1. Introduction
A review of agricultural planning may start with
three considerations. Firstly, while malnutrition, hunger, and famine prevail
in the world, the destruction of food resources continues. Fluctuations in food
production and prices, uncertainties, population and food demand growth,
climate change, water scarcity and competition for the control of lands are
just a few of the problems experienced in the agriculture-food system. As the
passage of time worsens the problems day by day, permanent solutions have not yet
been found so new approaches are needed. In recent years, in this context, the
idea of planning agriculture has begun to be expressed more frequently in many
countries in different parts of the world. In fact, when agricultural policies
followed throughout history including in capitalist economies are considered,
it is clear that agriculture cannot be maintained without planning and an
agricultural policy. On the other hand, when it is considered that agriculture
produces other living things and is dependent on natural conditions, it is also
accepted that it is intrinsically unplannable. In other words, planning
agriculture is necessary but has limits..
Secondly, the planning of agriculture needs to be addressed
alongside the regulating role of prices, which are put forward as opposites. A
policy towards agriculture is followed in all capitalist economies because it
is ludicrous to expect food security to be ensured through the market mechanism
(Van Der Ploeg, 2020, p. 963). Given that the price mechanism cannot be a
solution to problems in the production and distribution of agricultural-food
products, but also that price policies are used as a planning tool in both
capitalist and socialist economies, it becomes necessary to address price
formation and agricultural-food markets in the context of agricultural
planning. Wherever production is socialized, the exchange of different goods
and services requires a determination of their exchange rates—in other words,
of a price—. But this does not necessarily result in a price that is determined
by the intensity of supply and demand, and, therefore, a market mechanism. In
fact, today, the prices of most agricultural products worldwide are directed,
managed, and determined by intervention.
Thirdly, today, both the sustainability of
agriculture and the provision of food security require that the issue be
addressed not only in terms of primary agricultural production but also in a
broad framework extending from agricultural inputs to the recycling and
disposal of food waste. The need to address the issue in this way is met by the
“agro-food systems” approach. This includes diverse production, distribution,
consumption and recycling processes, the result of these on society and the
environment and other institutional arrangements, alongside the cultural,
educational, and economic dimensions of food consumers. From this point of
view, when it comes to agricultural planning, what is revealed is the need for
planning not only primary production but also the entire agricultural food
system and, moreover, the need to re-evaluate traditional agricultural planning
and its tools. The Indian experience is noteworthy in this respect, especially
regarding the processes after primary production, including intermediation and
price formation processes.
The three elements listed here provide a huge
amount of information related to agricultural planning, both at the theoretical
level and that of historical experience. These include agricultural planning
approaches in centrally planned and capitalist economies, the meaning and
functional limits of price, the function of the market mechanism, support the
theoretical foundations for a new agricultural planning approach. In addition,
perhaps as a fourth element, technological developments impact the three listed
and offer opportunities for implementation
In this study, planning experiences, planning
problems, agro-food system, small commodity producers, and planning issues are
first analyzed, and then the concept and function of price are analyzed.
Finally, it is suggested that an alternative planning approach may be possible
within the framework of the agro-food system with the opportunities provided by
technology. Each of the topics discussed here—planning, price, agro-food
systems, and techniques used in planning and markets—has its own huge literature,
and it is not possible to discuss all these topics in detail within the
framework of a single article. Therefore, just their distinctive features are
introduced.
In the following section, agricultural planning
experiences and approaches are discussed, and some different principles of a
new approach are presented. Then, the concept of price and the price policies
followed in agriculture are considered, and a price approach that can be used
in new agricultural planning is proposed. Finally, the new agricultural
planning approach is concretely presented in the light of technological
developments and experiences regarding the planning of the agricultural food
system as a whole.
2. Planning
In today’s conditions, agricultural planning can be
defined as the use of agricultural resources to meet the needs of industry,
primarily for food. This is primarily directed and controlled by global
markets; 23 percent of food calories are currently traded internationally, and
about 85 percent of countries rely on food imports to meet domestic demand
(D’Odorico et al., 2018) However, the reliance on global markets is proving to
be extremely problematic. The system does not show resilience even in the face of
the smallest shocks, and concerns about the uncertainty of food crises are
increasing. For this reason, countries try to protect by striving for food
sovereignty, national or regional arrangements to ensure food supply.
Meanwhile, ‘food empires’, which have survived and evolved from the old
colonial food system thus by doing so they have control power agriculture, food
chains and the food industry, in an indirect, yet very powerful, way. (Van Der
Ploeg, 2020). Within this structure of the global agriculture–food system,
increasing agricultural production and meeting the predicted demand becomes an
ever more urgent problem to be solved:
The challenge is to try to find how this can be
done by adopting measures that are socially acceptable and environmentally
sustainable, and/or to find ways to moderate the increased demand on
agricultural production (Tisdell, 2015, pp. 30-31).
3. Lessons from Capitalist and Socialist Planning and Policy Experiences
Agriculture and food have been subject to
government policies across the world throughout much of history, with the
redistributive effects on agro-food policies used by policy makers for various
social and political purposes. Therefore, agricultural policies and
institutions are also political institutions and policies (Swinnen, 2018, p.
3). While, in the capitalist economic system, legislative measures have been
designed to establish effective marketing practices for agricultural produce,
agricultural policies have also aimed to stabilize food prices and supplies in
various ways, from supporting farmers and subsidizing targeted farming products
to taxing consumers (Swinnen, 2018, p. 32). While in the capitalist economic
system, in order to establish effective marketing practices in the marketing of
agricultural produce, legislative measures have been designed, on the other
side agricultural policies had a broader and varied aims to stabilize food
prices and supplies, from supporting to farmers and subsidizing to taxing
consumers i.e. by governments (Francisco et al., 1979 p. 8). State intervention
in agricultural product prices and agricultural planning, often both, have
historically been the most frequently used policy tools. In this section, these
two policies will be evaluated by looking at the experiences of the United
States, China, India and the USSR.
4. The US Agricultural Planning Experiences
In the U.S., import tariffs were the dominant
protective policy tools until the Great Depression. A key moment was the
establishment of formal producer price supports, which led to a “ proliferation
of import barriers as well as export subsidies”.(Sanderson, 2016). Export
subsidies and price supports would be preferred by producer groups in the
following years. However, a pre-WWII, very interesting and in many ways
meaningful planning experiment would come to fruition.
In 1938, the United States Department of
Agriculture (USDA) initiated an agricultural planning system that included
local institutions, farmers, and government officials as stakeholders. These
actors combined to plan public policy throughout rural America. The main idea
was that "participatory planning as the best way to democratize the
agricultural policy process and to counter growing domination by a powerful
conservative coalition" (Gilbert, 1996, p.233). With the economic agenda
partly directed toward shaping the public agricultural policy, this
participatory planning spread very rapidly. Approximately 40,000 (32,000 men,
8,000 women) farmers were members in 1941, and 2,200 counties (about two-thirds
nationwide) had established planning committees by 1942 (Gilbert, 1996,
p.240-241). However, the "undemocratic forces" of war and powerful
special-interest groups intervened to curtail the effort. Thus, the
agricultural planning program was destroyed by mid-1942 by parties who saw it
as an organizational and ideological threat to their own control over
agricultural policy. Although this planning program and its democratic vision
were thwarted, the idea and its implementation can still inspire and instruct
today (Gilbert, 1996, p. 250).
In the 1960s, the US applied a payment system which
guaranteed producer prices. However, determining the market price like this led
to the accumulation of unmanageable surpluses, and export subsidies were
reintroduced in the 1980s. Meanwhile, the then European Community improved a
strong price support approach by means of import levies and export restitutions
in the context of the Common Agricultural Policy (CAP). EU countries continued
to produce large surpluses. The US and EU agricultural surpluses were traded on
the world food market and with destructive effects on the agriculture of less
developed countries. Aiming to eliminate to surpluses, there were attempts in
the US and EU to change the support system. Because of producer resistance to
significant cuts in support prices, the US came to rely increasingly on supply
controls. These are theoretically voluntary, but compliance with acreage
limitations is a precondition for securing deficiency payments and other
benefits (Sanderson, 2016, p. 5). Both the US and EU later adopted a direct
payments system as an alternative to market intervention, but these, too, were
faced by politically difficulties (Blandford, et.al., 2011).
