Intelligent Transport Systems - Telenor
Intelligent Transport Systems - Telenor
Intelligent Transport Systems - Telenor
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Steinar Hidle Andresen (59) is<br />
Professor at the Department of<br />
Telematics, the Norwegian University<br />
of Science and Technology,<br />
Trondheim. His research<br />
interests include Network and<br />
service aspects of Mobile/Cellular<br />
systems and Wireless LANs,<br />
Communication services for<br />
emergency services, Architecture<br />
and protocols within the<br />
<strong>Intelligent</strong> <strong>Transport</strong>ation <strong>Systems</strong>,<br />
Network Intelligence and<br />
Mobility Management. Andresen<br />
has broad system knowledge<br />
within the above areas, plus<br />
specialist’s knowledge in some<br />
of the fields: switching networks,<br />
communication protocols, electronic<br />
localisation techniques<br />
and some formal description<br />
techniques (e.g. ASN.1).<br />
steinar.andresen@item.ntnu.no<br />
Knut Evensen (42) obtained his<br />
MSc in Telematics from the Norwegian<br />
Univ. of Science and<br />
Technology (NTNU) in 1981. In<br />
1985 he joined Micro Design<br />
R&D department in Trondheim.<br />
He became involved in ITS international<br />
R&D projects and standardization<br />
efforts in 1988, and<br />
is currently the section manager<br />
responsible for this field in<br />
Q-Free. Knut Evensen holds<br />
several formal positions in ISO<br />
and CEN related to development<br />
of advanced ITS communication<br />
standards.<br />
knut.evensen@q-free.com<br />
Telektronikk 1.2003<br />
Standardisation and Trends<br />
– Why is Standardisation of ITS Needed?<br />
STEINAR H ANDRESEN AND KNUT EVENSEN<br />
1 Introduction<br />
The human demand for transport has influenced<br />
both our ingenuity and our environment. The<br />
demand for water transport in early times<br />
resulted in impressing aquaducts, and since<br />
Roman times roads have influenced the landscape.<br />
In modern times railroads and roads for<br />
motor vehicles have had a profound impact on<br />
our environment. Bridges and tunnels allow constructions<br />
of carriageways never thought possible,<br />
resulting in efficient and impressive traffic<br />
arterials. But is there not also a downside? Sure,<br />
the motorized movement (and even the parking)<br />
of cars and big lorries has caused increasing congestion,<br />
pollution, and a sheer demand for space<br />
not compatible with medieval villages and<br />
towns.<br />
This has resulted in excessive land use and in<br />
many countries and urban “sprawl”; housing and<br />
urban settlements invading the countryside fostering<br />
more traffic.<br />
Then enters ITS (<strong>Intelligent</strong> <strong>Transport</strong>ation <strong>Systems</strong>)<br />
also called <strong>Transport</strong> Telematics, what is<br />
it? Can it have any impact? It will and already<br />
today, like it or not, most new cars have many<br />
computers and literally hundreds of motors and<br />
actuators. Modern cars come with a wiring corresponding<br />
to a local area network. Combine this<br />
with technology from cellular and wireless networks,<br />
navigation means like GPS and the signal<br />
processing capacity of modern circuitry; then<br />
you will see that a revolution is bound to happen.<br />
What would be the impact? Well, that is<br />
difficult to say, but the sheer volume of the traffic<br />
in question makes even small improvements<br />
favourable. If a modern navigation system can<br />
save 7 % of mileage (a number obtained more<br />
than 6 years ago in London) this will have an<br />
instant impact on the bottom line for the distribution<br />
firm in question. So far we have mostly<br />
seen incremental improvements on “traditional”<br />
transport means, but the future may also foster<br />
widespread use of more revolutionary systems<br />
as depicted in the PRT (Private Rapid <strong>Transport</strong>)<br />
systems reported elsewhere in this issue.<br />
In this article we will focus on on-road traffic,<br />
both for personal mobility and goods transport.<br />
This kind of traffic has perhaps more than any<br />
other thing influenced our environment and<br />
landscape (construction of roads, interchanges,<br />
bridges, tunnels, car parks).<br />
2 Why Standardisation is<br />
Needed<br />
The aim of ITS is to make transport<br />
1 More efficient, both in terms of its influence<br />
on energy usage and environmental impact,<br />
as well as the money and time budget;<br />
2 Safer, reducing the number of accidents in<br />
transport especially reducing the number and<br />
degree of serious damage to individuals.<br />
Recent developments have shown the need<br />
for anti-terrorist usage;<br />
3 More user friendly and enjoyable.<br />
When trying to implement the ITS means it is<br />
worth mentioning the different views held by the<br />
car makers on the one side and the authorities<br />
and the general public on the other: Both sides<br />
may subscribe to the aims given above, but the<br />
car makers tend to concentrate on the characteristics<br />
and equipment of their own cars, more<br />
than on the infrastructure and general picture.<br />
Standardisation is an old remedy used to facilitate<br />
widespread introduction of an intended<br />
practice. As can be deduced from the comment<br />
above, it is a process more likely to be driven by<br />
authorities and public interest groups. Within<br />
this field the general business landscape is somewhat<br />
confusing as legacy car producers team up<br />
with Microsoft and cellular communication<br />
operators or equipment makers to launch new<br />
services and features. This is known as ad-hoc<br />
or industrial standards.<br />
However on a regional scale standardisation efforts<br />
was started in the late 80s and formalised within<br />
the ISO standardisation framework in the 90s.<br />
For automotive traffic, this work is structured<br />
within the auspices of ISO Technical Committee<br />
TC 204 “<strong>Transport</strong> Information & Control <strong>Systems</strong>”<br />
which draws participant members from<br />
the following 22 countries: Australia, Austria,<br />
Canada, China, Czech Republic, Denmark, France,<br />
Germany, India, Iran, Ireland, Italy, Japan,<br />
Korea, Malaysia, The Netherlands, Norway, The<br />
Russian Federation, Sweden, United Kingdom<br />
and USA and observing membership from about<br />
26 more nations (among them Finland).<br />
The TC 204 is responsible for standardization of<br />
information, communication and control systems<br />
in the field of urban and rural surface transporta-<br />
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