AbstractWe give tail estimates for the efficiency of some randomized incremental algorithms for line segment intersection in the plane. In particular, we show that there is a constant C such that the probability that the running times of algorithms due to Mulmuley (1988) and Clarkson and Shor (1989) exceed C times their expected time is bounded by e-ω(m/(n ln n)) where n is the number of segments, m is the number of intersections, and m ⩾ n ln n ln(3)n
AbstractWe consider whether restricted sets of geometric predicates support efficient algorithms to ...
We present a new simple algorithm for computing all intersections between two collections of disjoin...
This paper deals with a new deterministic algorithm for finding intersecting pairs from a given set ...
We give tail estimates for the efficiency of some randomized incremental algorithms for line segment...
We give tail estimates for the space complexity of randomized incremental algorithms for line segmen...
We give tail estimates for the space complexity of randomized incremental algorithms for line segmen...
We present several variants of a new randomized incremental algorithm for computing a cutting in an ...
We introduce a new type of randomized incremental algorithms. Contrary to standard randomized increm...
In this paper, we present an optimal parallel randomized algorithm for the Voronoi diagram of a set ...
This paper presents a very simple incremental randomized algorithm for computing the trapezoidal dec...
Abstract. We present randomized algorithms for computing many faces in an arrangement of lines or of...
AbstractThis paper presents a very simple incremental randomized algorithm for computing the trapezo...
We show that the well-known random incremental construction of Clarkson and Shor can be adapted via ...
AbstractThis paper partly settles the following question: Is it possible to compute all k intersecti...
In this paper, we present an optimal parallel randomized algorithm for the Voronoi diagram of a set ...
AbstractWe consider whether restricted sets of geometric predicates support efficient algorithms to ...
We present a new simple algorithm for computing all intersections between two collections of disjoin...
This paper deals with a new deterministic algorithm for finding intersecting pairs from a given set ...
We give tail estimates for the efficiency of some randomized incremental algorithms for line segment...
We give tail estimates for the space complexity of randomized incremental algorithms for line segmen...
We give tail estimates for the space complexity of randomized incremental algorithms for line segmen...
We present several variants of a new randomized incremental algorithm for computing a cutting in an ...
We introduce a new type of randomized incremental algorithms. Contrary to standard randomized increm...
In this paper, we present an optimal parallel randomized algorithm for the Voronoi diagram of a set ...
This paper presents a very simple incremental randomized algorithm for computing the trapezoidal dec...
Abstract. We present randomized algorithms for computing many faces in an arrangement of lines or of...
AbstractThis paper presents a very simple incremental randomized algorithm for computing the trapezo...
We show that the well-known random incremental construction of Clarkson and Shor can be adapted via ...
AbstractThis paper partly settles the following question: Is it possible to compute all k intersecti...
In this paper, we present an optimal parallel randomized algorithm for the Voronoi diagram of a set ...
AbstractWe consider whether restricted sets of geometric predicates support efficient algorithms to ...
We present a new simple algorithm for computing all intersections between two collections of disjoin...
This paper deals with a new deterministic algorithm for finding intersecting pairs from a given set ...