By the turn of the century, “production and
marketing contracts govern 36 percent of the value of U.S. agricultural
production,” which was “up from 12 percent in 1969” (MacDonald et al., p. i)
fruits and tree nuts and 15 percent of the vegetables produced in the US, are
regulated by committees (Cave & Solant, 1997, p. 255). These developments
indicate that answers to production and demand increases and diversification,
the need for food security, and many other questions can be found with a
planned approach.
6. The Chinese and Other Socialist Experiences
As is well known, both the People's Republic of
China and the Union of Soviet Socialist Republics adopted collectivization in
farming and tried to maintain agriculture through central planning. Although
the collective agriculture approach mostly failed, there were a number of
successful reforms; with results like the Hungarian agricultural success of the
1970s and the growth of Chinese agriculture after 1977.
The USSR established the Sovkhozy and Kolkhozy
collectives. Rather than being cooperatives or semi-autonomous self-governing
units, they worked under conditions of constrained decision-making, and in the
1970's, they combined their operations , which served to further centralize
decision making system. In the Soviet system, prices were fixed and did not
reflect real costs, concealing subsidies that cannot even be well estimated.
Usually, there was a price ‘gap’ between input and output prices. The prices of
industrial products for agricultural inputs were often overpriced, while
agricultural products were sold at below market prices. According to Nickolsky,
the main reason for the ineffectiveness of agrarian collectives can be
explained by this price system that overvalued input prices while devaluing
agrarian products (Szelenyi, 1998, p. 2).
Socialist economies suffered because of a lack of
information in the planning process where decisions were made and a lack of
incentives at the point of production (Kornai, 1959,) This led to the
establishment of irrationally large farms where workers did not have sufficient
autonomy to make decisions and felt little incentive at the family level to
work hard and carefully.
In Chinese rural areas during the 1960s and 1970s,
households were forced to work in collective farms and to sell their products
to the state at very low prices. Severe poverty and hunger were widespread.
Around 30–40 percent of rural households had an income of under a- dollar a
day. Chinese administration used the low prices to impose a heavy tax on
agricultural output at artificially from 1950s to the 1970s (Lardy, 1983;
Sicular, 1988; Swinnen, 2018).
Reforms in agricultural planning and pricing in
China since 1978 have generally reduced direct interventions in the economy.
The importance of the direct planning of production and procurement has
diminished, and the government has increasingly relied on prices, incentives,
and markets to guide the rural sector. Specific measures have included
reductions in the state planning of agricultural production, commerce, and
pricing; the decentralization of decision-making authority to local governments
and producers; greater leniency towards and encouragement of free market
exchange; and increased reliance on market prices (Sicular, 1988, pp. 671 and
676). Following the first price reforms at the end of the 1970 in a number of
separate actions, between 1978 and 1983, planners in China increased farm
prices by around 50 percent (ibid). State-run procurement stations only
purchased grain from farmers if they had fulfilled their mandatory marketing
delivery quota, which was purchased at a lower price ( McMillan & Jing,
1987)
Reforms followed which returned land from
collective farms to households, named the Household Responsibility System
(HRS). By the end of 1983, more than 90 percent of farming families were
covered under this system (McMillan et.al.,1987, p. 4). The HRS enhanced
incentives in agriculture, stimulating productivity, and allowed households to
keep part of their production, for which they received a higher price (Swinnen,
2018, p. 127). In addition, the accessibility to inputs increased during this
period (Lin, 1992, p. 34). and, because of institutional arrangements, farm
producers become much more responsive to changes in relative prices and
enhanced marketing opportunities. In the three decades from the late 1970s,
Chinese agriculture grew at an average rate of 4.6 percent annually (Swinnen,
2018, p. 128). Between 1978 and 1984 output in the Chinese agricultural sector
increased by over 50 percent ( McMillan et.al, 1987).
These impressive output gains followed the adoption
of a system stressing individual responsibility in place of a system of
communal decision-making and rewards. The individual peasant, became the basic
unit for decision-making in agriculture. On the other hand, land ownership
remaining within the collective (Lardy, 1983). The rapid growth in agricultural
production was followed by reduced increases from the mid- 1980s. Scarcities
and surpluses occurred, and prices became unstable, as did state policies as the
government first raised procurement prices, then lowered them and raised them
again. The mandatory procurement quotas were similarly reinstated (Sicular,
1988, p. 676).
6.1. Reasons behind the High Performance of Chinese Agriculture
There are different interpretations of the source
of the success of the policies China followed in agriculture after 1978.
McMillian, Jing and Whalley ( McMillan et.al, 1987, pp. 17-18) argue that it
was "one-quarter due to the increase in productivity due to higher prices,
and three-quarters to changes in the incentive scheme.". Muldavin, (1998,
p. 2) argues that "changes in property relations after 1977 in China had
not much to do with the growth of agrarian production”—rather, it was “the
increase in agrarian output prices, which consequently reduced the gap between
prices of industrial goods and food-stuffs, [and helped boost food production
and productivity in the agrarian sector.” According to Sicular (1988, p. 703)
"adjustments in prices and incentives frequently have either no effect,
only temporary effect, or too strong an effect." Sicular also notes that
such measures may have undesirable effects, and that a mixed system is
sustainable and can have desirable efficiency and distributional effects. Markets,
however, limit the range of sustainable plans, and in the presence of markets,
state planning may no longer directly influence production and consumption
behavior.
According to Lin (Lin, 1992, p.39), China’s rapid
agricultural growth was dependent not only on the restoration of household
farming and the increase in market freedom, but also on rises in the acreage
devoted to cash crops and the expansions in animal husbandry, fishery, and
subsidiary production. Adjustments in crop patterns in response to soil,
temperature, rainfall, and other region-specific characteristics are a major
source of productivity growth in agriculture generally. Changes in the multiple
cropping index are indicators or how intensively land and labor inputs are
utilized. Also, in China’s case, any change in farming institution would alter
the compensation scheme and affect the level of effort supplied by each farmer;
findings indicate that the dominant source of output growth during 1978-–84 was
the change from the production-team system to HRS. Ultimately, family farming
has advantages because it makes more productive use of inputs (Lin, 1992, pp.
41, 47–48).
6.2. Problems with the Chinese Agriculture Reforms
In China, as is the case with many centrally
directed experiments, there was "under- and over-production in the
resulting quantity adjustments (Lardy, 1983, p. 9). Incentives generally tend
to conflict with planned targets for reasons such as budget constraints and the
need to harmonize the plan with the market. If farmer decisions conflict with
planning targets, interventions occur.
The higher level and wider scope of above-quota
price bonuses together with high market prices for some products encouraged
evasion, and the government's ability to enforce quotas had been weakened by
de-collectivization.” "In some cases large differentials between state and
market prices have influenced state contract procurement. (Sicular, 1988, pp.
691–695).
Problems developed with the relative share of
growth between grain and non-grain crops and imbalances of supply and demand,
unstable market prices, and unsustainable price subsidies. These all
contributed to the reduced growth in farm production in China from the
mid-1980s (Sicular, 1988, p.702-703).
7. Review
In both collective economies and capitalist
economies, the determinations of production quantity target and price level are
considered the two most basic tools of agricultural planning. Of course, there
is a strong relationship between these two tools; whichever is selected as the
primary tool, the other must be set and controlled accordingly. Theoretically,
in an environment isolated from all other factors, each tool can give same
result as the other. Neo-classic economics prefers indirect control by prices,
while the technical planning approach prefers the direct control of quantities.
Because it is understood to provide information savings (i.e. require less
informational inputs), price is theoretically seen as the superior planning
tool. In fact, the same information is needed for each option, and both are
simple and easily understandable (Weitzman, 1974), and in practice, the
quantitative restriction policies followed in China had similar effects in the
U.S., Canada, and the then EEC (Sicular, 1988, p. 2).
However, both price and quota applications are
limited tools; high prices lead to overproduction, while low prices lead to
under-production. Moreover, since quotas always impose restrictions on a
production area, a black market for quotas emerges. As production quantities
and prices must be managed for planning to achieve its goals, a successful plan
should be able to use these two factors effectively and harmoniously. As will
be explained in detail below, planning based on price guidance is not possible
in an economic and agricultural food system in which monopolistic structures
are dominant.
The American experience in 1938 and the Chinese
experience after 1978 show that the participation of farmers and other
stakeholders in the planning process increases the success of planning. As the
Chinese experience shows, if producers can show initiative in the use of their
labor and other agricultural resources, the result is an efficient use of
resources and increased productivity, which ultimately increases both
agricultural production and farmer income.
