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Homotopy theory of moduli spaces

Research output: ThesisDoctoral Thesis

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Homotopy theory of moduli spaces. / Maunder, James.
Lancaster University, 2017. 102 p.

Research output: ThesisDoctoral Thesis

Harvard

APA

Maunder, J. (2017). Homotopy theory of moduli spaces. [Doctoral Thesis, Lancaster University]. Lancaster University. https://doi.org/10.17635/lancaster/thesis/129

Vancouver

Maunder J. Homotopy theory of moduli spaces. Lancaster University, 2017. 102 p. doi: 10.17635/lancaster/thesis/129

Author

Maunder, James. / Homotopy theory of moduli spaces. Lancaster University, 2017. 102 p.

Bibtex

@phdthesis{18dad2a60bea49d2a1b102611304d688,
title = "Homotopy theory of moduli spaces",
abstract = "This thesis gathers three papers written by the author during PhD study at Lancaster University. In addition to these three papers, this thesis also contains two complementary sections. These two complementary sections are an introduction and a conclusion. The introduction discusses some recurring themes of the thesis and parts of the history leading to those results proven herein. The conclusion briefly comments on the outcomes of the research, its place in the current mathematical literature, and explores possibilities for further research.A common theme of this thesis is the study of Maurer-Cartan elements and their moduli spaces, that is their study up to homotopy or gauge equivalence. Within the three papers cited above (and thus within this thesis), three different applications of Maurer-Cartan elements are demonstrated. The first application constructs certain moduli spaces as models for unbased disconnected rational topological spaces. The second application constructs certain moduli spaces as those governing formal algebraic deformation problems over, not necessarily local, commutative differential graded algebras. The third application uses the presentation of L-infinity algebras as solutions to the Maurer-Cartan equation in certain commutative differential graded algebras to construct minimal models of quantum L-infinity algebras. These quantum homotopy algebras arise as the `higher genus' versions of classical (cyclic) homotopy algebras.",
author = "James Maunder",
year = "2017",
doi = "10.17635/lancaster/thesis/129",
language = "English",
publisher = "Lancaster University",
school = "Lancaster University",

}

RIS

TY - BOOK

T1 - Homotopy theory of moduli spaces

AU - Maunder, James

PY - 2017

Y1 - 2017

N2 - This thesis gathers three papers written by the author during PhD study at Lancaster University. In addition to these three papers, this thesis also contains two complementary sections. These two complementary sections are an introduction and a conclusion. The introduction discusses some recurring themes of the thesis and parts of the history leading to those results proven herein. The conclusion briefly comments on the outcomes of the research, its place in the current mathematical literature, and explores possibilities for further research.A common theme of this thesis is the study of Maurer-Cartan elements and their moduli spaces, that is their study up to homotopy or gauge equivalence. Within the three papers cited above (and thus within this thesis), three different applications of Maurer-Cartan elements are demonstrated. The first application constructs certain moduli spaces as models for unbased disconnected rational topological spaces. The second application constructs certain moduli spaces as those governing formal algebraic deformation problems over, not necessarily local, commutative differential graded algebras. The third application uses the presentation of L-infinity algebras as solutions to the Maurer-Cartan equation in certain commutative differential graded algebras to construct minimal models of quantum L-infinity algebras. These quantum homotopy algebras arise as the `higher genus' versions of classical (cyclic) homotopy algebras.

AB - This thesis gathers three papers written by the author during PhD study at Lancaster University. In addition to these three papers, this thesis also contains two complementary sections. These two complementary sections are an introduction and a conclusion. The introduction discusses some recurring themes of the thesis and parts of the history leading to those results proven herein. The conclusion briefly comments on the outcomes of the research, its place in the current mathematical literature, and explores possibilities for further research.A common theme of this thesis is the study of Maurer-Cartan elements and their moduli spaces, that is their study up to homotopy or gauge equivalence. Within the three papers cited above (and thus within this thesis), three different applications of Maurer-Cartan elements are demonstrated. The first application constructs certain moduli spaces as models for unbased disconnected rational topological spaces. The second application constructs certain moduli spaces as those governing formal algebraic deformation problems over, not necessarily local, commutative differential graded algebras. The third application uses the presentation of L-infinity algebras as solutions to the Maurer-Cartan equation in certain commutative differential graded algebras to construct minimal models of quantum L-infinity algebras. These quantum homotopy algebras arise as the `higher genus' versions of classical (cyclic) homotopy algebras.

U2 - 10.17635/lancaster/thesis/129

DO - 10.17635/lancaster/thesis/129

M3 - Doctoral Thesis

PB - Lancaster University

ER -