Tangram: Build the Parallelogram
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Tangram with Geometric Figures
① This example demonstrates how to construct a parallelogram by dragging smaller colored tangram pieces onto a grey outline, combining shapes to fill the target figure. ② Core math concepts include parallelograms, squares, triangles, ratios, geometric transformations (rotation and translation), and area conservation, involving polygons, segments, and angles. ③ Construction details: Based on the summary, GeoGebra commands such as Point, Distance, Polygon, Segment, LineBisector, Intersect, Circle, Line, and OrthogonalLine are used, along with objects like poly12, poly8, and various points and segments, to build the tangram pieces and the target parallelogram. ④ Suitable for upper elementary to middle school students, this resource aids in geometry exploration, shape recognition, and understanding of area and proportional relationships, and can be used as an interactive math activity or game-based learning tool.
GeoGebra Commands & Parameters
Point(Circle[S, 5]) → TPoint(Circle[L, 3.54]) → ODistance(L, O) → oPoint(Circle[C_2, o]) → D_2Point(Circle[D_2, o]) → G_2Polygon(C_2, D_2, 4) → poly12, g_3, h_3, i_3, j_3, E_2, F_2Point(Circle[F_2, o]) → H_2Point(Circle[H, 5]) → L_1Polygon(H, L_1, 4) → poly8, k_2, l_2, m_2, n_2, M_1, N_1Point(Circle[D, 10]) → BSegment(D, B) → jLineBisector(j) → j_2Intersect(j_2, j) → RPoint(Circle[K, 5]) → G_1Segment(K, G_1) → g_2LineBisector(g_2) → kIntersect(j, k) → CCircle(R, 5) → e_2Intersect(e_2, j_2) → J, A_1Point(Circle[A, 10]) → H_1Segment(A, H_1) → h_2LineBisector(h_2) → i_2Intersect(i_2, h_2) → I_1Circle(I_1, 5) → d_2Intersect(d_2, i_2) → J_1, K_1Polygon(A, H_1, K_1) → poly1, a, b, cPolygon(B, D, J) → poly2, f, d, ePolygon(H, L_1, M_1) → poly3, g, h, iLine(D, E) → mCircle(K, 3.54) → qIntersect(q, k, 2) → NPolygon(N, K, G_1) → poly4, j_1, k_1, n_1Segment(L, O) → lPolygon(L, O, 4) → poly5, p, r, s, t, P, QSegment(S, T) → g_1LineBisector(g_1) → h_1Circle(S, 3.54) → c_1Intersect(c_1, h_1) → U, VPolygon(S, T, V) → poly6, v, s_1, t_1Point(Circle[W, 5]) → ZSegment(W, Z) → i_1Line(F, H) → p_1OrthogonalLine(Z, i_1) → r_1Circle(Z, 2.5) → d_1Intersect(d_1, r_1) → D_1, E_1Line(E_1, i_1) → a_1Circle(Z, 3.54) → e_1Intersect(e_1, a_1, 2) → C_1Line(Z, C_1) → b_1Line(W, b_1) → f_2Intersect(f_2, a_1) → F_1Polygon(W, Z, C_1, F_1) → poly7, w_1, z_1, c_2, f_3Polygon(B_2, Z_1, B_1, A_2) → poly9, m_1, s_2, t_2, a_2Segment(H, L_1) → q_1Polygon(M, O_1, W_1) → poly10, n, f_1, l_1Polygon(O_1, M, P_1) → poly11, p_2, q_2, r_2Segment(C_2, D_2) → b_2Segment(D_2, G_2) → k_3Segment(F_2, H_2) → l_3Polygon(D_2, G_2, E_2) → poly13, e_3, d_3, g_4Polygon(H_2, C_2, F_2) → poly14, f_4, h_4, c_3
AI Drawing Prompt Reference
Draw a parallelogram using tangram pieces. Start by creating a gray outline, then drag and combine different colored tangram pieces to form the parallelogram. Use triangles, squares, and rhombuses, and apply rotation and translation transformations to ensure all shapes fit perfectly. Finally, make sure all edges align to complete the parallelogram.
The prompt above was compiled from the original drawing commands and is for reference only.