# Can generalization of a generalization Pascal theorem, Pappus theorem to Higher Dimensions? [closed]

Please see a chain of six circles associated with a conic. This is a generalization of Pascal theorem, Pappus theorem. I reformulate as following:

Let $1, 2, 3, 4, 5, 6$ be six arbitrary points in a hyperbola. Let $1'$ be arbitrary point in the hyperbola. The circle $(121')$ meets the hyperbola at point $2'$. The circle $(232)$ meets the hyperbola again at $3'$, define points $4', 5', 6'$ similarly. Let circle $(121')$ meets the circle $(454')$ at $A, B$, Let circle $(232')$ meets the circle $(565')$ at $C, D$. Let circle $(343')$ meets the circle $(616')$ at $E, F$. Then six points $A, B, C, D, E, F$ lie on a circle.

Special case:

1. If $1'$ at $\infty$, six circles are six lines, so the theorem is Pascal theorem.

2. If the hyperbola is two lines, and $1'$ at $\infty$ then six circles are six lines, the theorem is Pappus theorem

My question: Can generalization the result above to Higher Dimensions?

• I don't know why some ones put on hold ? – Cố Gắng Lên Jun 21 '17 at 15:26
• MathOverflow is simply not the right place to ask questions about elementary Euclidean geometry, unless they are connected with research topics. Please post them on Math.Stackexchange instead. – Gro-Tsen Jun 21 '17 at 18:48
• This is a generalization of one great theorem in Euclidean Geometry. I ask can generalization this? – Cố Gắng Lên Jun 21 '17 at 22:38
• I understand, but this is not a research problem, and elementary Euclidean geometry is not a research topic, so this is not the right place. – Gro-Tsen Jun 22 '17 at 7:40
• @Gro-Tsen Euclidean and axiomatic geometry are research topics. – user40276 Jun 23 '17 at 4:58