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PRODUCTION RISK MANAGEMENT OF INDONESIAN BREEDERS
ARIZONA STATE UNIVERSITY
WPC 480 - STRATEGIC MANAGEMENT
SPRING 2024
INTRODUCTION:
Indonesia's economic growth is expected to continue to increase in line with the
national economic recovery after the Covid-19 pandemic. Amidst the uncertainty of the
global situation, the world is currently faced with a food crisis. However, Indonesia is able to
survive and experience positive economic growth. This growth was triggered by an increase
in domestic consumption, especially animal feed products from the livestock subsector
(Prilliadi 2022). On the other hand, the domestic supply of livestock products tends to be very
low and dependent on imports, while domestic consumption continues to increase, causing a
high consumption demand gap (Yusdja and Winarso 2016). In particular, the livestock
subsector has received less attention because the government has focused more on increasing
food crop production, especially rice. Therefore, support for increased production through
credit is one of the efforts that can be made by the government to increase production inputs
in the livestock subsector so that it can build production competitiveness by utilizing its
comparative advantages.
The livestock subsector plays an important role in supporting the success of Indonesia's
economic growth. This is reflected in the increase in exports of livestock products, both
poultry and cattle, which fill the ASEAN market (Trobos Livestock 2019). The realization of
exports of livestock subsector products including dairy products, processed chicken meat,
animal feed, non-food animal products, hatching chicken eggs, Day of Chicken (DOC), and
frozen semen also contributed to the country's foreign exchange (DKPP Jabar 2020).
Currently, livestock sub-sector products have been able to fill demand from various countries
such as Singapore, Myanmar, Vietnam, Malaysia, Hong Kong, China, Papua New Guinea,
East Timor, and even Japan, which is known for its high food safety (Disnakkeswan NTB
2020).
Market opportunities for livestock commodities in the global market are still wide open,
so cooperation efforts with livestock business actors are needed (Alamsyah 2022). The
superiority of halal products in the livestock subsector in Indonesia is also an attraction for
export to Muslim-majority countries (Ditjen PKH 2019). The demand for meat, both poultry
and cattle, in Indonesia is expected to continue to increase along with the increase in
population and the demand for animal protein (Romadhoni 2014). Several policies of the
Ministry of Agriculture support the improvement of the quality of livestock products to be
exported, including the improvement of the Good Breeding Practices system, animal welfare
principles and veterinary certification regarding animal health status and food safety
assurance. Therefore, support from relevant stakeholders is needed, especially in
implementing international standards from upstream to downstream as an effort to increase
competitiveness. Development of MSMEs and Product Processing Units (UPH) can also
increase added value and product competitiveness.
Basically, the livestock subsector is always faced with uncertainty and high production
risks caused by various factors such as livestock mortality, foot and mouth disease (FMD),
constrained input factors, rising feed prices and other factors that cause low domestic
productivity (Salman 2014; BPS 2015a). The development of the livestock subsector is
inseparable from various challenges, especially dependence on imports that are not supported
by the independence of productive businesses, causing the livestock subsector in Indonesia to
continue to lag behind and be difficult to develop. Livestock business is one of the
prospective businesses but also requires high maintenance. However, the availability of
forage and grass is still available in the rural environment, so the livestock subsector is better
pursued in the countryside. However, another obstacle that poses a threat is the presence of
disease outbreaks such as foot and mouth disease which is a major threat because it can cause
losses, this of course can cause a decrease in the interest of farmers to develop their business
due to the high risks faced related to diseases suffered by livestock (Doudna and Sternberg
2019).
Therefore, it is important for farmers to implement risk management to prevent losses
due to livestock mortality or reduce the impact that will arise due to production risks. Some
of the risk management that farmers can do is by vaccinating livestock as a preventive effort
or maintaining the immune system of livestock by giving vitamins and maintaining cage
cleanliness. In addition, an increase in public awareness about the risk of zoonotic disease
spread related to livestock products can increase interest in replacing animal protein with
non-animal alternatives, thus reducing consumer demand for livestock products. Especially
the demand for halal food which has a fairly high standard free from disease. Therefore, the
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number of consumers also has an impact on food production that meets halal requirements to
meet the large domestic market demand. Support for farmers in terms of financing can
encourage livestock businesses to meet high local demand and depend on imports. The
amount of capital certainly affects spending decisions in business activities to increase
income. Efforts to achieve profits through business activities are more easily achieved if
supported by business credit. The higher the business capital, the easier the procurement of
production factors, so that it can indirectly increase production yields. According to the
Directorate General of PKH (2021), based on the Ministry of Finance's program credit
information system (SIKP), the realization of people's business credit (KUR) in the 2015-
June 2019 period of 13.8 trillion focused on developing productive businesses for breeding
and cultivating cattle, dairy livestock, goats/sheep, poultry, and a combination of
agriculture/plantations with the livestock sector. This indicates the increasing confidence of
the banking sector in the livestock sector business. In addition, after the issuance of Law No.
19 of 2013 on the protection and empowerment of farmers, the AUTP scheme was
implemented in 2015, which was then followed by the AUTP scheme Cattle Business
Insurance (AUTS) in 2016 that covers buffalo. This scheme is implemented as a form of
avoidance as well as reduction of risks related to the environment (natural, social, economic,
and cultural) specifically to the agricultural sector (Pasaribu 2021).
However, the misconception that KUR funds should be used as capital to increase
production inputs has shifted to grant funds, which has triggered a lot of moral hazard among
the creditor community, leading to a continued contraction in credit growth. To optimize the
role of credit, it is necessary to review the utilization of credit in order to provide greater
benefits, especially for agricultural development. This is because credit does not fully provide
a positive impact (Chandio et al. 2018; Darfor et al. 2021). This is also reflected by data
showing that a small proportion of households chose to increase debt due to the impact of
Covid- 19 (Bank Indonesia 2021).
1.1 Problem Formulation
Farmers often found in developing countries such as Indonesia are small-scale, poor, or
non-commercial farmers who do not have strong capital. Therefore, the government came up
with a policy of providing financing and capital facilities as one of the strategies to empower
farmers and micro business actors (Law of the Republic of Indonesia 2013; Presidential
Decree of the Republic of Indonesia 2015). With the Covid-19 outbreak in mid-March 2020,
the livestock subsector became one of the subsectors that felt the impact of the pandemic. As
a result of the work from home (WFH) policy, livestock farmers suffered considerable losses
due to the absence of absorption of livestock products due to the non-operation of restaurants,
markets, hotels, catering businesses and businesses related to the livestock product processing
industry. This problem then causes "over supply" because market demand has decreased
dramatically while farmers must continue to produce livestock even though they cannot be
sold and continue to be in the jug causing farmers to still have to provide animal feed,
vitamins, and vaccines to prevent livestock deaths due to viruses so that livestock can stay
alive and reduce losses due to disease and disease livestock mortality. This then causes
farmers to experience "high-cost" or bloated production costs. In addition, the price of feed
continues to rise due to the increase in the price of raw materials for making animal feed. The
increase in the price of chicken feed has caused problems for farmers, due to the initial
problem, namely the very low selling price of livestock products and the difficulty in selling
livestock products, so that farmers cannot afford to buy animal feed and cause death for
livestock (Lokataru 2020). As a result, farmers have no other choice but to sell their livestock
at prices below the reference purchase price in order to avoid greater losses.
The main obstacle faced by farmers during the pandemic is the difficulty in selling their
livestock because large companies or so-called integrators have also lost the market, as a
result, livestock products are not optimally absorbed due to decreased demand. In addition,
the components of production costs, such as in chicken, spend the most on the purchase of
DOC or chicken seeds and animal feed (Ramli 2021). Meanwhile, farmers are forced to sell
livestock in order to repay loans to breeding companies that will be repaid when they succeed
in selling their livestock, but the non-absorption of livestock products due to decreased
demand also triggers losses for farmers which causes farmers to have difficulty repaying their
loans. As a result, many farmers end up giving up their wealth assets to cover the losses.
Thus, the implications of these complex problems cause high production risks in the livestock
subsector so that farmers need to carry out risk management to avoid these losses.
Some steps taken by the government to reduce the risk of losses experienced by farmers
include: First, the government can allocate capital in the form of credit or interest subsidies to
help farmers continue to produce. Second, the government can absorb the "over supply" by
allocating the livestock products to the non-cash food assistance program (BPNT) or other
social assistance in the form of purchasing chicken meat or eggs. This can certainly absorb
the excess supply of livestock subsector products so that not only farmers are helped by the
absorption of livestock products but beneficiary families (KPM) can also fulfill their protein
needs so that they can indirectly improve community nutrition (Khudori 2020).
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Credit is one source of capital that is useful for increasing production inputs and farm
income (Soekartawi 2002). Credit is expected to increase the productivity and income of
farmers, which are still considered low (BPS 2015a). The distribution of credit to the
agricultural sector can be an incentive for farmers to increase their production. In addition to
being one of the policy instruments, credit is considered capable of breaking the "vicious
circle" of poverty among rural farmers (Hashim et al. 2016). In addition, the utilization of
agricultural insurance for farmers can also be an alternative that can be done to reduce the
risk of production failure. Accessibility and socialization of agricultural insurance needs to be
developed and expanded so that the economy can continue to be pushed forward, so that a
healthier business system can be created. This can be done by cooperation between the
government (central and regional coordination) in terms of building regional integration that
can encourage livestock business activities in rural areas to continue to produce increased
production and profits of farmers that can create employment opportunities and the provision
of supporting facilities such as financing, infrastructure, and other services. The private sector
will be encouraged to invest in supporting economic or business activities at the farm level by
providing capital support in the form of credit and agricultural insurance. This will create
self-reliance at the rural level.
However, it is undeniable that access to bank credit is still quite difficult for farmers.
