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June Cagan

dblp:433/0877 · DBLP profile ↗
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2ranked-venue papers
0as first author
2since 2021 · last 2026
—ORCID · none

Domains — the database's venue-derived domains; a paper can count in several

Theory of computation · 2 · 2 since 2021

Expertise — from the expertise taxonomy: the topics of the expert's papers under the CCF categories. A weight counts papers with recency: 1 for a paper about the topic, 0.3 when the topic is its context, halved every five years.

Theoretical computer science
2 papers
Computational geometry · 83% Algorithms and data structures · 17%
Computer graphics and multimedia
2 papers
Visualization and visual analytics · 100%

Topics — the 8 heaviest of 8, each with the papers that count most for it

TopicWeightPapersLastEvidence papers
Visualization and visual analytics › scientific visualization
geometric visualization
1.012026
Visualizing Higher Order Structures, Overlap Regions, and Clustering in the Hilbert Geometry (Media Exposition) · SoCG 2026
Algorithms and data structures
clustering
1.012026
Proximity Alert: Ipelets for Neighborhood Graphs and Clustering (Media Exposition) · SoCG 2026
Computational geometry › triangulation
delaunay triangulation
1.012026
Visualizing Higher Order Structures, Overlap Regions, and Clustering in the Hilbert Geometry (Media Exposition) · SoCG 2026
Computational geometry › voronoi diagram
higher-order voronoi diagrams
1.012026
Visualizing Higher Order Structures, Overlap Regions, and Clustering in the Hilbert Geometry (Media Exposition) · SoCG 2026
Computational geometry › geometric graph › proximity graphs
neighborhood graph
1.012026
Proximity Alert: Ipelets for Neighborhood Graphs and Clustering (Media Exposition) · SoCG 2026
Computational geometry
visualization
1.012026
Proximity Alert: Ipelets for Neighborhood Graphs and Clustering (Media Exposition) · SoCG 2026
Computational geometry
voronoi diagram
1.012026
Visualizing Higher Order Structures, Overlap Regions, and Clustering in the Hilbert Geometry (Media Exposition) · SoCG 2026
Visualization and visual analytics › software visualization › algorithm visualization
geometric algorithm visualization
0.312026
Proximity Alert: Ipelets for Neighborhood Graphs and Clustering (Media Exposition) · SoCG 2026

Methods — techniques the papers use, named apart from their topics

thompson geometry · 2.0hilbert geometry · 2.0funk geometry · 2.0
YearPublicationVenuePosition
2026 Proximity Alert: Ipelets for Neighborhood Graphs and Clustering (Media Exposition)
abstract
Neighborhood graphs and clustering algorithms are fundamental structures in both computational geometry and data analysis. Visualizing them can help build insight into their behavior and properties. The Ipe extensible drawing editor, developed by Otfried Cheong, is a widely used software system for generating figures. One particular aspect of Ipe is the ability to add Ipelets, which extend its functionality. Here we showcase a set of Ipelets designed to help visualize neighborhood graphs and clustering algorithms. These include: ε-neighbor graphs, furthest-neighbor graphs, Gabriel graphs, k-nearest neighbor graphs, k-th-nearest neighbor graphs, k-mutual neighbor graphs, k-th-mutual neighbor graphs, asymmetric k-nearest neighbor graphs, asymmetric k-th-nearest neighbor graphs, relative-neighbor graphs, sphere-of-influence graphs, Urquhart graphs, Yao graphs, and clustering algorithms including complete-linkage, DBSCAN, HDBSCAN, k-means, k-means++, k-medoids, mean shift, and single-linkage. Our Ipelets are all programmed in Lua and are freely available.
Gitan Balogh, June Cagan, Bea Fatima, Auguste H. Gezalyan, Danesh Sivakumar, Arushi Srinivasan, Yixuan Sun, Vahe Zaprosyan, David M. Mount
SoCG2
2026 Visualizing Higher Order Structures, Overlap Regions, and Clustering in the Hilbert Geometry (Media Exposition)
abstract
Higher-order Voronoi diagrams and Delaunay mosaics in polygonal metrics have only recently been studied, yet no tools exist for visualizing them. We introduce a tool that fills this gap, providing dynamic interactive software for visualizing higher-order Voronoi diagrams and Delaunay mosaics along with clustering and tools for exploring overlap and outer regions in the Hilbert polygonal metric. We prove that k-th order Voronoi cells are not always star-shaped and establish complexity bounds for our algorithm, which generates all order Voronoi diagrams at once. Our software unifies and extends previous tools for visualizing the Hilbert, Funk, and Thompson geometries.
Hridhaan Banerjee, Soren Brown, June Cagan, Auguste H. Gezalyan, Megan Hunleth, Veena Kailad, Chaewoon Kyoung, Rowan Shigeno, Yasmine Tajeddin, Andrew Wagger, Kelin Zhu, David M. Mount
SoCG3