帕斯卡三角形与梅特罗尼之立方体
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①本范例演示了帕斯卡三角形与梅特罗尼之立方体之间的几何关联与视觉对应关系;②涉及的核心数学概念包括二项式分布、整数、正多边形构造、向量运算、几何变换等;③作图要点提炼自构造摘要,使用了Intersect(交点)、Point(点)、Polygon(多边形)、Vector(向量)、Sequence(数列)、Element(元素)、Translate(平移)、Circle(圆)、Mirror(镜像)、Midpoint(中点)等GeoGebra命令与对象;④适合高中及以上数学爱好者、几何学研究者或作为概率统计与几何结合的教学案例。
GeoGebra 命令及参数
Intersect(xAxis, yAxis) → APoint(yAxis) → BPolygon(B, A, 6) → poly1, f, F, g, h, i, j, k, C, D, EVector(F, A) → uVector(A, D) → vSequence(Sequence[nCr[P, Q], Q, 0, P], P, 0, rows) → pasclistElement(Element[pasclist, 3], 2) → aSequence(Sequence[Polygon[A + (P * u) + (Q * v) + (0, 1), A + (P * u) + (Q * v), 6], Q, 0, P], P, 0, rows) → sierpSequence(Sequence[Text[Element[Element[pasclist, P + 1], Q + 1], A + (P * u) + (Q * v) + (1; 30°) + (0, adjusty) + ((adjustx * (1, 0)) * ceil(log(10, 0.01 + Element[Element[pasclist, P + 1], Q + 1])))], Q, 0, P], P, 0, rows) → L_1Sequence(Sequence[If[Mod[Element[Element[pasclist, P + 1], Q + 1], n] ≟ 0, Polygon[A + (P * u) + (Q * v) + B, A + (P * u) + (Q * v), 6]], Q, 0, P], P, 0, rows) → sierp2Translate(sierp, (0, -1)) → sierp'Point(u) → GPoint(v) → HPoint(v) → ICircle(G, H) → pMirror(G, H) → G'Mirror(G, I) → G'_1Circle(H, G') → qCircle(I, G'_1) → rCircle(G', H) → sCircle(G'_1, I) → tMirror(H, G') → H'Mirror(I, G'_1) → I'Midpoint(G', G'_1) → JCircle(J, H) → c_1Circle(H', G') → d_1Circle(I', G'_1) → e_1Intersect(s, c_1, 2) → KIntersect(t, c_1, 1) → LCircle(K, J) → f_1Circle(L, J) → g_1Mirror(G', H') → G''Mirror(G'_1, I') → MMirror(H', G'') → H''Mirror(I', M) → I''Circle(G'', H') → h_1Circle(M, I') → k_1Intersect(d_1, f_1, 2) → NIntersect(e_1, g_1, 1) → OCircle(N, K) → p_1Circle(O, L) → q_1Intersect(f_1, g_1, 2) → PCircle(P, L) → r_1Intersect(h_1, p_1, 2) → QIntersect(p_1, r_1, 2) → RIntersect(q_1, r_1, 2) → SIntersect(k_1, q_1, 1) → TCircle(H'', Q) → s_1Circle(Q, R) → t_1Circle(R, S) → c_2Circle(S, T) → d_2Circle(T, I'') → e_2Circle(I'', T) → f_2Intersect(s_1, t_1) → U, V, ,Intersect(t_1, c_2, 2) → WIntersect(c_2, d_2, 2) → ZIntersect(d_2, e_2, 2) → A_1Intersect(e_2, f_2, 2) → B_1Circle(V, Q) → g_2Circle(W, R) → h_2Circle(Z, S) → k_2Circle(A_1, T) → p_2Circle(B_1, I'') → q_2Intersect(s_1, g_2, 2) → C_1Intersect(f_2, q_2, 1) → D_1Intersect(p_2, q_2, 2) → E_1Intersect(k_2, p_2, 2) → F_1Intersect(h_2, k_2, 2) → G_1Intersect(g_2, h_2, 2) → H_1Circle(C_1, V) → r_2Circle(D_1, B_1) → s_2Circle(H_1, V) → t_2Circle(G_1, Z) → c_3Circle(F_1, A_1) → d_3Circle(E_1, B_1) → e_3Intersect(g_2, r_2, 1) → I_1Intersect(q_2, s_2, 2) → J_1Circle(I_1, V) → f_3Circle(J_1, B_1) → g_3Intersect(r_2, f_3, 2) → K_1Intersect(s_2, g_3, 2) → M_1Circle(K_1, I_1) → h_3Circle(M_1, J_1) → k_3Intersect(f_3, h_3, 1) → N_1Intersect(t_2, f_3, 2) → O_1Intersect(t_2, c_3, 2) → P_1Intersect(c_3, d_3, 