Agricultural credit is generally always in demand by smallholders. Access to credit by
smallholder farmers from formal institutions such as banks is still a challenge due to the
collateral requirements. The microfinance sector fills the gap to some extent in some
countries, but informal lenders still control a large part of the agricultural credit market. More
often, these moneylenders are part of the agricultural value chain on the demand or supply
side of the farmer (Chatterjee and Oza 2021). Several previous studies have analyzed
production risk factors in livestock businesses in general. However, there is no analysis of
coping strategies carried out by farmers in facing production risks and how risk management
is carried out by farmers. In particular, the data used in this study is sourced from the 2014
Livestock Business
1.1 Production Factors and Production Risks of Livestock Business in Indonesia
Research on production factors and production risks in livestock businesses has been
conducted by many previous researchers. There are several factors that can reduce production
risk as well as increase production risk, but there is no research that formulates risk
management carried out by farmers, both preventive efforts, risk mitigation and coping
strategies carried out, especially in the use of credit by farmers. Analysis of factors affecting
production and production risk in this study uses the Just and Pope (1976) Model which
estimates the production function and risk function. The production used in this study is the
Cobb-Douglass production function in the form of a natural algorithm. In addition, this study
uses secondary data from the 2014 Livestock Business Household Survey in Indonesia which
can provide an overview of the livestock subsector (poultry and dairy cattle) on a national
scale. Thus, the risk management carried out can also be used as a basis for implementing a
policy. This research can also be used as a further study considering that the 2023
Agricultural Census is being conducted. Thus, it is hoped that this research can be a study
that represents livestock businesses in the 2014 period that can be used as a comparison with
the results of the next agricultural census data.
Here are some previous studies that discuss production factors and production risks in
the livestock subsector. Research on production risk in dairy farming using sanitation risk
variables, namely the risk factor if milk is contaminated with bacteria so that it requires cage
construction that meets the requirements and the importance of sanitation, the availability of
clean water, the health of dairy cows, the risk of unclean cow udders. Then the risk of
distribution or delay in milk delivery to the milk processing industry. Production input risk is
the continuous availability of feed. External risks such as the involvement of business
partners as input providers, the risk of high feed and concentrate prices, the risk of forage
feed quality and quantity, and the risk factor of unqualified cow seeds are described in
research (Septiani 2016; Firlia 2017; Noviana 2020). Research on production risks and risk
preferences of layer and broiler farms uses disease risk variables and drinking water sources
as the two main sources of risk in layer farms (Vinanda et al. 2016; Suyudi et al. 2019; Sayid
Akbar et al. 2022).
Research on production risk and risk preferences of shrimp farmers (Hartoyo 2018).
Research by Kurniati (2015) showed that most farmers in Sambas Regency behaved neutrally
in the face of risk (risk neutral) which amounted to 48.39 percent, while those who behaved
fearfully in the face of risk (risk averter) amounted to 38.71 percent and the remaining 12.9
percent were willing to take risks (risk lover). Farmers who are neutral to risk (risk neutral)
are farmers who have a rational attitude in the face of risk,
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To achieve food self-sufficiency, the government and non-governmental organizations need
to continue to encourage agricultural business activities actively and more intensively. There
are three suggestions that can be done, namely by improving the ability of human resources
(farmers and breeders), developing supporting infrastructure, and finally improving the
smoothness and access to credit, information systems, and distribution of inputs and outputs
to farmers and breeders (Asnah et al. 2015).
Thamrin's research shows that the factors that influence the production of coffee plants
are land area, urea fertilizer, ZA fertilizer, and the amount of labor. With the proper allocation
of agricultural inputs, especially the use of appropriate fertilizers, it can increase production
yields and increase greater income for farmers (Thamrin et al. 2015). Research by Maertens
et al. (2014) provides considerable knowledge by analyzing the relationship between attitudes
towards risk and investment decisions. Risk-taking behavior seems to be driven by credit
constraints combined with non-convexities in production. In particular, the investment
potential of higher education and irrigation is strongly associated with risk-taking behavior. In
addition, this study also explains that creating real potential for investment in high-cost
projects will lead to risk-averse decisions (Maertens et al. 2014).
Research by Gomez-Limon et al. (2002) shows a variety of attitudes to risk among
farmers, which mainly shows a relatively high absolute risk aversion coefficient (DARA) of
41 percent indicating that farmers have a high aversion to risk or tend to be "paranoid" and
relatively constant risk aversion (CRRA) represents farmers' behavior towards risk. The
results show that most food crop farmers are risk-averse. Regression results of other studies
show that access to microcredit, income status, age, education and household size are
significant determinants of farmers' risk attitudes (Dadzie and Acquah 2012).
Virginia farming households on the island of Lombok are risk takers in production and
labor allocation decisions but risk averse in consumption decisions. Increased production and
price risk of virginia tobacco, giving positive direction or simultaneously, have a positive
influence on the behavior of farmers in production, consumption, labor allocation, which will
have a positive effect on the income and economic welfare of farmer households (Siddik et
al. 2015). In addition to the factors that contribute to production, there are also factors that
influence other influential factors such as farmers' knowledge, attitudes, and skills in
conducting production activities. Farmers' knowledge in cultivating wetland rice is included
in the medium criteria, farmers' attitudes in cultivating rice are included in the high criteria,
which means that farmers are open to any information, innovations, programs, and
government recommendations in rice farming activities. While farmers' skills in farming in the
medium criteria, namely with an average score of 30.62. Overall, the behavior of farmers in
cultivating lebak swamp rice is in the high criteria, this can be one of the factors that can
reduce production risk (Rambe and Honorita 2011).
Research by Lawalata et al. (2017) shows that the amount of organic fertilizer, the
amount of phonska fertilizer, the amount of fungicides, the amount of l a b o r , th e age of
farmers and farming experience has an influence and is significant to production risk, while
the price of organic fertilizer, the price of phonska fertilizer, the price of fungicides, l a b o r
wages, the age of farmers and farming experience has an influence and is significant to
income risk. The majority of shallot farmers in Bantul Regency have risk averse behavior as
many as 44 farmers (73.33%) although shallot farming is risky. Farmers' age, education,
shallot farm income and shallot farm income are significant and affect farmers' behavior
towards risk. The results of this study are in line with the theory of Moscardi and de Janvry
(1977) where farmers tend to reject risk (Hamal and Anderson 1982).
Research by Olarinde et al. (2019) shows that farmers face different types of risks in
maize production: natural, social, economic and those related to crop production (technical).
Specifically, the following are suggested: natural risk issues, for example, can be addressed
through technological changes, such as breeding for drought tolerance, pest and disease
resistance, and dwarf varieties. For social risks, institutional and policy interventions that
regulate animal movement and authorized periods for forest fires can contribute to addressing
the problems posed by this type of social risk. However, a sustainable solution is the
"sedentarization" of livestock through intensification of crop-livestock integration. For
economic risks, farmers need to be more organized to have an impact on the market.
However, maize farmers do not have a strong association to protect their interests. Thus,
institutional innovation is needed to make a major contribution to addressing the above
economic risks. Finally, for risks related to the production process, addressing production
issues from technical risks will require a combination of technological changes and policy
interventions. It can be concluded that farmers' risk attitudes are directly responsible for their
level of maize cultivation. The level of risk aversion results from the interaction of perceived
socioeconomic, institutional and agricultural characteristics that characterize farm
households. The level of risk aversion also supports the fact that maize sustainability can be
achieved by tailoring program design to smallholder needs based on the implications of these
factors on farmer behavior.
In addition, research by Nabilla et al. (2014) showed that the variables of land area,
number of seeds, number of pesticides, number of fertilizers, and labor had an effect on land
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area. However, partially, the variables of the number of seeds, the amount of pesticides, and
labor have a significant effect on corn production, while the variables of land area and the
amount of fertilizer have no significant effect on corn production. Based on the results of
other analyses, the variables of soybean harvested land area, subsidized fertilizer allocation
and average altitude from sea level are variables that have a significant effect on soybean
production. The coefficient of determination resulting from the semiparametric spline
regression model is 98.2% (Amelia and Budiantara 2013).
Some previous studies used different analysis methods. Most studies use the Moscardi
and de Janvry (1977) approach method, including research (Hamal and Anderson 1982;
Gomez-Limon et al. 2002; Dadzie and Acquah 2012; Maertens et al. 2014; Asnah et al.
2015; Kurniati 2015; Thamrin et al. 2015; Lawalata et al. 2017; Olarinde et al. 2019).
Meanwhile, several other studies used regression methods (Siddik et al. 2015), descriptive
statistics (Rambe and Honorita 2011), combined DEA (Data Envelopment Analysis) analysis
with output oriented assumptions, Ordinary Least Squares (OLS) regression analysis, and
Cobb Douglas production function analysis and the Just-Pope heteroscedasticity model in
research (Lawalata et al. 2017). The analysis method using the cobb-douglas model
production function and the income function of multiple linear regression equations in
research (Nabilla et al. 2014; Lawalata et al. 2017). There are also studies that use the Spline
analysis method with the Optimum Knot Point obtained from the Generalized Cross
Validation (GVC) Method (Amelia and Budiantara 2013). The results of the research are also
diverse where there are factors that can increase or decrease production risk. Some risks from
natural, social, economic, and production are able to significantly influence. Thus, it is also
necessary to analyze risk management that can be done as a step to prevent or reduce
production risk.
1.2 Risk Management of Indonesian Farmers Facing Production Risks
People's Business Credit or also called (KUR) in the period 2015 to June 2019 has
disbursed funds amounting to 13.8 trillion. This credit can be utilized for business scale
development, increasing production inputs, and a form of risk mitigation that can be useful as
a form of capital assistance facility from the government. The credit distribution policy has
been regulated as in Ashari's research (2019) explaining to strengthen the position of the
agricultural sector, strengthening the capital of agricultural business actors and potentially
becoming a strong foundation to support Indonesia's economic development (Kementan
2021). This is related to the function of capital as a facilitating factor for agricultural
development. This is explained by Tampubolon et al. (2017) that credit can help businesses
to develop product innovation by providing productive investment loans.
Farmers or breeders who are often found in developing countries such as Indonesia are
small, poor, or non-commercial farmers who do not have strong capital. Therefore, the
government created a policy of providing financing and capital facilities as one of the
strategies to empower farmers and micro-entrepreneurs (Law of the Republic of Indonesia
2013; Presidential Decree of the Republic of Indonesia 2015). Credit is one source of capital
financing that is useful for increasing production inputs and farm income (Soekartawi 2002).
Credit is expected to increase the productivity and income of farmers, which are still
considered low (BPS 2015a). The distribution of credit to the agricultural sector can be an
incentive for farmers to increase their production. Apart from being a policy instrument,
credit is considered capable of breaking the "vicious cycle" of poverty among rural farmers
(Hashim et al. 2016). However, it is undeniable that access to bank credit is still quite
difficult for farmers. Agricultural credit is generally always in demand by smallholders.
Access to credit by smallholder farmers from formal institutions such as banks is still a
challenge due to collateral being the main requirement. The microfinance sector fills the gap
to some extent in some countries, but informal lenders still control a large part of the
agricultural credit market. More often, these moneylenders are part of the agricultural value
chain on the demand or supply side of the farmer (Chatterjee and Oza 2021).
