ISO/IEC TR 29181-9:2017
(Main)Information technology — Future Network — Problem statement and requirements — Part 9: Networking of everything
Information technology — Future Network — Problem statement and requirements — Part 9: Networking of everything
ISO/IEC TR 29189-9:2017 describes the general characteristics of Networking of Everything (NoE), which can be applied to Future Networks, especially from an Internet of Things (IoT) perspective. This document specifies: - a conceptual model of NoE and its definition; - problem statements in conventional networking; - standardization activities of other standards-development organizations; - requirements for NoE from an IoT perspective; - technical aspects. NOTE: Since networking issues are an integral part of IoT and Future Networks, while standards of IoT or Future Networks are under development in other standards-development organizations, this document focuses on networking issues to integrate diverse networking techniques to provide users' service and/or things requirement.
Technologies de l'information — Réseaux du futur — Énoncé du problème et exigences — Partie 9: Réseautique universelle
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Standards Content (Sample)
TECHNICAL ISO/TR
REPORT 29181-9
First edition
2017-04
Information technology — Future
Network — Problem statement and
requirements —
Part 9:
Networking of everything
Technologies de l’information — Réseaux du futur — Énoncé du
problème et exigences —
Partie 9: Réseautique universelle
Reference number
ISO/TR 29181-9:2017(E)
©
ISO 2017
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ISO/TR 29181-9:2017(E)
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ISO/TR 29181-9:2017(E)
Contents Page
Foreword .iv
Introduction .v
1 Scope . 1
2 Normative references . 1
3 Terms and definitions . 1
4 Abbreviated terms . 4
5 Overview of Networking of Everything (NoE) . 4
6 Problem statement . 6
6.1 User’s perception . 6
6.1.1 Static network selection . 6
6.1.2 Inconvenient network change . 7
6.1.3 Reconnection to network . 7
6.1.4 Separate accounting . 7
6.1.5 Thing-user centric communications . 7
6.2 Network’s perception . 7
6.2.1 Cooperation among ISPs . 7
6.2.2 Inter-services between different types of networks . 7
6.2.3 Reliable data transmission after path setup . 7
6.2.4 Different accounting policy . 8
6.2.5 Thing-user centric networks . 8
7 Related standardization and research activities . 8
7.1 ISO JTC1 . 8
7.1.1 JTC1 WG10 . 8
7.2 ITU-T . 8
7.2.1 Next Generation Network (NGN) . 8
7.2.2 Future Networks . 9
7.2.3 Smart Ubiquitous Networking (SUN) .10
7.2.4 ITU-T SG 20 .11
7.3 Internet Engineering Task Force (IETF) .11
7.4 IEEE .12
7.5 oneM2M .13
8 General requirements for NoE .14
8.1 Network transparency .14
8.2 Optimized network performance .14
8.3 One universal accounting.14
8.4 Security and privacy .14
8.5 Instantaneous integration of networks for the thing-user .14
9 Technical requirements for NoE.15
9.1 Agent functions for NoE .15
9.2 Network functions for NoE .15
9.3 Integrated functions of NoE .16
Annex A (informative) U-health use case in NoE .18
Annex B (informative) Spatial collaborative work use case in NoE .20
Bibliography .22
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ISO/TR 29181-9:2017(E)
Foreword
ISO (the International Organization for Standardization) and IEC (the International Electrotechnical
Commission) form the specialized system for worldwide standardization. National bodies that are
members of ISO or IEC participate in the development of International Standards through technical
committees established by the respective organization to deal with particular fields of technical
activity. ISO and IEC technical committees collaborate in fields of mutual interest. Other international
organizations, governmental and non-governmental, in liaison with ISO and IEC, also take part in the
work. In the field of information technology, ISO and IEC have established a joint technical committee,
ISO/IEC JTC 1.
The procedures used to develop this document and those intended for its further maintenance are
described in the ISO/IEC Directives, Part 1. In particular the different approval criteria needed for
the different types of document should be noted. This document was drafted in accordance with the
editorial rules of the ISO/IEC Directives, Part 2 (see www .iso .org/ directives).
Attention is drawn to the possibility that some of the elements of this document may be the subject
of patent rights. ISO and IEC shall not be held responsible for identifying any or all such patent
rights. Details of any patent rights identified during the development of the document will be in the
Introduction and/or on the ISO list of patent declarations received (see www .iso .org/ patents).
Any trade name used in this document is information given for the convenience of users and does not
constitute an endorsement.
