X3464

X30-CEVA CONJUGATE OF X1

< 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) { 1, 74 }: Central Line L(1, 74) { 57, 1354 }: Central Line L(57, 1354) { 13, 1652 }: Central Line L(13, 1652) { 14, 1653 }: Central Line L(14, 1653) { 4, 1768 }: Central Line L(4, 1768) { 1054, 1724 }: Central Line L(1054, 1724) A = Vertex A (0.0000, 0.0000) B = Vertex B (1.0000, 0.0000) C = Vertex C (0.6122, 0.5999) X_30 = EULER INFINITY POINT (0.7469, 0.7481) X_1 = INCENTER (0.5714, 0.2333) X_74 = ISOGONAL CONJUGATE OF EULER INFINITY POINT (0.7484, -0.3437) X_57 = ISOGONAL CONJUGATE OF X(9) (0.6138, 0.3110) X_1354 = BRISSE TRANSFORM OF X(74) (0.5512, 0.4657) X_13 = 1st ISOGONIC CENTER (FERMAT POINT, TORRICELLI POINT) (0.5879, 0.2819) X_1652 = 4th EVANS PERSPECTOR (0.5899, 0.2763) X_14 = 2nd ISOGONIC CENTER (0.9134, -0.1143) X_1653 = 5th EVANS PERSPECTOR (0.6584, 0.3759) X_4 = ORTHOCENTER (0.6122, 0.3958) X_1768 = MIMOSA TRANSFORM OF X(521) (1.1429, -0.7582) X_1054 = 6th SHARYGIN POINT (1.4286, -0.2333) X_1724 = MIMOSA TRANSFORM OF X(58) (0.7857, 0.4878) X_3464 = -CEVA CONJUGATE OF X(1) (0.3401, 0.9876) A B C X30 X1 X74 X57 X1354 X13 X1652 X14 X1653 X4 X1768 X1054 X1724 X3464 (a, b, c) = (5, 6, 7) | AB = 1

X3464 (X30-CEVA CONJUGATE OF X1) 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 \(f(a,b,c) = x(- x/u + y/v + z/w)\), where \(u : v : w\) = X30,\(x : y : z\) = X1
Barycentrics: \(af(a,b,c) : bf(b,c,a) : cf(c,a,b)\)
Search Value (6, 9, 13): \(-1.686182544157\)

X3464 lies on the Bevan circle, the Neuberg cubic.

▸ Incident Central Lines7 lines

{1, 74}, {3, 3466}, {4, 1768}, {13, 1652}, {14, 1653}, {57, 1354}, {1054, 1724}

▸ Functional Relations1 relation

Notes

Let A'B'C' be the triangle homothetic to ABC and passing through the excenters (i.e., A'B'C' is the tangential triangle of the excentral triangle.) X3464 = X1354-of-A'B'C'. (Randy Hutson, July 11, 2019)