In general, the agricultural sector is constantly faced with problems such as high price
volatility and bad debts. The weaknesses of smallholder farmers are simple management and
operational systems and limited capital. These weaknesses indicate that the business is still
inefficient because existing production factors have not been optimally utilized. Variations in
mastery in allocating production factors show the efficiency of farmers in running a business
(Wakhidati et al., 2017). Capital and labor as production factors are factors that have a
significant effect on production value (Aris, 2020). This means that any additional capital and
labor will increase the value of production. Business development can be done because of the
capital owned by farmers. Another problem is that the majority of farmers in Indonesia are
classified as small and marginal farmers with decreasing and fragmented land ownership. The
low scale of business at the farm level can certainly lead to minimal production levels which
have an impact on the low income of farmers. This problem leads to uncertainty that can
make farmers very vulnerable to risk. In general, agricultural production has always been
dependent on the use of limited agricultural inputs, such as fertilizer and credit, due to several
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constraints in accessing these inputs. As a result, farmers experience low yields and
agricultural production, making them heavily dependent on casual labor, charcoal and
firewood sales, and petty trading to earn cash income to buy food. Farmers also face
marketing problems, including fluctuating crop prices, lack of farmer associations to negotiate
selling prices, poor road infrastructure and long distances to markets (Coulibaly et al. 2015).
Therefore, credit assistance from the government allocated in the form of the People's
Business Credit (KUR) program needs to be reviewed for credit utilization. The amount of
resources allocated to livestock business interests can be one indicator that can be used to
assess the success of credit utilization.
With the research on risk management analysis that is usually used by farmers, it
certainly helps farmers and microfinance institutions, formal and non-formal credit
institutions to re-evaluate related to solving debt problems that cause bad credit. Although the
government in India has issued orders related to agricultural loan waivers to ease the financial
difficulties of farmers. However, in the long run, it can lead to the destruction of the trust of
banking financial institutions towards farmers due to the lack of repayment of credit loans
provided (Narayanan and Mehrotra 2019). This study therefore suggests three possible loan
insurance product instruments that can address the consequences of farmers' repayment
failure,
Some of the strategies that can also be used to mitigate farmer business failure in India
are increasing income through technological improvements by strengthening the seed sector
or superior seeds and knowledge dissemination systems, supporting high-value commodities,
developing value chains by connecting marketing production centers and setting minimum
prices in the event of a commodity price drop during the harvest. In addition, the success of
farmers depends on the level of production produced and marketing carried out, so it is
necessary to have cluster agriculture and farmer producer organizations and farmer groups
that can support this success (Joshi 2018). The second is to generate employment
opportunities, especially for millennial farmers (young farmers) by utilizing their aspirations.
With the regeneration of farmers, especially in Indonesia, which has a demographic bonus,
this can create a fairly high chance of success if supported by the provision of entrepreneurial
knowledge that can help novice farmers in managing their business (Bank BJB 2022).
The third strategy is to develop agricultural infrastructure that can be useful for
processing agricultural products (Ogwuike et al. 2022). With adequate infrastructure, an
organized, unfragmented and efficient agricultural supply chain can certainly increase
productivity, which has an impact on increasing the turnover of agricultural businesses.
Fourth, by improving the quality of rural life. Farmers generally carry out most of their
production activities in the village. Therefore, support for basic facilities such as sanitation,
drainage of health centers, clean drinking water and schools can improve the quality and
welfare of farmers (Isoto et al. 2017). This study shows that the loss of health of farmers who
take credit can affect the increase of fungibility credit where credit can be utilized to increase
resources that should be used for input purchases are diverted to overcome health problems
for treatment and other medical needs (Chandio et al. 2017; Chandio et al. 2018).
The results of this study are in line with DeLoach and Smith-Lin's (2018) research
which explains that households respond to changes in farmer health in different ways. First,
households that have accessibility to credit will tend to increase loans compared to
withdrawing savings or selling assets. However, also There are farmer households that do not
have access to financial institutions tend to liquidate their assets for treatment needs. There is
also research that shows that farming households in Bangladesh with access to microcredit do
not need to sell their livestock because they tend to get a higher rate of return compared to
farmers who do not use credit in dealing with health problems (Islam and Maitra 2012).
It is therefore important to ensure that low-income rural households can access medical
care as needed. In addition, implementing these four strategies can support national economic
recovery by identifying and assessing agricultural loans that can contribute to increased
national income through increased income earned by farmers, as agricultural credit systems
are generally long-term in most developing countries (Okorie and Iheanacho 2014).
Thus we will realize that production depends not only on labour and "capital", but on
the whole set of factors of production, it is quite possible that it is simultaneously true that a
particular American capital equipment (tractor) can release (save) a greater amount of labour
in India than in the United States, but will produce less wheat in India than in the United
States. This relates to the lack of incentive to invest in developing countries like India
(Makower and Nurkse 1953). In addition to experience in the agricultural business, the
importance of farm management can improve the ability of farmers in Ilocos to develop
better coping strategies. Where farmers in Ilocos understand well the conditions of their
business environment so that in implementing coping strategies they tend to integrate first
with the production practices they have by diversifying land that can reduce the risk of crop
failure or irrigation management (Catudan and Martin 2013).
In addition, farmers in Ilocos also seek solutions to problems in the field by conducting
research to determine their efficiency and effectiveness. In addition, it is also necessary to
socialize the importance of agricultural insurance so that it can develop more broadly and is
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not only limited to commodities such as rice and cattle and can also provide technical
guidance and risk management in order to reduce risks in farming (Asnah et al. 2015). The
existence of agricultural insurance can certainly reduce the burden on farmers from losses due
to farming risks. It is necessary to develop an insurance model that combines the interaction
between the government, the private sector and farmers (public-private-partnership) in
integrated farming financing. In addition, the development of an insurance model based on
the use of technology based on farmer productivity can be an option so that farmers can
choose insurance that is more suitable, simpler, and more profitable (Pasaribu 2021). Thus, a
better agricultural insurance scheme can be implemented in the future.
Some studies also explain the existence of partnerships between local chicken farms
and restaurants or restaurants as suppliers of local chicken meat to meet the demand for local
chicken menus (Nurlaelah et al. 2022). Demand fulfillment is also related to with the
fulfillment of consumer tastes that prefer native chicken menus compared to broiler chickens.
Several partnerships of native chicken farms with restaurants, SMEs, communities,
organizations, or other partners have also been found as an alternative strategy used to
increase the certainty of sales of production products (Hadi et al. 2021; Prabewi and
Listiyowati 2021; Ulfa et al. 2021; Rosmalah et al. 2023; Silaban et al. 2023)
Another risk management that can also be applied by farmers is by implementing an
integrated farming system or also known as a crop-livestock integration system. According to
some studies, this strategy can reduce production risk due to the balance of ecosystems that
can suppress pest and disease disorders (Imron 2020). Based on previous research, it also
explains that the crop-livestock integration model or crop diversification can provide higher
income (Khandari 2015; Rahmi 2015; Idris 2022). In addition, the study of partnerships has a
broader explanation when examined in collaboration with livestock businesses. In the dairy
farming business, there are many research results that show that the success of dairy farming
is also inseparable from its partnership with village unit cooperatives (KUD).
In some studies, it is explained that KUD has an important role as a provider of
production facilities, ease of obtaining animal feed, technical guidance and knowledge,
management, dairy cattle credit programs such as KKP-E, counseling, capital assistance,
health checks and treatment of dairy cattle, implementation of artificial insemination,
collecting cow's milk, processing into processed products, and marketing production results
in the form of products both fresh milk and processed products made from cow's milk (Dewi
et al. 2013; Sawantah 2015; Anzory 2018; Soedarto and Hendrarini 2021). Cooperation in the
form of this partnership also uses a lot of core-plasma partnership models where farmers as
(plasma) and cooperatives as (core) partners (Soedarto and Hendrarini 2021). There is also
research that explains the cooperation of KUD with dairy farms is only limited to cooperation
to distribute the results of dairy products because KUD is only as a milk processing industry
(IPS) (Anzory 2018). Sawantah's research (2015) explains that the partnership pattern used
by dairy farmers with the agribusiness cooperative Dana Mulya applies agribusiness
operational cooperation (KOA).
FRAMEWORK
3.1 Theoretical Framework
Production and Production Risks:
Production activities are a series of processes that transform two or more inputs
(resources) into one or more outputs (Pindyck and Rubinfeld 2009). Production can also be
defined as the activity of producing goods and services from inputs in the form of production
inputs, capital, and labor. Production activities aim to produce added value that can be used to
meet the needs of human life. The production process requires at least two inputs to produce
one or more outputs. Thus, the amount of output produced is influenced by the number of
inputs used in one production process.
In conducting a production process, especially in an agricultural commodity, it tends to
require a lot of production inputs. The simplification of the production input-output model is
formulated into a production function. The production function can be defined as the
relationship between production inputs to be used in the production process and the quantity
of output that can be produced (Ragan and Lipsey 2011). In addition, a production function
can also be defined as the maximum amount of output that can be produced from a certain
amount of input (Baye 2010). Thus, a production function can describe the functional
relationship between inputs that are transformed into certain outputs (Doll and Orazem 1984).
In a production function modeling, there are three models of inputs based on the time
horizon, which can be divided into fixed inputs (unchangeable), which are inputs that are
needed in a very short period of time and are fixed, short-term inputs, where some inputs are
fixed and others are variable (or changeable), and finally long-term inputs, where all
production inputs are variable.
Based on economic theory, the production function has three derived concepts, namely
the concept of total production (TP), the concept of marginal production (MP), and the
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concept of average production (AP). Total production is the entire amount of output produced
by a production process in a certain period of time. Marginal production (MP) is the value or
amount of change in total output produced when there is a change in the form of either
adding or reducing the amount of a production input used in a production process.
Meanwhile, average production (AP) is the value of output per unit of input, where in the
production function the cateris paribus assumption is often used or changes in input use only
occur in one production input while other production inputs are considered constant. The
relationship between inputs and outputs is explained in the law of diminishing returns, which
means that the use of factors of production (inputs) is increase will cause the amount of
output to decrease over time (Pappas and Hirschey 1995).
