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A Collaborative Research
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Poultry value chains
and HPAI in Indonesia:
The case of Bogor
Asep Sudarman
Karl M. Rich
Tom Randolph
Fred Unger
Africa/Indonesia Team Working Paper No. 27
April 2010
(blank page)
Africa/Indonesia Team Working Paper
iii
Table of Contents
Preface ................................................................................................................................................... vi
Acronyms .............................................................................................................................................. vii
Glossary ................................................................................................................................................ viii
Executive summary ................................................................................................................................ ix
1. Introduction ........................................................................................................................................ 1
1.1 Study motivation and objectives .................................................................................................. 1
1.2 Methodology and approach ......................................................................................................... 3
2. The Bogor poultry sector .................................................................................................................. 11
2.1 Overview ..................................................................................................................................... 11
2.2 Research area description .......................................................................................................... 11
2.3 Identification of actors ............................................................................................................... 11
2.4 Identification of product flows ................................................................................................... 19
2.5 Identification of governance and coordination mechanisms between actors ........................... 20
3. Specific poultry value chains ............................................................................................................. 22
3.1 Commercial layers ...................................................................................................................... 22
3.2 Commercial broilers ................................................................................................................... 30
3.3 Kampong chickens ...................................................................................................................... 35
3.4 Ducks ........................................................................................................................................... 40
4. Impact of HPAI: livelihoods, economics and regulations .................................................................. 46
4.1 Overview of HPAI in Bogor, 2003-present .................................................................................. 46
4.2 The importance of Bogor poultry production and trade ............................................................ 47
4.3 Impact on livelihoods.................................................................................................................. 49
4.4 Impact on cost ............................................................................................................................ 50
4.5 Impact on price ........................................................................................................................... 51
4.6 Impact on government regulation .............................................................................................. 51
5. An assessment of risk hotspots in the poultry value chain ............................................................... 54
5.1 Identification of potential risk hotspots in the poultry sector ................................................... 54
5.2 Summarizing by value chain and actor category ........................................................................ 59
6. Policy implications and conclusions .................................................................................................. 64
6.1 Policy implications ...................................................................................................................... 64
6.2 Conclusions ................................................................................................................................. 66
References ............................................................................................................................................ 68
Appendix 1. Examples of livestock value chain maps ........................................................................... 71
Appendix 2. Calculations using the Hayami Method ............................................................................ 72
Appendix 3. HPAI outbreak data for Bogor, 2003-2010 ....................................................................... 79
Pro-Poor HPAI Risk Reduction
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List of Tables
Table 1. Key components and computations of the Hayami Method to analyze value added ............. 10
Table 2. Number of respondents by actor category and by location .................................................... 12
Table 3. Gender of respondents, by actor category for each commodity chain ................................... 14
Table 4. Distribution of respondents by age and actor category for each commodity chain ............... 15
Table 5. Distribution of respondents by level of formal education and actor category for each
commodity chain .................................................................................................................... 16
Table 6. Distribution of respondents by years of business experience and actor category for
each commodity chain ........................................................................................................... 17
Table 7. Distribution of respondents by number of labourers employed and actor category for
each commodity chain ........................................................................................................... 18
Table 8. Representative price list of live bird poultry on different dates, Oct-Dec 2008 (IDR) ............. 21
Table 9. Female layer population in Bogor, 2002-2008 ......................................................................... 22
Table 10. Layer population per sampled farm in Bogor ........................................................................ 23
Table 11. Input and output prices of male and female layers ............................................................... 25
Table 12. Average value-added of spent layers and table eggs............................................................. 28
Table 13. Broiler population in Bogor, 2002-2008 ................................................................................. 30
Table 14. Population of broilers per sampled farm in Bogor ................................................................. 31
Table 15. Input and output prices in broiler chain, 2008 (IDR).............................................................. 31
