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Fixed up spelling and replaced K\"hlar with Kähler.
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user9072
user9072

In mirror symmetry conjecture, we add what is called "B-field" $B \in H^2(X,\mathbb{R}/\mathbb{Z})$ in the Kähler moduli space so that the Kähler moduli space has enough freedom comparable to the complex moduli space of a mirror manifold. In string theory, one may twist the Lagrangian by this auxiliary 2-form $B$.

The usual KählarKähler moduli space parametrizes the volume of 2-cycles. Naively $B$ parametrizes the imaginary volume of the cycles, but is this really a useful concept? What is the role of B-field in mathematics?

In mirror symmetry conjecture, we add what is called "B-field" $B \in H^2(X,\mathbb{R}/\mathbb{Z})$ in the Kähler moduli space so that the Kähler moduli space has enough freedom comparable to the complex moduli space of a mirror manifold. In string theory, one may twist the Lagrangian by this auxiliary 2-form $B$.

The usual Kählar moduli space parametrizes the volume of 2-cycles. Naively $B$ parametrizes the imaginary volume of the cycles, but is this really a useful concept? What is the role of B-field in mathematics?

In mirror symmetry conjecture, we add what is called "B-field" $B \in H^2(X,\mathbb{R}/\mathbb{Z})$ in the Kähler moduli space so that the Kähler moduli space has enough freedom comparable to the complex moduli space of a mirror manifold. In string theory, one may twist the Lagrangian by this auxiliary 2-form $B$.

The usual Kähler moduli space parametrizes the volume of 2-cycles. Naively $B$ parametrizes the imaginary volume of the cycles, but is this really a useful concept? What is the role of B-field in mathematics?

In mirror symmetry conjecture, we add what is called "B-filed"field" $B \in H^2(X,\mathbb{R}/\mathbb{Z})$ in the K"hlarKähler moduli space so that the K"hlarKähler moduli space has enough freedom comparable to the complex moduli space of a mirror manifold. In string theory, one may twist the Lagrangian by this auxiliary 2-form $B$.

The usual K"hlarKählar moduli space parametrizes the volume of 2-cycles. Naively $B$ parametrizes the imaginary volume of the cycles, but is this really a useful concept? What is the role of B-field in mathematics?

In mirror symmetry conjecture, we add what is called "B-filed" $B \in H^2(X,\mathbb{R}/\mathbb{Z})$ in the K"hlar moduli space so that the K"hlar moduli space has enough freedom comparable to the complex moduli space of a mirror manifold. In string theory, one may twist the Lagrangian by this auxiliary 2-form $B$.

The usual K"hlar moduli space parametrizes the volume of 2-cycles. Naively $B$ parametrizes the imaginary volume of the cycles, but is this really a useful concept? What is the role of B-field in mathematics?

In mirror symmetry conjecture, we add what is called "B-field" $B \in H^2(X,\mathbb{R}/\mathbb{Z})$ in the Kähler moduli space so that the Kähler moduli space has enough freedom comparable to the complex moduli space of a mirror manifold. In string theory, one may twist the Lagrangian by this auxiliary 2-form $B$.

The usual Kählar moduli space parametrizes the volume of 2-cycles. Naively $B$ parametrizes the imaginary volume of the cycles, but is this really a useful concept? What is the role of B-field in mathematics?

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BlakeA
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What is the role of B-field $B \in H^2(X,\mathbb{R}/\mathbb{Z})$ in mathematics?

In mirror symmetry conjecture, we add what is called "B-filed" $B \in H^2(X,\mathbb{R}/\mathbb{Z})$ in the K"hlar moduli space so that the K"hlar moduli space has enough freedom comparable to the complex moduli space of a mirror manifold. In string theory, one may twist the Lagrangian by this auxiliary 2-form $B$.

The usual K"hlar moduli space parametrizes the volume of 2-cycles. Naively $B$ parametrizes the imaginary volume of the cycles, but is this really a useful concept? What is the role of B-field in mathematics?