Cube Layer Problem
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SPATIAL VISUALISATION TASKS
This example demonstrates the layering of a cube. Key mathematical concepts include solid geometry and geometric construction. Using GeoGebra commands such as Line, Polygon, Cube, and Intersect, the example constructs the various faces and edges of the cube. Suitable for high school or university-level solid geometry studies.
GeoGebra Commands & Parameters
Line(A, zAxis) → fPolygon(B, C, 4) → mnohouholník1, g, h, i, j, D, EPoint(Circle[E, Distance[D, E], Segment[D, E]]) → FCube(D, E, F) → a, G, stenaFGKJ, stenaHIJK, hranaDG, hranaDE, hranaEF, hranaFG, hranaDH, hranaGK, hranaHK, hranaHI, H, hranaEI, hranaIJ, hranaFJ, hranaJK, I, J, K, stenaDEFG, stenaDGKH, stenaDEIH, stenaEFJILine(A, xAxis) → kCircle(A, r, k) → cCircle(A, r) → dIntersect(d, k, 2) → LVector(A, L) → uIntersect(f, c, 1) → MVector(A, M) → vIntersect(d, c, 2) → NVector(A, N) → wIntersect(d, k, 2) → OVector(A, O) → bIntersect(d, c, 2) → PVector(A, P) → eRotate(L, 45°, A) → L'Vector(A, L') → mTranslate(a, v) → a'Translate(a, Vector[(2 * v)]) → a'_1Translate(a, w) → a'_4Translate(a, Vector[(2 * w)]) → a'_5Angle(P, A, M) → αIntersect(f, c) → Q, RCircle(Q, L', R) → pTranslate(a, Vector[e + v]) → a'_8Translate(a, Vector[(2 * e) + v]) → a'_9Translate(a, Vector[e + (2 * v)]) → a'_{12}Translate(a, Vector[(2 * e) + (2 * v)]) → a'_{13}Intersect(d, c, 1) → SVector(A, S) → lVector(A, R) → nIntersect(d, k, 1) → TVector(A, T) → qTranslate(a, Vector[(-v)]) → a'_2Translate(a, Vector[(-2 * v)]) → a'_3Translate(a, Vector[b - v]) → a'_{16}Translate(a, Vector[e - v]) → a'_{17}Translate(a, Vector[(2 * e) - v]) → a'_{18}Translate(a, Vector[e - (2 * v)]) → a'_6Translate(a, Vector[(2 * e) - (2 * v)]) → a'_7Translate(a, l) → a'_{10}Translate(a, Vector[(2 * l)]) → a'_{11}Translate(a, b) → a'_{14}Translate(a, Vector[(2 * b)]) → a'_{15}Translate(a, Vector[e + b]) → a'_{19}Translate(a, Vector[e + (2 * b)]) → a'_{20}Translate(a, Vector[(2 * e) + b]) → a'_{21}Translate(a, Vector[(2 * e) + (2 * b)]) → a'_{22}Translate(a, Vector[l + (2 * b)]) → a'_{24}Translate(a, Vector[(2 * l) + b]) → a'_{25}Translate(a, Vector[(2 * l) + (2 * b)]) → a'_{26}Translate(a, Vector[l + b]) → a'_{27}Translate(a, Vector[(2 * v) + b]) → a'_{30}Translate(a, Vector[(2 * v) + (2 * b)]) → a'_{31}Translate(a, Vector[v + l]) → a'_{32}Translate(a, Vector[v + b + l]) → a'_{33}Translate(a, Vector[v + (2 * b) + l]) → a'_{34}Translate(a, Vector[v + (2 * l)]) → a'_{35}Translate(a, Vector[v + (2 * l) + b]) → a'_{36}Translate(a, Vector[v + (2 * l) + (2 * b)]) → a'_{38}Translate(a, Vector[(2 * v) + l]) → a'_{39}Translate(a, Vector[(2 * v) + (2 * l)]) → a'_{40}Translate(a, Vector[(2 * v) + l + b]) → a'_{41}Translate(a, Vector[(2 * v) + (2 * l) + b]) → a'_{42}Translate(a, Vector[(2 * v) + (2 * l) + (2 * b)]) → a'_{43}Translate(a, Vector[(2 * v) + l + (2 * b)]) → a'_{44}Translate(a, Vector[b + v]) → a'_{45}Translate(a, Vector[(2 * b) + v]) → a'_{46}Translate(a, Vector[b + e + v]) → a'_{47}Translate(a, Vector[(2 * b) + e + v]) → a'_{48}Translate(a, Vector[b + (2 * e) + v]) → a'_{49}Translate(a, Vector[(2 * b) + (2 * e) + v]) → a'_{50}Translate(a, Vector[b + e + (2 * v)]) → a'_{51}Translate(a, Vector[(2 * b) + e + (2 * v)]) → a'_{52}Translate(a, Vector[(2 * b) + (2 * e) + (2 * v)]) → a'_{53}Translate(a, Vector[(2 * v) + (2 * e) + b]) → a'_{54}Translate(a, Vector[(-v) + (2 * b)]) → a'_{55}Translate(a, Vector[(-v) + e + b]) → a'_{56}Translate(a, Vector[(-v) + e + (2 * b)]) → a'_{57}Translate(a, Vector[(-v) + (2 * e) + b]) → a'_{58}Translate(a, Vector[(-v) + (2 * e) + (2 * b)]) → a'_{59}Translate(a, Vector[(-2 * v) + e + b]) → a'_{60}Translate(a, Vector[(-2 * v) + (2 * e) + b]) → a'_{61}Translate(a, Vector[(-2 * v) + (2 * e) + (2 * b)]) → a'_{62}Translate(a, Vector[(-2 * v) + e + (2 * b)]) → a'_{63}Translate(a, Vector[(-2 * v) + b]) → a'_{64}Translate(a, Vector[(-2 * v) + (2 * b)]) → a'_{65}Translate(a, Vector[(-2 * v) + (-2 * b)]) → a'_{66}Translate(a, Vector[(-2 * v) + (-b)]) → a'_{67}Translate(a, Vector[(-v) + q]) → a'_{68}Translate(a, Vector[(-v) + (2 * q)]) → a'_{69}Translate(a, Vector[(-v) + q + e]) → a'_{70}Translate(a, Vector[(-v) + q + (2 * e)]) → a'_{71}Translate(a, Vector[(-v) + (2 * q) + e]) → a'_{72}Translate(a, Vector[(-v) + (2 * q) + (2 * e)]) → a'_{73}Translate(a, Vector[(-2 * v) + q + e]) → a'_{74}Translate(a, Vector[(-2 * v) + (2 * q) + e]) → a'_{75}Translate(a, Vector[(-2 * v) + q + (2 * e)]) → a'_{76}Translate(a, Vector[(-2 * v) + (2 * q) + (2 * e)]) → a'_{77}Translate(a, Vector[(-2 * v) + q + e]) → a'_{78}Translate(a, Vector[q + (2 * e)]) → a'_{79}Translate(a, Vector[q + e]) → a'_{80}Translate(a, q) → a'_{81}Translate(a, Vector[(2 * q) + (2 * e)]) → a'_{82}Translate(a, Vector[(2 * q) + e]) → a'_{83}Translate(a, Vector[(2 * q)]) → a'_{84}Translate(a, Vector[v + (2 * e) + q]) → a'_{85}Translate(a, Vector[v + (2 * e) + (2 * q)]) → a'_{86}Translate(a, Vector[v + e + q]) → a'_{87}Translate(a, Vector[v + e + (2 * q)]) → a'_{88}Translate(a, Vector[v + q]) → a'_{89}Translate(a, Vector[v + (2 * q)]) → a'_{90}Translate(a, Vector[(2 * v) + q + (2 * e)]) → a'_{91}Translate(a, Vector[(2 * v) + (2 * q) + (2 * e)]) → a'_{92}Translate(a, Vector[(2 * v) + q + e]) → a'_{93}Translate(a, Vector[(2 * v) + (2 * q) + e]) → a'_{94}Translate(a, Vector[(2 * v) + q]) → a'_{95}Translate(a, Vector[(-v) + b + l]) → a'_{96}Translate(a, Vector[(-v) + b + (2 * l)]) → a'_{97}Translate(a, Vector[(-v) + (2 * b) + l]) → a'_{98}Translate(a, Vector[(-v) + (2 * b) + (2 * l)]) → a'_{99}Translate(a, Vector[(-2 * v) + b + l]) → a'_{100}Translate(a, Vector[(-2 * v) + (2 * b) + l]) → a'_{101}Translate(a, Vector[(-2 * v) + (2 * b) + (2 * l)]) → a'_{102}Translate(a, Vector[(-2 * v) + b + (2 * l)]) → a'_{103}Translate(a, Vector[(-2 * v) + (2 * l)]) → a'_{104}Translate(a, Vector[(-2 * v) + l]) → a'_{105}Translate(a, Vector[(-2 * v) - (2 * b) + l]) → a'_{106}Translate(a, Vector[(-2 * v) - b + l]) → a'_{107}Translate(a, Vector[(-2 * v) - b + (2 * l)]) → a'_{108}Translate(a, Vector[(-2 * v) - (2 * b) + (2 * l)]) → a'_{109}Translate(a, Vector[(-v) - (2 * b) + l]) → a'_{110}Translate(a, Vector[(-v) - b + l]) → a'_{111}Translate(a, Vector[(2 * v) + (2 * q)]) → a'_{112}Translate(a, Vector[(-v) + l]) → a'_{113}Translate(a, Vector[(-v) + (2 * l)]) → a'_{114}Translate(a, Vector[(-v) + (2 * l) + q]) → a'_{115}Translate(a, Vector[(-v) + (2 * l) + (2 * q)]) → a'_{116}Translate(a, Vector[l + q]) → a'_{117}Translate(a, Vector[(2 * l) + q]) → a'_{118}Translate(a, Vector[l + (2 * q)]) → a'_{119}Translate(a, Vector[(2 * l) + (2 * q)]) → a'_{120}Translate(a, Vector[v + l + q]) → a'_{121}Translate(a, Vector[v + (2 * l) + q]) → a'_{122}Translate(a, Vector[v + l + (2 * q)]) → a'_{123}Translate(a, Vector[v + (2 * l) + (2 * q)]) → a'_{124}Translate(a, Vector[(2 * v) + (2 * l) + q]) → a'_{126}Translate(a, Vector[(2 * v) + l + q]) → a'_{127}Translate(a, Vector[(2 * v) + l + (2 * q)]) → a'_{128}Translate(a, Vector[(2 * v) + (2 * l) + (2 * q)]) → a'_{129}
AI Drawing Prompt Reference
Draw a cube, first draw a line f through point A and the z-axis, then draw a quadrilateral mnohouholník1 with points B and C, construct point F, and draw a cube a with points D, E, and F. Then draw a line k through point A and the x-axis, construct circles c and d, find points L, M, N, O, P, construct vectors u, v, w, b, e, and m, rotate point L to get L', and translate cube a to get a', a'_1, a'_4, a'_5. Construct angle α, find points Q, R, S, T, construct circle p, translate cube a to get a'_8, a'_9, a'_{12}, a'_{13}, construct vectors l, n, q, and translate cube a to get a'_2, a'_3, a'_{16}, a'_{17}, a'_{18}, a'_6, a'_7, a'_{10}, a'_{11}, a'_{14}, a'_{15}, a'_{19}, a'_{20}.
The prompt above was compiled from the original drawing commands and is for reference only.