All Calculus 1 Resources
Example Questions
Example Question #3 : Integration
The velocity equation of an object is given by the equation . What is the position of the object at time if the initial position of the object is ?
The position of the object can be found by integrating the velocity equation and solving for . To integrate the velocity equation we first rewrite the equation.
To integrate this equation we must use the power rule where,
.
Applying this to the velocity equation gives us,
.
We must solve for the value of by using the initial position of the object.
Therefore, and .
Example Question #22 : How To Find Position
The velocity of an object is given by the equation . What is the equation for the position of the object if the object has an initial position of ?
The position of the object can be found by integrating the equation for the object's velocity. Knowing that the derivative of is , the integral of must be .
Integrating the velocity equation gives us,
To find the complete solution of the position equation we must use the initial position.
Therefore and
Example Question #871 : Spatial Calculus
Find a vector perpendicular to .
By definition, a vector has a perpendicular vector .
Therefore, the vector has a perpendicular vector .
Example Question #872 : Spatial Calculus
Find a vector perpendicular to .
By definition, a vector has a perpendicular vector .
Therefore, the vector has a perpendicular vector .
Example Question #25 : How To Find Position
Find a vector perpendicular to .
By definition, a vector has a perpendicular vector .
Therefore, the vector has a perpendicular vector .
Example Question #1 : Integration
The acceleration of an object is given by the equation . What is the equation for the position of the object, if the object has an initial velocity of and an initial position of ?
To find the position of the object we must use the power rule to integrate the acceleration equation twice. The power rule is such that
Therefore integrating the acceleration equation gives us
We can solve for the value of by using the initial velocity of the object.
Therefore and
To find the position of the object we integrate the velocity equation.
We can solve for this new value of by using the object's initial position
Therefore and
Example Question #5 : Integration
The velocity of an object is given by the equation . What is the position of the object at time if the object has a position of and time ?
To find the position of the object we must first find the position equation of the object. The position equation can be found by integrating the velocity equation. This can be done using the power rule where if
Using this rule we find that
Using the position of the object at time we can solve for
Therefore and
We can now find the position at time .
Example Question #21 : How To Find Position
The velocity of an object is given by the equation . what is the position of the object at , if the initial position of the object is ?
The position of the object can be found by integrating the velocity of the object. This can be done using the power rule where if
.
Using the power rule the position of the object is
.
The value of can be found using the initial position of the object.
Therefore and .
The position of the object at can now be found,
.
Example Question #882 : Spatial Calculus
The velocity of an object is given by the equation . What is the position of the object at time , if the initial position of the object is ?
None of these.
The position of the object can be found by integrating the velocity of the object. This can be done using the power rule where if
Therefore the position equation of the object is
We must now solve for the constant . We can do this using the initial position of the object.
Therefore and
We can now find the position of the object at .
Example Question #883 : Spatial Calculus
The velocity of an object is . What is the position of the object when , if the position of the object is at ?
The position of the object can be found by integrating the object's velocity. This can be done using the power rule where if
.
Therefore the position of the object is
.
We can find the value of using the position at .
Therefore and .