
Computer Algebra in Scientific Computing
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The 28 full papers presented in this volume were carefully reviewed and selected from 33 submissions. They deal with cutting-edge research in all major disciplines of Computer Algebra.
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Content
- Intro
- Preface
- Organization
- Contents
- Linear Differential Systems with Infinite Power Series Coefficients (Invited Talk)
- 1 Introduction
- 2 Algorithmic Representation
- 2.1 Computable Infinite Power Series in the Role of Coefficients of Linear Differential Systems
- 2.2 Procedures for Constructing Local Solutions
- 3 Approximate (Truncated) Representation
- 3.1 Strongly Non-singular Matrices
- 3.2 When only a Truncated System Is Known
- 4 The Width
- References
- On the Asymptotic Stability of a Satellite with a Gravitational Stabilizer
- 1 Introduction
- 2 Description and Construction of a Symbolical Model
- 3 Formulation of the Problem
- 4 Regions of System's Instability
- 5 Parametric Analysis of Asymptotic Stability Conditions
- 5.1 Stabilization in the ``Pitch'' Subsystem
- 5.2 Stabilization in the ``Yaw-and-Roll'' Subsystem
- 6 Conclusion
- References
- Sparse Interpolation, the FFT Algorithm and FIR Filters
- 1 Sparse Interpolation
- 2 Divide and Conquer Approach
- 3 The FFT Algorithm
- 4 An Analog Version of the Splitting Technique
- 5 Connection to FIR Filters
- 6 Conclusion
- References
- On New Integrals of the Algaba-Gamero-Garcia System
- 1 Introduction
- 2 Problem Statement
- 3 Necessary Conditions of Local Integrability
- 4 Sufficient Conditions of Integrability
- 5 Case b2=2/3, Subcase 3 a0 - 2 b0 = b(3 a1 - 2 b1)
- 6 Analytical Properties of the Integrals
- 7 Conclusions
- References
- Full Rank Representation of Real Algebraic Sets and Applications
- 1 Introduction
- 2 Full Rank Representation of Real Algebraic Sets
- 3 Compute Full Rank Representation
- 4 Applications on Plotting Singular Plane and Space Curves
- 5 Experimentation
- 6 Conclusion and Future Work
- References
- Certifying Simple Zeros of Over-Determined Polynomial Systems
- 1 Introduction
- 2 Preliminaries
- 3 Transforming Over-Determined Polynomial Systems into Square Ones
- 4 Certifying Simple Zeros of Over-Determined Systems
- References
- Decomposing Polynomial Sets Simultaneously into Gröbner Bases and Normal Triangular Sets
- 1 Introduction
- 2 Preliminaries
- 2.1 Triangular Set and Triangular Decomposition
- 2.2 Gröbner Basis and W-Characteristic Set
- 2.3 (Strong) Characteristic Decomposition and Characterizable Gröbner Basis
- 3 Algorithm for (Strong) Characteristic Decomposition
- 3.1 Algorithm to Handle the Variable Ordering Condition
- 3.2 Algorithms for Characteristic Decomposition
- 3.3 Algorithm for Strong Characteristic Decomposition
- 3.4 An Illustrative Example
- 4 Implementation and Experimental Results
- References
- Symbolic Versus Numerical Computation and Visualization of Parameter Regions for Multistationarity of Biological Networks
- 1 Introduction
- 2 The Systems for the Case Studies
- 2.1 Biomod-26
- 2.2 Biomod-28
- 3 Graph-Theoretical Symbolic Preprocessing
- 4 Determination of Multiple Steady States
- 4.1 Numerical Approach
- 4.2 Symbolic Approach
- 4.3 Comparison
- 4.4 Going Further
- 5 Conclusion and Future Work
- References
- The Polymake Interface in Singular and Its Applications
- 1 Introduction
- 2 An Interface to Polymake
- 3 User Defined Types in Singular: Polyhedral Divisors
- 4 Quasihomogeneous Isolated Hypersurface Singularities
- 4.1 Finding Quasihomogeneous Isolated Hypersurface Singularities
- 4.2 Reconstruction of QHIS from the Milnor Algebra
- References
- Computation of Some Integer Sequences in Maple