The production curve also shows the elasticity of production where there is a rational
area to produce. The concept of production elasticity is the sensitivity of changes in output
due to changes in the use of one unit of input, cateris paribus. Elasticity of production has
three regions in the production curve. Region I and Region III are irrational regions while
Region II is a rational region of production. Region I is an irrational region because every
additional unit of production always gives a larger additional output, cateris paribus. In
addition, in region I, the company's profit has not yet reached the maximum level so that the
addition of inputs can continue to be increased. Region I has an elasticity Ep ≥ 1 and is
limited to the point of the MP = AP curve. Region III is also an irrational region because
every additional input decreases the output produced. Thus, region II is a rational region
because it provides maximum profit by following the law of diminishing return, where each
additional input used will produce a smaller additional output until the maximum is equal to
the additional input, cateris paribus. Region II has an elasticity value between 0 and 1
(0<Ep<1), where the curve starts at maximum AP and ends at MP=0. The production curve
showing the relationship between total production (TP), marginal production (MP) and
average production is described in Figure 2 below.
In running a business, there is one important factor to consider, namely the scale of the
business. Business scale relates to the concept of Long-term costs required to run the
business. Making production decisions in the long run can lead to differences in output
produced at various levels of production so that decision making must be based on
knowledge of minimum production costs. An overview of the long-run average cost (LRAC)
curve that includes all possible short-run average cost (SRAC) curves is depicted in the
following business scale envelope curve.
Business scale shows the relationship between average production costs and changes in
business size. According to Debertin (2012), there are two conditions that will occur if there
is a change in the scale of business in farming, namely economies of scale and diseconomies
of scale. Economies of scale are conditions that occur when the use of inputs increases, the
cost per unit of input will decrease. While diseconomies of scale is a condition that occurs
when an increase in output actually increases the cost per unit of input. Economies of scale
occur when output moves between q0 and q1, while diseconomies of scale occur when output
moves between q1 and q2.
A production function consists of production inputs represented through independent
variables (x) and production outputs represented through dependent variables (y). One of the
most common production functions The Cobb-Douglas function is used to explain the
relationship between the dependent and independent variables. In using the production
function approach, there are several conditions that need to be met, among others, no
observation value is zero, there are no technological differences, and each independent
variable is perfect competition for other independent variables. Some advantages of the
Cobb-Douglas function approach according to Dillon and Hardker (1989) include: (1) the
Cobb-Douglas function approach is relatively easier than other functions and can be made
linear, (2) The results of estimating the line through the Cobb-Douglas function will produce
regression coefficients that can directly show the amount of elasticity, and (3) The amount of
elasticity also shows the level of return to scale.
Risk is a result or a consequence that can occur as a result of making a decision or an
ongoing process or future event. Basically, business decision-making always carries the risk
that the results arising from the decision will not necessarily match expectations. For business
actors in the agribusiness sector, especially at the on-farm level, risks and uncertainties are a
constant phenomenon. Climate change and pest and disease attacks are among the common
sources of risk faced by farmers.
Risks not only arise at the farm level, but can also arise outside of farming activities.
When farmers sell their products, the price is far below expectations, or when farmers buy
superior seeds for their paddy crops, it turns out that the seeds they buy do not have the
productivity that was originally expected, even though the farmers have managed the plants
as well as possible. Thus, there are several risks that are usually faced by a farming activity,
including production risk, price risk, and market risk. Production risk is a risk that can occur
in a farming activity caused by internal and external factors. Production risks that occur in
farming activities can cause the optimal production point on the total production curve (TP)
to not be reached. This condition is caused by the difference or gap between the actual
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production amount and the average production amount. Therefore, the nature of production
inputs to risk can be divided into two, namely risk inducing factors and risk reducing factors.
Risk is an event with a probability and outcome of the event that can be calculated by
the decision maker (Debertin 2012). Risk can also be defined as an event with a known
chance of occurrence so that it can be used as a basis for decision making (Ellis 1988). In
addition, risk can also be defined as an event that can cause loss. Thus, in general, risk can be
defined as an event with a chance that can be calculated to minimize losses that can be used
as a basis for making a decision.
Risks faced by farmers consist of risks that can be controlled and risks that cannot be
controlled. Risk factors that can be controlled usually come from internal factors consisting
of the use of production inputs which include the use of feed, fertilizer, labor, medicines and
other production factors. Meanwhile, uncontrollable risk factors come from external factors
such as weather and climate, rainfall, pests and diseases and other external factors. One of the
neoclassical production models regarding the impact of seasonal changes on production risk
on the decision to produce and risk preferences is described as follows.
The curve illustrates the impact of seasonal conditions as one of the risk factors on the
response to fertilizer needs. The following is an explanation of production decisions using the
income variance approach (Ellis 1988), namely:
1. T h e efficient use of input X1 with allocative efficiency is TVP1 which gives the largest
profit at point ab that is possible under good weather conditions. The value of losses incurred
if weather conditions are bad is bj. Farmers operating at this point can classified as farmers
who dare to take risks or commonly called risk takers.
2. The use of input X2 is consistent with the allocative efficiency of TVP2. In good weather
conditions, farmers will earn a profit of ce, while in bad weather conditions farmers will earn
a profit of de. Farmers operating at this point can be classified as risk averse.
3. Input use X3 is consistent with balanced allocative efficiency under both probabilities of
climate events. At TVP1 farmers earn a profit of fh (smaller than ab) and at TVP2 the losses
incurred are hi (smaller than bj). Farmers operating at this point can be classified as risk
neutral.
Risk is closely related to opportunity. Therefore, the measurement of a risk can be
measured using the probability or possibility of a risk occurring from the impact of the risk.
The size of the probability measure needs to be known so that a model is needed in the
measurement. Risk can be measured using three measuring tools, namely, variance, standard
deviation, and coefficient variance. Each of these measuring instruments is interconnected
with each other with the variance value as the basis of measurement for other measuring
instruments. The variance value is a measure used to describe how scattered the data points
are in a sample or data set. Meanwhile, standard deviation is the average value of the squared
difference, where standard deviation aims to see the distribution of data in a sample to see
how far or how close to the average value. Thus, the standard deviation value is obtained
through the squaring of the variance value. Coefficients variance is the resulting ratio of
standard deviation to the expected return value of an event. The return in this case is the
income earned, the production produced, and the selling price.
Decision makers will be better off using coefficient variation when compared to
variance and standard deviation as a measuring tool to determine one of the business
alternatives by considering the risks faced by a business. The smaller the coefficient variation
value can illustrate the smaller the business risk that will be faced. Some models commonly
used in risk measurement are the standard value model (Z-score), determining the value of
standard deviation, variance, and coefficient variation, Just and Pope model, GARCH model,
frontier function merging model with risk function, and various other models. One model that
is often used in determining production risk is the Just and Pope model. The model can
describe the use of production factors that affect production risk through variations in
production and output productivity. The types of production factors can be divided into two,
namely, risk reducing factors and risk reducing factors production factors that are causative
or risk inducing factors (Robinson and Barry 1987).
The total output (Q) in Just and Pope's production function risk model explains that the
total output produced is influenced by the input variables of the production function and the
variance function (risk function). This production function risk model considers the element
of risk that comes from variations in the use of production inputs. The average production
function or f(x) is the functional relationship between the inputs used in production and total
output, while the variance function (risk function) h(x) is the relationship between the
production inputs used and the gap between actual production and average production.
According to Robison and Barry (1987), there are seven assumptions in the model that must
be met by an input as a risk-reducing input.
The Cobb-Douglas function is a production function model that is usually used in a Just
and Pope production risk model. Production risk can be measured using the Just and Pope
Model through estimates of the variables of the average production function and the gap
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between actual production and average production for the risk function.
Risk Management Strategy
According to Darmawi (2010), risk management is an effort to find out, analyze and
control risks in every company loss with the aim of obtaining higher company effectiveness
and efficiency. Risk management carried out can reduce risky events that occur within the
company. Risk management can be done if there is awareness about the risks that occur. Risk
management can be carried out through several stages, namely, identifying the risks that
occur, measuring risks, considering the consequences of the risks that occur, and
communicating the risks that occur to all parts to find handling. Risk handling strategies that
can be carried out by business actors can be divided into two (Kountur 2008), namely:
a. Preventive strategy
Preventive strategy is a risk management strategy that is carried out to minimize the
occurrence of risks before the risk occurs. This preventive strategy is usually carried out if the
probability value of a risk is quite high. The strategy that is usually carried out is to avoid the
possibility of risk occurring by creating or improving the procedure system, developing
human resources, and installing or improving physical facilities. In this study, it can be
identified through efforts made by farmers to minimize the risk of disease or death of
livestock. Preventive efforts that are often carried out by farmers are maintaining the
cleanliness of cages using disinfectants, sanitizing clean water for eating and drinking
livestock, agricultural insurance, vaccination, and active efforts of farmers to obtain
information through farmer institutions such as farmer groups, cooperative membership,
association membership, and getting counseling.
b. Mitigation strategy
Mitigation strategies are risk management strategies that are carried out before the
occurrence of risks with the aim of reducing the impact of risks that can be caused.
Mitigation strategies are usually carried out to minimize the impact that has been caused by a
particular source of risk and are usually recommended to handle high risk impacts. In this
study, mitigation strategies carried out by farmers are efforts made to reduce the impact of
greater losses in the event of risks such as livestock affected by disease or livestock death.
Mitigation efforts can be in the form of the use of medicines for livestock affected by disease,
treatment to a veterinarian, or treatment of livestock by farmers independently. There are
three ways that can be done when conducting mitigation strategies, namely:
1) Diversification
It is a way of placing prices or assets in several locations so that if one is disrupted it
will not eliminate all other assets owned. One of the most effective ways to transfer the risk
that occurs is to diversify to minimize the impact of risk.
2) Merger
It is an activity of merging with other business units or companies. Examples of
strategies that are usually carried out are acquisitions or mergers.
3) Risk transfer
It is a way of handling risk by transferring the impact of risk to other parties. Some
strategies that can be done include insurance, leasing, outsourcing, and hedging. The risk
management process according to Kountur (2008) can be seen in Figure 4.
The risk management process can be done by identifying what risks the company
faces, then measuring the risks that have been identified to find out how likely the risk is and
how much impact the risk has. Furthermore, handling risks to provide suggestions on what to
do to handle these risks so that all possible losses can be minimized (Kountur 2008).
c. Coping strategies
Coping strategies are risk management strategies that are carried out after the risk occurs
to reduce the impact that has occurred. Coping strategy is defined as a certain process that is
accompanied by an effort in order to change the cognitive domain and or behavior constantly
to regulate and control external and internal demands and pressures that are predicted to be
able to burden and exceed the ability and ability to cope resilience of the individuals
concerned (Bowman and Stern 1995). In this case, individuals in this study refer to livestock
business households, so there are several coping strategies carried out to reduce the impact of
production risks. Some forms of coping strategies carried out by farmers include productive
loans or credit, installments after production, selling assets, selling production to credit
providers, diversification and other forms of coping strategies.
