All Calculus 1 Resources
Example Questions
Example Question #571 : Spatial Calculus
Given an object moving with velocity
.
Find the acceleration at .
Acceleration is the derivative of velocity with respect to time.
In our case,
By the sum rule,
By the chain rule, we know that
For ,
,
,
,
,
Therefore,
For , we know that this is equal to
Therefore, the acceleration is given by
Since we need the acceleration at
Example Question #181 : Acceleration
Find the acceleration function if
.
In order to find the acceleration function from the velocity function we need to find the derivative of the velocity function since
.
When taking the derivative, we will use the power rule which states
and by applying this rule to each term we get
.
Hence,
.
Example Question #572 : Calculus
Find the acceleration function if
.
In order to find the acceleration function from the velocity function we need to find the derivative of the velocity function since
.
When taking the derivative, we will use the trigonometric derivative which states
and by applying this rule we get
.
Hence,
.
Example Question #573 : Calculus
Find the acceleration function if
.
In order to find the acceleration function from the velocity function we need to find the derivative of the velocity function since
.
When taking the derivative, we will use the power rule which states
and by applying this rule to each term we get
.
Hence,
.
Example Question #574 : Calculus
What is the acceleration of Pym the particle at time if his position function is ?
Acceleration is the second time derivative of position:
For the position function use the power rule which states,
and the rule for trigonometric functions which state that the derivative of sine is cosine and the derivative of cosine is a negative sine.
Applying these rules twice to our function,
we can find the acceleration.
The velocity and acceleration functions are:
Example Question #186 : How To Find Acceleration
The position of a particle is given by the functions , .
What is the acceleration of the particle, in Cartesian coordinates, at time ?
Acceleration is the second time derivative of position, or the first time derivative of velocity:
For the position functions:
The velocity functions are:
And the acceleration functions are:
Now, note that and . This allows simplification of the function:
As it turns out, both acceleration functions are constant!
Example Question #575 : Calculus
The position of a particle in two dimensions is given by the functions , . What is the particle's acceleration?
Acceleration is the first time derivative of velocity and the second time derivative of position:
For the position functions
The velocity functions are:
And therefore the acceleration functions are:
Example Question #572 : Spatial Calculus
The position of a particle is given by the function . What is its acceleration at time ?
Acceleration is the second time derivative of position, and the first time derivative of velocity:
To find the acceleration function we will need to use the power rule, chain rule, and trigonometric rules.
Power Rule:
Chain Rule:
Trigonometric Rule for cosine:
Trigonometric Rule for sine:
Applying the above rules twice we will find our acceleration function.
For position function
Example Question #576 : Calculus
The velocity of an automobile is given by:
What is the acceleration of the automobile?
The acceleration of the automobile is given by the derivative of the velocity function:
We used the following rules to find the derivative:
,
,
,
.
In this particular case let
and
.
Example Question #181 : Acceleration
What is the acceleration funtion of a particle if the position of the particle is represented by the function:
The acceleration function is the sencond derivative of the position function, so we must derive the given equation twice.
One of the properties of integrals is ,
so
.
By the fundemental theorem of Calculus, the derivative of is , so
Then, the second derivative, using the power rule, is .
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