- 1 Introduction
- 1.1 Definitions of Numbers
- 2 Stirling Partition Numbers
- 2.1 Sequence Calculation
- 3 Stirling Cycle Numbers
- 3.1 Singleton Computation
- 3.2 A Finite Sum
- 3.3 Sequence Calculation
- 4 Associated Stirling Numbers
- 4.1 Singleton Stirling 2-Partition and 2-Cycle
- 4.2 Sequence Calculation of 2-Partition and 2-Cycle Numbers
- 4.3 Singleton Stirling r-Partition and r-Cycle Numbers
- 4.4 Sequence Calculation of r-Partition and r-Cycle Numbers
- 4.5 Implementation in Maple
- 5 A Multiple Threads Approach to Sequence Calculations
- 6 Implementation of Eulerian Numbers
- 6.1 Timings for Eulerian Number Calculations
- References
- Symbolic-Numerical Algorithm for Generating Interpolation Multivariate Hermite Polynomials of High-Accuracy Finite Element Method
- 1 Introduction
- 2 Setting of the Problem
- 3 FEM Calculation Scheme
- 3.1 Lagrange Interpolation Polynomials
- 3.2 Algorithm for Calculating the Basis of Hermite Interpolating Polynomials
- 3.3 Example: HIP for d=2
- 3.4 Piecewise Polynomial Functions
- 4 Results and Discussion
- 5 Conclusion
- References
- Symbolic-Numerical Algorithms for Solving the Parametric Self-adjoint 2D Elliptic Boundary-Value Problem Using High-Accuracy Finite Element Method
- 1 Introduction
- 2 FEM Algorithm for Solving the Parametric 2D BVP
- 3 Fully Symmetric High-Order Gaussian Quadratures
- 4 The Algorithm for Calculating the Parametric Derivatives of Eigenfunctions and Effective Potentials
- 5 Benchmark Calculations of Helium Atom Ground State
- 6 Conclusion
- References
- A Symbolic Study of the Satellite Dynamics Subject to Damping Torques
- 1 Introduction
- 2 Equations of Motion
- 3 Equilibrium Orientations of Satellite
- 4 Conditions for the Existence of Equilibrium Orientations of the Satellite
- 5 Necessary and Sufficient Conditions of Asymptotic Stability of the Equilibrium Orientations of Satellite
- 6 Conclusion
- References
- Characteristic Set Method for Laurent Differential Polynomial Systems
- 1 Introduction
- 2 Laurent Polynomial Systems
- 2.1 Laurent Regular Chain
- 2.2 Characteristic Set Method
- 2.3 Laurent Gröbner Basis and Minimal Decomposition
- 3 Differential Polynomial Systems
- 3.1 Laurent Regular Differential Chains
- 3.2 Decision of Univariate Laurent Regular Differential Polynomial
- References
- Sparse Polynomial Interpolation with Finitely Many Values for the Coefficients
- 1 Introduction
- 2 Univariate Polynomial Interpolation
- 2.1 Sparse Interpolation with Finitely Many Coefficients
- 2.2 The Sparse Interpolation Algorithm
- 2.3 The Rational Number Coefficients Case
- 3 Multivariate Polynomial Sparse Interpolation with Modified Kronecker Substitution
- 3.1 Find a Good Prime
- 3.2 A Deterministic Algorithm
- 3.3 Probabilistic Algorithm
- 4 Experimental Results
- 5 Conclusion
- References
- On Stationary Motions of the Generalized Kowalewski Gyrostat and Their Stability
- 1 Introduction
- 2 Formulation of the Problem
- 3 Finding the Stationary Solutions
- 3.1 Permanent Rotations
- 3.2 Equilibria
- 4 On Invariant Manifolds of Codimension 2
- 5 On Stability of the Stationary Solutions
- 5.1 On Stability of the Permanent Rotations
- 5.2 On Stability of the Equilibria
- 6 Conclusion
- 7 Appendix
- References
- Computing the Integer Points of a Polyhedron, I: Algorithm
- 1 Introduction
- 2 Polyhedral Sets
- 3 Integer Solutions of Linear Equation Systems
- 4 Integer Solutions of Linear Inequality Systems
- 4.1 Normalization of Linear Inequality Systems
- 4.2 Representing the Integer Points
- 4.3 The IntegerSolve Procedure: Specifications
- 4.4 The DarkShadow Procedure
- 4.5 The GreyShadow Procedure
- 4.6 The IntegerSolve Procedure: Algorithm
- References
