Numerical solution of boundary value problems in ordinary differential equations
By R. Usmani. 1967
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
- David Kristjanson Duvenaud
- Jörn-Henrik Jacobsen
- Jens Behrmann
- Knut Graichen
- Kendall E. Atkinson
- Nicolas Petit
- Lawrence F. Shampine
- Weimin Han
Citations in the corpus
- Invertible Residual Networks (2018, background): “Yet, the applicability of such an approach to non-linear, time-dependent dynamics is unclear as they only refer to kinematic eigenvalues [5] which generalize the theory of linear time-invariant ODEs to some subclassses (e.g. diagonally dominant matrices, Example 3.7 in [5]) of time-dependent ODEs.”
- GYRE: An open-source stellar oscillation code based on a new Magnus Multiple Shooting Scheme (2013, background): “Ascher et al. (1995) discuss it in considerable depth; here, we highlight the important aspects.”
- Domain Decomposition Methods in Optimal Control of Partial Differential Equations (2004, methodology): “We may use the methods of Asher, Matheij and Russell [3] in order to solve (2.”
- A BVP solver based on residual control and the Maltab PSE (2001, methodology): “The formula is viewed as a mono-implicit method in Cash [1983] and implemented in HAGRON [Cash 1988].”
- ( Preprint ) AAS 09-334 A SURVEY OF NUMERICAL METHODS FOR OPTIMAL CONTROL (2009, background): “Equation (29) together with the isolation property leads to the fact that ck = x(τk) The use of orthogonal collocation to solve differential equ ations was originally introduced in Ref.”
- Solving ODEs with MATLAB (2003, methodology): “When applied to first-order systems, the solvers COLSYS (Ascher, Christiansen, & Russell 1979, 1981) and COLNEW (Ascher et al. 1995; Bader & Ascher 1987) can be viewed as implementing the family of”
- Incorporating a class of constraints into the dynamics of optimal control problems (2009, background): “These higher-order representations in 1 and ,r result in fewer unknowns in the collocation scheme and lead to a higher accuracy of the numerical solution [18, 20].”
- Numerical Solution of Ordinary Differential Equations: Atkinson/Numerical (2009, methodology): “For a comprehensive introduction to this and to the general subject of the numerical solution of two-point boun dary value problems, see Keller [53], Ascher et al [9], or Ascher and Petzold [10, Chap .”
- Finite difference methods for ordinary and partial differential equations - steady-state and time-dependent problems (2007, methodology): “In fact, this latter example gives rise to the name shooting method for another approach to solving 2-point BVPs that is discussed in [4] and [54], for example.”