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Automatic 3D space initialization system using depth camera and catalogue database | IEEE Conference Publication | IEEE Xplore

Automatic 3D space initialization system using depth camera and catalogue database


Abstract:

In this paper, we propose a method to initialize a real living space for the purpose of robotics services support in human daily activities. To introduce service robot in...Show More

Abstract:

In this paper, we propose a method to initialize a real living space for the purpose of robotics services support in human daily activities. To introduce service robot into unknown or first-see living environment, a robotics system needs environmental information such as furniture 3D appearance and articulation. This functional information can be realized using environment map that can filtering candidates for furniture automatically. The environment map which contains furniture 3D information presented in this paper is developed by using depth camera and online database like furniture catalogue. The realization of this proposed method is done through a plug-in created in layout software, Microsoft Office Visio. This initialization for robotics service generation in human daily-life may provide a better robot's task performance. The result shows the 3D geometric model or environment map of standard Japanese-style living space.
Date of Conference: 10-12 August 2014
Date Added to IEEE Xplore: 29 September 2014
Electronic ISBN:978-1-4799-6381-2

ISSN Information:

Conference Location: Kumamoto, Japan
References is not available for this document.

I. Introduction

Robot Technology (RT) has been involved in human activities for many years. In the early years of RT, robots have become human co-worker at factory or working place which also known as industrial robot. Nowadays, instead of just being human ‘co-worker’, robot has become human ‘partner’ which ‘live’ in a more complex environment and also known as domestic robot. One of the function of domestic robot is to ‘do work’ at home where robot needs information resource of the operation environment to interact with human and delivering appropriate service according to human intention [1]. In an environment which is specifically designed for robot such as factory, it is not important for the robot to understand or recognize the environment. The robot just focuses to finish the scheduled robotic routines at the assembly. Meanwhile, human living space is not designed to accommodate robots living together with human. It will be costly for the house developer to build every homes with RT functionalities as well as it is not appropriate to design one robot to each house. Therefore, in order to provide robotic services at home, it is significant to make the robot to be able to integrate with every individual actual home environment.

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1.
Ngo Lam Trung, Maeda Y, Haeyeon Lee, Mizukawa M (2012). Ambigous Command Understanding with Commonsense in ROMAN. pp 545-550.
2.
Gunter M, Wiemann T, Albrecht S, and Hertzberg J. Building Semantic Object Maps from Sparse and Noisy 3D Data. IEEE/RSJ International Conference on Intelligent Robots and Systems (IROS), 2013.
3.
T. Sasaki, Y. Toshima, M. Niitsuma, and H. Hashimoto, Human system interaction through distributed devices in intelligent space, in Advances in Human-Robot Interaction, INTECH, Croatia, December 2009, pp. 342
4.
Malchus K, Jaecks P, Damm O, Stenneken P, Meyer C, Wrede B. The Role of Emotional Congruence in Human-Robot Interaction. Presented at the Human-Robot Interaction (HRI 2013), Tokyo, Japan.
5.
Peltason J, Rieser H, Wachsmuth S (2013).The hand is no banana! On communicating natural kind terms to a robot. In: Alignment in Communication: Towards a New Theory of Communication. ; In Press.
6.
Lohse M, van Welbergen H (2012). Designing Appropriate Feedback for Virtual Agents and Robots. In: Position paper at RO-MAN 2012 Workshop Robot Feedback in Human-Robot Interaction: How to Make a Robot Readable for a Human Interaction Partner.
7.
Tsukumori Y, Ando Y, Mizukawa M (2008). Development of Interface that Cooperates with Intelligent Space to Operate Daily Support Easily in System Integration Division Annual Conference (SICE SI2008). pp. 557-558.
8.
Elzabadani H E (2006). Self Sensing Spaces. Dissertation submitted for the degree of Doctor of Philosophy, University of Florida.
9.
D. Pangercic, B. Pitzer, M. Tenorth, and M. Beetz, Semantic object maps for robotic housework-representation, acquisition and use, in Proc. IROS-2012, 2012, pp. 4644-4651.
10.
B. Peasley, and S. Birchfiled .Real time obstacle detection and avoidance in the presence of specular surface using an active 3D sensor, IEEE Workshop on Robot Vision (WoRV), Clearwater, Florida, January 2013.
11.
Nur Safwati Mohd Nor and Makoto Mizukawa (2014). Robotic services at Home: An Initialization System Based on Robot's Information and User Preferences in Unknown Environment. Int J Adv Robot Syst, InTech. (Accepted for publication)
12.
The 2014 IKEA Catalogue. URL http://www.ikea.com/ms/en-JP/virtual-catalogue/online-catalogues. htm l[Online, Accessed January 30, 2014].
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References

References is not available for this document.