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Name of article, while this is on the front page
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LSpice
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Every finite geometry (projective planes, generalized polygons, polar spaces, near polygons, etc.) and every block design (Witt design, difference sets, Steiner triple systems, etc.) is a hypergraph. So, all the applications of those objects can be considered as applications of hypergraphs.

For example, this paper discusses the application of finite projective planes in coding theory and cryptography: https://www.math.uniri.hr/NATOStorme -ASI/abstracts/storme.pdf Applications of finite geometry in coding theory and cryptography. Inside mathematics, there are many other applications of these hypergraphs in group theory, extremal combinatorics and graph theory.

Every finite geometry (projective planes, generalized polygons, polar spaces, near polygons, etc.) and every block design (Witt design, difference sets, Steiner triple systems, etc.) is a hypergraph. So, all the applications of those objects can be considered as applications of hypergraphs.

For example, this paper discusses the application of finite projective planes in coding theory and cryptography: https://www.math.uniri.hr/NATO-ASI/abstracts/storme.pdf. Inside mathematics, there are many other applications of these hypergraphs in group theory, extremal combinatorics and graph theory.

Every finite geometry (projective planes, generalized polygons, polar spaces, near polygons, etc.) and every block design (Witt design, difference sets, Steiner triple systems, etc.) is a hypergraph. So, all the applications of those objects can be considered as applications of hypergraphs.

For example, this paper discusses the application of finite projective planes in coding theory and cryptography: Storme - Applications of finite geometry in coding theory and cryptography. Inside mathematics, there are many other applications of these hypergraphs in group theory, extremal combinatorics and graph theory.

http -> https (the question was bumped anyway)
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Martin Sleziak
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Every finite geometry (projective planes, generalized polygons, polar spaces, near polygons, etc.) and every block design (Witt design, difference sets, Steiner triple systems, etc.) is a hypergraph. So, all the applications of those objects can be considered as applications of hypergraphs.

For example, this paper discusses the application of finite projective planes in coding theory and cryptography: http://www.math.uniri.hr/NATO-ASI/abstracts/storme.pdfhttps://www.math.uniri.hr/NATO-ASI/abstracts/storme.pdf. Inside mathematics, there are many other applications of these hypergraphs in group theory, extremal combinatorics and graph theory.

Every finite geometry (projective planes, generalized polygons, polar spaces, near polygons, etc.) and every block design (Witt design, difference sets, Steiner triple systems, etc.) is a hypergraph. So, all the applications of those objects can be considered as applications of hypergraphs.

For example, this paper discusses the application of finite projective planes in coding theory and cryptography: http://www.math.uniri.hr/NATO-ASI/abstracts/storme.pdf. Inside mathematics, there are many other applications of these hypergraphs in group theory, extremal combinatorics and graph theory.

Every finite geometry (projective planes, generalized polygons, polar spaces, near polygons, etc.) and every block design (Witt design, difference sets, Steiner triple systems, etc.) is a hypergraph. So, all the applications of those objects can be considered as applications of hypergraphs.

For example, this paper discusses the application of finite projective planes in coding theory and cryptography: https://www.math.uniri.hr/NATO-ASI/abstracts/storme.pdf. Inside mathematics, there are many other applications of these hypergraphs in group theory, extremal combinatorics and graph theory.

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Anurag
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Every finite geometry (projective planes, generalized polygons, polar spaces, near polygons, etc.) and every block design (Witt design, difference sets, Steiner triple systems, etc.) is a hypergraph. So, all the applications of those objects can be considered as applications of hypergraphs.

For example, this paper discusses the application of finite projective planes in coding theory and cryptography: http://www.math.uniri.hr/NATO-ASI/abstracts/storme.pdf. Inside mathematics, there are many other applications of these hypergraphs in group theory, extremal combinatorics and graph theory.

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