Logo Sena Eco-Plastics Math Example
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This example demonstrates how to use GeoGebra to construct geometric figures related to the Logo Sena and eco-plastics theme. It involves core mathematical concepts such as angles, area, circle, circumcircle, geometry, mathematics, division, 2D vectors, differential calculus, statistical characteristics, and percentages. The construction utilizes commands/objects like Line, OrthogonalLine, Vector, OrthogonalVector, Intersect, LineBisector, Mirror, Circle, Rotate, Angle, Midpoint, Polygon, Semicircle, CurveCartesian, Segment, and CircleSector. It is suitable for high school students and teachers for geometry construction and exploration.
GeoGebra Commands & Parameters
Line(A, B) → fOrthogonalLine(A, f) → jVector(A, B) → uOrthogonalVector(u) → vLine(F, f) → iIntersect(j, i) → B_1Line(G, f) → hOrthogonalLine(R_1, h) → k_2Intersect(k_2, h) → S_1Line(W_1, h) → m_2Line(D_3, k_2) → h_4LineBisector(D_3, C_3) → j_4Line(C_3, k_2) → g_4Intersect(g_4, i) → E_3LineBisector(C_3, E_3) → i_4Intersect(j_4, i_4) → O_3Mirror(J_3, i_4) → S_3Intersect(h_4, m_2) → oMirror(H_3, O_3) → P_3Circle(M, H) → dLine(E, f) → gIntersect(j, g) → JCircle(J, E) → eRotate(E, (-(60°)), K) → E'Line(K, E') → kLine(M, k) → pIntersect(d, p) → N, PLineBisector(H, P) → nLine(A, k) → lIntersect(e, l) → T, UOrthogonalLine(U, f) → qIntersect(q, n) → ZLine(L, l) → mIntersect(e, m) → V, WOrthogonalLine(W, f) → sIntersect(s, n) → A_1Circle(D, C) → cAngle(E', K, E) → αIntersect(e, p) → O, QIntersect(e, k) → R, SMidpoint(K, J) → E_1Line(E_1, j) → aIntersect(a, m) → D_1Mirror(D_1, j) → F_1Polygon(E, K, S, Q, P, H, B) → poly1, e_1, k_1, s_1, q_1, p_1, h_1, bPolygon(W, U, A, L, G_1, D_1) → poly2, g_1, i_1, j_1, l_1, m_1, n_1Mirror(W, j) → W'Mirror(U, j) → U'Mirror(A, j) → A'Mirror(L, j) → L'Mirror(G_1, j) → IMirror(D_1, j) → H_1Polygon(W', U', A', L', I, H_1) → poly2', w', u', a', l', i_2, r_1Mirror(E, j) → E'_1Mirror(K, j) → K'Mirror(S, j) → S'Mirror(Q, j) → Q'Mirror(P, j) → P'Mirror(H, j) → H'Mirror(B, j) → B'Polygon(E'_1, K', S', Q', P', H', B') → poly1', e'_1, k', s', q', p', h', b'Semicircle(H_1, D_1) → tPolygon(G, I_1, O_1, L_1, M_1, K_1, J_1, N_1, C_1, B_1) → poly3, g_2, h_2, f_1, o_1, t_1, a_1, b_1, c_1, d_1, f_2OrthogonalLine(P_1, i) → j_2Intersect(j_2, h) → Q_1OrthogonalLine(T_1, h) → l_2Intersect(l_2, i) → U_1Midpoint(T_1, U_1) → V_1Mirror(Z_1, V_1) → A_2Line(Z_1, h) → n_2Mirror(W_1, V_1) → B_2Line(A_2, n_2) → p_2Line(B_2, p_2) → q_2Intersect(j_2, m_2) → C_2Intersect(j_2, q_2) → F_2Polygon(S_1, R_1, C_2, Q