正方体的展开图(11种不同展开方式)
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这个范例展示了正方体的11种不同展开方式。它涉及的空间几何概念有助于理解立体图形的平面展开。通过使用GeoGebra命令如Cube, Rotate, Midpoint等,可以直观地看到每个面的相对位置和连接方式。适合初中及以上学生学习立体几何。
GeoGebra 命令及参数
Cube(A, B, xOyPlane) → a, C, faceBCGF, faceCDHG, faceEFGH, edgeAD, edgeAB, edgeBC, edgeCD, edgeAE, edgeDH, edgeEH, D, edgeEF, edgeBF, edgeFG, edgeCG, edgeGH, E, F, G, H, faceABCD, faceADHE, faceABFERotate(faceABFE, (90° * t), edgeAB) → faceABFE'Midpoint(A, C) → IOrthogonalLine(I, xOyPlane) → bRotate(faceABFE', 90°, b) → faceABFE''Rotate(faceABFE', 180°, b) → faceABFE''_1Rotate(faceABFE', 270°, b) → faceABFE''_2Rotate(E, (90° * t), edgeAB) → E'Rotate(F, (90° * t), edgeAB) → F'Segment(E', F') → cRotate(Rotate[faceEFGH, (90° * t), edgeAB], (90° * t), Segment[E', F']) → poly1Translate(J, Vector[A, B]) → KTranslate(faceABFE''_1, Vector[A, J]) → poly2Translate(faceABCD, Vector[A, J]) → faceABCD'Translate(faceABFE', Vector[A, J]) → faceABFE''_3Translate(poly1, Vector[A, J]) → poly1'Translate(Rotate[Rotate[faceADHE, (90° * t), edgeAB], ((-(90°)) * t), Segment[Rotate[E, (90° * t), edgeAB], Rotate[A, (90° * t), edgeAB]]], Vector[A, J]) → poly4Translate(faceABFE'', Vector[A, J]) → faceABFE'''Translate(faceABCD, Vector[A, L]) → faceABCD'_1Translate(faceABFE''_1, Vector[A, L]) → poly3Translate(faceABFE', Vector[A, L]) → faceABFE''_4Translate(poly1, Vector[A, L]) → poly1'_1Translate(faceABFE'', Vector[A, L]) → faceABFE'''_1Midpoint(B, E') → MOrthogonalLine(M, faceABFE') → dTranslate(Rotate[faceABFE'', 180°, d], Vector[A, L]) → poly5Translate(faceABCD, Vector[A, O]) → faceABCD'_2Translate(faceABFE''_1, Vector[A, O]) → poly6Translate(faceABFE', Vector[A, O]) → faceABFE''_5Translate(poly1, Vector[A, O]) → poly1'_2Translate(faceABFE'', Vector[A, O]) → faceABFE'''_2Translate(Rotate[Rotate[faceADHE, (90° * t), edgeCD], (90° * t), Segment[Rotate[H, (90° * t), edgeCD], Rotate[D, (90° * t), edgeCD]]], Vector[A, O]) → poly8Translate(faceABCD, Vector[A, N]) → faceABCD'_3Translate(faceABFE''_1, Vector[A, N]) → poly7Translate(faceABFE', Vector[A, N]) → faceABFE''_6Translate(poly1, Vector[A, N]) → poly1'_3Translate(Rotate[faceABFE'', 180°, d], Vector[A, N]) → poly9Rotate(Rotate[H, (90° * t), edgeAB], (90° * t), Segment[E', F']) → PMidpoint(P, F') → QOrthogonalLine(Q, poly1) → eTranslate(Rotate[Rotate[faceABFE'', 180°, d], 180°, e], Vector[A, N]) → poly10Translate(faceABCD, Vector[A, R]) → faceABCD'_4Translate(faceABFE''_1, Vector[A, R]) → poly11Translate(faceABFE', Vector[A, R]) → faceABFE''_7Translate(poly1, Vector[A, R]) → poly1'_4Translate(Rotate[faceABFE'', 180°, d], Vector[A, R]) → poly12Rotate(F', 180°, b) → F''Midpoint(C, F'') → SOrthogonalLine(S, faceABFE''_1) → gTranslate(Rotate[Rotate[Rotate[faceADHE, (90° * t), edgeCD], (90° * t), Segment[Rotate[H, (90° * t), edgeCD], Rotate[D, (90° * t), edgeCD]]], 180°, g], Vector[A, R]) → poly15Translate(faceABCD, Vector[A, T]) → faceABCD'_5Translate(faceABFE''_1, Vector[A, T]) → poly13Translate(faceABFE', Vector[A, T]) → faceABFE''_8Translate(Rotate[faceABFE', 