This paper investigates new alternative approaches to detect the kidnapped robot problem event in Monte Carlo Localization. The underlying idea is based on the local similarity measures of the environment seen by the robot at two consecutive time instances. Six different similarity measures are investigated and tested against particles weight-based detectors to see how good each detector’s ability to distinguish normal condition from kidnapping event. These simulations show that similarity based-detectors promises better general accuracy across all kidnapping points compared to particles weight-based detectors and the accuracy is not affected by the result of re-localization
Arbeit an der Bibliothek noch nicht eingelangt - Daten nicht geprüftAbweichender Titel nach Übersetz...
International audienceFor a mobile robot to operate in its environment it is crucial to determine it...
In this paper, we propose an enhanced Monte Carlo localization (EMCL) algorithm for mobile robots, w...
2536-2542This paper investigates new alternative approaches to detect the kidnapped robot problem ev...
This paper presents an improved algorithm that extends Monte Carlo localization (MCL) to solve the p...
One of the key problems of swarm robotics is how the mobile robots can navigate accurately in a give...
The purpose of this work was to gain insight into the world of robot localization and to understand ...
AbstractMobile robot localization is the problem of determining a robot's pose from sensor data. Thi...
Monte Carlo localisation generally requires a metrical map of the environment to calculate a robots ...
In this paper we investigate robot localization with the Augmented Monte Carlo Localization (aMCL) a...
Accurate and robust mobile robot localization is very important in many robot applications. Monte Ca...
In robotics, the kidnapped robot problem commonly refers to a situation where an autonomous robot in...
Autonomous mobile robots in use cases that demand higher levels of position accuracy and update rate...
Abstract This paper proposes extending Monte Carlo Localization methods with visual place recognitio...
Abstract — This paper proposes extending Monte Carlo Lo-calization methods with visual information i...
Arbeit an der Bibliothek noch nicht eingelangt - Daten nicht geprüftAbweichender Titel nach Übersetz...
International audienceFor a mobile robot to operate in its environment it is crucial to determine it...
In this paper, we propose an enhanced Monte Carlo localization (EMCL) algorithm for mobile robots, w...
2536-2542This paper investigates new alternative approaches to detect the kidnapped robot problem ev...
This paper presents an improved algorithm that extends Monte Carlo localization (MCL) to solve the p...
One of the key problems of swarm robotics is how the mobile robots can navigate accurately in a give...
The purpose of this work was to gain insight into the world of robot localization and to understand ...
AbstractMobile robot localization is the problem of determining a robot's pose from sensor data. Thi...
Monte Carlo localisation generally requires a metrical map of the environment to calculate a robots ...
In this paper we investigate robot localization with the Augmented Monte Carlo Localization (aMCL) a...
Accurate and robust mobile robot localization is very important in many robot applications. Monte Ca...
In robotics, the kidnapped robot problem commonly refers to a situation where an autonomous robot in...
Autonomous mobile robots in use cases that demand higher levels of position accuracy and update rate...
Abstract This paper proposes extending Monte Carlo Localization methods with visual place recognitio...
Abstract — This paper proposes extending Monte Carlo Lo-calization methods with visual information i...
Arbeit an der Bibliothek noch nicht eingelangt - Daten nicht geprüftAbweichender Titel nach Übersetz...
International audienceFor a mobile robot to operate in its environment it is crucial to determine it...
In this paper, we propose an enhanced Monte Carlo localization (EMCL) algorithm for mobile robots, w...