X1817

INVERSE MIMOSA TRANSFORM OF X1249

< A B C >: Reference Triangle △ABC [ A B ]: Sideline AB (Base c = 1) [ B C ]: Sideline BC (Side a) [ C A ]: Sideline CA (Side b) { 2, 3 }: Euler Line { 57, 77 }: Central Line L(57, 77) { 100, 306 }: Central Line L(100, 306) { 189, 333 }: Central Line L(189, 333) { 198, 329 }: Central Line L(198, 329) { 196, 347 }: Central Line L(196, 347) A = Vertex A (0.0000, 0.0000) B = Vertex B (1.0000, 0.0000) C = Vertex C (0.6122, 0.5999) X_1903 = ZOSMA TRANSFORM OF X(1249) (0.6093, 0.6932) X_2 = CENTROID (0.5374, 0.2000) X_3 = CIRCUMCENTER (0.5000, 0.1021) X_57 = ISOGONAL CONJUGATE OF X(9) (0.6138, 0.3110) X_77 = ISOGONAL CONJUGATE OF X(33) (0.5270, 0.1305) X_100 = ANTICOMPLEMENT OF FEUERBACH POINT (0.1429, 0.4666) X_306 = ISOTOMIC CONJUGATE OF X(27) (0.3924, 0.0579) X_189 = CYCLOCEVIAN CONJUGATE OF X(8) (0.6131, 0.7055) X_333 = CEVAPOINT OF X(8) AND X(9) (0.4886, 0.1475) X_198 = -CEVA CONJUGATE OF X(6) (0.4741, -0.0381) X_329 = ISOTOMIC CONJUGATE OF X(189) (0.3847, -0.0222) X_196 = -CEVA CONJUGATE OF X(4) (0.5649, -0.1989) X_347 = ISOTOMIC CONJUGATE OF X(280) (0.4531, -0.0404) X_1817 = INVERSE MIMOSA TRANSFORM OF X(1249) (0.4482, -0.0335) A B C X1903 X2 X3 X57 X77 X100 X306 X189 X333 X198 X329 X196 X347 X1817 (a, b, c) = (5, 6, 7) | AB = 1

X1817 (INVERSE MIMOSA TRANSFORM OF X1249) constructed on acute reference triangle \((a, b, c) = (5, 6, 7)\) with unit baseline AB = \(1\).

Constructed Elements

Trilinears: \(f(a,b,c) : f(b,c,a) : f(c,a,b)\), where \(f(a,b,c) = (\cos A)/(y + z)\),\(x : y : z\) = X1249
Barycentrics: \(af(a,b,c) : bf(b,c,a) : cf(c,a,b)\)
Search Value (6, 9, 13): \(69.376468782008\)
▸ Incident Central Lines14 lines

{2, 3}, {40, 1819}, {57, 77}, {58, 937}, {63, 610}, {100, 306}, {110, 972}, {189, 333}, {196, 347}, {198, 329}, {572, 1730}, {662, 1812}, {1172, 1214}, {1396, 1465}

▸ Functional Relations3 relations

Notes

As a point on the Euler line, X1817 has Shinagawa coefficients \((4EF^{2}S^{2} - \$aS_{A}\$(S^{2} - 4F^{2})S^{2} + 3\$bcS_{B}S_{C}\$S^{2} + 4\$abS_{C}\$FS^{2} - 2\$bc(S_{B})^{2}(S_{C})^{2}\$, [S^{2} - 4(E + F)F]ES^{2} + \$bc\$(S^{2} - 4F^{2})S^{2} - 3\$bcS_{B}S_{C}\$S^{2} - 4\$abS_{C}\$FS^{2} + 2\$bc(S_{B})^{2}(S_{C})^{2}\$)\).