General Rotation Field
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This example demonstrates the visualization and calculation of a general rotation field in space. It involves core mathematical concepts like vector fields, derivatives, integrals, and solid geometry. GeoGebra commands and objects such as Derivative, CurveCartesian, Point, Vector, Sequence, Line, Circle, and Simplify are used in its construction. Suitable for high school students and mathematics enthusiasts learning vector calculus and spatial geometry applications.
GeoGebra Commands & Parameters
Derivative(f, x) → DfxDerivative(g, y) → DgyDerivative(h, z) → DhzDerivative(f, y) → DfyDerivative(f, z) → DfzDerivative(g, x) → DgxDerivative(g, z) → DgzDerivative(h, y) → DhyDerivative(h, x) → DhxCurveCartesian(xx(t), yy(t), zz(t), t, a, b) → myCurvePoint(myCurve) → PVector(P, P + fieldAtP) → fieldVectorAtPVector(Q, Q + fieldAtQ) → fieldVectorAtQSequence(Sequence[Sequence[Vector[(i, j, k), (i, j, k) + (multiplier * (f(i, j, k), g(i, j, k), h(i, j, k)))], i, (-sampleSize), sampleSize, sampleStep], j, (-sampleSize), sampleSize, sampleStep], k, (-sampleSize), sampleSize, sampleStep) → myFieldCurveCartesian((a_1 * t), (a_2 * t), (a_3 * t), t, -5, 5) → axisOfRotationPoint(axisOfRotation) → APoint(axisOfRotation) → BLine(B, A) → iCircle(B, r, i) → dPoint(d) → CVector(C, C + fieldAtC) → fieldVectorAtCSimplify(f) → fSimpSimplify(g) → gSimpSimplify(h) → hSimp