hyperosculating conic - definição. O que é hyperosculating conic. Significado, conceito
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O que (quem) é hyperosculating conic - definição

Athene curvature; Athenian curvature; Special affine curvature; Equi-affine curvature; Equiaffine curvature; Affine arclength; Special affine arclength; Equi-affine arclength; Hyperosculating conic; Affine arc-length

CONIC         
  • The [[paraboloid]] shape of [[Archeocyathid]]s produces conic sections on rock faces
  • Standard forms of a hyperbola
  • Standard forms of a parabola
  • Standard forms of an ellipse
  • Diagram from Apollonius' ''Conics'', in a 9th-century Arabic translation
  • Development of the conic section as the eccentricity ''e'' increases
  • L}} (''e'' = ∞). The red circle (''e'' = 0) is included for reference; it does not have a directrix in the plane.
  • Parallelogram method for constructing an ellipse
  • Conic parameters in the case of an ellipse
  • Definition of the Steiner generation of a conic section
  • Cyclopaedia]]'', 1728
  • 4: [[Hyperbola]]}}
CURVE OBTAINED BY INTERSECTING A CONE AND A PLANE
Conic sections; Conic; Conics; Latus rectum; Conic Sections; Quadratic curve; Conic Sections in Polar Coordinates; Semilatus rectum; Semilatus Rectum; Semi-latus rectum; Conics intersection; Focal parameter; Focal Parameter; Conic Section; Latus Rectum; Dual conic; Directrix (conic section); Directrix of a conic section; Quadratic plane curve; Conic equation; Conic parameter
["Dynamic Configuration for Distributed Systems", J. Kramer et al, IEEE Trans Soft Eng SE-11(4):424-436 (Apr 1985)].
conic section         
  • The [[paraboloid]] shape of [[Archeocyathid]]s produces conic sections on rock faces
  • Standard forms of a hyperbola
  • Standard forms of a parabola
  • Standard forms of an ellipse
  • Diagram from Apollonius' ''Conics'', in a 9th-century Arabic translation
  • Development of the conic section as the eccentricity ''e'' increases
  • L}} (''e'' = ∞). The red circle (''e'' = 0) is included for reference; it does not have a directrix in the plane.
  • Parallelogram method for constructing an ellipse
  • Conic parameters in the case of an ellipse
  • Definition of the Steiner generation of a conic section
  • Cyclopaedia]]'', 1728
  • 4: [[Hyperbola]]}}
CURVE OBTAINED BY INTERSECTING A CONE AND A PLANE
Conic sections; Conic; Conics; Latus rectum; Conic Sections; Quadratic curve; Conic Sections in Polar Coordinates; Semilatus rectum; Semilatus Rectum; Semi-latus rectum; Conics intersection; Focal parameter; Focal Parameter; Conic Section; Latus Rectum; Dual conic; Directrix (conic section); Directrix of a conic section; Quadratic plane curve; Conic equation; Conic parameter
¦ noun the figure of a circle, ellipse, parabola, or hyperbola formed by the intersection of a plane and a circular cone.
Conic optimization         
SUBFIELD OF CONVEX OPTIMIZATION
Conic programming
Conic optimization is a subfield of convex optimization that studies problems consisting of minimizing a convex function over the intersection of an affine subspace and a convex cone.

Wikipédia

Affine curvature

Special affine curvature, also known as the equiaffine curvature or affine curvature, is a particular type of curvature that is defined on a plane curve that remains unchanged under a special affine transformation (an affine transformation that preserves area). The curves of constant equiaffine curvature k are precisely all non-singular plane conics. Those with k > 0 are ellipses, those with k = 0 are parabolae, and those with k < 0 are hyperbolae.

The usual Euclidean curvature of a curve at a point is the curvature of its osculating circle, the unique circle making second order contact (having three point contact) with the curve at the point. In the same way, the special affine curvature of a curve at a point P is the special affine curvature of its hyperosculating conic, which is the unique conic making fourth order contact (having five point contact) with the curve at P. In other words it is the limiting position of the (unique) conic through P and four points P1, P2, P3, P4 on the curve, as each of the points approaches P:

P 1 , P 2 , P 3 , P 4 P . {\displaystyle P_{1},P_{2},P_{3},P_{4}\to P.}

In some contexts, the affine curvature refers to a differential invariant κ of the general affine group, which may readily obtained from the special affine curvature k by κ = k3/2dk/ds, where s is the special affine arc length. Where the general affine group is not used, the special affine curvature k is sometimes also called the affine curvature.