_1, P_1, F_2, B_2, A_2, E_2, D_2, Z_1, W_1) → poly4, r_2, w_1, f_3, g_3, s_2, t_2, a_2, b_2, c_2, e_2, d_2, z_1LineBisector(H_2, I_2) → h_3Mirror(G_2, h_3) → J_2Line(H_2, G_2) → i_3Line(K_2, i_3) → j_3Intersect(j_3, i) → L_2Line(M_2, i) → k_3Line(N_2, k_3) → l_3Intersect(j_3, k_3) → O_2Intersect(j_3, l_3) → P_2Intersect(h_3, h) → Q_2Polygon(H_2, G_2, L_2, P_2, N_2, M_2, O_2, K_2, Q_2) → poly5, m_3, n_3, p_3, q_3, r_3, s_3, o_2, t_3, a_3Mirror(H_2, h_3) → R_2Mirror(G_2, h_3) → S_2Mirror(L_2, h_3) → T_2Mirror(P_2, h_3) → U_2Mirror(N_2, h_3) → V_2Mirror(M_2, h_3) → W_2Mirror(O_2, h_3) → Z_2Mirror(K_2, h_3) → A_3Mirror(Q_2, h_3) → B_3Polygon(R_2, S_2, T_2, U_2, V_2, W_2, Z_2, A_3, B_3) → poly5', b_3, c_3, d_3, u_2, v_2, w_2, z_2, e_3, f_4Mirror(J_3, j_4) → K_3Mirror(N_3, j_4) → M_3CurveCartesian(((1 - t)^(3) * J_3) + (((3 * (1 - t)^(2)) * t) * M_3) + (((3 * (1 - t)) * t^(2)) * N_3) + (t^(3) * K_3), t, 0, 1) → u_1CurveCartesian(((1 - t)^(3) * F_3) + (((3 * (1 - t)^(2)) * t) * I_3) + (((3 * (1 - t)) * t^(2)) * L_3) + (t^(3) * F_4), t, 0, 1) → wMirror(w, i_4) → w'_1Mirror(u_1, i_4) → v_1Mirror(F_3, i_4) → T_3Mirror(o, O_3) → Q_3Mirror(H_3, O_3) → R_3Mirror(K_3, O_3) → U_3CurveCartesian(((1 - t)^(4) * H_3) + (((4 * (1 - t)^(3)) * t) * V_3) + (((6 * (1 - t)^(2)) * t^(2)) * W_3) + (((4 * (1 - t)) * t^(3)) * G_3) + (t^(4) * S_3), t, 0, 1) → o_3Mirror(o_3, O_3) → v_3Polygon(H_3, K_3, P_3, S_3) → q1, q_4, r_4, s_4, t_4Mirror(H_3, O_3) → G_4Mirror(F_4, O_3) → H_4Mirror(K_3, O_3) → I_4Polygon(H_3, F_4, K_3) → t1, k_4, l_4, m_4Mirror(H_3, O_3) → J_4Mirror(F_4, O_3) → K_4Mirror(K_3, O_3) → L_4Polygon(J_4, K_4, L_4) → t1', n_4, p_4, c_4Segment(K_3, J_3) → a_4Mirror(K_3, i_4) → A_4Mirror(J_3, i_4) → B_4Segment(A_4, B_4) → b_4Mirror(K_3, b_4) → C_4Mirror(J_3, b_4) → D_4Segment(C_4, D_4) → d_4CircleSector(G_1, D_1, H_1) → e_4
AI Drawing Prompt Reference
Construct a geometric figure with lines, perpendiculars, vectors, circles, polygons, and arcs. Start with a horizontal baseline, draw a perpendicular through a point on it, and create a vector with its orthogonal counterpart. Use intersections of parallel lines and perpendiculars, along with angle bisectors and midpoints, to build symmetric points. Then draw two circles—one centered at a point passing through another, and another centered at an intersection passing through a point—and rotate a segment by 60 degrees. Finally, connect multiple intersection points to form two polygons, and mirror some points to complete the symmetry.
The prompt above was compiled from the original drawing commands and is for reference only.