Akira Terui

dblp:01/5232 · DBLP profile ↗
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9ranked-venue papers
4as first author
4since 2021 · last 2026
0000-0003-0846-3643ORCID · corroborated

Domains — the database's venue-derived domains; a paper can count in several

Theory of computation · 9 · 4 first-author · 4 since 2021
YearPublicationVenuePosition
2026 Inverse Kinematics for a 7-Degree-of-Freedom Robot Manipulator Using Comprehensive Gröbner Systems
Rikita Komatsuzaki, Akira Terui, Masahiko Mikawa
CASC2
2025 An Effective Trajectory Planning and an Optimized Path Planning for a 6-Degree-of-Freedom Robot Manipulator
Takumu Okazaki, Akira Terui, Masahiko Mikawa
CASC2
2025 Inverse Kinematics for a 6-Degree-of-Freedom Robot Manipulator Using Comprehensive Gröbner Systems
Takumu Okazaki, Akira Terui, Masahiko Mikawa
CASC2
2023 Inverse Kinematics and Path Planning of Manipulator Using Real Quantifier Elimination Based on Comprehensive Gröbner Systems
Mizuki Yoshizawa, Akira Terui, Masahiko Mikawa
CASC2
2020 The GPGCD Algorithm with the Bézout Matrix
Boming Chi, Akira Terui
CASC2
2013 GPGCD: An iterative method for calculating approximate GCD of univariate polynomials
Akira Terui
Theor. Comput. Sci.1
2010 GPGCD, an Iterative Method for Calculating Approximate GCD, for Multiple Univariate Polynomials
Akira Terui
CASC1
2009 An iterative method for calculating approximate GCD of univariate polynomials
abstract
We present an iterative algorithm for calculating approximate greatest common divisor (GCD) of univariate polynomials with the real coefficients. For a given pair of polynomials and a degree, our algorithm finds a pair of polynomials which has a GCD of the given degree and whose coefficients are perturbed from those in the original inputs, making the perturbations as small as possible, along with the GCD. The problem of approximate GCD is transfered to a constrained minimization problem, then solved with a so-called modified Newton method, which is a generalization of the gradient-projection method, by searching the solution iteratively. We demonstrate that our algorithm calculates approximate GCD with perturbations as small as those calculated by a method based on the structured total least norm (STLN) method, while our method runs significantly faster than theirs by approximately up to 30 times, compared with their implementation. We also show that our algorithm properly handles some ill-conditioned problems with GCD containing small or large leading coefficient.
Akira Terui
ISSAC1
2005 Recursive Polynomial Remainder Sequence and the Nested Subresultants
Akira Terui
CASC1