and urban dwellers are involved at varying levels. In
urban or semi-urban areas, people operate poultry
production systems at either subsistent, usually as a part
time job or at commercial level. The level of production
determines the land space, scale, technological
application and other input resources. According to
Adene (2010), commercial poultry production system is
industrial in nature, large scale, dense and involves
uniform stocks of modern poultry hybrids. It is capital and
labour intensive as well as inputs and technology
demanding. On the other hand, the rural poultry is by
convention a subsistence system which comprises stocks
of non-standard breeds or mixed strain, types and ages.
It is generally of small scale, associated with household
or grass root tenure and little or no veterinary inputs. The
rural poultry sector is therefore in its original sense, a
village-based, household or individual holding, an
occupation which has however been extended to non–
village settings in semi-urban localities, mainly by the
middle class dwellers. However, between these two
distinct systems, intermediate grades have evolved over
time, in response to the national agro economy and
consumer demands. This constitute what is now globally
regarded as “family poultry” comprised of the rural or
indigenous poultry types in some cases or a mixture of
both indigenous and exotic hybrids or even totally exotic
breeds. Available information shows that the scale of
operation can range from stocks of a few units or a few
dozens of a variety of poultry birds in the household
poultry to tens or hundreds of thousands of chickens in
the grades of commercial poultry (Adene, 2009).
Considering the contribution of poultry business to the
economy of the state and the country at large, it is
important to develop a good information network and
data base system for decision support for poultry and
allied business ventures. Also it is necessary to pursue
full mechanization of the system in order to serve the
growing population for both food and raw material for
industries. Agricultural mechanization is the application of
mechanical technology and increased power to
agriculture, largely as a means to enhance the
productivity of human labour and often to achieve results
well beyond the capacity of human labour (UNIDO-FAO
2008). In Africa and specifically in Nigeria, record keeping
and information management and retrieval systems are
still generally unsatisfactory. Researchers, investors,
government and farmers usually find it difficult to find or
have access to needed information or data which may be
necessary in different aspects of their specific interests.
This research therefore seeks to contribute to solving this
problem; and precisely in the aspect of poultry business
in Enugu State by providing a map showing location of
Ani et al. 1971
farms and their mechanization needs. The specific
objectives include to identify the existing locations of
some selected poultry farms in Enugu State using GPS,
determine the mechanization needs and other challenges
of these poultry farms through on-sight investigation, oral
interviews and structured questionnaire and to represent
the farms and their mechanization needs in a map using
GIS software.
GIS and GPS as powerful information and
management tools
Geographical Information System (GIS) is a high
technological mapping system that integrates hardware,
software and data for capturing, managing, analyzing and
displaying all forms of geographically referenced
information. GIS makes it possible to view, understand,
question, interpret and visualize data in many ways that
reveal relationships, patterns and trends in the form of
maps, globes, reports and charts (ESRI, 2010). By using
GIS, scientists can research changes in the environment;
engineers can design road systems; electrical companies
can manage their complex networks of power lines;
government can track the uses of land; fire and police
departments can plan emergency routes. Many private
businesses have begun to use a GIS to plan and improve
their services.
For agricultural purposes, GIS can be used to produce
and read maps. Its major advantage is that it permits
identifying spatial relationships between specific different
map features. It can create maps in different scales,
projections and colors. But it is not just a map making
tool. It is primarily an analytical tool that provides new
ways of looking at, linking and analyzing data by
projecting tabular data into maps and integrating data
from different, diverse sources. It accomplishes these by
allowing creation of a set of maps, each with different
theme such as soils, rainfall, temperature, relief, water
sources, etc. From its early beginnings, GIS has been an
integrating technology both from the point of view of its
development as well as its use. This is because, once
geographic information of any kind is translated into the
digital form in a GIS, it becomes easy to copy, edit,
analyze, manipulate and transmit (Maguire et. al., 1990).
Some potential agricultural applications where GIS can
lead to better management decision are: Precision
farming, land use planning, watershed management, pest
and disease management, irrigation management,
resources inventory and mapping, crop area assessment
and yield forecasting, biodiversity assessment, genetic
resources management, etc. (Aronoff, 2010). Information
*Corresponding author. E-mail: ozoemena.ani@unn.edu.ng, benjamin.uzoejinwa@unn.edu.ng.
Author(s) agree that this article remain permanently open access under the terms of the Creative Commons Attribution
License 4.0 International License