3.2 Operational Framework
This study aims to answer what are the production risk factors in livestock farming in
Indonesia that will be estimated using two characteristics, namely production input factors
and production risk factors. The production function model of poultry farming uses six
production factors consisting of feed, disinfectant, sanitation, animal health, farming
experience, and number of animals. Meanwhile, the risk function model of poultry farming
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uses the same production factors as the production function model with the additional
variables of farmer age, education level, number of dependents, credit, livestock mortality
rate, farmer activeness, and partnership.
In the production function model, dairy farming in Indonesia is analyzed using the
variables of feed, sanitation, animal health, farming experience, and number of livestock.
Meanwhile, the risk function model of dairy farming is analyzed using the production factors
used in the production function model with the addition of farmer age, education level,
number of dependents, farmer activeness, credit, and partnership.
Thus it can be analyzed how the production of livestock businesses and how the
production risks that occur are analyzed using the Just and Pope (1976) model using the
production function and variance function (risk function). Thus, it can also analyze and
formulate risk management carried out by livestock business households in facing production
risks in Indonesia. The risk management carried out is divided into three namely preventive
efforts, risk mitigation, and coping strategies. This framework is outlined in the following
flowchart in Figure 6.
4.1 Evaluation of the Presumptive Model
Basically, in empirical analysis, choosing the right model is very important to ensure that
the model matches the characteristics of the data used. A good or suitable model is one that
can describe the relationship between the relevant variables in the model analysis well
(Gujarati and Porter 2009). The existence of fit between the model and the data can be tested
using various methods such as fit test, assumption test, and evaluation of the quality of model
improvement. Therefore, it is important to note that the selection of a good model is not only
based on statistical accuracy, but also theoretical considerations, experience, and a deep
understanding of the data and the context of the analysis being conducted (Gujarati 2012).
2The model used must meet several criteria, among others, (1) cost-effective, meaning that
the model is as simple as possible, (2) identifiable, meaning that the estimated parameters
must have unique values or for the same purpose and there is only one estimate for each
parameter, (3) goodness of fit, meaning that it can explain the diversity of variation in the
independent variation described in the model and has a high enough R value, (4) theoretical
consistency, (5) predictive power, meaning that it can describe the comparison between
prediction and experience. According to Gujarati (2006), it is said that a good model is a
model that meets the goodness of fit criteria with several more detailed criteria as follows:
1. The suitability of the direction and size of the coefficient of the model obtained based on
the theory used in the study. The coefficient of determination (R2 ) which describes the
fit between the actual data and the estimated data. The coefficient of determination (R2 )
is in the range 0 ≤ R2 ≤ 1 and is positive. Model suitability can be said to be perfect if the
resulting coefficient of determination (R2 ) is equal to 1, whereas if the resulting
coefficient of determination (R2 ) is equal to 0, it can be said that there is no relationship
at all between the dependent variable and the independent variable.
2. The conjecture model is significant in predicting the dependent variable. The hypothesis
test used to check the accuracy of the conjecture model is Test
F. If the value of Fhitung > Ftabel or the probability value is less than the real level (P < α), it
can be said that the model is significant in predicting the dependent variable.
3. Each independent variable is thought to have a significant effect on the dependent
variable. The T test can be used to see the significance of the independent variable. Test
results with the value of tcount> ttabel or the value of the probability value is less than the
real level (P < α), it can be said that the independent variable is significant to the
dependent variable.
4. The OLS (Ordinary Least Square) assumption is fulfilled in accordance with the
requirements so that the OLS assumption is BLUE (Best, Linear, Unbiased, Estimator),
namely a linear model in parameters (coefficients) and there is no multicollinearity.
Multicollinearity in the independent variables is a condition where there is a linear
relationship between the independent variables. The cause of multicollinearity usually
comes from the tendency of economic variables to move simultaneously. This causes the
magnitude and direction of the coefficients to be invalid for interpretation and the results
of the significance test of the estimated model coefficients are invalid. One way to detect
multicollinearity symptoms can be seen from the Variance Infaltion Factor (VIF) value.
If the VIF value> 10, then it can be ascertained that there is multicollinearity. Some ways
to overcome multicollinearity are:
1) Adding observations so that the variance bj becomes smaller
2) Removing independent variables that are strongly correlated with other independent
variables
3) Using Principal Component Analysist (PCA) technique
c. There is no autocorrelation
The resulting error component is not patterned and spreads normally with a mean value
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equal to zero, is homoskedasitas (has the same variance), and there is no autocorrelation. The
standard error used in this study is a robust standard error that can overcome potential
heteroscedasticity problems that can occur, thus the estimation results using robust standard
errors can fulfill the prerequisites of the classical assumption test, namely autocorrelation and
heteroscedasticity (Wooldrige 2013).
5.1. Characteristics of Poultry Farmers in Indonesia
The characteristics of poultry farmers used in this study are the results of a description
of farmers running poultry farming businesses in Indonesia. The characteristics of poultry
farms used as variables and samples in this study are described statistically in Table 2. The
total number of poultry farm households used in the production function model and variance
function (risk function) is 20,601 farm households. In the production function model of
poultry farming, six variables were used that were expected to affect the value of production.
The variables used in the production function model are poultry feed, disinfectant, sanitation,
animal health, farming experience, and number of animals. Meanwhile, to estimate the
production risk function model, thirteen variables were used that were thought to affect the
risk of sales turnover. The variables used in the production risk function model consist of
variables used in the production function model with additional risk variables, namely farmer
age, education level, number of dependents, livestock mortality rate, farmer activeness,
credit, and partnership. The following is the descriptive statistics of the sample of poultry
farming households in Indonesia in Table 2.
5.1.1 Poultry Farm Business Location
Based on the 2014 livestock business household survey data, there are various farmers
from various provinces in Indonesia. In this study, the farmers studied came from 34
provinces in Indonesia with the following proportions listed in Table 3.
Based on Table 3, poultry farming is most prevalent in Java, namely in Central Java
Province, and least prevalent in DKI Jakarta Province. This is because DKI Jakarta is the
center of the capital city, making it less suitable as a place to conduct livestock farming.
Livestock business is generally carried out in rural areas. This is related to the development
potential and resources available in determining the development of livestock businesses,
namely the ecological basis of land, infrastructure, and capital.
In developing a livestock business, of course, it is necessary to pay attention to the
distance to residential areas, the availability of affordable traditional animal feed, the
availability of water that can be sourced from rivers, wells, and the availability of access to
capital by taking into account the benefits of spending on maintenance costs in the village, of
course cheaper than in the city (Siagian 2011; Umiarti 2017; Mahfut and Rusdiyana 2019;
Ploransia et al. 2022). Thus, there is a great opportunity for livestock business development
to be carried out in rural areas with the aim of realizing rural economic growth.
The five provinces with the most poultry farms include Central Java, East Java, West
Java, Lampung, and South Kalimantan. Meanwhile, the five provinces with the least poultry
farming include DKI Jakarta, West Sulawesi, Gorontalo, Bali, and Papua.
5.1.2 Productive females
Productive females are the number of female poultry parents that can lay eggs and
produce young. The types of poultry cultivated in this study include layer chickens, native
chickens, ducks and manila ducks. Generally, female chickens or ducks have different
characteristics. These are described in Table 4.
5.1.3 Poultry feed
Feed is a single or mixed, processed or unprocessed food material given to farm
animals for the process of survival, production, and breeding (UU RI 2014). Feed is an
estimate of poultry feed expenditure that depends on each farm management. There are
differences between each farmer in providing feed, in this study there were eight main types
of feed used by farmers, namely starter layer feed, feed, and feed grower layer feed, layer
feed, broiler starter, broiler finisher, concentrate (pellets etc.), bran or rice bran, and grains
(grain). Differences in feeding or animal feed management (phase feeding) are due to
differences in nutritional needs both from energy and protein requirements for each type of
livestock as the age of poultry increases. Thus, differences in feeding certainly have an
impact on the cost of each livestock, especially the frequency of feeding. The average poultry
feed for RTUP poultry is IDR 9,216,877.
Feed itself is the largest cost component of the production cost of poultry farming.
There are several studies that explain that feed is the largest component of production costs,
one of which is North and Bell (1990) approximately 65% of production costs, Tumion et al.
(2017) explained that layer chicken feed has a percentage of 77% of total production costs,
and several other studies explained that animal feed is the cost with the largest cost
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component (Pambudy 2013; Huda 2019; Nisak and Nurhman 2021). Based on survey data,
broiler feed is the largest cost component at 83.58 percent of total production costs, while
broiler feed accounts for 64.69 percent of total production costs (BPS 2015c). In addition, the
uncertainty of feed prices, which continue to rise, can also increase feed, which results in
high production costs. In addition, the lack of easily accessible feed companies means that
farmers need to find out other feeds that can be used as feed for other livestock. Some poultry
farmers claim to use food scraps to feed their birds. Thus the feed used is mostly obtained not
through direct purchase. The following are the ten types of other feed most commonly used
by farmers based on the results of the farm household survey in Table 6.
5.1.4 Disinfectant
Disinfectants are expenses for the purchase or non-purchase of disinfectants.
Disinfectants are chemicals used to inhibit or kill microorganisms such as bacteria, viruses,
and fungi. In this case, disinfectants are used to clean both poultry houses and equipment
related to livestock production activities. However, the selection of disinfectants also needs to
be considered, this is related to the function of disinfectants as chemicals such as halogens,
alcohols, oxidizing agents, phenols, and aldehydes, so it is necessary to pay attention to the
following points including: 1) the history of disease spread, 2) the amount of organic manure,
and 3) the material of the cage (Kusuma 2023). In applying disinfectants, it is necessary to
adjust the material of the cage, if the cage material is made of wood or bamboo, a disinfectant
is needed that can reach the pores of the wood. Another case with cages made of iron or
metal, non-corrosive disinfectants are needed to avoid rust on iron or metal, as well as
vehicles that are always used to market livestock products also need to be sterilized to avoid
germs and diseases. Based on the survey results, the expenditure of livestock business
households for disinfectants is Rp 9,150.
