All Calculus 1 Resources
Example Questions
Example Question #31 : How To Find Distance
The velocity of an object is given by the equation . What is the distance travelled by the object from to ?
The distance travelled can be found by integrating the velocity equation .
The velocity equation is integrated by using the following rule.
Applying this rule to gives,
.
The the distance is now calculated by subtracting the position at from the position at .
Example Question #764 : Spatial Calculus
The acceleration of an object is . What is the approximate distance covered by the object from to if the object has an initial velocity of ?
The distance of the object can be found by differentiating the acceleration equation twice. To differentiate the acceleration equation we can use the power rule where if
.
Appying this rule to the acceleration equation gives us,
.
We can find the value of by using the initial velocity of the object.
Therefore, and .
We can now find the distance covered by the object by integrating the velocity equation from to .
Evaluating this equation gives
Example Question #32 : Distance
The position of an object is given by the equation . What is the distance between the position of the object at time and time ?
To solve for the distance, we can use the position equation given to us to find the location of the object at and . The distance is the difference between these to locations.
Therefore the distance from the location of the object at to the location at is
Example Question #765 : Spatial Calculus
A car has a velocity defined by the equation . How far did the car travel between and ?
In order to find the distance traveled by the car from to we need to set up the integral of the velocity function:
Solving the integral,
Example Question #31 : Distance
A boat has a velocity defined by the equation . How far did the boat travel between and ?
In order to find the distance traveled by the boat from to we need to integrate the velocity function:
Solving the integral,
Example Question #771 : Calculus
A particle has a velocity defined by the equation . How far did the particle travel between and ?
In order to find the distance traveled by the particle from to we need to integrate the velocity function.
\
Solving the integral,
Example Question #37 : Distance
The velocity equation of an object is given by the equation . What is the distance covered by the object from to ?
The distance travelled by the object is equal to the intergral of the velocity equation from to .
To take the integral of the velocity equation we can use the power rule which says that if:
.
Applying this to our function we get:
Example Question #31 : Distance
The velocity of an object is given by the equation . What is the distance covered by the object from to if the object has an initial velocity of
The distance can be found by integrating the velocity of the object from to .
Because the derivative of is , the integral of must be .
Therefore,
Example Question #39 : Distance
The acceleration of an object is given by the equation . What is the distance travelled by the object from to , if the initial velocity of the object is ?
To find the distance travelled by the object we must first integrate the acceleration equation to find the velocity equation. The integration can be done using the power rule where if
.
We can rewrite te acceleration equation as and apply this rule to integrate the equation.
We can solve for the value of by using the initial velocity of the object
.
Therefore and
We can now evaluate this as
Example Question #771 : Calculus
The acceleration of an object is given by the equation . What is the distance travelled by the object between time and , if the initial velocity of the object is ?
The distance travelled by the object can be found by integrating the acceleration equation to find velocity, and then integrating the velocity equation from to . To integrate the acceleration equation we must use the power rule where if
Therefore the velocity equation of the object is
The value of the constant can be found using the initial velocity of the object
Therefore and
We now integrate the velocity equation from to to find the distance travelled by the object