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Categoría: Agroindustrialización
en Origen |
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Vertical integration of Argentine production
systems
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New paradigms for Argentine
agricultural production systems? Add value at source. |
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(Ver
Versión en Español)
Ing. Agr. M.Sc. Mario Bragachini
Coordinador de la Red del Proyecto Agricultura de Precisión y
Máquinas Precisas
Coordinador del Proyecto Específico Eficiencia de Cosecha
INTA EEA Manfredi - E-mail: precop@correo.inta.gov.ar
Junio de 2009
In recent years changes have been profound at
global level and also in Argentina, those changes among other
things, show a growth of rented agricultural land with short term
contracts (often one year). This process makes it difficult to plan
a crop rotation system, technology application such as nutrient and
soil carbon balance, and it also affects the development of
structures that allow integrations to facilitate industrialization
in origin processes, vegetable protein to animal protein
transformation, biofuels, etc.. Finally discourages partnership
integration to undertake higher value added projects in origin,
which leads to fair growth and development of the country rural
areas.
Crisis sharpens ingenuity and activate many
minds at all food chain levels.
Therefore the need arises to develop
comprehensive strategies to guide the technological development of
active policies to improve the reality facing the next 20 years. The
proposal is based on the idea of stopping being spectators to become
one of the many protagonists of the changes that we should at least
consider, discuss, and then formulate concrete projects that will be
transformed into products.
It is clear that the Argentina agrifood chain
should grow in productivity, added value and sustainability, for
that it is convenient to grow in primary in-origin
industrialization processes, grow in the vegetal origin food to animal
protein transformation ( beef, milk, pork, poultry), and
should also grow in secondary industrialization (ie meat
packing, dairy plants, pork products, etc.. etc.., all with
traceable quality and designation of origin for certain products),
and if is possible in tertiary industrialization
(ready to be consumed cooked meats). And should also grow in the
cold chain and traceable supply to the local and world market
shelves, but always under source managed structures.
Today there are many successful examples of
large agro-industrial complex, but it is also true that the bulk of
Argentina agriculture export consists of commodities, so it is
suggested that in the future no primary product should travel by
truck more than 80 Km. without an increase in value or source
value aggregate. Over the next 10 years, Argentina needs to
increase the exported agrifood average value of 400 U$S /tn to over
1200 U$S /tn and that value or income increment should remain
with the primary agricultural producers if they want to remain
competitive. The first question is competitive with respect to
whom?, competitive respect the rest of the world producers that has
long since went beyond their gates; the second question is how do we
do that?, and the answer is actively participating in the agrifood
chain in a associative manner, that means the vertical
integration of the primary producer in the agro food chain.
To "export" cereal and oilseeds from
one area to another as grains, you lose the potential to add value
and generate manpower needs at origin, so loosing the potential area
development generated by the agricultural activity.
The degree of development of a country is
reflected by the value of the exported ton against the value of the
imported ton.
The development of a country's territory is
measured in the same way; today in Argentina there are
agrioindustrial provinces and cities, and other that only produce
and "export" with expensive freight, only raw material, it
is clear that it is difficult to grow when low value products
(grain) travel by truck over 200 Km. to their first destination.
It is not desirable and sustainable to import
tons of fertilizers, agrochemicals and agricultural machinery at
700, 3000 and 10000 U$S/Tn respectively, transform it into grain and
oilseeds and export it at 400 U$S/ton on average.
Of course, looking 10 years ahead much has to
change because of this, without dramatizing, or harming anyone, and
for the good of the whole country; evolve with concrete proposals
and actions in which the vast majority of people agree, and then
become food and agriculture policies of state.
Thus, in INTA, since PRECOP Project II, a group
of technicians from various experimental stations since mid-2007 are
working to create and spread a new concept of farmland
agro-industrialization where the value is added at source, where
primary production is produced with the best technology with
precision by environment, with the concept that quality starts
from the beginning, where physical and quality losses are
precluded within a framework of "quality assurance".
Where possible produce grain or oilseeds to
cover the objective of meeting a specific quality standard,
demanded by agribusiness, according to the products they manufacture
and the demands of different markets.
