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该范例展示了如何利用几何作图工具解决优化问题。核心数学概念包括三角形、中线、角平分线、双曲线等。通过使用Midpoint、Line、AngularBisector等GeoGebra命令,可以构造出优化问题的几何模型。适合高中数学教学和学习。
GeoGebra 命令及参数
Midpoint(C, B) → M1Line(A, M1) → mediana1AngularBisector(C, A, B) → bisectrizV1Mirror(mediana1, bisectrizV1) → simediana1OrthogonalLine(A, bisectrizV1) → jAngularBisector(A, C, B) → bisectrizV2Intersect(bisectrizV1, bisectrizV2) → IOrthogonalLine(C, bisectrizV2) → iIntersect(i, j) → I3Intersect(bisectrizV1, i) → I1Polygon(A, C, B) → isleta, v3, v1, v2LineBisector(v2) → mediatriz1LineBisector(v1) → mediatriz2Intersect(mediatriz2, mediatriz1) → OMidpoint(A, B) → M2Line(C, M2) → mediana2Mirror(mediana2, bisectrizV2) → simediana2Intersect(simediana1, simediana2) → LemoineConic(Lemoine, I, I3, I1, O) → h1Focus(h1) → Foco2, Foco1FirstAxisLength(h1) → semiejeHyperbola(Foco1, Foco2, semieje) → hSegment(O, B) → ROrthogonalLine(I, v1) → ortoIIntersect(v1, ortoI) → IbaseSegment(I, Ibase) → rAxes(h1) → eje2, eje1Slope(eje2) → mCenter(h1) → X110OrthogonalLine(G, v3) → g3Intersect(v3, g3) → G3Vector(G, G3) → u3Ray(P, R312) → s312Intersect(v3, s312) → S312Circle(P, d) → circuloPIntersect(circuloP, v3, 1) → P31Intersect(circuloP, v3, 2) → P32Midpoint(P31, P32) → PM3Ray(P, PM3) → sM3Intersect(circuloP, sM3) → PCM3,CircumcircleSector(P31, PCM3, P32) → sector2cEPolygon(P, P31, P32) → tri2c, z2c2, z2c3, z2c1Area(A, C, B) → areaiIntersect(circuloP, v1, 1) → P11If(P11 ≟ P11, true, false) → p11Intersect(circuloP, v1, 2) → P12If(P12 ≟ P12, true, false) → p12Midpoint(P11, P12) → PM1Ray(P, PM1) → sM1Intersect(circuloP, sM1) → PCM1,CircumcircleSector(P11, PCM1, P12) → sector2aEPolygon(P, P11, P12) → tri2a, z2a2, z2a3, z2a1OrthogonalLine(G, v1) → g1Intersect(v1, g1) → G1Vector(G, G1) → u1Ray(P, R112) → s112Intersect(circuloP, s112) → P112, Cir1CircumcircleSector(P11, P112, P12) → sector2aIntersect(v1, s112) → S112If(S112 ≟ S112, sector2a - tri2a, sector2a + tri2a) → area2aIntersect(circuloP, v2, 1) → P22If(P22 ≟ P22, true, false) → p22Intersect(circuloP, v2, 2) → P21If(P21 ≟ P21, true, false) → p21Midpoint(P21, P22) → PM2Ray(P, PM2) → sM2Intersect(circuloP, sM2) → PCM2, Cir2CircumcircleSector(P21, PCM2, P22) → sector2bEPolygon(P, P21, P22) → tri2b, z2b2, z2b3, z2b1OrthogonalLine(G, v2) → g2Intersect(v2, g2) → G2Vector(G, G2) → u2Ray(P, R212) → s212Intersect(circuloP, s212) → P212, Cir3CircumcircleSector(P21, P212, P22) → sector2bIntersect(v2, s212) → S212If(S212 ≟ S212, sector2b - tri2b, sector2b + tri2b) → area2bIf(P32 ≟ P32, true, false) → p32If(P31 ≟ P31, true, false) → p31If(p11 ∧ p12 ∧ p21 ∧ p22 ∧ p31 ∧ p32, true, false) → pos2EIntersect(circuloP, s312) → P312, Cir4CircumcircleSector(P31, P312, P32) → sector2cIf(S312 ≟ S312, sector2c - tri2c, sector2c + tri2c) → area2cIf(pos2E, aread - area2aE - area2bE - area2cE, area2) → area2ESegment(P, A) → dV1Segment(P, C) → dV2Midpoint(A, C) → M3Ray(P, M3) → fuera3Segment(P, B) → dV3If(dV1 ≤ d ∧ dV2 ≤ d ∧ dV3 ≤ d, true, false) → pos5If(pos5, areai, 0) → area5If(area5 < areai, area5, areai) → area5TIntersect(v2, fuera3) → Corte32Intersect(v1, fuera3) → Corte31If(p12 ∧ (¬p11), P12, P11) → P1If(P1 ≟ P1, true, false) → p1If(Distance[P21, P1] > Distance[P22, P1], P22, P21) → P21'Polygon(P, P1, P21') → tri621, ztri621c, ztri621b, ztri621aIf(Distance[P21, P1] > Distance[P22, P1], P21, P22) → P22'If(p22 ∧ (¬p21), P22, P21) → P2Midpoint(P2, P1) → V3bRay(P, V3b) → sV3Intersect(circuloP, sV3, 1) → V3cCircumcircleSector(P2, V3c, P1) → sector1cPolygon(B, P1, P2) → tri1c, z1c2, z1c3, z1c1Polygon(P, P1, P2) → tri01c, z01c2, z01c3, z01c1If(Distance[V3b, B] < dV3 ∧ Distance[A, P] < d, aread - sector1c + tri1c + tri01c, tri1c + sector1c - tri01c) → area1cPolygon(C, A, P2, P1) → cuadri3, zcuadri3a, zcuadri3b, zcuadri3c, zcuadri3dIf(Distance[P11, P2] > Distance[P12, P2], P12, P11) → P11'Polygon(P, P2, P11') → tri611, ztri611b, ztri611a, ztri611cIf(Distance[P11, P2] > Distance[P12, P2], P11, P12) → P12'If(P2 ≟ P2, true, false) → p2If(Distance[P31, P2] > Distance[P32, P2], P32, P31) → P31'Polygon(P, P2, P31') → tri632, ztri632a, ztri632c, ztri632bIf(Distance[P31, P2] > Distance[P32, P2], P31, P32) → P32'Polygon(B, P1, P32', P31', P2) → penta3, zpenta3e, zpenta3d, zpenta3c, zpenta3b, zpenta3aPolygon(P, P1, P32') → tri631, ztri631b, ztri631c, ztri631aIf(p31 ∧ p32 ∧ p1 ∧ p2 ∧ ((¬p11) ∨ (¬p12)) ∧ ((¬p21) ∨ (¬p22)), true, false) → pos6cIf(p11 ∧ p12 ∧ p21 ∧ p22 ∨ p11 ∧ p12 ∧ p31 ∧ p32 ∨ p21 ∧ p22 ∧ p31 ∧ p32, true, false) → pos2If(p32 ∧ (¬p31), P32, P31) → P3Polygon(C, P1, P21', P22', P3) → penta2, zpenta2c, zpenta2b, zpenta2a, zpenta2e, zpenta2dPolygon(P, P3, P22') → tri622, ztri622c, ztri622a, ztri622bMidpoint(P1, P3) → V2bRay(P, V2b) → sV2Intersect(circuloP, sV2, 1) → V2cCircumcircleSector(P1, V2c, P3) → sector1bPolygon(C, P1, P3) → tri1b, z1b2, z1b3, z1b1Polygon(P, P1, P3) → tri01b, z01b2, z01b3, z01b1If(Distance[V2b, C] < dV2 ∧ Distance[A, P] < d, aread - sector1b + tri1b + tri01b, tri1b + sector1b - tri01b) → area1bPolygon(A, B, P1, P3) → cuadri2, zcuadri2a, zcuadri2b, zcuadri2c, zcuadri2dPolygon(A, P2, P11', P12', P3) → penta1, zpenta1a, zpenta1b, zpenta1c, zpenta1d, zpenta1ePolygon(P, P3, P12') → tri612, ztri612c, ztri612b, ztri612aMidpoint(P2, P3) → V1bRay(P, V1b) → sV1Intersect(circuloP, sV1, 