Infrastructure development using wireless
technology
“This article will demonstrate the path and experiences in facilitating a
community movement to build its own communication infrastructure.”
A glimpse of the past
“PaguyubanNet”,
the earliest form on Internet in Indonesia was established in 1993, as a
result of considerable effort and expertise contributed by a handful of
national digital pioneers. “Paguyuban” is a Bahasa Indonesian
word meaning “helping each other”.
Prior to the establishment
of PaguyubanNet, in 1986, early network development was inspired leading
amateur radio pioneers. This
inspiration was carried forward by similar radio experiments performed by
students at the Amateur Radio Club (Institute of Technology of Bandung (ITB).
As a result of financial
restrictions, all experiments were run on first generation personal
computers (with 64KB of RAM) and used radio for data communications.
The speed of transmission was 1/10000 of the speed of WiFi today.
Since 2001, the Director for Vocational Schools at the Ministry of Education
has been leading the integration of more than 1500 vocational schools to the
Internet through WiFi. Much ground is left to be covered with a total of
1300 colleges / universities, 10,000 high schools, 10,000 Islamic schools,
4,000 vocational schools yet to be connected.
This journey towards
achieving low-cost connectivity was complemented with many talented and
dedicated Indonesians who enjoyed sharing their knowledge, expertise and
resources for the betterment of Indonesian society. Today, the learning and
development process is continued through various Indonesian mailing lists,
such as, orari-news@yahoogroups.com, indowli@yahoogroups.com, and genetika @groups.or.id.
WiFi to bypass Telco last mile
Over
half of the Internet infrastructure operating costs goes for paying the Telco
last mile. This phenomenon is what drives communities to seek alternate
solutions to build their own network to bypass the Telco last mile. One of the
easiest ways to accomplish this is to use the off-the-shelf low cost WiFi
(Wireless Fidelity) technology running at 2.4GHz & 5.8GHz band. WiFi
wireless Internet solutions can be found on the Web at http://sandbox.bellanet.org/~onno/,
http://www.wavelan.com, http://www.ydi.com, and http://www.wipop.com. WiFi
equipment is originally designed for indoor usage. However, it is also used
outdoors. Unlike indoor installations, there is an outdoor external antenna
used along with a 20-30 meter tower to extend the range of coverage to reach
5-8 km distances. Building low cost homemade 2.4GHz antenna is not very
difficult; a tin can with 90 mm diametre, and 215 mm length can be easily used
as a 2.4GHz antenna for 1-2 km distances. It costs approximately US$5-10 per
antenna. Someone with a strong
Linux background may easily build a low cost gateway / router to integrate a
LAN or a community to the Internet at 11Mbps.
Community neighbourhood network
model
The
Community Neighbourhood Network model moves away from the conventional
Telecentre model, which centralizes all connectivity in a single room. The new
WiFi Community Network distributes connectivity throughout the neighbourhood
thereby reducing monthly costs for 24 hour Internet access.
As more houses or computers in the neighbourhood will be connected to
the neighbourhood network, the operating cost as well as the initial
investment cost will decline.
To get a better idea of the
savings one can achieve by developing an outdoor WiFi neighbourhood network,
let us conduct a price comparison. Broadband 24 hour Internet access from the
Indonesian Telco costs US$400-800/month/user.
This price allows the user to exchange limited traffic over the network
with a high level QoS (Quality of Service).
In comparison, WiFi Neighbourhood Network broadband 24 hour Internet
access costs US$15-45/month1 /neighbour.
This low price includes the ability for users to exchange unlimited traffic on
the network with variable QoS (Quality of Service), depending on the level of
traffic at that time.
Currently, there are over 5000
institutions including broadband Internet cafes, schools, and residential
neighbourhoods using WiFi technologies as an alternative to conventional
connectivity options.
Regional Networks
Now
that we know how to link individual communities, we can take a step back to
look at how to connect the communities to one another through a broader
regional network. The two (2) most common technologies to build the regional
network are satellite and fibre optics.
DVB-RCS satellite backbone is
the cheapest solution currently available to Indonesia is selling for
US$200-700 at 64Kbps, depending on the agreement on the satellite ground
station. Fibre optics/microwave backbone can be rented from cellular
operators. The excess capacity is used for our data traffic between cities.
The local ISP (Internet Service Provider) normally rents the backbone from the
cellular operators, and then resells it to the community.
Capacity building: Encouraging
local knowledge producers
In
creating a self-financed knowledge cycle, there are basically two (2) critical
strategies, namely: transforming local youth into knowledge producers; and
supply-created-by-demand strategy.
