Displacement Formula:
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The displacement formula \( s = \int v(t) dt \) calculates the total displacement of an object by integrating its velocity function with respect to time. This fundamental calculus concept connects velocity to position through integration.
The calculator uses the displacement formula:
Where:
Explanation: The integral calculates the accumulated change in position over the specified time interval, representing the net displacement of the object.
Details: Calculating displacement through integration is crucial in physics and engineering for determining an object's position change, analyzing motion patterns, and solving kinematics problems involving variable velocity.
Tips: Enter the velocity function as a mathematical expression (e.g., "2*t + 3" or "sin(t)"), specify the time limits in seconds, and ensure the upper limit is greater than the lower limit for valid integration.
Q1: What's the difference between displacement and distance?
A: Displacement is a vector quantity representing change in position with direction, while distance is a scalar quantity representing total path length traveled.
Q2: Can this formula handle negative velocity?
A: Yes, negative velocity indicates motion in the opposite direction, and the integral will account for this in the net displacement calculation.
Q3: What types of velocity functions can be integrated?
A: The calculator can handle various functions including polynomials, trigonometric functions, exponential functions, and their combinations.
Q4: How does this relate to acceleration?
A: Acceleration is the derivative of velocity, so displacement can also be found by double integration of acceleration: \( s = \int \int a(t) dt dt \).
Q5: When is numerical integration necessary?
A: Numerical integration methods are used when the velocity function cannot be integrated analytically or when working with empirical data points.