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20182020
most citedDecomposition of generalized O'Hara's energies

4 citations · 6 across the 4 of their papers we have counts for

collaborators

7 papers

math.AP2020

Asymptotic analysis for non-local curvature flows for plane curves with a general rotation number

Takeyuki Nagasawa, Kohei Nakamura

Several non-local curvature flows for plane curves with a general rotation number are discussed in this work. The types of flows include the area-preserving flow and the length-pre…

math.DG2020

Upper and lower bounds and modulus of continuity of decomposed Möbius energies

Aya Ishizeki, Takeyuki Nagasawa

The Möbius energy is one of the knot energies, and is named after its Möbius invariant property. It is known to have several different expressions. One is in terms of the cosine of…

math.AP2019

Variational formulae and estimates of O'Hara's knot energies

Shoya Kawakami, Takeyuki Nagasawa

O'Hara's energies, introduced by Jun O'Hara, were proposed to answer the question of what is the canonical shape in a given knot type, and were configured so that the less the ener…

math.DG2019

Cosine formula for generalized O'Hara's energies

Takeyuki Nagasawa

In this short article, we extend the cosine formula for the Möbius energy to generalized O'Hara energies. The newly derived formula gives us a condition for which the right circle…

math.DG20192 cited

A Möbius invariant discretization and decomposition of the Möbius energy

Simon Blatt, Aya Ishizeki, Takeyuki Nagasawa

The Möbius energy, defined by O'Hara, is one of the knot energies, and named after the Möbius invariant property which was shown by Freedman-He-Wang. The energy can be decomposed i…

math.DG20194 cited

Decomposition of generalized O'Hara's energies

Aya Ishizeki, Takeyuki Nagasawa

O'Hara introduced several functionals as knot energies. One of them is the Möbius energy. We know its Möbius invariance from Doyle-Schramm's cosine formula. It is also known that t…