5.1.5 Sanitation
Sanitation or operational costs are the ongoing expenses of conducting the operations of
a business or the ongoing costs of conducting a production activity related to the
implementation of business operations. In this study, operational costs refer to the total costs
for electricity and water expenses. Based on the survey results, the average cost of spending
on electricity and water is IDR 236,382. Sanitation aims to facilitate production activities
such as water for livestock drinking, cage hygiene, and electricity for cage lighting (Riptanti
2008).
5.1.6 Farm animal health
Livestock health is an accumulation of expenses for vaccines, salt, medicines, vitamins,
artificial insemination, and livestock maintenance costs, among others. Based on the results
of the survey of livestock business households, livestock health expenditure amounted to Rp
235,510. Each farmer certainly has different types of vaccines, medicines, and vitamins used
for their livestock. The provision of vaccines, medicines, and vitamins aims to increase the
endurance of livestock which can also affect the risk of livestock mortality, thereby reducing
the risk of production failure (Ramadhan and Burhanuddin 2017). The types of vaccines,
medicines, and vitamins most widely used by poultry farmers in Indonesia are listed in Table
7. Based on the table, it is known that there are ten types of vaccines most widely used by
farmers including ND, ND Lasota, Gumboro, Drops, ND Kill, ND-IB, Bird Flu, Marek,
NCD, and vita chicks. Meanwhile, there are five types of medicines used for diseased
ungasses, namely bodrex, tetra-chlor, dewormer, vita chicks, and trimezyn. Meanwhile,
vitamins that are always used by farmers are dominated by Vita Chicks and turbo. This is in
line with the vaccination program that was conducted simultaneously in 2014 (Livestock
2014). The following is a list of vaccines, medicines and vitamins used by poultry farmers in
Indonesia in table 7.
5.1.7 Age of breeder
Farmer age is a variable that describes the demographic age distribution of poultry
farmers in Indonesia. This variable is used to show whether poultry farmers in Indonesia are
of productive age. This has to do with productive age which can increase labor productivity,
thus affecting business performance. If the labor used is in the productive category. This
allows for higher work productivity compared to labor with a non-productive age (Utomo
2019). In addition, in conducting livestock business activities, both physical (stamina) and
non-physical (knowledge) abilities are needed. Livestock business activities involve a lot of
physical activities, younger farmers generally have better physical abilities when compared to
older farmers so that it affects higher work productivity. In addition, younger farmers
certainly have a high level of curiosity, especially in the adaptation of higher technology that
allows farmers to adopt more efficient and up-to-date farming techniques (Mandaka and
Hutagaol 2015). Farmers' age is also related to decision-making and behavior so that it can
also affect decisions in determining the direction and objectives of their business (Asih 2007;
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Muhammamah 2008; Haloho 2010; Auditiya 2011; Samti 2011; Abadi 2014; Wati et al.
2014; Kusumaningtyas 2017; Marantika and Sampurno 2018). The age diversity of poultry
farmers in Indonesia is shown in Table 9, which is dominated by farmers with productive age
of 15-65 years with a proportion of 85.81 percent. The average age of poultry farmers in
Indonesia is 49 years. The age diversity of poultry farmers in Indonesia is shown in Table 9.
5.1.8 Education level
Education level is a demographic variable that describes the diversity of education
levels achieved by poultry farmers in Indonesia. The diversity of education levels is related to
the ability of farmers to adopt farming techniques, technology adoption, business decisions,
business management, technical efficiency of the business, as well as the activeness of
farmers to participate in institutions such as cooperative membership, associations, farmer
groups, extension services, and decisions on additional business capital through credit
(Latruffe et al. 2012; Oladeebo 2013; Suprapti et al. 2014; Mandaka and Hutagaol 2015;
Bethel et al. 2016; Firmansyah et al. 2017; Maemunah and Isyanto 2017). The higher the
level of education achieved by farmers can certainly affect the ability of farmers to manage
their business more efficiently with the aim of increasing the benefits obtained by farmers by
producing at an efficient level. Based on the survey results, the diversity of education levels
pursued by poultry farmers in Indonesia is dominated by farmers with elementary school
graduates with a proportion of 40.38 percent. Meanwhile, the average level of education
attained by farmers in Indonesia is 7.85 years or equivalent to elementary school graduates.
The diversity of education levels of poultry farmers in Indonesia is available in Table 10.
5.1.9 Number of dependents in the family
The number of dependents in the family is a demographic variable used with the aim
of describing the diversity of the number of dependents of farmers in the family. This
variable has a relationship with the number of dependents in the family which is a proxy for
the involvement of labor in the family (TKDK) (Firmansyah et al. 2017). Based on the survey
results, the average number of dependents in the farmer's family is 4 people. The smallest
number of farmer dependents is 1 person and the largest is 13 people. This indicator also has
a relationship with spending on labor costs, with the involvement of labor in the family, of
course, it can reduce spending on labor and support the success of the business being carried
out, especially if the business income obtained by the farmer (Arinta 2014; Firmansyah et al.
2017). However, there are studies that assume the higher number of dependents in the family
can increase family expenses that must be met so that it affects the decrease in cost allocation
for business capital or has a negative effect on business success (Arinda 2015; Elrangga
2016; Budi and Wirajaya 2018; Marantika and Sampurno 2018). This also results in low
credit repayment rates (Asih 2007; Samti 2011; Wati et al. 2014; Rosiana et al. 2015;
Kusumaningtyas 2017). However, this can also be influenced by outside variables such as
business experience or lifestyle factors. That way, the success of the business is also closely
related to the ability of farmers to manage their business and the ability to allocate capital for
business. Some other studies mention that the number of dependents in the family has a
positive influence on technical inefficiency. This is related to the greater the family size, the
smaller the technical efficiency that can be achieved (Maemunah and Isyanto 2017).
5.1.10 Farmer activeness
Farmer activeness is a variable that describes the institutional aspect of farmers. This
is because farmer activeness in this study is estimated using the accumulation of farmer
participation in cooperative membership, farmer group membership, farmer associations, and
extension. The four aspects are used with the aim of describing the livestock farmers'
activeness with an economic approach to livestock institutions. Strengthening farmer
institutions plays an important role in increasing the productivity and competitiveness of
livestock businesses (BPS 2015a). Strengthening the institutional aspects of farmers such as
farmer groups, cooperatives, associations and extension services can certainly support
livestock businesses in developing their businesses with collective activities that can support
business success such as strengthening business capital, partnership cooperation, procurement
of production facilities, knowledge about livestock cultivation, increasing business
production, handling livestock diseases, and facilitating marketing of livestock products
(Baga 2009; Mochtar 2016). The diversity of institutions followed by poultry farmers in
Indonesia is listed in Table 11.
Institutional aspects themselves have a variety of different benefits and roles. This
institutional aspect is an internal factor of the farmer as an effort he makes in an effort to
achieve his business goals. In managing their livestock business, farmers do not only rely on
their knowledge and skills, but also their skills in managing their business. This can be
learned through farmer groups, farmer associations, farmer cooperatives, or counseling. With
this participation, farmers can learn from other farmers who have higher experience, through
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the exchange of information, experience in handling livestock diseases, the use of animal feed
technology, vaccines, medicines, and vitamins that can prevent livestock from getting
diseases, and market networks that can be built among farmers (BPS 2015a; Mochtar 2016).
However, there are several reasons why farmers do not become members of cooperatives,
farmer groups, and do not attend extension services. Therefore, improvements and efforts are
needed to increase farmers' participation in institutions to support their business success.
Based on the survey results, some of the main reasons for farmers are listed in Table 12.
Based on the survey results, it can be concluded that the lack of cooperatives and
farmer groups in the village, as well as the uneven distribution of extension services are still
the main causes of the lack of participation of farmers in institutions. Thus the need for
support for livestock businesses from both the government and the local livestock office
(Yulia 2022). In addition, the government and the Livestock Service Office can be a liaison
medium between livestock businesses and banking and non-banking microfinance institutions
to increase business capital. Based on the survey results, it is known that the level of
participation of breeders' associations is the least followed institution by breeders (Table 11).
However, based on the survey results, farmers who participated in the association claimed to
get several benefits after joining the breeders' association. Some of the main benefits of
joining the association are listed in Table 13.
Meanwhile, there were several other reasons why farmers did not attend extension
services such as: 1) ignorance of available extension information (65.52%), 2) There is no
time (6.38%), 3) Busy (4,40%), 4) Uninvited (3.12%), 5) Not selected (2.84%), 6) Not
member (1.84%), 7) No time (1.84%), and 8) other reasons (13.05%). In addition, based on
the survey results, farmers admitted that some of the counseling conducted was not in
accordance with the needs of farmers (Table 12). Therefore, it is necessary to collect
information about the counseling needed by farmers so that the counseling conducted is in
accordance with what is needed by the farmers themselves. Some of the counseling needed
by farmers are listed in Table 14.
Some types of counseling needed by farmers are livestock cultivation techniques,
livestock treatment, preparation of livestock rations, marketing of production products, and
processing of production products. Some Agricultural extension itself is a technical extension
program that requires field instructors who have competence in the field of animal husbandry
so that farmers can learn directly from the experts. Agricultural extension officers themselves
need to be competent and not only focus on the implementation of routine tasks such as
increasing production, but also on qualitative aspects such as how well farmers understand
the techniques that have just been delivered or direct application. Extension workers also
need to be an intermediary between the government and farmers by conveying constraints in
the field such as analyzing opportunities or factors that are strategic or threats that will be
faced. The role of extension workers is certainly very important for farmers, breeders and
fishermen in an effort to improve the performance of the agricultural sector including
improving the welfare of farmers (Descartes et al. 2021). In addition, extension workers can
also act as facilitators who connect farmers, breeders, or fishermen with external parties such
as the local government, the private sector, banking and non-banking financial institutions
related to the need for business capital in the form of credit, agricultural insurance, certified
seeds, animal feed, medicines, vitamins, livestock vaccines, and other needs that can support
agricultural activities. Finally, accessibility to extension services also needs to be a concern,
this is because one of the reasons farmers are reluctant to attend extension services is because
the location of extension services is far away (Table 12). This is in line with the research of
Achmad et al. (2012) that many farmers can only access counseling 0-3 times from the
minimum 6 times required, so that improvements to the extension system itself need to be
further improved and complete facilities and infrastructure in providing counseling can
certainly support extension activities carried out. Improving materials, providing information
on the latest input and output prices, as well as knowledge on product processing and post-
harvesting are also important. The processing of products can certainly increase the price of
output so that farmers can also increase the benefits they receive. This also supports the
concept of agribusiness by not only selling primary products, but also secondary products.
