ITU-T F 747 3-2013 Requirements and functional model for a ubiquitous network robot platform that supports ubiquitous sensor network applications and services (Study Group 16)《支持更新.pdf

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1、 B International Telecommunication Union ITU-T F.747.3TELECOMMUNICATION STANDARDIZATION SECTOR OF ITU (03/2013) SERIES F: NON-TELEPHONE TELECOMMUNICATION SERVICES Audiovisual services Requirements and functional model for a ubiquitous network robot platform that supports ubiquitous sensor network ap

2、plications and services Recommendation ITU-T F.747.3 ITU-T F-SERIES RECOMMENDATIONS NON-TELEPHONE TELECOMMUNICATION SERVICES TELEGRAPH SERVICE Operating methods for the international public telegram service F.1F.19 The gentex network F.20F.29 Message switching F.30F.39 The international telemessage

3、service F.40F.58 The international telex service F.59F.89 Statistics and publications on international telegraph services F.90F.99 Scheduled and leased communication services F.100F.104 Phototelegraph service F.105F.109 MOBILE SERVICE Mobile services and multidestination satellite services F.110F.15

4、9 TELEMATIC SERVICES Public facsimile service F.160F.199 Teletex service F.200F.299 Videotex service F.300F.349 General provisions for telematic services F.350F.399 MESSAGE HANDLING SERVICES F.400F.499 DIRECTORY SERVICES F.500F.549 DOCUMENT COMMUNICATION Document communication F.550F.579 Programming

5、 communication interfaces F.580F.599 DATA TRANSMISSION SERVICES F.600F.699 AUDIOVISUAL SERVICES F.700F.799ISDN SERVICES F.800F.849 UNIVERSAL PERSONAL TELECOMMUNICATION F.850F.899 HUMAN FACTORS F.900F.999 For further details, please refer to the list of ITU-T Recommendations. Rec. ITU-T F.747.3 (03/2

6、013) i Recommendation ITU-T F.747.3 Requirements and functional model for a ubiquitous network robot platform that supports ubiquitous sensor network applications and services Summary Recommendation ITU-T F.747.3 describes the concept, use cases, requirements and functional model of a ubiquitous net

7、work robot platform that supports ubiquitous sensor network (USN) applications and services. History Edition Recommendation Approval Study Group 1.0 ITU-T F.747.3 2013-03-16 16 Keywords Middleware, network robot system, ubiquitous network robot platform, USN. ii Rec. ITU-T F.747.3 (03/2013) FOREWORD

8、 The International Telecommunication Union (ITU) is the United Nations specialized agency in the field of telecommunications, information and communication technologies (ICTs). The ITU Telecommunication Standardization Sector (ITU-T) is a permanent organ of ITU. ITU-T is responsible for studying tec

9、hnical, operating and tariff questions and issuing Recommendations on them with a view to standardizing telecommunications on a worldwide basis. The World Telecommunication Standardization Assembly (WTSA), which meets every four years, establishes the topics for study by the ITU-T study groups which

10、, in turn, produce Recommendations on these topics. The approval of ITU-T Recommendations is covered by the procedure laid down in WTSA Resolution 1. In some areas of information technology which fall within ITU-Ts purview, the necessary standards are prepared on a collaborative basis with ISO and I

11、EC. NOTE In this Recommendation, the expression “Administration“ is used for conciseness to indicate both a telecommunication administration and a recognized operating agency. Compliance with this Recommendation is voluntary. However, the Recommendation may contain certain mandatory provisions (to e

12、nsure, e.g. interoperability or applicability) and compliance with the Recommendation is achieved when all of these mandatory provisions are met. The words “shall“ or some other obligatory language such as “must“ and the negative equivalents are used to express requirements. The use of such words do

13、es not suggest that compliance with the Recommendation is required of any party. INTELLECTUAL PROPERTY RIGHTS ITU draws attention to the possibility that the practice or implementation of this Recommendation may involve the use of a claimed Intellectual Property Right. ITU takes no position concerni

14、ng the evidence, validity or applicability of claimed Intellectual Property Rights, whether asserted by ITU members or others outside of the Recommendation development process. As of the date of approval of this Recommendation, ITU had not received notice of intellectual property, protected by paten

15、ts, which may be required to implement this Recommendation. However, implementers are cautioned that this may not represent the latest information and are therefore strongly urged to consult the TSB patent database at http:/www.itu.int/ITU-T/ipr/. ITU 2014 All rights reserved. No part of this public

