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Area and volume in non-Euclidean geometry. / Abrosimov, Nikolay; Mednykh, Alexander.

EIGHTEEN ESSAYS IN NON-EUCLIDEAN GEOMETRY. ed. / Alberge; A Papadopoulos. EUROPEAN MATHEMATICAL SOC, 2019. p. 151-189 (IRMA Lectures in Mathematics and Theoretical Physics; Vol. 29).

Research output: Chapter in Book/Report/Conference proceedingChapterResearchpeer-review

Harvard

Abrosimov, N & Mednykh, A 2019, Area and volume in non-Euclidean geometry. in Alberge & A Papadopoulos (eds), EIGHTEEN ESSAYS IN NON-EUCLIDEAN GEOMETRY. IRMA Lectures in Mathematics and Theoretical Physics, vol. 29, EUROPEAN MATHEMATICAL SOC, pp. 151-189. https://doi.org/10.4171/196-1/11

APA

Abrosimov, N., & Mednykh, A. (2019). Area and volume in non-Euclidean geometry. In Alberge, & A. Papadopoulos (Eds.), EIGHTEEN ESSAYS IN NON-EUCLIDEAN GEOMETRY (pp. 151-189). (IRMA Lectures in Mathematics and Theoretical Physics; Vol. 29). EUROPEAN MATHEMATICAL SOC. https://doi.org/10.4171/196-1/11

Vancouver

Abrosimov N, Mednykh A. Area and volume in non-Euclidean geometry. In Alberge, Papadopoulos A, editors, EIGHTEEN ESSAYS IN NON-EUCLIDEAN GEOMETRY. EUROPEAN MATHEMATICAL SOC. 2019. p. 151-189. (IRMA Lectures in Mathematics and Theoretical Physics). doi: 10.4171/196-1/11

Author

Abrosimov, Nikolay ; Mednykh, Alexander. / Area and volume in non-Euclidean geometry. EIGHTEEN ESSAYS IN NON-EUCLIDEAN GEOMETRY. editor / Alberge ; A Papadopoulos. EUROPEAN MATHEMATICAL SOC, 2019. pp. 151-189 (IRMA Lectures in Mathematics and Theoretical Physics).

BibTeX

@inbook{910d7746dea74190ae9fdadef900efbc,
title = "Area and volume in non-Euclidean geometry",
abstract = "We give an overview old and recent results on areas and volumes in hyperbolicand spherical geometries. First, we observe the known results about Heron{\textquoteright}s and Ptolemy{\textquoteright}s theorems. Then we present non-Euclidean analogues of the Brahmagupta{\textquoteright}s theorem for a cyclic quadrilateral. We produce also hyperbolic and spherical versions of the Bretschneider{\textquoteright}s formula for the area of a quadrilateral. We give hyperbolic and spherical analogues of the Casey{\textquoteright}s theorem which is a generalization of the Ptolemy{\textquoteright}s equation. We give a short historical review of volume calculations for non-Euclidean polyhedra. Then we concentrateon recent results concerning Seidel{\textquoteright}s problem on the volume of an ideal tetrahedron, Sforza{\textquoteright}s formula for a compact tetrahedron in H3 or S3 and volumes of non-Euclidean octahedra with symmetries",
keywords = "CYCLIC POLYGONS, SEIDEL PROBLEM, FORMULA, THEOREM",
author = "Nikolay Abrosimov and Alexander Mednykh",
year = "2019",
doi = "10.4171/196-1/11",
language = "English",
isbn = "978-3-03719-196-5",
series = "IRMA Lectures in Mathematics and Theoretical Physics",
publisher = "EUROPEAN MATHEMATICAL SOC",
pages = "151--189",
editor = "Alberge and A Papadopoulos",
booktitle = "EIGHTEEN ESSAYS IN NON-EUCLIDEAN GEOMETRY",

}

RIS

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T1 - Area and volume in non-Euclidean geometry

AU - Abrosimov, Nikolay

AU - Mednykh, Alexander

PY - 2019

Y1 - 2019

N2 - We give an overview old and recent results on areas and volumes in hyperbolicand spherical geometries. First, we observe the known results about Heron’s and Ptolemy’s theorems. Then we present non-Euclidean analogues of the Brahmagupta’s theorem for a cyclic quadrilateral. We produce also hyperbolic and spherical versions of the Bretschneider’s formula for the area of a quadrilateral. We give hyperbolic and spherical analogues of the Casey’s theorem which is a generalization of the Ptolemy’s equation. We give a short historical review of volume calculations for non-Euclidean polyhedra. Then we concentrateon recent results concerning Seidel’s problem on the volume of an ideal tetrahedron, Sforza’s formula for a compact tetrahedron in H3 or S3 and volumes of non-Euclidean octahedra with symmetries

AB - We give an overview old and recent results on areas and volumes in hyperbolicand spherical geometries. First, we observe the known results about Heron’s and Ptolemy’s theorems. Then we present non-Euclidean analogues of the Brahmagupta’s theorem for a cyclic quadrilateral. We produce also hyperbolic and spherical versions of the Bretschneider’s formula for the area of a quadrilateral. We give hyperbolic and spherical analogues of the Casey’s theorem which is a generalization of the Ptolemy’s equation. We give a short historical review of volume calculations for non-Euclidean polyhedra. Then we concentrateon recent results concerning Seidel’s problem on the volume of an ideal tetrahedron, Sforza’s formula for a compact tetrahedron in H3 or S3 and volumes of non-Euclidean octahedra with symmetries

KW - CYCLIC POLYGONS

KW - SEIDEL PROBLEM

KW - FORMULA

KW - THEOREM

U2 - 10.4171/196-1/11

DO - 10.4171/196-1/11

M3 - Chapter

SN - 978-3-03719-196-5

T3 - IRMA Lectures in Mathematics and Theoretical Physics

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EP - 189

BT - EIGHTEEN ESSAYS IN NON-EUCLIDEAN GEOMETRY

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PB - EUROPEAN MATHEMATICAL SOC

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ID: 23654700