Positive Cartesian Integers V1.1
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This example demonstrates the construction of positive Cartesian integers. Key mathematical concepts include integers, equations, arithmetic, and optimization. Using GeoGebra commands such as Segment, Join, and Flatten, the example provides a visual understanding of these concepts. Suitable for middle school and above students or teachers.
GeoGebra Commands & Parameters
Segment(A, B) → seg_{real025}Segment(C, D) → seg_{real075}Join(Sequence[Sequence[Sequence[If[true, Text["(" + (k) + " + " + (j) + " + " + (i) + ") = " + (k + j + i) + " ", (k + xp, j + yp, i + zp), true, true]], i, sv, ev, inc], j, sv, ev, inc], k, sv, ev, inc]) → L_3bJoin(Sequence[Sequence[Sequence[If[k + j + i ∈ List_{Odd-Ints}, Vector[Origin, (k + xp, j + yp, i + zp)]], i, sv, ev, inc], j, sv, ev, inc], k, sv, ev, inc]) → L_1cJoin(Sequence[Sequence[Sequence[If[k + j + i ∈ List_{Odd-Ints}, Sphere[(k + xp, j + yp, i + zp), abs(ps_{01})]], i, sv, ev, inc], j, sv, ev, inc], k, sv, ev, inc]) → L_1aFlatten(Join[Sequence[Sequence[RemoveUndefined[Sequence[If[k + j + i ∈ List_{Odd-Ints}, k + j + i], i, sv, ev, inc]], j, sv, ev, inc], k, sv, ev, inc]]) → L_1wJoin(Sequence[Sequence[RemoveUndefined[Sequence[If[k + j + i ∈ List_{Odd-Ints} ≠ 0, Text["(" + (k) + " + " + (j) + " + " + (i) + ") = " + (k + j + i) + " ", (ps_{01} + k + xp, ps_{01} + j + yp, ps_{01} + i + zp), true, true]], i, sv, ev, inc]], j, sv, ev, inc], k, sv, ev, inc]) → L_1bJoin(Sequence[Sequence[RemoveUndefined[Sequence[If[k + j + i ∈ List_{Odd-Ints} ≠ 1, Text["(" + (k) + " + " + (j) + " + " + (i) + ") = " + (k + j + i) + " ", (ps_{01} + k + xp, ps_{01} + j + yp, ps_{01} + i + zp), true, true]], i, sv, ev, inc]], j, sv, ev, inc], k, sv, ev, inc]) → L_2bPoint(zAxis) → EJoin(Sequence[Sequence[RemoveUndefined[Sequence[If[k + j + i ≟ 0, Sphere[(k, j, i), abs(ps_{02} - 0.009)]], i, sv, ev, inc]], j, sv, ev, inc], k, sv, ev, inc]) → L_{zeros}Join(Sequence[Sequence[RemoveUndefined[Sequence[If[k + j + i ∈ List_{Even-Ints} ≠ 0, Sphere[(k, j, i), abs(ps_{02} - 0.01)]], i, sv, ev, inc]], j, sv, ev, inc], k, sv, ev, inc]) → L_2a