Algebraic methods in computer vision

Many problems in computer vision, but also in other field such as robotics, control design or economics, can be formulated using systems of polynomial equations. Often, these systems are non-trivial and therefore special algorithms have to be designed to obtain numerically robust and computational efficient solvers. In this talk we will briefly discuss two methods for creating such efficient solvers of systems of polynomial equations. The first one is based on Groebner basis methods for solving systems of polynomial equations and the second one is based on methods for solving polynomial eigenvalue problems and resultants. We will also introduce an automatic generator of Groebner basis solvers which could be used even by non-experts to efficiently solve polynomial problems. Finally, we will demonstrate the usefulness of our approach by presenting new, efficient and numerically stable solutions to several important problems from computer vision and robotics.

Speaker Details

Zuzana Kukelova received her master’s degree in mathematics from the Faculty of Mathematics, Physics and Informatics, Comenius University, Bratislava, Slovakia in 2005. In her master thesis she studied implicit and variational surfaces and created sketch based 3D modelling tool for children. She received her PhD degree from the Faculty of Electrical Engineering at the Czech Technical University in Prague. Currently, she is working at the Center for Machine Perception, Czech Technical University in Prague, as a researcher. She is interested in algebraic geometry and computer vision, where she focuses on minimal problems and methods for solving systems of polynomial equations.

Date:
Speakers:
Zuzana Kukelova
Affiliation:
Center for Machine Perception
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