For an explanation on the voluntary nature of standards, the meaning of ISO specific terms and
expressions related to conformity assessment, as well as information about ISO’s adherence to the
World Trade Organization (WTO) principles in the Technical Barriers to Trade (TBT) see the following
URL: w w w . i s o .org/ iso/ foreword .html.
This document was prepared by ISO/IEC JTC 1, Information technology, Subcommittee SC 6,
Telecommunications and information exchange between systems.
A list of all parts in the ISO/IEC 29181 series, published under the general title Information technology —
Future network — Problem statement and requirements, is available on the ISO website.
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ISO/TR 29181-9:2017(E)
Introduction
This document defines the problem statement and requirements for the future network in the
networking of everything, which would be the Internet of Things (IoT) network aspects.
Considering that many standards-development organizations, including ITU-T, already produced their
own IoT-related standards or recommendations (such as ITU-T Y.2060, Y.2061, and Y.2069), this document
has a clear scope, with new terms and definitions that are consistent with those already in existence.
This document focuses on providing the solutions to other standards-development organizations’
requirements; discussing how various networking technologies should be integrated for users.
This document focuses on networking issues, excluding how virtual things can be associated with
physical things or devices. The problems of current networks and requirements for Future Networks
are discussed in other parts of ISO/IEC 29181. This document only discusses the problems of current
networking technologies and policies, and the requirements for the networking of Future Networks,
especially considering future super realistic services like IoT.
Use cases in the Network of Everything are provided in Annexes A and B.
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TECHNICAL REPORT ISO/TR 29181-9:2017(E)
Information technology — Future Network — Problem
statement and requirements —
Part 9:
Networking of everything
1 Scope
This document describes the general characteristics of Networking of Everything (NoE), which can be
applied to Future Networks, especially from an Internet of Things (IoT) perspective. This document
specifies:
— a conceptual model of NoE and its definition;
— problem statements in conventional networking;
— standardization activities of other standards-development organizations;
— requirements for NoE from an IoT perspective;
— technical aspects.
NOTE Since networking issues are an integral part of IoT and Future Networks, while standards of IoT or
Future Networks are under development in other standards-development organizations, this document focuses
on networking issues to integrate diverse networking techniques to provide users’ service and/or things
requirement.
2 Normative references
The following documents are referred to in the text in such a way that some or all of their content
constitutes requirements of this document. For dated references, only the edition cited applies. For
undated references, the latest edition of the referenced document (including any amendments) applies.
There are no normative references in this document.
3 Terms and definitions
For the purposes of this document, the following terms and definitions apply.
ISO and IEC maintain terminological databases for use in standardization at the following addresses:
— IEC Electropedia: available at http:// www .electropedia .org/
— ISO Online browsing platform: available at http:// www .iso .org/ obp
3.1
actuator
device that triggers a physical action following stimulation by an input signal
[SOURCE: ITU-T Y.2061]
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3.2
collaborative work group
group of thing-users that can perform planning a job, recruiting thing-users, and coordinating thing-
users without human intervention
3.3
composite QoS
overall performance provided by all networks which are instantaneously interconnected to provide a
service to a user
3.4
context
information that can used to characterize the environment of a user
[SOURCE: ITU-T Y.2002]
3.5
device
piece of equipment with the mandatory capabilities of communication and the
optional capabilities of sensing, actuation, data capture, data storage, and data processing
[SOURCE: ITU-T Y.2060]
3.6
everything
piece of equipment with capabilities of communication with any type
network appropriately according to the network environments (or conditions), or user’s (predefined)
requirements like accounts, contracts, QoS, security, or privacy
Note 1 to entry: It can be regarded as combined equipment with a device and physical thing in IoT
terminologies. Simply “everything” in the NoE can be regarded as any “device with things” in the IoT.
3.7
identifier
series of digits, characters and symbols or any other form of data used to identify subscriber(s), user(s),
network element(s), function(s), network entity(ies) providing services/applications, or other entities
(e.g. physical or logical objects)
[SOURCE: ITU-T Y.2091]
3.8
Internet of Things
IoT
global infrastructure for the information society enabling advanced services by interconnecting
(physical and virtual) things based on existing and evolving, interoperable information and
communication technologies
[SOURCE: ITU-T Y.2060]
3.9
machine-to-machine application
M2M
application enabled by the communication between two or intervention in the process of communication
[SOURCE: ITU-T Y.2240]
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3.10
network agent
virtual object that (1) monitors and coordinates each individual networks, (2) provides information
of networks which are capable to the user device, and (3) (re)selects an optimal network through
negotiation between user devices and appropriate networks
Note 1 to entry: This network agent can be implemented in each network platform separately with limited
operations depending on its features. Also it may be implemented in diverse shapes such as a one single agent
server, distributed agent servers among each networks, or software in each network platform.
