Final answer:
Setting a small constant 'a' on the acceleration slider and playing the simulation will result in the particle's velocity increasing linearly over time due to the constant positive acceleration, while displacement increases non-linearly. The graphical representation will visually demonstrate the kinematic relationship between displacement, velocity, and acceleration.
Step-by-step explanation:
To restore all settings to zero, typically in a simulation, you would look for a reset button or an option within the menu to revert all values to their default state. To set a small constant 'a' on the acceleration slider, you would adjust the slider to the desired value representing the constant acceleration. With 'a' set, and after checking the velocity vector box, upon clicking play, you will observe that the particle starts from rest meaning its initial displacement and velocity are zero. The acceleration being constant (positive) will continuously increase the velocity in the direction of the acceleration. The displacement will increase non-linearly due to the accelerating nature of the particle. Over time, the velocity will increase linearly if the acceleration is kept constant. The visualization will show that as time progresses, the velocity vector grows in magnitude and the displacement from the starting point increases as well, becoming larger as the time goes on.
Motion Analysis
By setting a constant acceleration and analyzing the velocity and displacement, we can understand the kinematic equations that describe linear motion. The displacement of the particle will be the area under the velocity-time graph, and as acceleration is constant, this graph will show a straight, upward-sloping line. Velocity, starting from zero, will increase steadily over time due to constant acceleration. The motion is predictable and deterministic, meaning if you know the initial conditions and the constant acceleration, you can determine the future position and velocity of the particle at any given time.