It is possible to derive a third result from the
first two findings. If small commodity producers, who constitute more than 90
percent of agricultural producers in the world, are voluntarily included in a
planning system and can take the initiative to make decisions on production
resources, they can make a significant contribution to the successful results
of planning. However, based on planning experiences, it should be noted that ,
to date, agricultural planning has not sufficiently taken into account the most
important resource of production, namely, people. When it comes to agricultural
planning, both in the literature and in practice, the first thing that comes to
mind is r the questions of what will be grown, how much, and on which lands.
Across the world, it is predominantly the farmer who faces and is thus the
source of the solution to fundamental farming questions, including those of
agricultural planning related to, for example, resource use efficiency,
productivity, and production flexibility.
Farmer initiative, which was limited by central
planning in socialist societies, could achieve extraordinary success if its
capacity is freed up and it is directed towards production, as seen in the
Chinese experience as well as in countries like Turkmenistan where there are
still peasant far—even though today's farmers are rapidly aging and decreasing
in number, a factor that will need to be taken into account when considering
the petty commodity producer and peasant agriculture as a planning opportunity
(and a goal). Therefore, below, peasant (smallholder, family) agriculture is
discussed separately.
Of course, farmer participation alone is not enough
for successful agricultural planning; there are many factors that will affect
its success, especially prices. In order to develop a wide perspective on this,
it is necessary to consider the problems faced as broadly as possible. A plan
targeting food security today should take into account many factors in addition
to primary agricultural products, such as transportation, storage, processing
and sales channels. In other words, planning in agriculture cannot be
successful without planning in the agro-food system.
Table 1 presents the problems challenges faced
by a planning system within the framework of the agro-food system. Essentially
this is a listing under five headings that categorize types of factors to be
considered.
8. The Agro-Food System
Along with farmers and farming families and those
directly employed on the land—the agricultural labor force— the agro-food
system involves a wide range of related sectors, industries, companies, and
individuals; analyzed vertically starting from the farm, these include traders,
logistics services, retailers, restaurants, consumers, and recycle services. As
indicated (
Table 1), fo od systems need
to be resilient to many types of shocks at different scales that can affect
food production and availability, such as extreme weather, pest outbreaks,
market crises, failing institutions, and political conflict (e.g., Misselhorn
et al., 2012; Schipanski et al., 2016). Systems of production thus need to be
robust and able to recover after these shocks or adapt to them in order to
deliver food in sufficient amounts with nutritionally adequate quality and
affordable prices (D’Odorico et al., 2018, p. 498). The resilience of the
system as a whole further depends on factors such as the globalization of food
trade, the amount of food traded, the number of trade links between countries,
and the characteristics of the trade network. Food and Agriculture Organization
(FAO) data suggest that over the past few decades the system has become
“increasingly vulnerable to instability as a result of demographic growth,
dietary changes, and the increasing interconnectedness of the trade network”
(D’Odorico et al., 2018, p. 500).
Historically, the center of decision-making of the
systems was farmers and state; nowadays, it has shifted to industry-processors
and retailers. Industrial and retail corporations have grown and expanded
horizontally and vertically to benefit from economies of scale and technical
and financial efficiencies. This has resulted in their becoming the determining
factor for prices; in other words, they have gained market power. They can
control competition and not only pull down the prices local and regional producers
and traders can demand, thus directing national and international prices, but
also have a strong influence on food accessibility. There are a relatively
small number of such traders and processors in the supply chain against a large
number of farmers: "Farmers have very low bargaining power against both
input suppliers and buyers" (Kazak et al., 2021, p. 1). At the same time,
the globalization of food chain and rising interdependency on mutual trade has
reduced the resilience and increased the vulnerability of the agro-food system
as markets have a greater susceptibility to failure for economic and political
reasons (D’Odorico et al., 2018, p. 498).
Governments are involved in surveillance, such as
of food safety regulations and competitiveness, as well as making trade
agreements, providing information, and developing sustainability comprises. The
system integrates agricultural policies, producer conduct, market structures
and environmental aspects, and appropriate policy-making is important to ensure
food security in all countries. Given the increasingly complex structure of the
agro-food system, policy-making requires the cooperation and participation of
as many stakeholders as possible.
In the literature that deals with the planning of
agro-food supply chains, the topics addressed include crop and livestock
production models, location analysis, and strategic production-distribution
models. Large companies use such studies and individual farmers are
increasingly having to contend with these complex models. The list below, drawn
from Borodin summarizes various reviews related to agro-supply chain
management, highlighting the importance of planning, sustainability, and
operations research tools.(Borodin et al., 2016, p. 2.). Nd individual farmers
are increasingly having to contend with these complex models.
Ahumada and Villalobos (2009) assessed production
and distribution planning models for agro-food supply chains;
Woodward et al. (2008) discussed simulation-based
approaches for farming systems innovations;
Lucas and Chhajed (2004) reviewed the operation of research-based
techniques for location problems;
Beske et al. (2014) focused on sustainable supply
chain management practices in the food industry;
Akkerman et al. (2010) considered quantitative
operations management approaches for food distribution;
Higgins et al. (2010) emphasized the complexity in
agriculture value chains and the role of operations research;
Thornley and France (2007) reviewed mathematical
models for agricultural decision-making;
Hovelaque et al. (2009) highlighted the complexity
and constraints in managing agricultural supply chains.
9. Advantages of Peasant Farming in the Context of Agricultural Planning
Peasant or smallholder agriculture, which was
historically expected to decline and disappear with the development of
capitalism, has decreased numerically in the wealthy countries of the First
World (the West), but this is not the case worldwide. Today, it still
constitutes more than 90 percent of farmers These figures alone explain why
peasant agriculture is vital from an agricultural planning perspective. Peasant
(family) farmers do farming with low costs and in which the co-production of
human and nature is central (Ploeg et al., 2019b). It has resilience against
price fluctuation and natural disease because of its low usage of external
inputs and finance, mixed cropping methods, and skilled labor (Ploeg, 2010).
Peasant farmers often do multifunctional activities and cooperate with other
farmers. They have flexibility regarding different agricultural systems,
climate conditions, and tactical adjustments to capitalize on good conditions
and minimize losses under poor conditions. In other words, peasant farming is
inherently sustainable. Its productivity, however, is moot.
One of the most important topics in the debates
about small commodity producer farming concerns its relative levels of
productivity. It is argued that large-scale farming is efficient (not
productive) up to a certain scale. In the other hand productivity is depend on
technical, natural condition not related to scale. . In fact, peasant farming
is more productive than large-scale farming in many cases, and when its
multifunctional and synergistic structure is taken into account, it can achieve
higher productivity especially per person (Akkari et al., 2019, p. 134).
Therefore, a complete transformation to big-scale farm might not be necessary:
Small-scale farms can helped to be more productive by providing them with
sufficient inputs and supports, in which case, they do indeed often achieve
greater yields than large-scale farms (Samberg et al., 2016). Moreover, if
smallholder farmers are provided with financial, technological, information and
market access support, they can constitute a source of food security, poverty
alleviation, and food system resilience (D’Odorico et al., 2018, p. 503).
When considered on a product-by-product basis at
the regional or national scale, the involvement of independent small producers
in an agricultural planning project may at first glance seem quite problematic.
First, when production is directed through a high price determination, there is
a high probability of an increase in production, but it is almost impossible to
predict the amount and how each individual small producer will react to it.
Second, directing production either through price or a quota system cannot
ensure the efficient use of resources at the micro level: Because the primary
aim is quantity-driven—to reach the desired production amount—efficiency—the
optimum usage of land and other resources— at the micro level is not adopted as
a priority, and it is very difficult to achieve this with a macro plan. Neither
macro-level data can accurately reflect the micro-level, nor can micro-level
data accurately reflect the macro-level (Ploeg, 2020, p. 960). Small commodity
producers can only ensure the efficient use of the resources they have, and
their working dynamics are much more complex than they might appear: Peasant
farmers make decisions that involve taking many competing factors into account
as a farm and a household, such as labor--versus-consumption,
benefit-versus-burden, human-versus--nature, production-versus-reproduction,
internal -versus-external resources, and scale-versus-intensity (Ploeg, 2013).