3.11
Networking of Everything
NoE
technologies where every kind of systems communicates with each other regardless of the types of
devices or things attached to the devices
Note 1 to entry: Everything (or any device with things) can access any network appropriately and communicate
with everything (or any device with things) according to the network environments (e.g. available networks,
network conditions, etc) and the thing’s requirements (e.g. account, contracts, privacy, security, require QoS,
etc.). For example, NoE can provide a capability that a communication will be handed over from mobile LTE
telecommunication network to WLAN access network with seamless manner, if needed.
3.12
object
intrinsic representation of an entity that is described at an appropriate level of abstraction in terms of
its attributes and functions
[SOURCE: ITU-T Q.1300]
3.13
proximity defined network
PDN
network configured among devices in close proximity, using conventional LAN or WAN technologies:
which are in not only physically close proximity, but also closely related, or logically close proximity
3.14
sensor
electronic device that senses a physical condition or chemical compound and delivers an electronic
signal proportional to the observed characteristic
[SOURCE: ITU-T Q.2221]
3.15
sensor node
device consisting of sensor(s) and optional actuator(s) with capabilities of sensed data processing and
networking
[SOURCE: ITU-T Q.2221]
3.16
thing
object of the physical world (physical things) or of the information world (virtual thing), which is
capable of being identified and integrated into communication networks
[SOURCE: ITU-T Y.2060]
Note 1 to entry: Physical things are capable of being sensed, actuated, and connected such as robots, goods,
electrical equipment. Virtual things are capable of being stored, processed and accessed such as multimedia
content and application software.
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3.17
thing-user
thing which uses the network service or the service provided by other things
Note 1 to entry: Physical things and virtual things can be a thing-user.
4 Abbreviated terms
ISP inter service provider
LTE long term evolution
NGN next generation networks
SOA service-oriented architecture
TCP transmission control protocol
QoS quality of service
UDP user datagram protocol
USN ubiquitous sensor networks
5 Overview of Networking of Everything (NoE)
Currently, there are various different types of networks in the market such as mobile telecommunication
networks, IP-based data networks, etc. However since each network is usually operated by different
owners, even though multiple networks are even available to the same device, user device has no choice
but to access to the predetermined (pre-contractual) network. Even though a device can access to two
or more different networks, still there are inconveniences;
— it should be done manually,
— it takes relatively long time to change the networks,
— there is no choice to prioritize the network search sequence,
— there is no consideration for power consumption to find an appropriate network.
There are also problems with networking itself, especially between different types of networks.
Since mostly each network is operated and maintained by separate individual groups, there are lots
of technical and administrative difficulties in inter-networking. Even two different networks owned
by the same owner are still operated independently without considerations of interconnectivity or
handover between two networks. Users are forced to use only the network that the ISP provided.
In the Future Network, any piece of equipment with capabilities of communication becomes a user of the
network: a thing-user. Trillions of NoE devices will be accommodated in the network. The connections
perceived by thing-users will raise the networking scale to an unprecedented level.
The NoE device is capable of being sensed, actuated, collaborated and socialized. The NoE device
varies in intelligence. The intelligent thing-user will be smart enough to perceive the goal, comprehend
actionable knowledge and project strategies. The intelligent thing-user requires a network to
accommodate the autonomous collaborative working, which is performed by planning a job, recruiting
thing workers, and coordinating thing workers without human intervention.
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This document describes how NoE can enable Future Network users to overcome those problems.
However, since the scope of NoE is too wide, this document addresses the followings from the network
handover point of view and heterogeneous service network integration:
— NoE conceptual models;
— types of networks;
— network discovery and selection;
— network status monitoring;
— handover between different types of networks;
— fast and reliable efficient connection;
— heterogeneous service network integration.
This document focuses on the handover of networking and the integrated networking of physical things
over heterogeneous access network, even though it is based on the other networking parameters such
as QoS/Composite QoS, routing/switching, mobility, security, collaboration, and so on.
Figure 1 defines a virtual abstract object named network agent which is to describe those networking
mechanism of handover, even between different types of networks and heterogeneous service network
integration. In real implementation, it may be implemented in diverse shapes such as a single agent
server, distributed agent servers among each networks, or software in each network platform.