16、ation may be reproduced, by any means whatsoever, without the prior written permission of ITU. Rec. ITU-T F.747.3 (03/2013) iii Table of Contents Page 1 Scope 1 2 References. 1 3 Definitions 1 3.1 Terms defined elsewhere 1 3.2 Terms defined in this Recommendation . 2 4 Abbreviations and acronyms 2 5

17、 Conventions 2 6 Overview of UNR-PF in terms of USN applications and services . 3 6.1 General overview of UNR-PF 3 6.2 Relationships between USN and UNR-PF . 4 7 Use cases of ubiquitous network robot platform 5 7.1 Health support service 5 7.2 Shopping support service . 6 8 Requirements for UNR-PF .

18、 8 8.1 Abstraction of functionality 8 8.2 Inter-service collaboration 9 8.3 Service among multiple areas . 10 8.4 Service execution based on customer attributes . 13 9 Functional model for UNR-PF . 13 9.1 Robot registry function . 15 9.2 Operator registry function 15 9.3 User registry function . 15

19、9.4 Map registry function . 15 9.5 Service queue function . 15 9.6 State manager function . 15 9.7 Resource manager function 15 9.8 Message manager function . 15 Bibliography. 17 Rec. ITU-T F.747.3 (03/2013) 1 Recommendation ITU-T F.747.3 Requirements and functional model for a ubiquitous network ro

20、bot platform that supports ubiquitous sensor network applications and services 1 Scope The objective of this Recommendation is to define a ubiquitous network robot platform, and to identify its requirements and functional model. The use of standard interfaces for the ubiquitous network robot platfor

21、m will ensure network robot service reusability, portability across several network robot services, and network accessibility and interoperability by the ubiquitous sensor network (USN). The scope of this Recommendation includes: the concept of ubiquitous network robot platform; requirements of the

22、ubiquitous network robot platform; functional model of the ubiquitous network robot platform. 2 References The following ITU-T Recommendations and other references contain provisions which, through reference in this text, constitute provisions of this Recommendation. At the time of publication, the

23、editions indicated were valid. All Recommendations and other references are subject to revision; users of this Recommendation are therefore encouraged to investigate the possibility of applying the most recent edition of the Recommendations and other references listed below. A list of the currently

24、valid ITU-T Recommendations is regularly published. The reference to a document within this Recommendation does not give it, as a stand-alone document, the status of a Recommendation. ITU-T F.744 Recommendation ITU-T F.744 (2009), Service description and requirements for ubiquitous sensor network mi

25、ddleware. ITU-T Y.2221 Recommendation ITU-T Y.2221 (2010), Requirements for support of ubiquitous sensor network (USN) applications and services in the NGN environment. 3 Definitions 3.1 Terms defined elsewhere This Recommendation uses the following terms defined elsewhere: 3.1.1 sensor ITU-T Y.2221

26、: An electronic device that senses a physical condition or chemical compound and delivers an electronic signal proportional to the observed characteristic. 3.1.2 sensor network ITU-T Y.2221: A network comprised of inter-connected sensor nodes exchanging sensed data by wired or wireless communication

27、. 3.1.3 sensor node ITU-T Y.2221: A device consisting of sensor(s) and optional actuator(s) with capabilities of sensed data processing and networking. 3.1.4 service ITU-T Y.2221: A set of functions and facilities offered to a user by a provider. 3.1.5 ubiquitous sensor network (USN) ITU-T Y.2221: A

28、 conceptual network built over existing physical networks which makes use of sensed data and provides knowledge services to anyone, anywhere and at any time, and where the information is generated by using context awareness. 2 Rec. ITU-T F.747.3 (03/2013) 3.2 Terms defined in this Recommendation Thi

29、s Recommendation defines the following terms: 3.2.1 robot: A device with a processing unit often accompanied by sensors and actuators that can work with real-world phenomena and entities. Robots can be roughly classified into the following three types: visible-type robot, virtual-type robot and unco

30、nscious-type robot. 3.2.2 ubiquitous network robot platform: Middleware that enables applications to perform services continuously by combining multiple robotic devices effectively across multiple areas. 3.2.3 unconscious-type robot: A type of robot that mainly senses real-world phenomena and proces

31、ses measurement results into high-level abstractions. An example of this type of robot is a camera equipped with a processing unit used for detecting people. Unconscious-type robots are often embedded in environments such as roads, towns or rooms, or are hidden in clothes or accessories. 3.2.4 virtu

