SOLVING SYSTEMS OF POLYNOMIAL EQUATIONS
By Dinesh Manocha. 2002
1,064 citations recorded by the source corpus.
Subfields: Computational Mathematics, Computational Theory and Mathematics, Geometry and Topology
View Paper: https://www.semanticscholar.org/paper/b03e0b7a9075c37f9c3b6a90e6cc36e1e35ee843
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
In Computational Mathematics
- Bernd Sturmfels
- Mathias Drton
- Seth Sullivant
- Kaie Kubjas
- Elina Robeva
- G. Mikhalkin
- Walter Gubler
- Sara C. Billey
In Computational Theory and Mathematics
- Eric Katz
- Federico Ardila
- Bernd Sturmfels
- Monique Laurent
- G. Mikhalkin
- June Huh
- Erwan Brugallé
- Eugenii Shustin
In Geometry and Topology
- Eric Katz
- Federico Ardila
- G. Mikhalkin
- Eugenii Shustin
- Erwan Brugallé
- I. Itenberg
- David E. Speyer
- Bernd Sturmfels
Citations in the corpus
- Linear Fitted-Q Iteration with Multiple Reward Functions (2012, methodology): “The system (10) of polynomial equations can be solved by computer algebra systems or using numerical approximation techniques (Cox et al., 1997; Sturmfels, 2002).”
- On the frontiers of polynomial computations in tropical geometry (2004, background): “From the viewpoint of polynomial equations, the modern birth of tropical geometry originates in the book [20] which pinpoints the central role of tropical geometry as a link between algebraic geometry, symbolic computation , and discrete geometry, thus providing computationally-accessible methods…”
- One-, Two-, and Multi-Fold Origami Axioms (2006, neutral): “[30]) in the program Magma.”
- Patchworking singular algebraic curves, non-Archimedean amoebas and enumerative geometry (2002, background): “rreducible curves and irreducible amoebas One can speak on non-Archimedean amoebas as corner loci of all possible convex piece-wise linear functions, whose generic gradients are integral vectors (cf. [28]). In such a sense, an amoeba is called reducible if it is the union of two proper sub-amoebas. ”
- Mixed multiplicities of ideals versus mixed volumes of polytopes (2005, background): “n (−1)n−hV n(Q i1 +···+Q i h ). Here V n denotes the n-dimensional Euclidean volume. Mixed volumes play an important role in convex geometry (see [BF], [Ew]) and elimination theory (see [GKZ], [CLO], [Stu]). Our interest in mixed volumes arises from the following result of Bernstein [Be] which relat”
- Log-concavity of characteristic polynomials and the Bergman fan of matroids (2011, background): “yperplanes on an r-dimensional projective subspace V ⊂ Pn realizing M. We can identify ∆M as the tropicalization of the complement V◦ := V \A = V ∩ T. LOG-CONCAVITY AND THE BERGMAN FAN 7 Theorem 4.2. [16] The tropicalization of V ◦ is ∆M. Let Ve denote the closure of V ◦ in X = X(∆U n). Since the un”
- The Tropical Totally Positive Grassmannian (2003, background): “Finally, we suggest a general conjecture about the positive part of the tropicalization of a cluster algebra.”
- Matroid Theory for Algebraic Geometers (2014, background): “Sturmfels gave a combinatorial definition [92] which was elaborated by Ardila-Klivans [3].”
- Algebraic Solution of GPS Pseudo-Ranging Equations (2002, methodology): “It should be pointed out that there exist several procedures for computing the resultants as exemplified in the works of Manocha (1992, 1993, 1994a, 1994b, 1994c) , who solved the Multipolynomial resultants using the eigenvalue-eigenvector approach, Canny (1988), who solved the resultant using the ”
- Eigenvalues and invariants of tensors (2007, background): “According to the resultant theory [5,8,22], the resultant of F(x) is an irreducible polynomial of the coefficient of F(x), i.”
- Ideals of adjacent minors (2003, background): “ probability distributions of these random variables (the so-called no dway interaction models [8]) gives rise to a toric variety whose set of defining equations may be extremely large and complicated [1, 15]. However, the positive probability distributions are described precisely by the simple multi”
- Parametric optimization and optimal control using algebraic geometry methods (2006, methodology): “Various methods have been proposed in the literature for solving systems of polynomial equations, both numerical and symbolic (Manocha 1994, Parrilo and Sturmfels 2000 and Sturmfels 2002).”
- On the rank of a tropical matrix (2003, background): “We review the basic setup from [24, 26].”