A planning approach that aims to benefit from
micro-level efficiency can be achieved through the voluntary participation of
independent producers in the planning process. The historical experiences
recounted (above) show that participation in planning increases its
effectiveness, while the involvement of multiple actors in agricultural
development planning has led to the development of strategic plans that take
into account the multiple functions of farmland. The participation of farmers
and other actors in agricultural planning is not only about determining
specific plan objectives, but also about ”taking into account the multiple
functions of farmland, including food production, conservation of water
resources, heritage landscapes, and attracting visitors to farms” (Akkari et
al., 2019, p. 132).
10. Price, Market, and the Agro-Food System
Since humans form societies in which production is
socialized, it is inevitable that products will be exchanged, so there will be
a rate of exchange and thus, as a concrete expression of this, a price for the
products. In economic theory (ideal practice), t he price of agricultural
products, like other goods, has many functions. First, it determines the
distribution of income among farmers and those who produce agricultural inputs,
those who process agricultural products, and those who consume agricultural products.
If, for example, the price of agricultural products increases faster than the
prices of the products and services produced by all these groups, the
distribution of income changes in favor of agriculture. Second, it covers the
costs, income, and profits incurred by the farmer. If the price of an
agricultural product falls below the production cost, consequences can run from
the farmer discontinuing that production and turning to another product to
losing money (capital), going into debt, being unable to pay off the debt, and
finally stopping production altogether. Naturally, when product prices are
high, the farmer produces more of that product.
Third, the financial expression of price —as an
amount of money, in other words, monetary prices— causes the value of the
product to be affected by changes in the value of money (currency) . If this
decreases while the price of the product remains unchanged, the real value of
the product also decreases, and vice versa. In common parlance, if agricultural
product price increases fall behind the rate of inflation, the real value of
the product will decrease (as shown by different price indices). Fourth, in the
long run, where other conditions remain the same, a decrease in the real price
of a product reflects a decrease in production costs and/or an increase in
productivity. Therefore, when comparing agricultural and non-agricultural
prices in the long run, it is necessary to take productivity developments into
account. Fifth, the price of a good also reflects whether that good is in
abundance or scarcity (per classical supply-and-demand economics. Thus, as a
sixth function of price—one that is extremely important for our subject— it
reflects the bargaining power of the parties. There are many factors that
determine bargaining power, but the most decisive is the ability to use it to
control supply or demand .
While prices have so many functions and are formed
depending on many variables, identifying the "right" or the
"fair” price has occupied economists throughout history. There is no
definitive way to settle the issue, and governments have long sought to
determine and direct agricultural-food prices. Therefore, price is also a
political phenomenon and subject to power relations. In this case, explanations
about how price should be formed also carry political and ideological content.
According to the views that defend capitalism as an ideal system, prices should
be formed in the market. A market economy is an economic system controlled,
regulated, and directed by markets alone in which the production and
distribution of goods and services are left to this self-regulating mechanism.
Such a ‘pure’ market system is an ideal or abstraction—a fiction rather than
reality; markets are always embedded in and regulated by social and political
institutions. State intervention in agricultural product markets is not the exception
but the rule.
On the other hand, oligopolistic and monopolistic
companies are dominant in the marketplace nowadays and thus enjoy pricing power
(market power). Depending on their size, information access, and competitors,
they can raise the price without losing significant market share. Thus, as Jan
and Harriss-White explain,
“Against the neo-classical conceptualization of
markets as autonomous entities, these researchers find that commodity flows and
prices, the volume and seasonality of supplies and the location and number of
intermediaries is not entirely independent of other parts of the economy,
especially the agrarian structure” (Jan & Harris-White, 2012, p. 43).
Therefore, results expected from an ideal pricing
system—including efficiency allocation, welfare, competition, and cost
considerations, buyer and seller satisfaction, are actually formed according to
corporate power as mitigated by state policy. In other words, price is not only
formed according to bargaining power in a competitive environment but according
to economic power and political preference:
"Since prices, whether local or international,
reflect power positions and the struggle over the distribution of resources and
incomes, there can be no 'right' prices independent of implicit or explicit
aims regarding such distribution" (Ghosh, 1992, p.25).
Finally, one more feature of price in a capitalist
economy is that it provides information about the past but not the future. This
is important since production decisions are made according to future estimates
and calculations, and demand decisions mostly occur in the future. For this
reason, price as a mechanism lacks the capacity to coordinate production
decisions with consumption decisions and thus to perform all other positive
functions expected of it (as listed).
11. Agricultural Products and Prices
Production of an agricultural product is typically
an annual process; the output of any year involves a response to price in the
previous year, and so on. In other words, output is reactive to lagged prices.
If producers believe that a high price in one year will also continue in the
next year they will decide to increase production, leading to supply increases,
and inducing a downward pressure on prices and consequent decisions to change
product. Without intervention, cyclical and volatile dynamics then come into
play.
Another characteristic of agriculture is
seasonality. Generally, farmers sell their agricultural produce immediately
after the harvest to deal with debt payments and other needs and also because
many agricultural products spoil quickly. Therefore, supply increases rapidly
upon harvest, and prices fall. In this case, the claim that total agricultural
output can be raised most effectively by ensuring 'remunerative prices' in a
free market without government intervention is flimsy because the prices that fall
as a result of increased production often cannot even cover the costs of
production. Thus, agricultural products are generally believed to have
price-inelastic demand and supply functions (Schnepf, 2006, pp. 21–22). When
demand is inelastic and supplies rise, the price drops.
Product prices have to cover costs if production is
to be sustained, but if the price falls to below cost, government intervention
is necessary. A longer-term reason for price reduction is productivity growth.
In this case, productivity gains do not offset the price decline losses, and
intervention is still required. In short, output and price fluctuations usually
require some kind of stabilization intervention. However, price support schemes
alone tend not to secure increased agricultural production. Thus, ensuring
'remunerative' production for farmers implies fairly systematic state
intervention. In most developing countries, the bargaining power of any
socio-economic group in the rural agricultural market depends on factors like
its initial asset distribution, power and influence, and relations with the
state. Importantly, government and markets are socially and historically
structured, reflecting class combinations, power relations and the bargaining
strengths of different groups (Ghosh, 1992, pp. 22, 24–25).
The Agro-Food System, Markets, and State Interventions
Many countries have tried to control the prices of
certain commodities but ended up abandoning their attempts. Price controls have
set prices temporarily but not been sustained in the long run. The fundamental
difficulty with price control is that it is almost impossible to set a price
that will match supply and demand, so price controls result in product
shortages or excess. Because price control gives the wrong signal , it also
distorts to resource allocation.
Agricultural production, prices, and trade were
regulated from the 1940s to the 1970s at the levels of national policy and the
world economy. These regulations managed the supply of various products and
stabilized prices. Since these policies were gradually removed from beginning
of the 1970s, the agro-food regime has become increasingly susceptible to sharp
price changes. Moreover, the long-term trend in farm products showed a decline
over the period from 1955 to 2000 that was particularly notable from 1986 to
2005, where prices fell by an average of 1.4 percent per year. Then, as
agricultural product prices rose, in 2008, worldwide food crises occurred. More
recently, during the COVID-19 pandemic, food crises and vulnerabilities in the
agro-food system affected the world. However, it is necessary to note that
these trends have not always been consistent across all agricultural products.
Theoretically the market can be analyzed in three
ways: with a view of power (e.g. K. Marx, P. Bourdieu), institutions (e.g. M.
Weber and K. Polanyi), or networks (e.g. E. Durkheim, M. Granovetter, M.
Callon). These understandings are not always independent. For example Bourdieu,
combined notions of power and institution in the concept of the market as a
‘field’ where power struggles occur under an institutional structure favorable
to a particular group. In Neoclassical Economics, the "market" is
treated as an autonomous and flexible mechanism of voluntary exchange based on
choice, by which prices are formed as a result of supply and demand, and
through which scarce resources are valued and allocated. Efficiency is achieved
under perfect competition and perfect information where actors towards to
equilibrium levels. Actually, of course, perfect competition nor more exists
than ideal markets, and where is no any means that coordinate to supply and
demand decisions While a host of coordination mechanisms are applied in
agricultural marketing channels, there is no theoretical framework for
marketing co-ordination. (Jan & Harris-White, 2012, p. 43).
