TY - JOUR
T1 - ViMantic, a distributed robotic architecture for semantic mapping in indoor environments
AU - Fernandez-Chaves, D.
AU - Ruiz-Sarmiento, J. R.
AU - Petkov, N.
AU - Gonzalez-Jimenez, J.
N1 - Funding Information:
This work has been supported by the research projects WISER (DPI2017-84827-R), funded by the Spanish Government and financed by the European Regional Development's funds (FEDER), MoveCare (ICT-26-2016b-GA-732158), funded by the European H2020 program, and by a postdoc contract from the I-PPIT program of the University of M?laga, and the UG PHD scholarship program from the University of Groningen. Funding for open access charge: Universidad de M?laga/CBUA.
Funding Information:
This work has been supported by the research projects WISER ( DPI2017-84827-R ), funded by the Spanish Government and financed by the European Regional Development’s funds (FEDER) , MoveCare ( ICT-26-2016b-GA-732158 ), funded by the European H2020 program , and by a postdoc contract from the I-PPIT program of the University of Málaga , and the UG PHD scholarship program from the University of Groningen . Funding for open access charge: Universidad de Málaga/CBUA .
Publisher Copyright:
© 2021 The Author(s)
PY - 2021/11/28
Y1 - 2021/11/28
N2 - Semantic maps augment traditional representations of robot workspaces, typically based on their geometry and/or topology, with meta-information about the properties, relations and functionalities of their composing elements. A piece of such information could be: fridges are appliances typically found in kitchens and employed to keep food in good condition. Thereby, semantic maps allow for the execution of high-level robotic tasks in an efficient way, e.g. “Hey robot, Store the leftover salad”. This paper presents ViMantic, a novel semantic mapping architecture for the building and maintenance of such maps, which brings together a number of features as demanded by modern mobile robotic systems, including: (i) a formal model, based on ontologies, which defines the semantics of the problem at hand and establishes mechanisms for its manipulation; (ii) techniques for processing sensory information and automatically populating maps with, for example, objects detected by cutting-edge CNNs; (iii) distributed execution capabilities through a client–server design, making the knowledge in the maps accessible and extendable to other robots/agents; (iv) a user interface that allows for the visualization and interaction with relevant parts of the maps through a virtual environment; (v) public availability, hence being ready to use in robotic platforms. The suitability of ViMantic has been assessed using Robot@Home, a vast repository of data collected by a robot in different houses. The experiments carried out consider different scenarios with one or multiple robots, from where we have extracted satisfactory results regarding automatic population, execution times, and required size in memory of the resultant semantic maps.
AB - Semantic maps augment traditional representations of robot workspaces, typically based on their geometry and/or topology, with meta-information about the properties, relations and functionalities of their composing elements. A piece of such information could be: fridges are appliances typically found in kitchens and employed to keep food in good condition. Thereby, semantic maps allow for the execution of high-level robotic tasks in an efficient way, e.g. “Hey robot, Store the leftover salad”. This paper presents ViMantic, a novel semantic mapping architecture for the building and maintenance of such maps, which brings together a number of features as demanded by modern mobile robotic systems, including: (i) a formal model, based on ontologies, which defines the semantics of the problem at hand and establishes mechanisms for its manipulation; (ii) techniques for processing sensory information and automatically populating maps with, for example, objects detected by cutting-edge CNNs; (iii) distributed execution capabilities through a client–server design, making the knowledge in the maps accessible and extendable to other robots/agents; (iv) a user interface that allows for the visualization and interaction with relevant parts of the maps through a virtual environment; (v) public availability, hence being ready to use in robotic platforms. The suitability of ViMantic has been assessed using Robot@Home, a vast repository of data collected by a robot in different houses. The experiments carried out consider different scenarios with one or multiple robots, from where we have extracted satisfactory results regarding automatic population, execution times, and required size in memory of the resultant semantic maps.
KW - Detectron2
KW - Mobile robots
KW - Object detection
KW - Robot@Home
KW - Robotic architecture
KW - ROS
KW - Semantic maps
KW - Unity 3D
UR - https://www.scopus.com/pages/publications/85115631857
U2 - 10.1016/j.knosys.2021.107440
DO - 10.1016/j.knosys.2021.107440
M3 - Article
AN - SCOPUS:85115631857
SN - 0950-7051
VL - 232
JO - Knowledge-Based Systems
JF - Knowledge-Based Systems
M1 - 107440
ER -