Each network provides its platform over which M2M or IoT services are available. Those IoT-like services
(mostly M2M services) are still restrictive to specific devices for specific services. In a Future Network
environment, IoT services should be open or easy to access with simple registration or a contract.
A network agent – perceived from a user’s viewpoint -– monitors the status of all possible networks
around the network agent. The networks around it may be viewed hierarchically based on the distance
so that the network agent may see mainly available networks.
NOTE Figure 1 is the modified version of Figure 2 of ITU-T Y.2060, indicating that NoE focuses on
“communication networks” in the physical world.
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Figure 1 — Conceptual model of NoE and its scope from the network handover point of view
When a user wants to communicate, the device gets some advice from the network agent which searches
the appropriate network based on the application. For example, if the application is a simple voice
telephone, the network agent will find a 2G-like cheap network or WLAN VoIP. After VoIP in the WLAN
is selected, during the communication, it may happen that the remote access network is overloaded.
Then the network agent (located in the remote access network area) will hand its channel to the LTE
network seamlessly.
When a thing-user wants to coordinate a collaborative work group, the thing device gets some advice
from the network agent which discovers appropriate thing devices in a proximity defined network and
provides connections for a collaborative work group. For example, if the application is an autonomous
building door access service for a delivery drone which is performed by the building security guard
robot and the building door access controller, and if the thing devices are served by different service
networks, the network agent will coordinate the thing devices to form a proximity defined network
integrated over heterogeneous service networks.
To provide those kinds of services, this document considers NoE from the viewpoint of handover even
between heterogeneous access networks and integration of heterogeneous service networks.
6 Problem statement
6.1 User’s perception
6.1.1 Static network selection
Currently when a person buys a smart phone and contracts to a mobile telecom company, he does not
have any choice to select a network. Even though he is in the location where different types of network
are available, still he does not have any choice regardless of his QoS request. For example, he has to
connect to a wideband expensive network for a simple and short chat.
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6.1.2 Inconvenient network change
Even when he can switch from one network to the other, still he does it manually, or waits for a relatively
long time to be switched. Even though two or more networks are available, still no one knows which
network is suitable for him.
6.1.3 Reconnection to network
While he is using a network, if somehow he decides to change the network to another, he has to start
from the beginning since the new network does not know any information about the user’s device,
content types, etc. It may cause a critical delay to a time-sensitive application.
6.1.4 Separate accounting
If he wants to access different networks wherever needed, he has to contract separately with different
accounts and manage separate bills. It is very serious when travelling to foreign countries with different
accounting policies.
6.1.5 Thing-user centric communications
If an intelligent thing-user wants to organize a collaborative work group autonomously with things in
proximity connected over heterogeneous service networks, there is no solution for supporting thing-
user centric communications. The protocols of service networks are defined in the application layer
and are designed for specific service purpose only, without considering sharing the service capability
with other thing-users.
6.2 Network’s perception
6.2.1 Cooperation among ISPs
Each ISP now cooperates with other ISP to provide transit services, even among different countries.
However, as the request for diverse big data or time-sensitive short data delivery is increased, the
policy should be revisited.
6.2.2 Inter-services between different types of networks
Up to now, each network has evolved with its own features. The mobile telecommunication industry
by which most of internet services will be provided has expanded very fast. On the other hand,
mobile internet devices provide telecommunication voice service. However, a user still has to select
one network for the same service without knowing the network status. The user has to restart his
1)
connection if his chosen was wrong. Even worse, the user has to restart from the beginning if the
delivery was not successful at the final stage as the quality of network is getting worse as time goes by.
6.2.3 Reliable data transmission after path setup
For reliable data transmission, TCP-like connection is established prior to data transmission. Time-
sensitive data are transmitted through UDP-like connectionless service. However, when a sequence of
data which should be time-sensitive and reliable are to be transmitted even through different types
of networks, there is no mechanism to provide such a service. For example, if a doctor wants to send a
series with short vital pulse information from his LTE smartphone to expensive equipment connected
to the hospital internet, the vital information cannot be delivered seamlessly unless the mobile
telecommunication network can hand them over to the hospital internet in time.
1) The ‘connection’ referred in this document is not a technical term. It may be a ‘connection’ usually perceived by
general users.
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6.2.4 Different accounting policy
For the same service with same quality and same amount of data, user has to pay different amount of
money even to the same company. Regardless of user’s preference, network charges only for the access.
6.2.5 Thing-user centric networks
The current networks are designed for human-to-human or human-to-object interaction. I
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