Volumes of Cubes and Prisms
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This example demonstrates the calculation of volumes for cubes and prisms. It involves core mathematical concepts like volume formulas, matrix operations, and rational numbers. GeoGebra commands and objects used in the construction include Dilate, Polygon, Vector, Sequence, and Translate. Suitable for high school students and math enthusiasts studying solid geometry and spatial calculations.
GeoGebra Commands & Parameters
Dilate(E, a, A) → E'_1Dilate(F, a, D) → F'_1Dilate(G, a, C) → G'_1Dilate(A, b, D) → A'_1Dilate(E'_1, b, F'_1) → E''_1Dilate(B, b, C) → B'_1Dilate(F'_1, c, G'_1) → F''_1Dilate(D, a, B) → D'_1Dilate(E'_1, c, D'_1) → E''Dilate(E'', b, F''_1) → E'''Dilate(A'_1, c, B'_1) → A''_1Dilate(D, c, C) → D'_2Polygon(C, G'_1, F''_1, D'_2) → poly1, c_2, g', f'', d'Polygon(C, D'_2, A''_1, B'_1) → poly2, c_1, d'_1, a'', b'Polygon(A''_1, D'_2, F''_1, E''') → poly3, a''_1, d'_2, f''_1, e'''Polygon(B, A, D, C) → poly4, b_1, a_1, d_3, c_3Polygon(C, D, F, G) → poly5, c_4, d_1, f_2, g_1Polygon(D, F, E, A) → poly6, d_2, f_1, e_1, a_2Vector(C, D) → uSequence(Segment[Translate[C, Vector[(j * u)]], Translate[G'_1, Vector[(j * u)]]], j, 1, c - 1) → list1Sequence(Segment[Translate[B'_1, Vector[(j * u)]], Translate[C, Vector[(j * u)]]], j, 1, c - 1) → list2Vector(C, G) → vVector(C, B) → wSequence(Segment[Translate[C, Vector[(j * v)]], Translate[D'_2, Vector[(j * v)]]], j, 1, a - 1) → list3Sequence(Segment[Translate[C, Vector[(j * w)]], Translate[D'_2, Vector[(j * w)]]], j, 1, b - 1) → list4Sequence(Segment[Translate[F''_1, Vector[(j * w)]], Translate[D'_2, Vector[(j * w)]]], j, 1, b - 1) → list5Sequence(Segment[Translate[D'_2, Vector[(j * v)]], Translate[A''_1, Vector[(j * v)]]], j, 1, a - 1) → list6Dilate(G, (a * d), C) → G'Dilate(F, (a * d), D) → F'Dilate(F', (c * f), G') → F''Dilate(D, (c * f), C) → D'Dilate(B, (b * e), C) → B'Dilate(A, (b * e), D) → A'Dilate(A', (c * f), B') → A''Vector(D', F'') → zTranslate(A'', z) → A'''Polygon(D', C, G', F'') → poly7, d'_3, c_5, g'_1, f_4Polygon(D', C, B', A'') → poly8, d_6, c_6, b'_1, a_4Polygon(A'', D', F'', A''') → poly9, a''_3, d'_5, f''_3, a'''Sequence(Segment[Translate[C, Vector[((j * c) * u)]], Translate[G', Vector[((j * c) * u)]]], j, 1, f) → list7Sequence(Segment[Translate[C, Vector[((j * c) * u)]], Translate[B', Vector[((j * c) * u)]]], j, 1, f) → list8Sequence(Segment[Translate[D', Vector[((j * a) * v)]], Translate[C, Vector[((j * a) * v)]]], j, 1, d) → list9Sequence(Segment[Translate[D', Vector[((j * b) * w)]], Translate[C, Vector[((j * b) * w)]]], j, 1, e) → list10Sequence(Segment[Translate[A'', Vector[((j * a) * v)]], Translate[D', Vector[((j * a) * v)]]], j, 1, d) → list11Sequence(Segment[Translate[F'', Vector[((j * b) * w)]], Translate[D', Vector[((j * b) * w)]]], j, 1, e) → list12
AI Drawing Prompt Reference
Draw a three-dimensional prismatic solid composed of multiple rectangular faces, illustrating volume subdivision. The figure includes a base cuboid with three adjacent faces extended into slanted prisms, each formed by two parallelogram sides and a rectangular top. All prisms share a common vertex and are scaled proportionally along three directions. Draw grid lines parallel to the edges inside and on the surfaces to show equal volume partitions. Present the whole as a semi-transparent wireframe to emphasize spatial geometric relationships.
The prompt above was compiled from the original drawing commands and is for reference only.