5.1.11 Livestock mortality rate
Livestock mortality rate is an indicator used to estimate the production risk of
livestock businesses. The mortality rate is calculated using the ratio of animals that die from
certain diseases or natural deaths compared to the total number of livestock owned. Poultry
farming has always been haunted by livestock diseases, which is often a limiting factor in
obtaining business capital from investors. The high mortality rate of livestock certainly
indicates the high risk of losses that will be experienced due to the high mortality rate of
poultry, causing a decrease in income obtained from production (Balitbangtan Kemendag
2014). Based on the survey results, several types of poultry diseases that often trouble
farmers in Indonesia are listed in Table 15. Based on Table 15, the most common diseases
experienced by poultry are avian influenza, tetelo (chicken plague), and cold or snot. Several
other types of poultry diseases are paralysis, sudden death, and pestilence (tetelo).
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Avian influenza is still a major disease in poultry, this is because avian influenza itself
has a very high transmission rate (Wahyuni et al. 2022). Some coping strategies that can be
done to avoid higher losses in livestock business can be done by: 1) building a network of
livestock disease control, 2) strengthening veterinarians and paraveterinarians in all lines of
work, 3) strengthening laboratory facilities and supporting facilities as well as providing
technical training for handling livestock diseases, 4) finally making biosecurity SOPs to
prevent outbreaks of infectious livestock diseases, both with fellow livestock and humans, 5)
building a national animal or poultry quarantine network to avoid the entry of livestock
diseases from abroad, 6) building a socialization system to prevent infectious livestock
diseases in the community at large (Abidin 2011; Balitbangtan Kemendag 2014; Hewajuli et
al. 2014).
In addition, some strategies that can be used as risk mitigation efforts include
vaccinating livestock, Several vaccines have been proven to increase protective immunity in
livestock, namely ND vaccine, ND-AI combination vaccine, and spirulina administration
(Lokapirnasari and Yulianto 2014; Ayu et al. 2015; Made et al. 2016). In addition, farms also
need to conduct preventive activities such as making poultry houses with clean sanitation and
vaccinating poultry (Frisa et al. 2017). The risk of livestock disease spread also needs to be
mapped through three risk categories such as negligible risk, low risk, and medium risk
(Wahyuni et al. 2022). This is needed as an effort to prevent more dangerous impacts on
areas with low and medium risk categories, as well as to increase higher security in risky areas
compared to safe areas. Other control efforts such as routine vaccination, routine socialization
or counseling and monitoring can certainly prevent the transmission of livestock diseases
optimally. Based on the survey, it is known that there are still few farmers who treat livestock
directly to veterinarians or orderlies, most of them are still treated independently. Some of the
main livestock treatments and other treatments conducted by farmers in Indonesia are listed
in Table 16.
5.1.12 Credit
Credit is additional capital obtained by farmers from external parties either through
formal or informal institutions. Credit is a variable that estimates additional capital for
livestock businesses to increase the use of production inputs so that it can also increase the
production of livestock products when compared to before the use of credit (Putri et al. 2021).
However, there are also studies that prove that the impact of credit on the income received by
farmers is not significant, this is because some farmers experience problems such as disease
in livestock and livestock death (Dahri et al. 2015).
Based on the survey results, it is known that most of the additional sources of capital
for farmers are obtained through their own capital, followed by additional capital from
companies and village credit institutions (LPD). The next interesting thing is that other
sources of additional capital come from relatives (relatives or family). This is in line with the
research of Chandio et al. (2017) and Pratiwi et al. (2019) which explains that farmers tend to
prefer additional sources of capital through informal financial institutions as a source of
credit financing. This is because most farmers do not have sufficient collateral to be used as a
requirement that must be met as in formal financial institutions, where collateral is still the
biggest influence on access to credit compared to other factors. This causes farmers to choose
to access credit through informal financial institutions because they are more flexible in terms
of collateral rules, although formal financial institutions have clearer transparency in the
lending process including interest rates that have been set from the start, but the collateral
requirements are still quite difficult, causing farmers to be reluctant to access formal credit.
Based on the survey results, there are several sources of additional capital that farmers
obtained through the list listed in Table 17.
In an effort to increase the use of production inputs through additional business capital
through credit, of course, it has its own challenges for efforts to repay the credit obtained.
However, there are two main ways that are often done by farmers in returning the credit used,
namely by repaying the credit after production or selling the production results to the lender
or capital. These two main ways are often done by farmers to return the credit they receive.
Of course, the point of selling production to the capital provider can be a positive influence,
namely the certainty of purchase, but this can also have a negative effect if the farmer is
actually forced to give up his livestock assets to cover the credit he uses. This means that
farmers will lose some of their livestock due to credit payments followed by interest that also
needs to be paid. The main ways of repaying credit are listed in Table 18.
There are several reasons why farmers are reluctant to get credit or additional capital.
The three main reasons are lack of interest, no credit provider, and inability to pay interest.
Reasons one and two are closely related to the provision of credit information and the
successful socialization of credit utilization, in contrast to the third reason, the inability to pay
the interest charged is influenced by a variety of factors both internal to the farmer and
market uncertainty that causes the price of production and interest set high enough so that
farmers experience problems of inability to repay credit (bad credit). Some other reasons
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include ignorance of information about credit, using their own capital, and farmers feel they
do not need to use credit. Some of these are listed in Table 19 below.
5.1.13 Partnership
Partnership is a form of cooperation that mutually supports and benefits both parties
as outlined in the form of an agreement with the aim of achieving mutually agreed matters.
Partnership is a strategy that can be used to increase economic growth both regionally and
nationally, employment, income distribution and encourage community welfare. Several
studies have shown that partnerships are also closely related to the addition of business
capital such as credit, which is proven to be able to increase the sales turnover of a business,
increase labor and increase joint profits (Ardiyanto and Setiawan 2013). One of the
advantages of partnering is of course accessibility to capital sources, this has been proven to
significantly help business partners (Ardiyanto and Setiawan 2013; Wibowo 2013; Widyani
2013; Santoso et al. 2015; Fitria and Jurana 2016; Asiati and Nawawi 2017; Maemunah and
Isyanto 2017; Saputra et al. 2017; Diana 2019). Based on the survey results, it is known that
most farmers who have partners choose to partner with private parties (companies), the rest
choose to partner with BUMD and BUMN listed in table 20.
5.1.14 Number of Livestock
The number of livestock is a variable that aims to describe the scale of the livestock
business. This is related to the higher number of livestock owned, the higher business capital
required with the aim of increasing production and sales turnover (Mayangsari et al. 2014;
Waqid 2014; Dahri et al. 2015; Utomo 2019). The average number of poultry owned by
farmers is 62 birds. Some of the objectives of poultry farming based on the results of this
survey are livestock breeding, egg production and livestock fattening listed in Table 21.
5.2. Characteristics of Dairy Farmers in Indonesia
Dairy farming is a subsector of animal husbandry that needs to be the focus of business
development. This is because the availability of family labor, feed, and the rate of demand for
dairy products continues to increase along with improvements in the nutrition of the
Indonesian people. Therefore, support for improved dairy farm management, technology
adoption, infrastructure and government policies are needed to support business development.
The characteristics of dairy farmers used in this study are the results of a description of
farmers who run dairy farms in Indonesia. The characteristics of dairy farms used as variables
and samples in this study are statistically described in Table 1.
22. The total number of dairy farm households used in the production function model and
variance function (risk function) in this study is 597 farm households. In the production
function model of dairy cattle farming, five variables are used that are thought to affect the
value of production. The variables used are dairy cattle feed, sanitation, animal health,
farming experience, and number of livestock. Meanwhile, to estimate the production risk
function model, eleven variables are used that are thought to affect the risk of sales turnover.
The variables used in the production risk function model consist of variables used in the
production function model with additional risk variables, namely farmer age, education level,
number of dependents, farmer activeness, credit, and partnership. The following is the
descriptive statistics of the sample of dairy farming households in Indonesia in Table 22.
5.2.1 Dairy farm business location
The location of dairy farms in Indonesia consists of several provinces. Most dairy
farmers are located in Java with a proportion of 97.83 percent of the total dairy farms. This is
related to one of the government programs regarding the sustainable milk production program
in line with the Indonesian Dairy Blue Print 2013-2025, namely with the target of meeting
national milk needs from within the country by 60 percent (DG PKH 2021b). The program
aims to increase dairy cow productivity by 20 liters per day by increasing the dairy cow
population through the Sikomandan and Upsus Siwab programs. This program is supported
by the introduction of dairy cows (heifers) or rearing rearing paddocks and providing
investment incentives in the form of tax allowances. The government also carries out genetic
improvement with the aim of increasing milk productivity, the government realizes this
through assistance in the application of Good Farming Practices (GFP), Good Handling
Practices (GHP), Good Manufacturing Practices (GMP) and improving the quality and
quantity of animal feed carried out through a partnership between Indonesia-Denmark as the
largest organic milk producer in Indonesia. The improvement of milk production that
emphasizes local livestock businesses aims to develop dairy farming based on a fully
integrated agribusiness subsystem from upstream to downstream, so that it not only produces
fresh milk products but also processed milk products, organic fertilizer from livestock waste,
and increases added value and product competitiveness through diversification of dairy
products that can reduce stunting in Indonesia.
One of the efforts to develop the dairy farming business is realized through
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empowering dairy farmers in areas that have high potential in dairy cattle business
development. Java is an area with high potential for dairy farming development (Siregar and
Kusnadi 2004; Riptanti 2008; Rahayu 2013; Pamungkasih and Febrianto 2021). This is
because the dairy cattle population is still concentrated in provinces in Java, around 97
percent, in line with the observations of this study (Pamungkasih and Febrianto 2021).
The development of dairy cattle farming generally requires consideration of business
locations in highland areas because they have optimal temperature and humidity suitability
for dairy cattle farming. Consideration of altitude and temperature has been shown to affect
the feeding patterns of dairy cows so that it has the potential to affect the productivity of
dairy cows. Some of the locations that have the most dairy cattle farming are East Java
(Malang), West Java (Lembang and Cirebon), and Central Java (Boyolali and Klaten).