Agricultural production has its unique
characteristics—such as the biological nature of the production, limited
assets, and time lags—which preclude rapid adjustments in output and prices,
and the functioning of agricultural markets is driven by biophysical and
socioeconomic factors, as well as different policies. In a capitalist economy,
the main information is price, which is determined in the market as result of
buyer and seller decisions. In centrally planned economies, prices are designed
to provide much of the same information as in free markets. The planning office
sends information to the managers in the forms of a set of price signals, and
the managers return information to the central planners in terms of their
output; if the planned output is greater than needed, a new set of accounting
prices is communicated to the managers. This process continues until a
particular set of production levels is realized. In a mixed system, plans and
markets interact in several ways. Allowing markets to emerge alongside state
planning both enhances and limits the power of planning. Markets enhance
planning's distributional function and improve allocation efficiency, but they
limit the state's ability to direct production and consumption by means of
planned quotas and prices (Sicular, 1988, p.705).
Although often cited as prime examples of
competitiveness, agricultural markets are not well represented by the classical
Walrasian model. Price formation according to supply and demand is observed in
some local markets, but agricultural food markets actually do not and cannot
operate on a competitive basis, largely due to their unique characteristics. On
the supply side, not only is production determined by the amount of area under
cultivation, but also unexpected shocks such as weather or crop diseases distort
prices, and governments imposing market regulations cause significant
deviations from the conventional supply-demand structure (Lucke, 1992, p. 235).
Moreover, farmers have different production functions and, quotas, available
acreages, and relevant risks (Lucke, 1992, p.15).
Nowadays, as noted, prices are influenced by
corporate market power (MacDonald et al.). The major actors in the spot and
forward freight markets are the large shipping companies, old commodity houses,
like Cargill, Bunge, Archer Daniels Midland, and Louis Dreyfus, and banks, such
as Rabobank and Morgan Stanley, which have been involved in the trading of
commodities for a long time. Agricultural and food marketing based on consumer
orientation cannot be well coordinated (or only at a high cost) through market
prices; additional coordination mechanisms need to be applied. Price volatility
affects all actors in the food supply chain; implying increased risks to
farmers, who may react by reducing output supply and investments in production.
For consumers, on the other side of food supply chains, price increases pose
food security risks (Lucke, 1992, p. 239).
An effective pricing system should ensure that
accurate information is transferred both about the costs and price changes in
the production process (to the user of the final product) and about the price
changes in the final product (to the producer of the primary product). When the
final price of the product changes, this is transmitted to farmers' sales
prices through costs and pricing strategies, which are also related to market
power. For example, corporate retailers like supermarket chains may use their
market power to keep consumer prices constant or reflect only farmer sales
price changes, in which case, the costs of price change transmissions are
higher in competitive markets (in both directions). Increases in price
transmission costs can also increases price transmission volatility (Assefa et
al., 2017, p. 94).
Contract farming, price formation through
auction-based tenders in spot markets, and futures markets can all produce
information and conditions that reduce price uncertainties, although, of
course, these methods and markets also have their own flaws. For example, the
stronger party determines the terms in contracts, there is speculation in
futures markets, and price formation is based on market power in both markets.
In the US, contract production and marketing accounted for 36 percent of the
value of agricultural production, up from 12 percent in 1969 (MacDonald et al.)
Contracts are preferred especially for livestock and certain grains, and are
mostly carried out by relatively large agricultural operations. Contract
farming reduces the producer's income risk due to price and production changes,
and guarantees market access In agricultural auction markets, power is applied
through human interactions, such as among auctioneers and between sellers and
buyers, and between humans and market devices. Power differences result in
information asymmetry among auctioneers and buyers in trading (Kim, 2017, p.
526).
In recent years, some systems have been developed
based on market intelligence, information flows, and early warning systems. For
example, the Agricultural Market Information System (AMIS) was set up by the
FAO, in 2012, complementing the Global Information and Early Warning System on
Food and Agriculture (GIEWS); USAID launched the Famine Early Warning Systems
Network (FEWS NET), while the World Bank established Food Price Watch (in
2010), followed by the Food Price Crisis Observatory. Yet, the key questions
still remain in the policy debate: How much can the market be relied upon to
provide food security, and when and how much should the government intervene on
behalf of this objective? (Garrido et al., 2016, p. 2). In other words, how can
we move toward a food regime that offers more food security to people around
the world? (Winders, 2011, pp. 2–93). In the context of the agro-food system,
food security should be a major definer of the role of the market; the market
ought to be a tool used to help achieve society’s goals. As explained, however,
even if the market works properly, it fails here because there are significant
public purposes that cannot be achieved by prices and markets alone (Ackerman
& Gallagher, 2000, p. 1). Assessing and improving agro-food system
resilience to improve food security requires the development of appropriate
measures and indicators, as well as stakeholder involvement and a participatory
and collaborative process.
Summarizing, in a socio-economic structure in which
production is socialized, the exchange of goods is necessary, implying
transactions that, at present, are facilitated by price. However, the market
mechanism is an insufficient tool for determining prices, and today, in almost
all markets, it is more realistic to talk about a price formation based on
market power rather than the ideal model of competition where the relationship
between supply and demand determines prices. The basic tool for ensuring food security,
apart from price, is quantity regulation, but it is not possible to ensure food
security and price stability with quantity regulation alone. Rather, the
agriculture-food system as a whole must be considered, the whole process from
production inputs to waste disposal
In fact, agro-food system analyses have been
developed from this need—but can an agro-food system be planned as a whole?
When the myriad complex, interacting, and unpredictable factors affecting both
production and post-production processes are taken into consideration,
effective planning in the traditional sense does not seem possible. In these
conditions, it seems more reasonable to manage the agro-food system dynamically
and continuously by using price, quantity, and technological opportunities as
the most powerful tools at hand. Thus, after discussing the technological
developments used in directing the agro-food system as a whole—and briefly
considering the Indian experience—an alternative planning and management
approach will be proposed within the framework of the experiences and
theoretical foundations outlined. A listing of the major factors affecting
prices that need to be considered for market analysis in the context pf food
security is given in
Table 2.
12. Technological Possibilities for Managing the Agriculture-Food System
The Agricultural Marketing Information System
The agricultural marketing information system (MIS)
is a tool employed to collect, analyze, and disseminate data about the
situation and dynamics of agricultural market prices. It has been us for almost
a century in developed economies, while in most developing countries, a first
generation MIS was developed in the 1980s and a second generation in the 2000s
(Galtier et al., 2014, 2014) such as Nepal and the United Republic of Tanzania
(Magesa et al., 2014). MIS is employed in the formulation of public policies,
enabling market transparency and the provision of commercial information. It is
used by farmers, farmer organizations, traders, market wholesalers, food
processors, policy analysts and policymakers, researchers, educational and
research institutions, extension officers, private companies, donors, and,
sometimes, consumers (Umar et al., 2020).
There are, of course, possible negative impacts of
MIS. For example, expectations based on information gained might concentrate on
some points and thus cause to bubbles or panic; powerful actors may collude
through price fixing agreements; and readily accessible, cheap information
provided by MIS might discourage market players from seeking new types of
information or using alternative sources . Negative effects such as these,
however, can generally be expected be rather marginal (e.g. occurring only in
very exceptional circumstances).
The main driver of MIS development was the
emergence of information technology (IT) (see the listing in
Table 3), which also solved information
problems that hinder market access for many small-scale farmers, increased
information about extension services, and provided new perspectives for
improving agricultural supply chain management (Deichmann et al., 2016). Overall,
IT and MIS provide farmers and other stakeholders with better decision-making,
planning, and community participation.
In general, new IT-based technologies can apply
organizational innovation in accordance with evolving consumer demand. It is
seen as vital that agricultural engineering education and training centers use
IT to integrate approaches and programs focused on innovation and farm
management (Agricultural Markets Task Force Brussels, 2016, p. 9). In the
context of agro-food system, it can support many operational and research
improvements, such as in planning, sustainability, production and distribution
planning models, farming systems, location problems, supply chain management
practices in the food industry, operations management, mathematical models for
agricultural decision-making complexity, and constraints in managing
agricultural supply chains (Borodin et al., 2016). in the context of agro-food
system and IT. ICT advantages for agriculture: IT advantages for agricultural
development can be summarized as follows:
More effective and open agricultural markets
Farmers connected to urban, local, and international markets
Enhanced governance and services for the underprivileged in rural areas
Farmers encouraged to innovate in agriculture
Enhanced management of natural resources and land
Encouragement to boost the rural economy
Enhanced productivity, sustainability, and effectiveness
Disease and pest control described
Current market data provided
Bolstered representation of and capabilities for farmers
Reduced social isolation
Expanded business horizons
Weather data provided
Increased quality of life
Better and more affordable financial access.
