Cube Nets by Mr. Coffie
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This example demonstrates the nets of a cube and their folding into the 3D shape. Core math concepts include solid geometry, polygon assembly, and spatial visualization. Construction uses GeoGebra commands like Cube, Rotate, Midpoint, OrthogonalLine, Segment, Translate, involving objects such as points, lines, faces, and edges. Suitable for high school geometry education or beginners in geometric modeling.
GeoGebra Commands & Parameters
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 Drawing Prompt Reference
Draw a cube net showing how it folds into a 3D shape. Include multiple faces and edges, start with a basic cube, then rotate and move some faces to create the net, and finally rearrange these faces to demonstrate the folding process, emphasizing spatial geometry and polygon assembly.
The prompt above was compiled from the original drawing commands and is for reference only.