1) → V1cCircumcircleSector(P2, V1c, P3) → sector1aPolygon(P, P2, P3) → tri01a, z01a2, z01a3, z01a1Polygon(A, P2, P3) → tri1a, z1a2, tri1a3, z1a1If(Distance[V1b, A] < dV1 ∧ Distance[B, P] < d, aread - sector1a + tri1a + tri01a, tri1a + sector1a - tri01a) → area1aIf(area1a ≟ area1a, area1a, If[area1b ≟ area1b, area1b, area1c]) → area1If(area1 < areai, area1, areai) → area1TPolygon(C, B, P2, P3) → cuadri1, zcuadri1a, zcuadri1b, zcuadri1c, zcuadri1dIf(area4 < areai, area4, areai) → area4TIf(P3 ≟ P3, true, false) → p3If(p21 ∧ p22 ∧ p1 ∧ p3 ∧ ((¬p11) ∨ (¬p12)) ∧ ((¬p31) ∨ (¬p32)), true, false) → pos6bIf((¬p3) ∧ p1 ∧ ((¬p11) ∨ (¬p12)) ∧ p2 ∧ ((¬p21) ∨ (¬p22)), true, false) → pos1cIf((¬p2) ∧ p1 ∧ ((¬p11) ∨ (¬p12)) ∧ p3 ∧ ((¬p31) ∨ (¬p32)), true, false) → pos1bIf((¬p1) ∧ p2 ∧ ((¬p21) ∨ (¬p22)) ∧ p3 ∧ ((¬p31) ∨ (¬p32)), true, false) → pos1aIf(pos1a ∨ pos1b ∨ pos1c, true, false) → pos1If(pos1 ∧ dV2 ≤ d ∧ dV3 ≤ d, true, false) → pos4cIf(pos1 ∧ dV1 ≤ d ∧ dV3 ≤ d, true, false) → pos4bIf(pos1 ∧ dV1 ≤ d ∧ dV2 ≤ d, true, false) → pos4aIf(pos4a ∨ pos4b ∨ pos4c, true, false) → pos4If(p1 ∧ (¬p2) ∧ (¬p3) ∨ (¬p1) ∧ p2 ∧ (¬p3) ∨ (¬p1) ∧ (¬p2) ∧ p3, true, false) → pos3If(p11 ∧ p12 ∧ p2 ∧ p3 ∧ ((¬p21) ∨ (¬p22)) ∧ ((¬p31) ∨ (¬p32)), true, false) → pos6aIf(pos6a ∨ pos6b ∨ pos6c, true, false) → pos6CircumcircleSector(P2, P312, P1) → sector6cIf(pos6c, penta3 + sector6c - sector2c - tri631 - tri632, 0) → area6cCircumcircleSector(P1, P212, P3) → sector6bIf(pos6b, penta2 + sector6b - sector2b - tri621 - tri622, 0) → area6bCircumcircleSector(P2, P112, P3) → sector6aIf(pos6a, penta1 + sector6a - sector2a - tri611 - tri612, 0) → area6aIf(area2E < areai, area2E, areai) → area2TIf(area6 < areai, area6, areai) → area6TRay(P, M2) → fuera2Intersect(v1, fuera2) → Corte21Intersect(v3, fuera2) → Corte23Ray(P, M1) → fuera1Intersect(v3, fuera1) → Corte13Intersect(v2, fuera1) → Corte12Line(B, Lemoine) → simediana3Angle(B, A, C) → αAngle(A, C, B) → βAngle(C, B, A) → γIf(δ ≟ α, M1, If[δ ≟ β, M2, M3]) → MLine(M, Lemoine) → eIf(sector2c > aread / 2, sector2c + tri2c, sector2c) → sector2CIf(areaT > 0 ∨ Corte12 ≟ Corte12 ∨ Corte13 ≟ Corte13 ∨ Corte21 ≟ Corte21 ∨ Corte23 ≟ Corte23 ∨ Corte31 ≟ Corte31 ∨ Corte32 ≟ Corte32, areaT, aread) → areaAngle(isleta) → ε, ζ, ηLine(B, M3) → mediana3Intersect(bisectrizV2, j) → I2Circle(O, R) → circunscritaLine(G, O) → eulerMirror(euler, v2) → euler2Mirror(euler, v1) → euler1Intersect(h1, e, 2) → HIntersect(h1, euler, 1) → JSegment(J, I) → aIntersect(euler, euler1) → EESegment(O, B) → bCircle(I, Ibase) → fLine(O, I) → cCircle(O, P59, I) → g
AI 绘图提示语参考
请绘制一个由三角形、椭圆和圆组成的几何图形。图形中包含一个三角形,其重心、角平分线和垂线被标记。三角形与椭圆通过交点相连,椭圆的焦点和轴被标出。圆与椭圆相交,形成一个扇形区域。整个图形展示了三角形与椭圆之间的优化关系,适合数学教育使用。
以上提示语为根据原始绘图命令整理而来,仅供参考。