Here we can find the acceleration (a), final velocity(v), initial velocity(u) and time(t) using the formula a = (v-u)/t.
At first, functions are defined for all four types of calculations, in which they will accept three inputs and assign the value in three different variables. Then the fourth value is calculated using the acceleration formula and the calculated value is returned. We are going to use the same acceleration formula in different approaches.
Approach:
- In the first approach, we will find initial velocity by using the formula “u = (v-a*t)”
- In the second approach, we will find final velocity by using formula “v = u + a*t”
- In the third approach, we will find acceleration by using formula “a = (v – u)/t”
- In the fourth approach, we will find time by using formula “t = (v – v)/a”
Example 1: Initial velocity (u) is calculated.
Python3
finalVelocity = 10
acceleration = 9.8
time = 1
initialVelocity = finalVelocity - acceleration * time
print ( "Initial velocity = " , initialVelocity)
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Output:
Initial velocity = 0.1999999999999993
Time complexity: O(1)
Auxiliary space: O(1)
Example 2: Final velocity (v) is calculated.
Python3
initialVelocity = 10
acceleration = 9.8
time = 1
finalVelocity = initialVelocity + acceleration * time
print ( "Final velocity = " , finalVelocity)
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Output:
Final velocity = 19.8
Time Complexity: O(1), constant time complexity as there are no loops or iterations, and the operations are straightforward.
Auxiliary Space: O(1), constant space complexity as the code only uses a fixed amount of memory for the variables.
Example 3: Acceleration (a) is calculated.
Python3
initialVelocity = 0
finalVelocity = 9.8
time = 1
acceleration = (finalVelocity - initialVelocity) / time
print ( "Acceleration = " , acceleration)
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Output:
Acceleration = 9.8
Example 4: Time (t) is calculated.
Python3
finalVelocity = 10
initialVelocity = 0
acceleration = 9.8
time = (finalVelocity - initialVelocity) / acceleration
print ( "Time taken = " , time)
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Output:
Time taken = 1.0204081632653061