These opportunities are especially important to
manage and overcome to uncertainties and risk in the agro-food system, which
are summarized in
Table 4.
International information on agricultural commodity
markets can be sourced from the following institutions: the FAO, World Food
Program of the UN, UN Commission on Trade and Development (UNCTAD),
International Fund for Agricultural Development, World Trade Organization
(WTO), World Bank, International Monetary Fund (IMF), OECD, US Department of
Agriculture (USDA), Business publications (e.g. Fertilizer Week), CRU
publications.
13. Supply Chain Efficiency: The Marketing System
An effective agro-food system needs to develop
primary production to wholesale, industry, and retail sale linkages. It should
cover primary agricultural marketing, physical and IT infrastructure, knowledge
production and dissemination, export-import channels, and human resources.
Crucially, the success of the system depends on the inclusion of farmers
(Kumari et al., 2020, p. 71).
Electronic devices and methods used in agro-food
markets can ease the marketing process and help farmers secure a good price for
their produce. E-balance and e-tendering processes can reduce operation time.
Electronic devices and communication technologies are appropriate tools to
improve efficiency and transparency in marketing agricultural produce (Joshi
& Reddy, 2015, p. 155). These systems help in the collection, regulation,
analysis, evaluation, interpretation, and distribution of accurate and real-time
information to support decision makers In this regard, MIS tools, too, can be
used by public institutions, professional organizations, farmer organizations
or NGOs to secure food quality, safety, and traceability and for the
coordination of transactions.
Table 5
presents a market analysis listing indicating areas in which supply chain
efficiency can be increased through the marketing system.
13.1. Auction (Tender) Systems
Another system that is increasingly used alongside
MIS systems and of which the applications in India are an effective example is
the auction (tender) system. This application and the Indian experience are
briefly discussed below.
Another IT-based system that is increasingly used
alongside MIS is the auction (tender) system, of which the application in India
is an effective example. In a computerized electronic auctions system, both
large and small buyers and sellers can submit their offers. The system matches
these offers and exchange transactions are enabled. With participation made
relatively easy (including distance participation, which is especially
important in remoter locations and for farmers who need to physically present
on the land), there are more (and a greater range of) buyers and sellers, so
pricing efficiency and competition increase (Hamm and Purcell, 1985). Moreover,
since wholesale produce auctions can be useful for alternative marketing, it
can provide considerable benefits to smallholders and is "highly
recommended for rural communities" (Hanson, et.al., 2002, p. 22).The
Indian experience is quite inspiring in this regard.
In the Indian computerized tender system, buyers
and traders have to first obtain the unified market license, pay a fee to
register with the ReMS, and show some security in the bank. The buyer can with
bid and make revisions online. After closure of an auction period, the bids are
displayed. Then, to complete a transaction, the producer/seller is required to
give their acceptance to the bid. If seller rejects the bid, a second round of
bidding takes place on the same day and in the same way.
13.2. The Indian Experience
Agricultural markets in India are characterized by
poor competitiveness, fragmentation, inefficiency, the excessive presence of
middlemen, and widespread price manipulation (Chand, 2016, p. 159.). More than
60 percent of prices paid by consumer goes io the mediators (arhatiyas), which
negatively effects both rural and urban households.
The National Agriculture Market (NAM) is a
pan-India electronic trading portal. Launched in 2016, the NAM portal networks
the existing Agriculture Produce Marketing Committee (APMC) and Regulated
Marketing Committee (RMC) market yards, sub-market yards, private markets, and
other unregulated markets. This unifies all the agricultural markets nationwide
by creating a central online platform for agricultural commodity price
discovery. There are about 585 APMC markets, which were linked e-NAM in 14
states in India by 2018. The system aims to include 1,000 regulated wholesale
markets in 18 states and three union territories. Smallholder farmers can
benefit if they find ways to aggregate produce, thus bypassing the middlemen
and even the local market in the process (Roy, 2022). Across the pan-Indian
region, e-Nam aims to integrate markets, facilitate trade in agricultural
commodities, streamline marketing and transaction procedures, and support
farmers/sellers with, among other things, more buyers/ markets, the removal of
information asymmetry between farmer and trader, better and real-time prices
according to actual agro-commodity demand and supply, transparency in the
auction process, and online payment facilities. Additionally, it aims to
establish assaying systems for quality assurance and to promote stable prices
and the availability of quality produce to consumers. Strategically, e-Nam can
guide cropping patterns and incentives production. If the system covers more
products, it works more efficiently. It can also enable implementation of a
floor/reserve price for auctions at regulated markets. India, additionally, has
developed an elaborate system of estimation of crop sown areas, yields and
production of different crops, along with demand and price forecasting, and a
focus on monitoring demand and supply situations to arrive at associated price
forecasts.
In e-NAM agricultural product auctions, the buyer
side is not restricted to traders within the market since industrial companies
and other buyers can also participate. Thus, cartelization and the power to suppress
the prices received by farmers has been eliminated. Price formation is
competitive, transparent, and efficient. Farmers are selling online, enabling
higher prices. Along with higher net returns to farmers—and greater financial
literacy and reduced dependency on public procurement—studies on e-auctioning
and e-tendering, including e-NAM, show increased marketing efficiency,
competitiveness, transparency, market integration, market-driven
diversification, and trade expansion and reductions in transaction time and
costs and the number and power of market intermediaries and trader monopolies,
fewer market imperfections, less wastage and lower final consumer price (Umar
et al., 2020).
Considering the recent technologically based
developments in particular, it seems inevitable that an alternative planning
approach will be developed within the framework of historical and current
experiences and theoretical approaches presented here, not only for agriculture
but also for the agro-food system as a whole. A discussion of the basic
elements of a planning approach that can contribute to the solution of the
increasing global agro-food problems and a proposal for such a system are made
in the following section.
14. A New Approach: Volunteer, Incentives and Directed Argo-Food Planning
The central idea of this study is that arrangements
to quantify agricultural production, regulate and actively manage agro-food
markets can reduce the gap between food supply and demand and therefore
eliminate price volatility and provide efficiency throughout the agro-food
system. These arrangements can be made, it is proposed, using a decentralized
and voluntary planning model. The following sub-sections consider this planning
process step by step.
15. Predicting Food Demand
As Adam Smith stated, the “stomach of a human is
certain size” (Smith, 1776, pp.180-181])—although demand at the individual
level is not exactly fixed, it is also generally true that people can only
consume a certain amount. If we consider total demand as set by the quantity of
consumption of a product at a macro level, we observe a stable (straight-line)
increase,; as opposed to the Malthusian argument in which food demand (as
compared to food production) rises exponentially (shown as a curved line). Of
course, population and income increases, imports and exports, natural disasters
and suchlike can affect consumption levels, but if assumed unexpected factors
are treated as a constant and measurable factors like population rises
predicted, approximate consumption amounts for the following period (e.g.,
year) can be calculated. Should, for example, extraordinary exports occur
(foreign demand) affecting the total (domestic and international) demand, a
deviation will result. This can be accepted as risk point or factor and
compensated with appropriate measures or new policies.
The variables of the food demand calculation
include different consumers with different product demands and the different
demand elasticity of different income group’s along with, institutional
consumption, contract farming, and industry demands. A second important pillar
of the food demand forecast is seasonality; many products are required in
different amounts at different times of the year. A third component is product
storage capacities and conditions. Fourth is substitution products: if there is
an alternative product, demand will be more sensitive to price changes. Fifth
is alternative usage of the product; where a product has alternative uses,
price can be affected, negatively or positively (e.g., a sauce industry can buy
an excess of supply of tomato that it can use without depressing prices, but if
there is supply deficit, the industry demand can raise the price).
From the perspective of agricultural planning, the
theoretical assumptions related to demand that form the basis of the model can
be summarized as follows:
Agricultural/food product demands are relatively
stable and can thus be predicted within workable parameters;
If product demands are stable and supplies arranged
according to them, prices will not fluctuate extremely.