Several studies have shown that dairy cows can also be cultivated in lowland areas (Siregar
and Kusnadi 2004; Riptanti 2008; Rahayu 2013; Pamungkasih and Febrianto 2021). Several
studies have also shown the link between dairy farming and the role of village unit
cooperatives (KUD) as well as the involvement of additional business capital in the form of
credit from formal financial institutions such as banks and government business development
programs. The locations of dairy farms based on the survey results are listed in Table 23.
5.2.2 Dairy cow feed
Feed is a single or mixed, processed or unprocessed food material given to livestock for
the process of survival, production, and breeding (UU RI 2014). Dairy cattle feed has several
main feed components including the use of forage feed (grass), factory-made feed (pellets),
household waste, agricultural waste (straw), and factory waste (tofu pulp, palm kernel cake,
bran or rice bran) and other types of feed. Feed is one of the factors that play an important
role in the management of dairy farming (Santosa et al. 2013; BPS 2015°; Putri et al. 2019;
Matialo et al. 2020). Dairy cattle feed does not only come from purchased feed, but also feed
that is cultivated by farmers from leftovers, searching, or planting themselves, so that even
though the feed provided does not come from purchases, farmers can still support their cattle
(Riptanti 2008). Based on the survey results, the average feed for dairy cattle is Rp
34,508,560. Meanwhile, other types of feed that are often used by farmers are cassava, banana
stems, and coconut as a substitute for the main feed. Some other types of dairy cattle feed are
listed in Table 24.
5.2.3 Sanitation
Sanitation or operational costs are the ongoing expenses of conducting the operations of
a business or the ongoing costs of conducting a production activity related to the
implementation of business operations. In this study, operational costs refer to the total costs
for electricity and water expenses. Based on the survey results, the average expenditure for
electricity and water for dairy farms is Rp 1,780,787. The sanitation aims to facilitate
production activities such as water for cattle drinking, cage hygiene, and electricity for cage
lighting. This is because the need for water for dairy cows is relatively stable, so to prevent
constraints on water needs during the dry season, farmers usually provide a large enough
volume of water reservoirs as a form of mitigation of the risk of prolonged drought, besides
cage cleanliness or cage hygiene can also affect the levels of germs or bacteria contained in
milk milked (Riptanti 2008).
5.2.4 Farm animal health
Livestock health is an accumulation of expenses for vaccines, salt, medicines, vitamins,
artificial insemination, and livestock maintenance costs, among others. Based on the results
of the survey of dairy farm households, the average expenditure on livestock health is Rp
1,142,822. Each farmer has different types of vaccines, medicines, and vitamins used for their
animals. The provision of vaccines, medicines, and vitamins aims to increase the endurance
of livestock which can also affect the risk of livestock mortality, thereby reducing the risk of
production failure (Ramadhan and Burhanuddin 2017). In addition, disease control through
cleaning the udders of dairy cows, cutting hooves, vaccinating, and cleaning cages using
disinfectants are carried out as a form of risk mitigation to avoid hoof and mouth disease
(FMD), anthrax, tuberculose and miscarriage of the womb which are contagious, as well as
diseases such as unwillingness to eat, diarrhea, and bloating (Riptanti 2008; Balitbangtan
Kemendag 2014; Nuhung 2015).
Foot and mouth disease (FMD) is a serious problem in cattle farming, hence the need
for serious treatment. This disease can affect ruminant animals such as cattle, buffalo, goats,
sheep, deer, pigs, camels, and some wild animals where the disease can be transmitted to
even or split hoofed animals. The government has chosen to export live cattle from Australia
that are free from foot and mouth disease (FMD) to increase the added value of cattle farming
in Indonesia. This cattle trade activity is only carried out in FMD-free countries based on the
recommendations of the OIE (Office International des Epizootics) in Paris. Indonesia is one
of the countries free from FMD based on the OIE decision, but the disease began to reappear
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in Gresik, East Java on April 28, 2022. This disease has caused the Ministry of Agriculture to
issue several policies including the establishment of FMD handling officers and structuring
animal traffic in disease outbreak areas. This was done to minimize the impact of FMD
outbreaks such as public panic in consuming meat or milk which can cause a decrease in
demand for meat and milk which can cause losses to livestock businesses in Indonesia
(Susanto 2022). Therefore, the allocation of livestock health costs for vaccines, medicines,
and vitamins can be useful as an effort to prevent (risk mitigation) infectious diseases. The
types of vaccines, medicines and vitamins most widely used by dairy farmers in Indonesia are
listed in Table 25.
Livestock health costs are an important variable because they are related to livestock
mortality rates. Livestock mortality rate is an indicator used to estimate the production risk of
livestock businesses. The mortality rate is calculated using the ratio of livestock that die from
certain diseases or natural deaths compared to the total number of livestock owned. Dairy
farming has always been haunted by livestock diseases, especially hoof and mouth disease
(FMD), which is often a limiting factor in obtaining business capital from investors (Riptanti
2008; Balitbangtan Kemendag 2014; Nuhung 2015). The high mortality rate of livestock
certainly indicates the high risk of losses that will be experienced, causing a decrease in
income obtained from production (Balitbangtan Kemendag 2014; Susanto 2022). Based on
the survey results, the three main diseases of dairy cattle in Indonesia are abdominal
distension, worms, and anthrax as shown in Table 26.
In optimizing the increase in farmers' income, dairy farming businesses can implement
Good Dairy Farming Practices (GDFP) which aims to produce quality and standardized
milk, so as to increase consumer confidence in healthy dairy products and management
carried out based on sustainable business provisions by considering aspects of animal
welfare, social, econony, and the environment. The main aspects that become the main focus
of GDFP are livestock reproduction, livestock health, environment and socio-economic
management (Lestari et al. 2015). In addition to livestock reproduction, GDFP also
prioritizes animal health through vaccination efforts as an effort to prevent livestock diseases.
However, the results of the 2013 agricultural census (ST2013) show that most dairy farming
households have never vaccinated their animals. Only 12 percent of all dairy farming
households routinely vaccinated their dairy cattle (BPS 2015a). This indicates a lack of
implementation of GDFP aspects in dairy farming in Indonesia. Vaccination of dairy cattle is
a form of prevention (risk mitigation). Although only 22.3 percent of dairy cattle have ever
been sick, the provision of vaccines can certainly reduce the disease rate of dairy cattle to a
minimum.
Based on Table 26, the most common diseases experienced by dairy cattle are bloat,
worms, and anthrax (Riptanti 2008; Balitbangtan Kemendag 2014; Nuhung 2015). In
addition, Foot and Mouth Disease (FMD) is a serious problem in cattle farming. This disease
can affect ruminants such as cattle, buffalo, goats, sheep, deer, pigs, camels, and some wild
animals where the disease can be transmitted to even or split hoofed animals. The
government has chosen to export live cattle from Australia that are free from foot and mouth
disease (FMD) to increase the added value of cattle farming in Indonesia. This cattle trade
activity is only carried out in FMD-free countries based on the recommendations of the OIE
(Office International des Epizootics) in Paris. Indonesia is one of the countries free from
FMD based on the OIE decision, but the disease began to reappear in Gresik, East Java on
April 28, 2022. This disease then caused the Ministry of Agriculture to issue several policies
including the formation of FMD handling officers and structuring animal traffic in disease
outbreak areas. This was done to minimize the impact of FMD outbreaks such as public panic
in consuming meat or milk which can cause a decrease in demand for meat and milk which
can cause losses to livestock businesses in Indonesia (Susanto 2022). Therefore, the
allocation of livestock health costs for vaccines, medicines, and vitamins can be useful as an
effort to prevent (risk mitigation) infectious diseases.
Some coping strategies that can be done to avoid higher livestock business losses can
be done by:
1) build a network of livestock disease control, 2) strengthen veterinarians and
paraveterinarians in all lines of work, 3) strengthen laboratory facilities and supporting
facilities and provide technical training for handling livestock diseases, 4) finally make
biosecurity SOPs to prevent infectious livestock disease outbreaks, both with fellow livestock
and humans, 5) build a national animal or poultry quarantine network to avoid the entry of
livestock diseases from abroad, 6) build a socialization system for preventing infectious
livestock diseases to the public at large (Abidin 2011; Balitbangtan Kemendag 2014;
Hewajuli et al. 2014).
In addition, some strategies that can be used as risk mitigation efforts include
vaccination of livestock, several vaccines that have been proven to increase the protective
immunity of dairy cows, namely the anthrax vaccine, Septicaemia Epizootica, and septivet
(BPS 2015b; BPS 2017). In addition, the cleanliness of cages and udders of dairy cows can
also affect the level of germs or bacteria contained in milk (Riptanti 2008). Other control
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efforts, such as routine vaccination, socialization orRoutine counseling and monitoring can
certainly prevent the transmission of livestock diseases optimally. Based on the survey, it is
known that there are still minimal farmers who treat livestock directly to veterinarians or
orderlies, most of them are still treated independently. Some of the main livestock treatments
and other treatments conducted by farmers in Indonesia are listed in Table 27.
6.1 Conclusion:
Based on the results of research on the risk management of Indonesian farmers facing
production risks, it is concluded that:
1. Factors that reduce the value of production in poultry farming are the number of
livestock. Meanwhile, factors that increase production value in poultry farming include
variables of poultry feed, sanitation, animal health, farming experience. The disinfectant
variable is not statistically significant.
2. Production factors of poultry farming that are included in risk inducing factors include
poultry feed, education level, number of dependents, number of livestock, credit, and
mortality rate. Some production factors that are included in risk reducing factors include
sanitation, animal health, and farming experience. The variables, disinfectant, farmer
age, farmer activeness, and partnership were not statistically significant.
3. Factors that reduce the value of production in dairy farming are dairy cattle feed.
Meanwhile, factors that increase the value of production include sanitation, animal
health, farming experience, and the number of livestock.
4. Dairy farm production factors included in risk inducing factors include sanitation,
farming experience, education level, number of livestock. Meanwhile, production factors
that are included in risk reducing factors include dairy cattle feed. The variables of
livestock health costs, farmer age, number of dependents, credit, farmer activeness, and
partnership are not statistically significant.
5. Preventive strategies carried out by livestock farming households are by improving feed,
sanitation, disinfecting, vaccinating livestock, providing vitamins, partnerships and
increasing the livestock farmers' activeness. Risk mitigation strategies are carried out by
improving the health of livestock (medicines, and treatment of sick livestock to
veterinarians or by the farmers themselves). While coping strategies can be done by
using credit. In this study, credit still cannot be categorized into coping strategies,
because farmers who use credit are done before the risk occurs to reduce the impact of
risk.