Peeling meshed potatoes

Boris Aronov; Marc Van Kreveld; Maarten Löffler; Rodrigo I. Silveira

doi:10.1007/s00453-009-9346-8

Peeling meshed potatoes

Boris Aronov, Marc Van Kreveld, Maarten Löffler, Rodrigo I. Silveira

Research output: Contribution to journal › Article › peer-review

Abstract

We study variants of the potato peeling problem on meshed (triangulated) polygons. Given a polygon with holes, and a triangular mesh that covers its interior (possibly using additional vertices), we want to find a largest-area connected set of triangles of the mesh that is convex, or has some other shape-related property. In particular, we consider (i) convexity, (ii) monotonicity, (iii) bounded backturn, and (iv) bounded total turning angle. The first three problems are solved in polynomial time, whereas the fourth problem is shown to be NP-hard.

Original language	English (US)
Pages (from-to)	349-367
Number of pages	19
Journal	Algorithmica (New York)
Volume	60
Issue number	2
DOIs	https://doi.org/10.1007/s00453-009-9346-8
State	Published - Jun 2011

Keywords

Dynamic programming
Geometric optimization
Potato peeling

ASJC Scopus subject areas

Computer Science(all)
Computer Science Applications
Applied Mathematics

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10.1007/s00453-009-9346-8

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title = "Peeling meshed potatoes",

abstract = "We study variants of the potato peeling problem on meshed (triangulated) polygons. Given a polygon with holes, and a triangular mesh that covers its interior (possibly using additional vertices), we want to find a largest-area connected set of triangles of the mesh that is convex, or has some other shape-related property. In particular, we consider (i) convexity, (ii) monotonicity, (iii) bounded backturn, and (iv) bounded total turning angle. The first three problems are solved in polynomial time, whereas the fourth problem is shown to be NP-hard.",

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AU - Aronov, Boris

AU - Van Kreveld, Marc

AU - Löffler, Maarten

AU - Silveira, Rodrigo I.

PY - 2011/6

Y1 - 2011/6

N2 - We study variants of the potato peeling problem on meshed (triangulated) polygons. Given a polygon with holes, and a triangular mesh that covers its interior (possibly using additional vertices), we want to find a largest-area connected set of triangles of the mesh that is convex, or has some other shape-related property. In particular, we consider (i) convexity, (ii) monotonicity, (iii) bounded backturn, and (iv) bounded total turning angle. The first three problems are solved in polynomial time, whereas the fourth problem is shown to be NP-hard.

AB - We study variants of the potato peeling problem on meshed (triangulated) polygons. Given a polygon with holes, and a triangular mesh that covers its interior (possibly using additional vertices), we want to find a largest-area connected set of triangles of the mesh that is convex, or has some other shape-related property. In particular, we consider (i) convexity, (ii) monotonicity, (iii) bounded backturn, and (iv) bounded total turning angle. The first three problems are solved in polynomial time, whereas the fourth problem is shown to be NP-hard.

KW - Dynamic programming

KW - Geometric optimization

KW - Potato peeling

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ER -

Peeling meshed potatoes

Abstract

Keywords

ASJC Scopus subject areas

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