SIAM Journal on Scientific Computing · 2007 · 78 citations · 68 references
ComputingComputer ScienceAlgorithmsComputational PhysicsOptimizationEigenvalue ProblemsIterative SolversMatrix ComputationNumerical AlgorithmsNumerical AnalysisConvergenceEigenvalue AlgorithmsHermitian OperatorsOptimal Convergence RatesPreconditioningPreconditioning TechniquesSparse Matrix AlgorithmsSparse Matrix Computation
Large, sparse, Hermitian eigenvalue problems are still some of the most computationally challenging tasks. Despite the need for a robust, nearly optimal preconditioned iterative method that can operate under severe memory limitations, no such method has surfaced as a clear winner. In this research we approach the eigenproblem from the nonlinear perspective, which helps us develop two nearly optimal methods. The first extends the recent Jacobi–Davidson conjugate gradient (JDCG) method to JDQMR, improving robustness and efficiency. The second method, generalized‐Davidson+1 (GD+1), utilizes the locally optimal conjugate gradient recurrence as a restarting technique to achieve almost optimal convergence. We describe both methods within a unifying framework and provide theoretical justification for their near optimality. A choice between the most efficient of the two can be made at runtime. Our extensive experiments confirm the robustness, the near optimality, and the efficiency of our multimethod over other state‐of‐the‐art methods.
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The Algebraic Eigenvalue Problem
E. I., J. H. Wilkinson · Mathematics of Computation · 1966 · 5.2K citations
Ron S. Dembo, Stanley C. Eisenstat, Trond Steihaug · SIAM Journal on Numerical Analysis · 1982 · 1.6K citations