Precision agriculture in addition to facilitate
the accurate and cost-effective use of the inputs applied by
environment, is also a powerful tool for tracing processes, reducing
environmental and products pollution.
Subsequent to this Value Added Primary Process
comes the next step, primary industrialization, or
"manufacture" after some specific processes (milling,
extruding) the best specific balanced feed (for pigs, chickens and
cattle), this product with relative value added should not go many
miles to be converted into animal protein: pork, chicken (egg/meat)
and cattle (milk/meat). All intensive transformation processes
generate effluents that must be correctly treated and changed
through a biodegradation process (biodigester) into biogas,
bioelectricity and biofertilizer, energy that must be reused in the
agro-industrial complex with much efficiency and with the
biofertilizer replenish nutrients in those fields where the grains
and forage were extracted.
In the same complex secondary industries that
give the large increment in added value should be located, chicken,
pork and cattle meat packers, dairies, eggs processing industries,
deli meats, cheeses, etc. producers, many of them with origin
designation (which is more value added). All these industries use
energy and discharge effluents that must also be transformed into
biogas, bioelectricity and biofertilizers, improving the energy
equation and the environmental management.
In the same complex the cold transport chain and
the traceability must exist in order to reach the world shelves with
the best possible quality.
The proposed changes in these production models
examples are indicating an evolution in the value added
management where many farmers work in partnership in
strategic geographical locations. These producers supply their
primary production to a competitive scale industrialization
center which operates as a Incorporated Company with
cooperative spirit, where each unit is managed independently
generating income to be redistributed in proportion to the kilograms
of raw material provided. The proposal should include an income
appropriation by the primary producer in all processes, secondary
industrialization, transport, cold chain and domestic and foreign
markets (exports) sales.
This source value-added generates growth
with development (generates source work), the fair
distribution is ensured by the spirit of partnership
enterprises, avoiding the concentration of population in large
cities.
Sustainability and natural resources
conservation would also be insured by the inputs management
according to the environment, with field work traceability and crop
rotation sequence where corn, sorghum and wheat will always be
present as carbon capturing crops and soil structure generating
roots. Soybeans will be the protein crop par excellence. At
chemical level, much of the nutrients will be returned to the soil
through the provision of biofertilizers from biodigestors rationally
distributed where appropriate. So this work method will also
prevent the now massive low-priced nutrients export, carried by the
grain, flour and oil, to the rest of the world.
Many production models can be designed under
this competitive scale vertical integration partnership and
source value added philosophy.
We must also bear in mind that in Argentina is
possible in part to replicate some of the 160 corn ethanol plants
that currently exist in the U.S. and consume 90 M/tons of corn per
year. Models of ethanol production from sugar cane, from corn and
sorghum grain and from whole sweet sorghum plants harvested with
sugarcane harvesters will be a reality in Argentina over the medium
term. All these alcohol industrial complexes produce valuable waste
for animal feed, mainly very high in protein (25%) with 10 to 12%
humidity corn and grain sorghum DDG (distilled dry grain). It can
also be worked as perishable DDGS, with 60% humidity (short distance
rations), which favors the close to the plant producer's
associations. Ethanol can not be transported by pipes, so it must be
done by truck or train to an oil refinery, this indicates a thorough
analysis of the situation.
Nor should we dismiss the other renewable
energy sources such as wind power in areas with much
wind, and solar energy, two sources of electricity that will
be the key to produce hydrogen, an experimental hydrogen
powered tractor already exists, and as we know hydrogen
technology is electricity dependent.
In the way of environmental and energy balance biogas
technology exists, these models generates much gas and in the
event of biogas surplus it can be converted into electricity through
a generator, biogas effluent is a biofertilizer rich in P and N, but
very diluted, which means high flow per hectare, indicating the
desirability of using pivot irrigation equipment for application,
with also a biogas operated water pump. This alternative would be
viable in areas of good quality and quantity of groundwater; where
there is no water, biofertilizer distribution will be done with
special tanks.
All of these production models already exists
and operate in Brazil, USA, Central Europe and will also replicate
in Argentina but with the great challenge of vertical integration.
Oil values of U$S 66/barrel in the year 2009, versus 16 US$/barrel
in 2002, current land value of 8000 U$S/ha. versus 2000 U$S/ha in
2002 indicate paradigms changes where land and energy use is not
enough sustainable for a country exporting grain without added value
from one area to another and less to other countries.
