All Calculus 1 Resources
Example Questions
Example Question #73 : Differential Equations
Find the derivative of the following function.
Finding the derivative requires use of the chain rule.
Where f(x) is a differentiable function and a is an integer.
From the problem statement:
Computing the derivative:
Applying the Chain Rule:
Simplify to match the answer choice:
Example Question #68 : How To Find Solutions To Differential Equations
For:
Find :
Computation of the derivative requires use of the Product Rule and Chain Rule.
A good way to remember the Product Rule is by memorizing this saying: "First Times the Derivative of the Second, Plus the Second Times the Derivative of the First." Or if that doesn't help then you can just write out the formula:
For:
Where f(x) and g(x) are differentiable functions
As you can see, the "saying" from above matches the formula.
In this case:
,
Applying the Product Rule:
To compute the derivatives of and , simply apply the chain rule:
For:
, Where u is a differentiable function
For:
, Where u is a differentiable function
Applying the Chain Rule:
Simplify the expression to match one of the answer choices:
Example Question #69 : How To Find Solutions To Differential Equations
Find the derivative with respect to x for the following function:
Computation of the derivative requires use of the Chain Rule.
For:
Here , therefore,
For:
Applying these two rules results in:
Simplifying this equation results in one of the answer choices:
Example Question #1371 : Functions
Solve the differential equation:
This is a separable equation, meaning to solve we want to separate, then integrate.
Step 1: Separate by putting the y components on one side of the equation, and x components on the other.
Step 2: Integrate both sides of the equation.
This gives us the following:
Step 3: Now to simplify we can solve for y.
Example Question #71 : How To Find Solutions To Differential Equations
Find the general solution for the following differential equation:
This is separable differential equation. The first step is to get all of the x components of the function on one side and the y components on the other. Once that is done, integrate each side as shown:
To evaluate the integral, use the inverse power rule
.
Integrating the function should result in the answer below:
Example Question #71 : How To Find Solutions To Differential Equations
Solve the following differential equation
Given the linear, homogenous differential equation
The general solution is given by
Since ,
The specific solution is therefore
Example Question #72 : How To Find Solutions To Differential Equations
Find the derivative of the function.
None of these
To find the derivative of this function we must use the product rule.
It states that the derivative of is .
We must also recognize that the derivative of sine is cosine and the derivative of is .
The derivative of this function is then
.
Example Question #74 : How To Find Solutions To Differential Equations
Find the derivative of the function.
None of these
To find the derivative of of this function we must use the quotient rule.
It states that the derivative of
is .
We must also use the rules that the derivative of is and that the derivative of is .
Thus the derivative of the function is
.
Example Question #73 : How To Find Solutions To Differential Equations
Find the derivative of the function.
None of these
To calculate this derivative we must use the chain rule.
The chain rule states that the derivative of is .
We must also understand that the derivative of sine is cosine, the derivative of is , and the derivative of is .
so we must take the derivative of the inner function which is .
We must also use the chain rule for this.
The derivative of is .
The derivative of the outer function is .
Thus the final answer is
.
Example Question #74 : How To Find Solutions To Differential Equations
Determine possible solution to the differential equation
.
and
and
and
To solve this equation, notice that the second derivative of a function is equal to the negative of the original function.
The only elementary functions that satisfy this rule are the sine and cosine functions.
Therefore, possible solutions to this differential equation is and .