- Computing the Integer Points of a Polyhedron, II: Complexity Estimates
- 1 Introduction
- 2 Properties of the Projection of Faces of a Polyhedron
- 3 Complexity Estimates for Fourier-Motzkin Elimination
- 4 Proof of Theorem1
- 5 Experimentation
- References
- Non-linearity and Non-convexity in Optimal Knots Selection for Sparse Reduced Data
- 1 Problem Formulation
- 2 Non-Linearity of JTF and Numerical Difficulties
- 3 Non-Convexity of JTF
- 4 Numerical Experiments for Fitting Sparse Reduced Data
- 5 Conclusions
- References
- The Convergence Conditions of Interval Newton's Method Based on Point Estimates
- 1 Introduction
- 2 Notation and Preliminaries
- 3 Main Results
- 4 Example
- References
- Normalization of Indexed Differentials Based on Function Distance Invariants
- 1 Introduction
- 2 Indexed Differential Polynomial Ring
- 3 Distances Between Indexed Functions
- 4 Normalization with Respect to Monoterm Symmetries
- 5 Normalization
- References
- Symbolic-Numeric Integration of the Dynamical Cosserat Equations
- 1 Introduction
- 2 Governing Cosserat Equations and the General Solution of Their Kinematic Part
- 3 Symbolic-Numeric Integration Method
- 3.1 Naive Approach: Explicit Numerical Solving
- 3.2 Advanced Approach Based on Exponential Integration
- 4 Numerical Comparison with the Generalized alpha-Method
- 5 Conclusison
- A Generalized alpha-Method
- References
- Algorithms for Zero-Dimensional Ideals Using Linear Recurrent Sequences
- 1 Introduction
- 2 Generalities on Sequences and Their Annihilators
- 3 Computing Annihilators of Sequences
- 3.1 A First Algorithm
- 3.2 An Algorithm Under Genericity Assumptions
- 4 Main Algorithm
- 4.1 Representing Primary Zero-Dimensional Ideals
- 4.2 The Algorithm
- References
- Symbolic-Numerical Analysis of the Relative Equilibria Stability in the Planar Circular Restricted Four-Body Problem
- 1 Introduction
- 2 Equilibrium Solutions
- 3 Stability Analysis in Linear Approximation
- 4 Normalization of the Hamiltonian
- 5 Conclusion
- References
- The Method of Collocations and Least Residuals Combining the Integral Form of Collocation Equations and the Matching Differential Relations at the Solution of PDEs
- 1 Introduction
- 2 The ``Differential'' CLR Method
- 2.1 Description of the Method
- 2.2 Preconditioners for the CLR Method
- 2.3 Convergence Acceleration Algorithm Based on Krylov's Subspaces
- 2.4 Convergence Acceleration by Using the Multigrid Algorithm
- 3 The Use of the Integral Form of Collocation Equations
- 4 Results of Numerical Experiments
- 5 Conclusions
- References
- A Special Homotopy Continuation Method for a Class of Polynomial Systems
- 1 Introduction
- 2 Preliminary
- 2.1 Algebraic Sets and Genericity
- 2.2 Trackable Paths
- 2.3 Witness Set and Degree of an Algebraic Set
- 2.4 Critical Points
- 3 Main Idea
- 4 Algorithm
- 5 Real Critical Set
- 5.1 Critical Points on a Real Algebraic Set
- 5.2 Illustrative Example
- 6 Experiment Performance
- 6.1 Dense Examples
- 6.2 Sparse examples
- 6.3 RAT/Density
- References
- Penalty Function Based Critical Point Approach to Compute Real Witness Solution Points of Polynomial Systems
- 1 Introduction
- 2 Augmented System
- 3 Error Control with Rank Assumption
- 4 Error Control for General Systems
- 4.1 Degree Index
- 4.2 Improve Accuracy
- 5 Examples
- 5.1 ISSAC 2016 System
- 5.2 Seiler System
- 5.3 Larger Examples
- 6 Conclusions
- References
- Computing Multiple Zeros of Polynomial Systems: Case of Breadth One (Invited Talk)
- 1 Introduction
- 2 Local Dual Space
- 3 Local Separation Bound and Cluster Location
- 4 Verified Error Bound
- 5 Modified Newton Iterations
- 6 Conclusion
- References
- Author Index
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