2) → Q_1Intersect(d_3, e_3, 2) → R_1Intersect(e_3, g_3, 2) → S_1Intersect(g_3, k_3, 2) → T_1Circle(N_1, I_1) → p_3Circle(O_1, H_1) → q_3Circle(P_1, G_1) → r_3Circle(Q_1, F_1) → s_3Circle(R_1, E_1) → t_3Circle(S_1, J_1) → c_4Circle(T_1, J_1) → d_4Intersect(h_3, p_3, 2) → U_1Intersect(k_3, d_4, 2) → V_1Circle(U_1, K_1) → e_4Circle(V_1, M_1) → f_4Intersect(p_3, e_4, 1) → W_1Intersect(p_3, q_3, 2) → Z_1Intersect(q_3, r_3, 2) → A_2Intersect(r_3, s_3, 2) → B_2Intersect(s_3, t_3, 2) → C_2Intersect(t_3, c_4, 2) → D_2Intersect(c_4, d_4, 2) → E_2Intersect(d_4, f_4, 2) → F_2Circle(W_1, N_1) → g_4Circle(Z_1, O_1) → h_4Circle(A_2, P_1) → k_4Circle(B_2, Q_1) → p_4Circle(C_2, R_1) → q_4Circle(D_2, S_1) → r_4Circle(E_2, T_1) → s_4Circle(F_2, T_1) → t_4Intersect(e_4, f_4) → G_2, , ,Mirror(Z_1, W_1) → H_2Mirror(E_2, F_2) → I_2Circle(H_2, W_1) → c_5Circle(I_2, F_2) → d_5Mirror(U_1, H_2) → J_2Mirror(N_1, W_1) → L_2Mirror(O_1, Z_1) → M_2Mirror(P_1, A_2) → Q_2Mirror(Q_1, B_2) → S_2Mirror(R_1, C_2) → U_2Mirror(S_1, D_2) → W_2Mirror(R_1, D_2) → A_3Mirror(S_1, E_2) → C_3Mirror(T_1, F_2) → E_3Mirror(V_1, I_2) → G_3Circle(J_2, H_2) → e_5Circle(L_2, W_1) → f_5Circle(M_2, Z_1) → g_5Circle(Q_2, A_2) → h_5Circle(S_2, B_2) → k_5Circle(U_2, C_2) → p_5Circle(W_2, D_2) → q_5Circle(A_3, E_2) → r_5Circle(C_3, F_2) → s_5Circle(E_3, I_2) → t_5Circle(G_3, I_2) → c_6Intersect(e_5, f_5, 2) → K_2Circle(K_2, J_2) → d_6Intersect(e_5, d_6, 2) → N_2Circle(N_2, J_2) → e_6Intersect(f_5, g_5, 2) → O_2Circle(O_2, M_2) → f_6Intersect(g_5, h_5, 2) → P_2Circle(P_2, Q_2) → g_6Intersect(h_5, k_5, 2) → R_2Circle(R_2, S_2) → h_6Intersect(k_5, p_5, 2) → T_2Circle(T_2, U_2) → k_6Intersect(p_5, q_5, 2) → V_2Circle(V_2, W_2) → p_6Intersect(q_5, r_5, 2) → Z_2Circle(Z_2, A_3) → q_6Intersect(r_5, s_5, 2) → B_3Circle(B_3, C_3) → r_6Intersect(s_5, t_5, 2) → D_3Circle(D_3, E_3) → s_6Intersect(t_5, c_6, 2) → F_3Circle(F_3, G_3) → t_6Intersect(c_6, t_6, 1) → H_3Circle(H_3, G_3) → c_7Intersect(d_6, e_6, 2) → I_3Circle(I_3, N_2) → d_7Intersect(e_6, d_7, 2) → J_3Circle(J_3, N_2) → e_7Intersect(d_6, f_6, 2) → K_3Circle(K_3, O_2) → f_7Intersect(f_6, g_6, 2) → L_3Circle(L_3, P_2) → g_7Intersect(g_6, h_6, 2) → M_3Circle(M_3, R_2) → h_7Intersect(h_6, k_6, 2) → N_3Circle(N_3, T_2) → k_7Intersect(k_6, p_6, 2) → O_3Circle(O_3, T_2) → p_7Intersect(p_6, q_6, 2) → P_3Circle(P_3, Z_2) → q_7Intersect(q_6, r_6, 2) → Q_3Circle(Q_3, B_3) → r_7Intersect(r_6, s_6, 2) → R_3Circle(R_3, B_3) → s_7Intersect(s_6, t_6, 2) → S_3Circle(S_3, D_3) → t_7Intersect(t_6, c_7, 2) → T_3Circle(T_3, H_3) → c_8Intersect(c_7, c_8, 1) → U_3Circle(U_3, H_3) → d_8
AI 绘图提示语参考
绘制帕斯卡三角形和梅塔特龙立方体的几何连接。首先,创建一个六边形,然后使用向量和序列生成Sierpinski三角形。接着,根据帕斯卡三角形的数值,在Sierpinski三角形上放置文本。最后,构造梅塔特龙立方体的几何图形,包括多个圆和它们的交点,形成复杂的几何图案。
以上提示语为根据原始绘图命令整理而来,仅供参考。