32、al-type robot: A type of robot that mainly processes and utilizes information via a network. Smartphones are examples of this type of robot. Virtual-type robots typically interact with people through audio and visual modalities. 3.2.5 visible-type robot: A type of robot that can be seen and which ca

33、n take one of several forms such as a humanoid, a pet or a stuffed animal. Visible-type robots interact with people in a combination of verbal and nonverbal modalities such as through a conversation augmented by gestures. 4 Abbreviations and acronyms This Recommendation uses the following abbreviati

34、ons and acronyms: FDML Field Data Mark-up Language FE Functional Entity GPF Global Platform ID Identifier LOD Linked Open Data LPF Local Platform NGN Next Generation Network NRS Network Robot System PF Platform SOA Service-Oriented Architecture UNR Ubiquitous Network Robot UNR-PF Ubiquitous Network

35、Robot Platform USN Ubiquitous Sensor Network 5 Conventions None. Rec. ITU-T F.747.3 (03/2013) 3 6 Overview of UNR-PF in terms of USN applications and services 6.1 General overview of UNR-PF Demands for assistance robots are quickly emerging with the increase in elderly population. In recent decades,

36、 researchers have been focusing on constructing robots that can interactively support daily human activities. As the structure and functionality of robots grow large and complicated, constructing robots now requires more time, cost and effort. As with traditional software engineering, developers hav

37、e started to seek modularity and reusability of basic functional components, which has led to research and development of common libraries and middleware. Reusable and modular components allow developers to utilize existing functional modules in combination with their own software and to rapidly dev

38、elop working robots. This modularized development process has accelerated the development of stand-alone robots as well as individual functional components. At the same time, however, variations in both hardware and software have decreased the reusability of robotic applications. Another approach to

39、 enhance capabilities of robots is the concept called network robot system (NRS) or networked robots b-Sanfeliu2008. The main goal of NRS was to integrate various types of devices such as robots, sensor networks and smartphones, so that the whole system could act as an integrated system with enhance

40、d capabilities that cannot be attained by a single robot or multiple uniform robots. Since its introduction in 2002, many research projects have been carried out accompanied with real-world field experiments. These have successfully shown that the concept is effective (b-Jung2007, b-Nakamura2008, b-

41、Tezuka2006, b-Sanfeliu2010, b-Shiomi2011 and b-Salvini2011). However, customers need robots to support them in a much wider range of daily activities. Robots for individual household tasks such as cleaning floors or folding laundry are not sufficient. Support for the elderly and disabled in a variet

42、y of daily activities is in great demand. Such support requires robots to accompany people to many different places (e.g., homes, shopping malls, hospitals) and to assist people for various activities (e.g., checking health, showing routes, carrying luggage) in ways that differ depending on place an

43、d the physical demands of an individual (e.g., wheelchair user). At the same time, these sequences of activities shall be well integrated to provide comfortable and seamless support throughout our daily lives. Existing robotic systems cannot yet provide such continuous support in various aspects of

44、our daily lives. Although they have had success in enriching capabilities of individual robotic applications, a general framework is missing for adapting behaviours of robots and composing them to form an integrated sequence of applications. Similar concepts can be seen in computer systems, such as

45、service oriented architecture (SOA). SOA provides design principles for constructing large-scale information systems and has been adopted in various middleware stacks, especially in web service systems. In combination with the concepts of grid or cloud computing systems, many commercial services wit

46、h high dependability are available today. However, these concepts are not sufficient for robotic systems. The major difference between information systems and robotic systems is where the applications reside. Information system applications reside in cyberspace using information terminals such as pe

47、rsonal computers or mobile phones. This is especially clear for web-based systems where applications run through web browsers. Based on the information shown on the screen, users perform actions such as business procedures, travel and cooking. Thus, the actual work in the physical world is left to t

48、he customers. This is where the robotic systems with sensor networks start. Robotic systems need to consider various factors in real-world environments, including physical abilities and limitations of both customers and devices. Moreover, as stated previously, a variety of different devices need to

49、be integrated to realize continuous robotic support in our daily lives. 4 Rec. ITU-T F.747.3 (03/2013) As such, one needs to focus on different kinds of “ubiquity“, not just for location but also for various applications and ways of providing each service on the basis of customer attributes, as well as inter-application and inter-location continuity. As the complexity of robotic devices is much higher than that of traditional information systems, abstract, common access methods need to be provided for application programme