Another thing that will surely be a constant in
future analysis will be how much added value can be made out of a
millimeter of useful water in a soil profile. The average crop
conversions indicate 7 kg/ha of soybeans per millimeter of useful
water, 8 kg/ha of wheat, 14 kg/ha of grain sorghum and 17 kg/ha of
corn, approximately. This indicates that if soybeans value is U$S
436/ton and wheat 229 U$S/ton, corn 167 U$S/ton and sorghum 130
U$S/ton, useful water produces primarily U$S 3,05/mm. of soybeans
and wheat only U$S 1,83/mm., corn produces 2,83 U$S/mm. and grain
sorghum 1,82 U$S/mm. and as it is known in no-till when double
cropping, the millimeter used for wheat surely will not be available
for second crop corn or soybeans. Therefore in the future we will
speak about production cost, profitability, but also about water
millimeters crop conversion capacity, of course, not forgetting
system sustainability.
Another thing that will also be taken into
account in the analysis will be the value added capacity of each
grain and oilseed kilogram considering its industrial valorization,
as well as in the transformation into the different animal protein
alternatives, always thinking in the global consumer.
Everything indicates that in the medium term
(10 years) Argentine farmland should abandon the idea of exporting
without processing, without industrialization, without added value,
in order to evolve into production systems where the primary
producer will go beyond the farm gates recovering territorial
competitiveness, progressing with development, with environmental
and energy management, conserving natural resources, and getting
involved and obtaining a fair distribution of the income that were
able to generate through the vertical integration of the food chain.
Each milliliter of water stored in fertile soil
with high photosynthetic capacity crops must be maximized, and that
can not be achieved if the produced grain is industrialized and
transformed many miles and sometimes thousands of miles away. In
the near future the field productivity measure will no longer be
kg/ha of grain, but market shelf added value/ha, or local jobs
generated per hectare.
Below are only 3 schemes of vertical integration
production models of possible implementation from the numerous
combinations that can be achieved depending on many agro climatic
factors considering different eco-regions. A group of INTA
technicians distributed in 10 provinces and 14 experimental stations
work to facilitate technically and operationally these ideas of
vertical integrated business associations at the source, with direct
involvement of the primary producer, so they can become a reality in
the coming years.
The Argentines can also do it...
The mayors of towns in the interior of the
country that today see the future labor demand compromised, will
have to take the lead in managing the best vertical integration
projects for their area.
Future small and medium producers will be part
owners of a large local agricultural food complex.
Figure 1:
A model of agricultural
production vertical integration, which integrates precision
farming, sustainable grain and forage production, with primary
industrialization, transformation traceability, beef and poultry
processing and transport to reach the supermarkets shelves.
Click here to see enlarge image
(2000 x 1500 pixels)
Figure 2: Another model of
vertical integration where the primary grain production is
transformed into pork and eggs, industrialized and transported to
the supermarket shelf.
Click here to see enlarge image
(2000 x 1500 pixels)
Figure 3: Vertical integration of
grain/forage agriculture for intensive production and industrial
processing of milk, bioenergy production, environmental management
and transport chain to the supermarkets shelf.
Click here to see enlarge image
(2000 x 1500 pixels)
In the three proposed models:
• Scheme 1: primarily pork and poultry
production.
• Scheme 2: animal protein is present through eggs and
pork meat.
• Scheme 3: cow milk is the center of the transformation.
The strategic basis is the association of many neighbor
producers that are part of an Incorporated Company around an
agricultural food complex, where the highlights are:
• Associative Scale (primary products
competitiveness )
• Added value in origin (new jobs)
• Development of land with equity
• Generation of bioenergy (biogas and electricity),
biofuels and biofertilizers
• Conservation of natural resources and environmental
management
Autor:
Ing. Agr. M.Sc. Mario Bragachini
Coordinador de la Red del Proyecto Agricultura de Precisión y
Máquinas Precisas
Coordinador del Proyecto Específico Eficiencia de Cosecha
INTA EEA Manfredi - E-mail: precop@correo.inta.gov.ar
Junio de 2009
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