Write down the tangential velocity, radius, and mass to calculate the magnitude of the centripetal force using this calculator.
Make use of this free centripetal force calculator that is specifically designed to calculate centripetal force. Also, you can determine other parameters that are related to the tangential motion of an object around a circular path by employing this calculator. Lets get ahead and discuss more about this specific motion type and how you could instantly determine it either manually or by using our centripetal acceleration calculator. Jump Down!
In physics:
“A force that acts on an object to keep it moving along a circular path is known as centripetal force.”
The centripetal force can be calculated using:
$$ F_{c} = \frac{mv^{2}}{r} $$
Where:
This online centripetal force calculator uses the same formula to compute circular motion parameters. By rearranging the formula, you can quickly find any related quantity.
$$ r = \frac{mv^{2}}{F_{c}} $$
$$ v = \sqrt{\frac{r \cdot F_{c}}{m}} $$
$$ m = \frac{F_{c} \cdot r}{v^{2}} $$
$$ \omega = \sqrt{\frac{F}{m \cdot r}} $$
“Centripetal acceleration represents the acceleration of an object moving along a circular path.”
It can be calculated using:
$$ a = \frac{v^{2}}{r} $$
Newton’s second law of motion defines acceleration, which can also be calculated using our acceleration calculator. In addition, centripetal acceleration can be derived as follows:
According to Newton’s law:
$$ F = ma \hspace{0.25in} \ldots (1) $$
The centripetal force is given as:
$$ F_{c} = \frac{mv^{2}}{r} \hspace{0.25in} \ldots (2) $$
Derivation:
Comparing (1) and (2):
$$ \frac{mv^{2}}{r} = ma $$
Mass cancels out on both sides:
$$ a = \frac{v^{2}}{r} $$
Interesting fact: You can calculate any centripetal parameter instantly using our centripetal force calculator.
Centripetal force is a type of force, so its units are the same as those for regular force:
You can also perform unit conversions for centripetal force using this free centripetal force calculator.
In this section, we will go through a couple of examples to clarify the concept of circular motion and centripetal force.
Example # 01:
Calculate the centripetal force of a car moving at 5 m/s along a circular road of radius 67 m. The mass of the car is 700 kg.
Solution:
Using the centripetal force equation:
$$ F_{c} = \frac{mv^{2}}{r} $$
$$ F_{c} = \frac{700 \cdot 5^{2}}{67} $$
For velocity calculations, you can use the velocity calculator.
$$ F_{c} = \frac{700 \cdot 25}{67} $$
$$ F_{c} = \frac{17500}{67} $$
$$ F_{c} \approx 261.19 \, N $$
You can verify this result using our free online centripetal force calculator.
Example # 02:
A bike moves at 6 m/s along a circular path of radius 5 m. Find the centripetal acceleration.
Solution:
The centripetal acceleration formula is:
$$ a = \frac{v^{2}}{r} $$
$$ a = \frac{6^{2}}{5} $$
$$ a = \frac{36}{5} $$
$$ a = 7.2 \, m/s^{2} $$
Here’s how our free centripetal force calculator helps you analyze circular motion:
Input:
Output:
Centripetal force is explained using Newton’s Third Law of Motion, which states:
“To every action, there is an equal but opposite reaction.”
The centripetal force is countered by the centrifugal force, which is equal in magnitude but opposite in direction. Comparing centripetal and centrifugal forces shows how different parameters affect each in calculations.
Yes, gravity can act as a centripetal force in circular motion. For example, the gravitational pull of the Sun keeps the Earth in orbit. You can calculate centripetal acceleration due to gravity using our centripetal acceleration calculator or the formula directly.
The main factors affecting centripetal force are the speed of the object and the radius of the circular path.
Force is essential in physics because it can:
Static friction resists outward motion and acts radially inward along the curve. This inward friction acts as the centripetal force, allowing a vehicle or object to follow a curved path.
Earth’s centripetal motion is caused by the gravitational pull of the Sun. This force keeps the Earth moving along its orbit. You can also use our gravitational force calculator to determine the pull between planets.
Centripetal force is directly proportional to the mass of the object. Doubling the mass doubles the force required, while increasing mass tenfold increases the force proportionally.
A centripetal force is required to continuously change the direction of an object’s velocity to keep it moving in a circle. Without it, the object would move straight ahead according to Newton’s First Law.
Common examples of centripetal force include:
Centripetal force is the key phenomenon that allows objects to revolve around a circular path. Our online centripetal force calculator is designed to accurately compute the force acting on an object at any moment to maintain smooth circular motion.
From the source of Wikipedia: Centripetal force, Formula, Uniform circular motion, Derivation using vectors, Nonuniform circular motion, General planar motion From the source of Khan Academy: Gravitation, Mass swinging in a horizontal circle, Yo-yo in vertical circle From the source of Lumen Learning: Centripetal Force, Banked Curves, The Coriolis Force
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