16. Supply Planning: Voluntary and Individual
A fundamental aspect of agriculture is that it
produces living entities using other living entities. Agricultural products
also require specific actions, such as cultivation, storage, purchase/sale,
transportation, consumption, and recycling, at each stage, from planting and
fertilization to final consumption or disposal. The supply side of agricultural
production has many factors to be taken into consideration, including product
kind, seed and rise time, harvesting period, producer type, contract farming, agro-food-chains
type, commercial, processor, and retailer actors, product waste and loss,
storage facilities, transaction costs, alternative products, climate-base
issues, and pest and weed control. All these factors have effects on production
quantity and quality. When the demand for a product is stable, its supply can
be arranged according to demand taking the above factors into consideration.
For supply planning, it is necessary take reduced supply into account and
calculate predicted risks by a margin that will compensate for their likely
effects.
Secondly, after production, even if production is
sufficient to meet demand, it is necessary to manage the product so that it can
be accessed at the appropriate place and time. The total supply of a product
emerges from independent producer and then processor and distributor decisions
regarding release. While so many farmers are small-scale producers and there
are also large numbers of middleman and industrial actors, there is no
mechanism that coordinates the plans of the primary (raw material) and secondary
(food) producers and traders. Although the supply of agricultural products is
sensitive to price changes, supply arrangements take time. In general, farmers
are rational actors; they increase production as product prices rise. However,
this attitude alone does not cover everything related to agricultural
production. A number of policy variables and other factors affecting the level
of agricultural production can increase or decrease the effect of price. It is
also necessary to consider these other incentive factors, which are sometimes
more important than price (Mamingi, 1997, p. 32).
Given the diversity within and across differently
scaled agricultural systems, from the global through national to the local,
there is no silver bullet that can be applied in all contexts. Adaptation
measures need to be context-specific. A range of planning tools and foresight
approaches are available to support planning and implementation. These should
be applied in conjunction with stakeholder engagement efforts and efforts to
link with indigenous knowledge.
The relationship between farm scale and land
productivity has been well studied (e.g., Chayanov, 1986 [1926]; Sen, 1962; Carter, 1984; Eswaran and Kotwal,
1986; Barrett, 1996). The data favors the promotion of small-scale farming for
equity and efficiency gains and land redistribution towards smaller farms for
economic growth. While some studies confirm that productivity increases as
scale increases, others have shown the opposite. Overall, empirical analysis
has confirmed that smaller farms have greater land productivity than bigger
farms up to a variable threshold with a median value of 11 ha, although cautious
interpretation is needed for the upper tail of the farm size distribution due
to the low representativeness of larger-scale farms (Chiarella et al., 2023).
The evidence in favor of scaling up comes mostly from data on capital-intensive
agriculture in developed countries (Lund and Hill, 1979). In a scale-neutral
environment and under relatively certain conditions, large- and small-scale
farming can operate together.
Supply controls greatly complicate analysis of the
effects of the entire complex of government interventions on production,
consumption, trade, and costs to consumers and taxpayers (Sanderson, 2016). For
this reason, it is necessary to use other tools, on the one hand by product
planning and the other by balancing where problems occur.
In capitalist economies, both the plans made by
large firms, mostly through contracted production, and the various
interventions made by states show that the agricultural-food system will not
work on its own,. Hence the need to develop a planning system that takes into
account sociopolitical, economic; and environmental priorities. Notwithstanding
all these interventions, fluctuations in food prices, food shortages, and
overproduction in capitalist economies have not been prevented.
Both the capitalist and central planning approaches
to agriculture have failed to consider the conditions of the farming household.
These include the production-consumption balance, allocation of resources to
different activities, and harmony and complementarity between different
activities. As a result, the models applied have not allowed and encouraged
farmers to use their resources effectively. Concrete experiences indicate that
production and productivity increase wherever the farmer can use their initiative
as an independent agent. Therefore, a planning approach should assume that
farmers can make the most effective decisions about their own conditions,
production, and suchlike.
Depending on the supply-demand imbalance, similar
but longer fluctuations than those occur in the production of animal and animal
products. This is because it takes more time to adapt the amount of animal
production to demand. On the other hand, there is an advantage to following
animal production more closely due to the already existing tagging system. The
monitoring and planning of fishing and beekeeping and other activities may be
easier due to the fewer numbers of producers.
Guiding production so that it both attains
efficiency in resource use and meets the level of demand cannot just take the
form of calculating production quantities and areas and realizing the plans
developed from this information. The majority of farmers are engaged in both
crop production and animal husbandry, so the compliance of these farmers with
the desired production planning cannot be achieved on the basis of only one or
the other; both activities should be considered together due to their
complementary characteristics.
Price
As in all other sectors, agricultural product
prices are directed by states but determined by actors with market power, and
the market mechanism alone only gives information about the past, so production
planning conducted according to market signals will likely fail and any
balancing of production quantity and demand will be coincidental.
In both centrally controlled and capitalist
economies, price represents a problem to be determined according to the
priorities of production and society. As mentioned (above), price has many
functions, so setting any price can have undesirable as well as desirable
consequences. For example, high prices favor the farmer but are against the
interests of the consumer. For this reason, it is also important to consider
which functions will be effective in addition to price, in line with the
preferences that determine the price. This choice is also a political choice so
price is a political phenomenon.
Ensuring the continuity of agriculture, that
farmers have a good level of welfare, and especially that poor consumers have
access to food can be the primary criteria for price determination. Setting the
product price involves problem of determining a value that will provide the
producer with an income above costs and continuity of production, prevent
excessive income flow between sectors, and provide consumer welfare and access
to food for the poor, reflect developments in productivity. and eliminate the
negativities of world prices. In fact, governments that manage prices can
achieve this.
17. Marketing and Processing Activities
Even if the planning of agriculture by determining
the cultivation areas and production amounts is done correctly, it remains a
fact today that inadequate conditions for trade and the storage and
transportation of agricultural products after primary production along with the
lack of information on production, markets, and prices cannot prevent the
monopolistic behavior of actors with market power. Under current contemporary
conditions, therefore, prices will thus continue to fluctuate, and
overproduction and shortages will still be inevitable. However, technological
developments and experiences in applying them to agro-food markets show that it
is becoming increasingly possible to manage and direct the agriculture-food
chain as a whole. Utilizing already existing technological opportunities and
further developing advanced systems in agricultural production and marketing,
for the processing and delivery of products to the final point of use, and for
the disposal of wastes has many, multifaceted potential benefits.
Since agricultural production and product prices
are subject to many different effects, uncertainties, and risks, stabilizing
them is not possible by making a one-time plan. Rather, it is necessary to
constantly follow developments, producing and analyzing information, predicting
and managing the risks that will arise, and creating mechanisms against
unexpected occurrences. All changes conditions assumed as constant and other
predictable areas can included into the mode to be developed as manageable risk
factors.
18. Volunteer Planning
According to the above, volunteer planning in
agricultural production is possible; an example proposal of this planning model
is outlined below on a step-by-step basis:
A data processing and information center (DPIC) is established. The DPIC team consist consisst of members with specializations in statistics, econometrics, economics, agronomy, sociology, and IT. It collects data about the past and present supply and demand of specified products. This team analyzes the data, estimates demand, and considers other aspects of the agro-food system, including risk factors, and then disseminates the results to all stakeholders.
The DPIC develops cellphone/computer applications for use by farmers giving information on seeding time, planed seeding quantities, and estimated harvesting times and amounts. It also develops tools and methods for farmers to use the applications
The DPIC prepares explanation material (documents, manuals, films, etc.) on the planning system for farmers and the public. Then, the state, agricultural ministry, and agricultural occupation organizations communicate information about the planning system to farmers and the public.
The state, agricultural ministry, and/or DPIC prepare a detailed application procedure and present it to farmers. This should include the advantages of participating in the system, just as purchasing guarantees (without which, price determination is not meaningful). When purchasing guarantees are being declared, it is also necessary to establishing related infrastructure, such as storage facilities, cooling systems, and personal and financial allocations to facilitate product purchases.
The DPIC communicates with farmers before the seeding time to learn when they will seed, the size of their planned seeding areas, the species of product they will seed, and when they will harvest (and similarly in animal husbandry and other domains).
-
After processing all the information collected from farmers , the DPIC calculates the total estimated supply and supply-demand balance. According to this calculation, one of three situations will be considered.
- a)
A balance between supply and demand: In this case, the DPIC sends a message to farmers to realize their plans.
- b)
Excess supply: The DPIC sends a message to farmers asking them to reduce their seeding (or similar) plans (by a certain percentage) and to then send information about the new plan. If the new plans secure the supply-demand balance, the realize- your- plan message is sent; if there is still excess supply, the DPIC or Ministry of Agriculture, make a plan to use excess production after harvest (e.g., by identifying new markets or another product use area), and then realizes this plan (i.e., after the harvest).
