The formulas for parametric equations of x(t) and y(t) are; x(t)=Position Point+ V_AB t & y(t)=Position Point+ V_AB t . The formula to determine the distance of two different points is; d_AB=√((x_B-x_A )^2+ (y_B-y_A )^2 ). Additionally, the most important is to note that the value (t) Bezier curve is such that 0≤t≤1. A table is drawn to determine the coordinates of vector points ‘P’ and ‘Q’ and the Bezier curve points ‘S’ (‘x’ and ’y’ value of these vector points). Furthermore, arrows are being used because they indicate vector direction. To determine the Bezier Curve points (S), point ‘P’ and ‘Q’ are investigated because the ‘S’ point lies on the moving (invisible) line segment of ‘PQ’. From the parametric equations of ‘P’ and ‘Q’, ‘S’ parametric equation of x(t) and y(t) is determined. Finally, using the points of A, B, C and the moving line segment of P and Q, the moving point of ‘S’ is drawn using
The formulas for parametric equations of x(t) and y(t) are; x(t)=Position Point+ V_AB t & y(t)=Position Point+ V_AB t . The formula to determine the distance of two different points is; d_AB=√((x_B-x_A )^2+ (y_B-y_A )^2 ). Additionally, the most important is to note that the value (t) Bezier curve is such that 0≤t≤1. A table is drawn to determine the coordinates of vector points ‘P’ and ‘Q’ and the Bezier curve points ‘S’ (‘x’ and ’y’ value of these vector points). Furthermore, arrows are being used because they indicate vector direction. To determine the Bezier Curve points (S), point ‘P’ and ‘Q’ are investigated because the ‘S’ point lies on the moving (invisible) line segment of ‘PQ’. From the parametric equations of ‘P’ and ‘Q’, ‘S’ parametric equation of x(t) and y(t) is determined. Finally, using the points of A, B, C and the moving line segment of P and Q, the moving point of ‘S’ is drawn using