Proceedings of the Edinburgh Mathematical Society · 1983 · 70 citations · 7 references
Natural SciencesMathematicsComplex SystemsGeometryMathematical PhysicsAlgebraic GeometryAnalytic GeometryComplex GeometryDifferential GeometryRiemannian GeometrySymplectic GeometryComplex Algebraic VarietiesComplex Differential GeometryConvex PolyhedraGeometric MechanicsKähler GeometrySymplectic Spaces
The three families of classical groups of linear transformations (complex, orthogonal, symplectic) give rise to the three great branches of differential geometry (complex analytic, Riemannian and symplectic). Complex analytic geometry derives most of its interest from complex algebraic geometry, while symplectic geometry provides the general framework for Hamiltonian mechanics. These three classical groups “intersect” in the unitary group and the three branches of differential geometry correspondingly “intersect” in Kähler geometry, which includes the study of algebraic varieties in projective space. This is the basic reason why Hodge was successful in applying Riemannian methods to algebraic geometry in his theory of harmonic forms.
7
Convexity and Commuting Hamiltonians
Michael Atiyah · Bulletin of the London Mathematical Society · 1982 · 972 citations
Convexity properties of the moment mapping. II
Victor Guillemin, S. Sternberg · Inventiones mathematicae · 1984 · 703 citations