
Taking the partial derivative of at
We find:
Example Question #424 : Partial Derivatives
Find the value of for
at
Note that for this problem, we're told to take the derivative with respect to one particular variable. This is known as taking a partial derivative; often it is denoted with the Greek character delta, , or by the subscript of the variable being considered such as
or
.
Knowledge of the following derivative rules will be necessary:
Trigonometric derivative:
Note that u may represent large functions, and not just individual variables!
Taking the partial derivative of at
We find:
Example Question #425 : Partial Derivatives
Find the value of for
at
Note that for this problem, we're told to take the derivative with respect to one particular variable. This is known as taking a partial derivative; often it is denoted with the Greek character delta, , or by the subscript of the variable being considered such as
or
.
Taking the partial derivative of at
We find:
Example Question #426 : Partial Derivatives
Find the value of for
at
Note that for this problem, we're told to take the derivative with respect to one particular variable. This is known as taking a partial derivative; often it is denoted with the Greek character delta, , or by the subscript of the variable being considered such as
or
.
Knowledge of the following derivative rules will be necessary:
Derivative of a natural log:
Trigonometric derivative:
Note that u may represent large functions, and not just individual variables!
Taking the partial derivative of at
We find:
Example Question #427 : Partial Derivatives
Find the value of for
at
Note that for this problem, we're told to take the derivative with respect to one particular variable. This is known as taking a partial derivative; often it is denoted with the Greek character delta, , or by the subscript of the variable being considered such as
or
.
Knowledge of the following derivative rules will be necessary:
Derivative of a natural log:
Trigonometric derivative:
Note that u may represent large functions, and not just individual variables!
Taking the partial derivative of at
We find:
Example Question #428 : Partial Derivatives
Given the function , find the partial derivative
.
Given the function
,
we find by taking the derivative of
with respect to , which means we hold
constant.
So we get (using the chain rule)
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