- c)
Excess demand: The DPIC sends a message to farmers to increase their planned seeding planning (by a certain percentage) and then send information on the revision. In cases of excess demand, provisions are made (e.g., using contract farming, state-farm seeding, importation) to compensate for the supply deficit.
If, there is more than one season for one product,
the same process applies. It is anticipated that farmers will both voluntarily
join the system when they are given a price and purchase guarantee that
guarantees the cost of reproduction plus an income and also be willing to
change their production levels in line with the demands of the planning center.
Additional advantages, such as agricultural insurance, can be offered to
farmers in order to increase their motivation to participate and protect against
risk.
After the harvesting process, there will be a need
for updated information and open tender organization. The organization and
operation of markets using the open tender method will aim to ensure effective
price formation and the delivery of products to users. Agricultural products
will be bought and sold on a national scale, and monopolistic tendencies and
speculation will be prevented. This organization can be established by the
state with participation of farmers, distributors/traders, industry representatives,
and professional organizations, but it must be clearly under state control.
The DPIC will continue to observe climatic and
drought conditions, diseases, extra ordinary conditions in both supply and
demand at the national and global levels, changes in the market and market
structure, and any new substitute products. If some extraordinary development
occurs that breaks the supply-demand balance, the DPIC will seek alternative
solutions. As necessary, it will develop new alternatives as opportunities
arise or make reductions (to seeding or stock planning, import-export channels,
etc.).
If everything goes according to plan but supply
excesses still emerge, the state will purchase these products at a declared
price for producers participating before the seeding period. The state can sell
these products abroad, distribute to the poor at home or elsewhere, process
them (make another product), or store for times of scarcity.
The DPIC will follow the producer, wholesale,
stock-exchange and futures, and retail markets and continuously monitor the
prices of products. If a problem is observed, it will intervene in the market,
mainly by means of buying or selling products. If stakeholders and speculators
know the DPIC will intervene in the case of extraordinary conditions, they will
tend to act properly as little advantage is to be gained from actin g
otherwise.
Planning can be initiated with a limited number of
products that have had high price volatility in the recent past. Then, new
products can be covered under the planning process, which can be extended
across all products in a country and also at regional (e.g. EU) and global
levels. Within this system, it may be possible to further direct agriculture in
many areas, from product patterns to climate change, from energy and water use
to packaging, both through purchasing guarantees and reasonable prices, and by
the employment of additional tools
19. Conclusion
This article may be considered as a response to the
following situation assessment to the following:
Most countries have very little experience in
setting rules for local and regional self-regulation (and related schemes for
redistribution) and assuring democratic mechanisms for setting the right
balances at different levels of aggregation. Here again, critical research and
debate is needed. What can social movements realistically and concretely demand
from the state? It is more urgent than ever that social movements develop the
capacity to demand the needed responses from the state. (Ploeg, 2020, p. 968).
The approach outlined has reviewed the historical
background and contemporary situation with regard to the control and
coordination of agricultural production, and an example model has been proposal
that embodies the basic approach outlined; many other, more structured models
can be developed. The basic principles applied involve i) a participatory
system with the final production decision being made by the farmer, ii) prices
and purchasing guarantees prioritizing sustainable production and the welfare of
the farmer, and iii) the continuous monitoring and management of the agro-food
system as a whole. The particular proposal developed envisages the
establishment of a national DPIC as a structure through which this may be
achieved, along with its basic mode of operation.
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Table 1.
Challenges Faced by Agro-Food Systems.
Table 1.
Challenges Faced by Agro-Food Systems.
| In Production Process |
Price Related |
In Social-Political Context |
Related to Economic System |
International |
| Dependency on Nature |
Agricultural price volatility spillover effects |
Bribery and corruption |
Capital abundance |
Production of exporter and Importer countries. |
| Disease |
Supply and demand dynamics |
Strength of institutions |
Exports/Imports |
Comparative advantage |
| Seasonality |
Demand-supply imbalances |
Availability of collaboration and communication |
Access to markets |
International market price situation |
| Availability of cultivable land |
Speculation |
Strategic stockpiles and reserves |
Demand and supply situation |
Global economic conditions |
| Availability of labor and workforce resilience |
Financial market interdependencies |
Risk management |
Effect on Industrial Cost Structure |
|
| Technology |
Market perceptions and expectations |
Tariffs |
Effect on general price level |
|
| Cost of production |
changes in stock levels |
Domestic subsidies |
Effect on cost of living |
|
| Number and kind of suppliers |
Transaction costs |
Foreign trade policies |
Strength of local and regional food systems |
|
| Sustainable agricultural practices |
Trends in market prices |
|
Investment in technology and digitalization |
|
| Perishability and Seasonality |
Changes in input prices |
|
infrastructure and logistics |
|
| Inter-crop price parity |
Input/output price parity |
|
market structure |
|
| |
|
|
Biofuel production |
|
| |
|
|
macroeconomic factors |
|
Table 2.
The Factors Related to Production, Price and Food Security.
Table 2.
The Factors Related to Production, Price and Food Security.
| Lack of globally safe assets |
Stockpiling policies |
Inelastic supply in the short term |
Packaging cost |
Speculation |
| Random demand shocks |
Product innovation |
Product differentiation |
Storage and warehousing |
Input bottlenecks |
| Residual demand |
Constant upgrading |
Economic diversification |
stock balances from before reference period |
Increasing in efficiency |
| External volatility, shocks |
climatic conditions |
Seasonal and cyclical fluctuations |
New scientific and technological solutions |
Labor shortages and shutdowns |
| Market information |
Transport cost, disruptions |
Grading and standardization |
Flexibility of supply chain actors responded |
Financing cost and availability |
| Export-import trade and tariffs and subsidies |
Processing and value addition |
Risk bearing |
Labour wages rates |
Input prices |
| Import / export parity prices |
Domestic production |
Livestock prices (& terms-of-trade with cereals) |
Price variations among markets |
Consumer price indices |
| Net food balance |
Taxes/levies on food commodities |
Monetary exchange rates |
Quota systems |
Market connectivity and accessibility |
| Market system/ structure and infrastructure |
Policies & Regulations |
Market concentration |
Imports /exports bans on specific foods |
Consumer and or producer subsidies |
| Market integration / fragmentation |
Quality control systems |
Price controls |
Lost and waste |
Food aid imports |
| Food export duties and subsidies |
Food/feed use |
Quarantines |
Domestic usage including industry usage |
|
Table 3.
Key Technological Tools in the Food Industry.
Table 3.
Key Technological Tools in the Food Industry.
| Smart contracts |
Internet of Things (IoT) |
Embedded systems |
Dematel Fuzzy logic algorithms |
| Artificial Intelligence (AI) |
Radio Frequency Identification Device (RFID) |
Big data |
Block chain |
| Cyber-physical systems (CPS) |
Agricultural robots |
Decision support systems |
Data mining |
| Digital twin technology |
Machine learning |
Sensors |
Simulation modeling |
| Geographic Information Systems (GIS) |
Smart robotics |
Value stream mapping |
Digital support systems |
| Automation technologies |
Traceability systems |
Digitalization |
Technological instruments |
| Smart sensors |
Smart packaging |
Provenance tracking |
QR codes |
Table 4.
Types of Uncertainties and Risks in Agriculture.
Table 4.
Types of Uncertainties and Risks in Agriculture.
| Uncertainties connected to pricing |
Risks unique to agriculture |
| Price-related uncertainty |
Market and price risks |
| Regulatory uncertainty |
Technology and innovation risks |
| Environmental uncertainty |
Financial risks |
| Weather-related uncertainty |
Production or yield risk |
| Input-related uncertainty |
Other institutional risks |
| Technological uncertainty |
Weather and climate risks |
| Types of risk in agricultur |
Biological risks |
| |
Policy and regulatory risks |
| |
Human and social risks |
| |
Institutional risk |
Table 5.
Market Analysis.
Table 5.
Market Analysis.
| Supply |
Is there a food gap |
Appropriate form of food assistance |
| Infrastructure for intervention |
The best time to intervene |
Amount of food aid should be |
| Appropriate quantities of commodities to be purchased |
Nominal and relative domestic prices |
what supply arrangements are required |
| International food markets |
International prices |
Optimal food purchases |
| Markets to buy |
|
|
|
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