Intuitive Derivative of the Sin Function
Loading the math board and drawing, please wait…
This example demonstrates the intuitive derivative of the sine function. It involves core mathematical concepts such as trigonometry and derivatives. Using GeoGebra commands like Point, Segment, Rotate, Slope, etc., it clearly shows the derivative values of the sine function at different points. Suitable for high school mathematics education and learning.
GeoGebra Commands & Parameters
Point(f) → EPoint(f) → FPoint(f) → GPoint(f) → HSegment((x(A) - d, y(A)), (x(A) + d, y(A))) → A_sRotate(A_s, atand(m_1), A) → A_s'Slope(A_s') → mSegment((x(B) - d, y(B)), (x(B) + d, y(B))) → B_sRotate(B_s, atand(m_2), B) → B_s'Point(A_s') → IOrthogonalLine(I, xAxis) → iPoint(A_s') → JOrthogonalLine(J, xAxis) → jOrthogonalLine(J, j) → kIntersect(i, k) → KVector(I, K) → uVector(K, J) → wDilate(w, If[1 < a ≤ 2, a - 1, 0]) → v1_xDilate(u, If[0 ≤ a ≤ 1, a, 1]) → v1_ySegment((x(C) - d, y(C)), (x(C) + d, y(C))) → C_sSegment((x(D) - d, y(D)), (x(D) + d, y(D))) → D_sRotate(C_s, atand(m_3), C) → C_s'Rotate(D_s, atand(m_4), D) → D_s'Pendiente2(B, m_2, d, a) → v2_y, v2_xPendiente2(C, m_3, d, a) → v3_y, v3_xPendiente2(D, m_4, d, a) → v4_y, v4_xSegment(A, A_m) → lSegment(B, B_m) → nSegment(C, C_m) → qSegment(D, D_m) → rVector(A_0, A_m) → showANVector(A_0, A_m) → showAPDerivative(f) → f'Vector(B_0, B_m) → showBPVector(B_0, B_m) → showBNVector(C_0, C_m) → showCNVector(C_0, C_m) → showCPVector(D_0, D_m) → showDNVector(D_0, D_m) → showDPSegment((x(E) - d, y(E)), (x(E) + d, y(E))) → E_sSegment((x(F) - d, y(F)), (x(F) + d, y(F))) → F_sSegment((x(G) - d, y(G)), (x(G) + d, y(G))) → G_sSegment((x(H) - d, y(H)), (x(H) + d, y(H))) → H_sRotate(E_s, atand(m_5), E) → E_s'Rotate(F_s, atand(m_6), F) → F_s'Rotate(G_s, atand(m_7), G) → G_s'Rotate(H_s, atand(m_8), H) → H_s'Vector(E_0, E_m) → showEPVector(E_0, E_m) → showENVector(F_0, F_m) → showFNVector(G_0, G_m) → showGNVector(G_0, G_m) → showGPVector(H_0, H_m) → showHPVector(H_0, H_m) → showHNVector(F_0, F_m) → showFP