Open Box Problem
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This example demonstrates the open box problem, involving solid geometry and volume calculation. By cutting four corners from a square sheet to form an open box, it explores how different cutting methods affect the box's volume. GeoGebra commands such as Point, Segment, Rotate, Mirror, Line, Polygon, Intersect, and Distance are used, suitable for high school mathematics education.
GeoGebra Commands & Parameters
Point(xAxis) → ESegment(A, E) → fPoint(f) → FRotate(F, 90°, A) → GMirror(G, xAxis) → IMirror(F, xAxis) → HLine(G, I) → gPolygon(F, J, K, H) → q1, f_1, j, k, hRotate(F, (-α), g) → F'Rotate(J, (-α), g) → J'Rotate(K, (-α), g) → K'Rotate(H, (-α), g) → H'Polygon(F', J', K', H') → q1', f', j', k', h'Rotate(q1', 90°, zAxis) → q1''Rotate(q1', 180°, zAxis) → q1''_{1}Rotate(q1', 270°, zAxis) → q1''_{2}Mirror(J, yAxis) → J'_{1}Mirror(K, yAxis) → K'_{1}Polygon(J', K', K'_{1}, J'_{1}) → q2, i, l, k'_{1}, j'_{1}Intersect(xAxis, yAxis) → NPolygon(L, M, K, J) → q3, l_1, m, k_1, j_1Mirror(q3, N) → q3'Rotate(q3, 90°, N) → q3'_{1}Rotate(q3, 270°, N) → q3'_{2}Mirror(H, yAxis) → H'_{1}Mirror(I, yAxis) → I'Mirror(J, yAxis) → J'_{2}Mirror(G, yAxis) → G'Mirror(F, yAxis) → F'_{1}Segment(A, D) → nSegment(D, C) → pSegment(C, B) → qSegment(B, A) → rSegment(F, F'_{1}) → sSegment(G', I') → tSegment(G, I) → aSegment(H, H'_{1}) → bDistance(A, F) → c
AI Drawing Prompt Reference
Draw a square with equal-sized squares cut from each corner and fold the remaining part to form an open box. Use rotation and reflection to show different shapes and volume changes of the box. Include the original square, cut squares, folded box, and multiple geometric shapes formed by rotations and reflections, labeling key points and lines to demonstrate volume calculation and optimization.
The prompt above was compiled from the original drawing commands and is for reference only.