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  • This type of the Voronoi diagram is defined, and its basic properties are investigated.[1]
  • To mathematicians, they are known as Voronoi diagrams.[2]
  • Voronoi diagrams are rather natural constructions, and it seems that they, or something like them, have been in use for a long time.[2]
  • The beach line is well suited for constructing the Voronoi diagram.[2]
  • This means that the breakpoints will sweep out the edges of the Voronoi diagram as the sweep line moves down the plane.[2]
  • ’s algorithm for computing the Voronoi diagram or Delaunay triangulation of a set of two-dimensional points.[3]
  • Given a set of distinct points in , Voronoi diagram is the partition of into polyhedral regions ( ).[4]
  • In order to compute the Voronoi diagram, the following construction is very important.[4]
  • These problems can both be solved quickly given the Voronoi diagram.[5]
  • We present an asymptotically optimal algorithm for computing Voronoi diagrams based on convex distance functions.[5]
  • The collection of all Voronoi polygons for every point in the set is called a Voronoi diagram.[6]
  • Our goal here is to use a Voronoi diagram to locate the closest bike rack to points of interest in Oxford, OH.[7]
  • Laguerre Voronoi Diagram as a Model for Generating the Tessellation Patterns on the Sphere.[8]
  • A boundary-partition-based Voronoi diagram of d-dimensional balls: definition, properties, and applications.[8]
  • Revisiting Hyperbolic Voronoi Diagrams in Two and Higher Dimensions from Theoretical, Applied and Generalized Viewpoints.[8]
  • Voronoi diagram based on a non-convex pattern : an application to extract patterns from a cloud of points.[8]
  • Voronoi diagrams, because they are based on how other polygons will be tessellated, can take a long time to computer.[9]
  • For typical use, voronoi diagrams can be created by many GIS packages today.[9]
  • A raster-based method for computing Voronoi diagrams of spatial objects using dynamic distance transformation.[9]
  • A parallel algorithm for constructing Voronoi diagrams based on point-set adaptive grouping: Parallel algorithm for voronoi diagrams.[9]
  • Voronoi diagrams are mainly applied to site selection and the determination of the scope of influence of different objects.[10]
  • Furtherly, we introduce the Voronoi diagram and the weighted Voronoi diagram to simulate and analyze the ecosystem service areas.[10]
  • Compared to traditional Voronoi diagrams, weighted Voronoi diagrams are more suitable for studying ecosystem service coverage.[10]
  • ST_VoronoiPolygons computes a two-dimensional Voronoi diagram from the vertices of the supplied geometry.[11]
  • -1 indicates vertex outside the Voronoi diagram.[12]
  • the number of the Voronoi edges (half-edges) in the Voronoi diagram.[13]
  • Voronoi Cell A Voronoi cell represents a region of the Voronoi diagram bounded by the Voronoi edges.[13]
  • Second, I compute the Voronoi diagram for this collection of approximating points.[14]
  • The remaining Voronoi edges form a good approximation of the generalized Voronoi diagram for the original obstacles in the map.[14]
  • In red is the campus map, and in green is the generalized Voronoi diagram computed for this map (which the applet precomputed).[14]
  • Click the mouse in the drawing region to add new sites to the Voronoi Diagram or Delaunay Triangulation.[15]
  • Voronoi diagrams, or Thiessen polygons, are used to understand patterns over an area of interest.[16]
  • Voronoi diagrams are used in a variety of fields for various purposes.[16]
  • The space requirement of a graph Voronoi diagram is modest, since it needs no more space than does the graph itself.[17]
  • A Voronoi diagram divides a metric space according to the distances between discrete sets of specified objects.[18]
  • To solve this, we chose a method to define the cells as the region nearest to each station using a Voronoi diagram.[19]
  • The Voronoi diagram is constructed by connecting the center circumcircles of the Delaunay triangles.[19]
  • Figure 1 compares conservative remapping using Voronoi diagrams with bilinear interpolation.[19]
  • We first constructed the Voronoi diagram from the site locations’ information, using the Python scipy.spatial.[19]
  • VDRC is dedicated to study the Voronoi diagram of various kinds for both practical and theoretical view points.[20]
  • We are also working on discovering applications of Voronoi diagrams in engineering and science.[20]
  • We are particularly interested in solving the structural molecular biology problems using the Voronoi diagram of three-dimensional spheres.[20]
  • Figure 1 shows an example of a Voronoi Diagram where each object (denoted by a dot) is placed in a separate polygon.[21]
  • In mathematics, a Voronoi diagram is a partition of a plane into regions close to each of a given set of objects.[22]
  • Sometimes the induced combinatorial structure is referred to as the Voronoi diagram.[22]
  • Informal use of Voronoi diagrams can be traced back to Descartes in 1644.[22]
  • In medical diagnosis, models of muscle tissue, based on Voronoi diagrams, can be used to detect neuromuscular diseases.[22]
  • Such a map is called a Voronoi diagram, named after Georgy Voronoi, a mathematician born in Ukraine in 1868.[23]
  • A Voronoi diagram can be used to find the largest empty circle amid a collection of points, giving the ideal location for the new school.[23]
  • He plotted his data on a chart, effectively constructing a Voronoi diagram.[23]
  • A Voronoi diagram is sometimes also known as a Dirichlet tessellation.[24]

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Spacy 패턴 목록

  • [{'LOWER': 'voronoi'}, {'LEMMA': 'diagram'}]
  • [{'LOWER': 'voronoi'}, {'LEMMA': 'diagram'}]
  • [{'LOWER': 'voronoi'}, {'LEMMA': 'polygon'}]
  • [{'LOWER': 'thiessen'}, {'LOWER': 'polygon'}, {'LEMMA': 'method'}]
  • [{'LOWER': 'thiessen'}, {'LEMMA': 'polygon'}]