Without
skilled and dedicated people to drive this movement, the deployment of such
innovative infrastructure would not be possible. This infrastructure model
thrives only because it is invested, built, and run by the people for the
people. Having easy access to low cost technology is not enough. In Indonesia,
ICT knowledge in local language is limited.
A key component for the
successful deployment of WiFi technologies in the Indonesian context is the
development of young students to become local knowledge producers. These
knowledge producers (young authors) acquire WiFi knowledge from various
sources, experiment with them, and then author their experiences into
publications in the local language (Bahasa Indonesia).
To sustain young authors to continue producing knowledge materials they
are compensated with US$15-25/article and US$500-700/book. The typical monthly
living cost for a student is US$80-95 (including tuition, books, housing and
meals).
The impact of knowledge
producers is felt on many levels. Not
only do their publications educate people, but they also open people’s minds
to new ideas and help reaffirm the feasibility of investing their own money in
such infrastructure models. Once
people are convinced to deploy community neighbourhood networks, they can
utilize knowledge produced by the young authors to assist in building their
capacities. These capacities
include initial set up, operation, and maintenance of the infrastructure.
With a sound knowledge base
and strong network of knowledge producers, communities can become
self-sustaining, by developing and maintaining their own equipment and
services. Similar initiatives from large top-down institutions often result in
failure because the methodology they use treats people as customers, rather
than empowering them to participate in achieving a sustainable solution.
Policy influence: Liberating
2.4GHz and 5.8GHz WiFi band
The
diffusion of WiFi neighbourhood networks in Indonesia not only depends on the
people, but also on the government and policy regulation. This interdependency
has made an impacted on the movement for quite some time. The issue at hand is
liberating WiFi band (2.4GHz and 5.8GHz) from harsh government regulations.
Prior to 1999, licenses for
running WiFi nodes cost US$2200/yr/node.
This price was reduced to US$270/yr/node after some negotiations in
2001. However, WiFi licenses continue to be awarded only to ISPs. Those who
run WiFi without a license have their equipment revoked by the government.
In October 2003, the Ministry
of Telecommunications wrote a draft decree on WiFi. The decree is still open
and many Indonesians hope that the Ministry will consider the numerous
benefits, both economical and social, that will emerge if the WiFi band is
liberated. 1 US$400 to ISP for 24 hours/day divided by 10-30 neighbours From
the chart above one can see the significant increase in WiFi equipment upon
liberalization of the WiFi band. Currently neighbourhood networks encourage
local SMEs (Small and Medium Sized Enterprises) to manufacture antennas and
towers at a lower cost than their foreign competitors.
With the increase from 5,500 units to 130,000 units, manufacturers will
be able to provide a lower price to the end consumer due to the principle of
economies of scale. The current demand of 5,500 units is not sufficient to
provide incentive for new manufacturers to enter the market.
However, the increase in demand to 130,000 units will translate into a
lower per unit manufacturing cost.
Figure
1: Potential Impact of WiFi Liberation in Indonesia
| Impact
|
Current
|
Future
(if liberalization occurs) |
| WiFi
based Internet users |
1
million |
17.8
million |
| Potential
ISP tax revenue |
US$120,000/yr |
US$2.5
million/yr |
| Potential
revenue from ISPVAT (Value Added Tax) |
US$800,000/yr |
US$15
million/yr |
| Potential
revenue from supplier VAT |
US$2.1
million |
US$70
million |
| Computers
50,000 units |
2
million units |
|
| WiFi
Equipment |
5,500
units |
130,000
units |
Furthermore, as studies have
indicated, the additional revenue the government can generate from the volume
of ISP and vendor taxes will be more than sufficient to compensate for the
loss of revenue from WiFi licensing.
Conclusion
Over
the past 10 years, Onno Purbo and his colleagues have worked very hard to make
all the pieces fit into the Indonesian WiFi Neighbourhood Network puzzle. This
process is quite involved and requires equal amounts of attention to capacity
building of the people, research of new technologies, and engaging in the
policy arena.<
Contacts
For inquiries regarding the
community-based ICT infrastructure, please write to Onno Purbo (onno@indo.net.id).
For further information and other inquiries regarding this article, please
submit your request to Frank Tulus, Senior Program Officer, Pan Asia
Networking, IDRC (ftulus@idrc.org.in) or Chaitali Sinha, Research Officer, Pan
Asia Networking, IDRC (csinha@idrc.ca).
|