270°, b], Vector[A, T]) → poly14Translate(Rotate[poly1, (-(90°)), b], Vector[A, T]) → poly16Translate(Rotate[Rotate[Rotate[faceADHE, (90° * t), edgeAB], ((-(90°)) * t), Segment[Rotate[E, (90° * t), edgeAB], Rotate[A, (90° * t), edgeAB]]], 180°, d], Vector[A, T]) → poly17Translate(faceABCD, Vector[A, U]) → faceABCD'_6Translate(faceABFE''_1, Vector[A, U]) → poly18Translate(faceABFE', Vector[A, U]) → faceABFE''_9Translate(Rotate[faceABFE', 270°, b], Vector[A, U]) → poly19Translate(Rotate[Rotate[Rotate[faceADHE, (90° * t), edgeAB], ((-(90°)) * t), Segment[Rotate[E, (90° * t), edgeAB], Rotate[A, (90° * t), edgeAB]]], 180°, d], Vector[A, U]) → poly20Translate(Rotate[faceABFE'', 270°, d], Vector[A, U]) → poly22Translate(faceABCD, Vector[A, V]) → faceABCD'_7Translate(faceABFE''_1, Vector[A, V]) → poly21Translate(Rotate[faceABFE, (90° * t), edgeAB], Vector[A, V]) → poly23Translate(Rotate[Rotate[faceADHE, (90° * t), edgeCD], (90° * t), Segment[Rotate[H, (90° * t), edgeCD], Rotate[D, (90° * t), edgeCD]]], Vector[A, V]) → poly24Rotate(Rotate[faceADHE, (90° * t), edgeCD], (90° * t), Segment[Rotate[H, (90° * t), edgeCD], Rotate[D, (90° * t), edgeCD]]) → poly25Rotate(Rotate[E, (90° * t), edgeCD], (90° * t), Segment[Rotate[H, (90° * t), edgeCD], Rotate[D, (90° * t), edgeCD]]) → WMidpoint(D, W) → ZOrthogonalLine(Z, poly25) → hRotate(faceABFE''_1, 90°, h) → poly26Translate(Rotate[faceABFE''_1, 90°, h], Vector[A, V]) → poly27Rotate(C, 90°, h) → C'Midpoint(W, C') → A_1OrthogonalLine(A_1, poly26) → iRotate(poly25, 180°, i) → poly25'Translate(Rotate[poly25, 180°, i], Vector[A, V]) → poly28Translate(faceABCD, Vector[A, B_1]) → faceABCD'_8Translate(faceABFE''_1, Vector[A, B_1]) → poly29Translate(faceABFE', Vector[A, B_1]) → faceABFE''_{10}Translate(Rotate[Rotate[Rotate[faceADHE, (90° * t), edgeAB], ((-(90°)) * t), Segment[Rotate[E, (90° * t), edgeAB], Rotate[A, (90° * t), edgeAB]]], 180°, d], Vector[A, B_1]) → poly30Translate(Rotate[Rotate[faceADHE, (90° * t), edgeCD], (90° * t), Segment[Rotate[H, (90° * t), edgeCD], Rotate[D, (90° * t), edgeCD]]], Vector[A, B_1]) → poly31Translate(Rotate[faceABFE''_1, 90°, h], Vector[A, B_1]) → poly32Translate(faceABCD, Vector[A, C_1]) → faceABCD'_9Translate(faceABFE''_1, Vector[A, C_1]) → poly33Translate(Rotate[Rotate[faceADHE, (90° * t), edgeCD], (90° * t), Segment[Rotate[H, (90° * t), edgeCD], Rotate[D, (90° * t), edgeCD]]], Vector[A, C_1]) → poly34Translate(Rotate[faceABFE''_1, 90°, h], Vector[A, C_1]) → poly35Translate(faceABFE'', Vector[A, C_1]) → faceABFE'''_3Rotate(G, 90°, b) → G'Rotate(F', 90°, b) → F''_1Midpoint(B, F''_1) → D_1OrthogonalLine(D_1, faceABFE'') → jRotate(faceABCD, 90°, j) → faceABCD'_{10}Translate(Rotate[faceABCD, 90°, j], Vector[A, C_1]) → poly36
AI 绘图提示语参考
画一个立方体的展开图,展示11种不同的展开方式。首先绘制一个立方体,然后通过旋转和镜像操作,生成多个展开图,每个展开图都包含6个正方形面,面与面之间通过边连接。使用不同颜色或线条样式区分各个面和边,以便观察展开图的结构和折叠方式。
以上提示语为根据原始绘图命令整理而来,仅供参考。