RA 00048.pdf - OAR@ICRISAT
RA 00048.pdf - OAR@ICRISAT
RA 00048.pdf - OAR@ICRISAT
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1. Climatological and physical conditions.<br />
2. Factor (resource) endowments and prices.<br />
3. Exchange or market systems for inputs and<br />
outputs, and their related per unit costs and<br />
prices.<br />
4. Information availability. 5<br />
The technology available for use by farming<br />
families is in essence determined by all of the<br />
above and is therefore of crucial importance in<br />
differentiating farming systems. In designing improved<br />
technologies, agricultural scientists have<br />
long recognized the importance of climatological<br />
and physical heterogeneity in determining their<br />
research strategies.This indeed is a big enough<br />
challenge in the SAT regions generally characterized<br />
by a harsh climate (with its limited, erratic<br />
and unpredictable rainfall) and poor soils. Nevertheless,<br />
in spite of this, it is not prudent to ignore<br />
the potential role of socioeconomic determinants<br />
(i.e., 2. 3 and 4 above) in designing relevant<br />
improved technologies. Many examples exist<br />
where ignoring the socioeconomic determinants<br />
has led to costly errors in research decisions. 6<br />
Conversely, many economists have often failed to<br />
understand the implications of physical, climatological,<br />
or technological constraints for their economic<br />
policy recommendations.<br />
However, farming systems are not only heter-<br />
5. Traditionally experience which is a function of age is<br />
important. When external information starts to come<br />
to a region, communication facilities, education and<br />
extension services become important.<br />
6. The reductionist commodity approach is a powerful<br />
research tool often used in developing improved<br />
technology. However, it has to be used with great<br />
care since it abstracts from the complexities of the<br />
natural and socioeconomic environment in which<br />
farming families operate. Incorrect specification of<br />
the environment in designing research priorities will<br />
result in the development of irrelevant technology. An<br />
example pertains to a technological package developed<br />
for cotton in northern Nigeria which was<br />
rejected because it involved planting earlier in the<br />
season. Although yields per hectare were higher than<br />
the traditional late planted cotton, farming families<br />
rejected the improved technology since its adoption<br />
would involve reallocation of labor from food crops<br />
used for home consumption which also yielded<br />
higher returns from labor at that time of year (Beeden<br />
et al. 1976).<br />
ogeneous in terms of space, but can also be very<br />
heterogeneous over time. Changes in farming<br />
systems can occur over time as a result of<br />
alterations in the constraints faced by farming<br />
families. In West Africa, during colonial times<br />
much of the expansion in cash crop production<br />
(e.g.. cotton and groundnuts) was closely linked to<br />
the development of a bigger market for those<br />
crops as a result of the construction of the<br />
railways and roads (Hogendom 1976; Lele 1975)7<br />
Farming families responded by devoting surplusland<br />
and labor 8 to producing these crops with the<br />
help of traditional (indigenous) technologies.<br />
Therefore, it is important to distinguish longterm<br />
determinants from those which change<br />
more rapidly. During 1982, many breeders will<br />
already be working on technologies for the 1990s.<br />
This, however, is not so much the case for<br />
agronomists and extension specialists who will<br />
have to grapple with shorter-run issues. Physical<br />
and climatic factors are virtually constant, while<br />
resource availabilities of countries and regions<br />
change relatively slowly. However, the other<br />
socioeconomic determinants of farming systems<br />
such as market systems and information availability,<br />
can change very rapidly. Therefore, provided<br />
that relevant research systems are in place,<br />
available improved technologies for sorghum and<br />
competing crop and livestock enterprises can also<br />
change rapidly. For example, development of the<br />
market and exchange systems on the input and<br />
output side is a crucial component of Green<br />
Revolution technologies with their clearly superior<br />
yields.<br />
Because farming systems change, it is important<br />
to realize that descriptions of farming systems<br />
and the resulting perceived problems of<br />
farming families will not always be reliable guides<br />
for all research decisions. For example, developmental<br />
research decisions (i.e., research that has<br />
an intermediate to long-run pay-off) could be<br />
irrelevant if based on a constraint which conscious<br />
economic policy or the normal course of develop-<br />
7. This is generally considered to provide collaboration<br />
for Myints' Vent for Surplus model.<br />
8. Some people question that there was always surplus<br />
labor. Rather, labor was sometimes reallocated from<br />
food crops to export cash crops to provide cash to pay<br />
taxes (Nicolas 1960; Kafando 1972).<br />
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