Table 16. Average value-added in the broiler chain, by actor category (IDR/bird) ............................... 34
Table 17. Kampong chicken population in Bogor, 2002-2008 ............................................................... 35
Table 18. Input and output prices in the kampong chicken chain (IDR/unit) ........................................ 37
Table 19. Average value added in the kampong chicken chain, by actor category ............................... 40
Table 20. Duck population in Bogor, 2002-2008 ................................................................................... 41
Table 21. Prices in the duck value chain, 2008 (IDR/unit) ..................................................................... 42
Table 22. Average value added in the duck chain, by actor category ................................................... 43
Table 23. Estimated annual volumes and value added generated by poultry trade in the
principal poultry value chains in Bogor .................................................................................. 48
Table 24. Labour absorbed by poultry trade ......................................................................................... 49
Table 25. Value added per day by sector and selected actor ................................................................ 49
Table 26. Trend in size of flock kept by farmers, 2005-09 ..................................................................... 50
Table 27. Percentage of respondents considered unable to recognize HPAI in live poultry ................. 55
Table 28. Percentage of actors who have reported suspected HPAI cases ........................................... 56
Table 29. Share of respondents using disinfectants .............................................................................. 57
Table 30. Percentage of respondents by method of disposal of dead poultry ..................................... 58
Table 31. Factors influencing HPAI risk, by value chain and actor category .......................................... 60
Appendix Table 3.1. Reported outbreaks of HPAI for Bogor 2006-2010 (source: PDSR database,
FAO 2010) ............................................................................................................................... 79
Appendix Table 3.2. Situation of HPAI in Bogor District and control efforts, 2003-2008 (Source:
DLS Bogor, as reported in Nuryartono and Mango 2010) ...................................................... 80
Africa/Indonesia Team Working Paper
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List of Figures
Figure 1. Framework for poultry value chain analysis 3
Figure 2. A generic livestock value chain (Source: Taylor et al. 2008) 5
Figure 3. A value chain mapping of the entire chicken industry in Egypt (Source: Kobayashi
2006) 5
Figure 4. A value chain mapping of the layer sector in Egypt indicating volumes and value of
product flows between actors (Source: Kobayashi 2006) 5
Figure 5. A value chain mapping of the layer sector in Egypt indicating volumes and value of
product flows between actors (Source: Kobayashi 2006) 6
Figure 6. An example of mapping governance mechanisms in the formal layer value chain in
Egypt (Source: Kobayashi 2006) 7
Figure 7: Map of Bogor and location of study interviews, by category of respondent 13
Figure 8. Map of value chains in the Bogor poultry sector 19
Figure 9. Layer value chain in Bogor (volumes and value) 26
Figure 10. Broiler value chain in Bogor (volumes and value) 33
Figure 11. Kampong chicken value chain in Bogor (volumes and value) 39
Figure 12. Duck value chain in Bogor (volumes and value) 44
Figure 13. Numbers of villages in Bogor reporting at least one HPAI outbreak, 2003-2010 46
Appendix Figure 1. A detailed generic value chain for beef (Source: SADC-PRINT Public-Private
Partnership Workshop Proceedings, 2-3 November 2006) ................................................... 71
Appendix Figure 2. A value chain mapping of livestock markets in Northeast Kenya (Source:
Wanyoike and Rich in press) ................................................................................................. 71
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Preface
Since its re-emergence, HPAI H5N1 has attracted considerable public and media attention because
the viruses involved have been shown to be capable of producing fatal disease in humans. While
there is fear that the virus may mutate into a strain capable of sustained human-to-human
transmission, the greatest impact to date has been on the highly diverse poultry industries in
affected countries. In response to this, HPAI control measures have so far focused on implementing
prevention and eradication measures in poultry populations, with more than 175 million birds culled
in Southeast Asia alone.
Until now, significantly less emphasis has been placed on assessing the efficacy of risk reduction
measures, including their effects on the livelihoods of smallholder farmers and their families. In
order to improve local and global capacity for evidence-based decision making on the control of HPAI
(and other diseases with epidemic potential), which inevitably has major social and economic
impacts, the UK Department for International Development (DFID) has agreed to fund a
collaborative, multidisciplinary HPAI research project for Southeast Asia and Africa.
The specific purpose of the project is to aid decision makers in developing evidence-based, pro-poor
HPAI control measures at national and international levels. These control measures should not only
be cost-effective and efficient in reducing disease risk, but also protect and enhance livelihoods,
particularly those of smallholder producers in developing countries, who are and will remain the
majority of livestock producers in these countries for some time to come.
Authors
Asep Sudarman, Animal Scientist, Centre for Tropical Animal Studies, Bogor Agricultural University
Karl M. Rich, Senior Research Fellow, Norwegian Institute of International Affairs and Agricultural
Economist, International Livestock Research Institute
Tom Randolph, Agricultural Economist, International Livestock Research Institute
Fred Unger, Veterinary Epidemiologist, International Livestock Research Institute
Disclaimer
The views expressed in this report are those of the authors and are not necessarily endorsed by or
representative of IFPRI, ILRI, or of the cosponsoring or supporting organizations. This report is
intended for discussion. It has not yet undergone editing.
More information
For more information about the project, please refer to http://www.hpai-research.net.
Africa/Indonesia Team Working Paper
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Acronyms
ASOHI : Assosiasi Obat Hewan Indonesia (Indonesian Animal Drug Association)
CMU : Campaign Management Unit
Ditjennak (DGLS) : Direktorat Jenderal Peternakan (Directorate General for Livestock Services)
DKI : Daerah Khusus Ibukota (Special Capital District)
DLS : District Livestock Services (often referred to as Dinas)
DOC : Day-old chick
DOD : Day-old duckling
GPMT : Gabungan Perusahaan Pakan Ternak (Feed Mill Association)
GPPUI : Gabungan Pengusaha Perbibitan Indonesia (Association of Indonesia Poultry
Breeder)
GPS : Global Positioning System
HPAI : Highly pathogenic avian influenza
IB : Infectious bronchitis
IBD : Infectious bursal disease
IDR : Indonesian Rupiah (roughly valued at 10,000 IDR=USD 1 at the time of the study)
IPWA : Ikatan Warga Pemotong Ayam (Association of Slaughter Point)
ND : Newcastle disease
PINSAR : Assosiasi Peternak Unggas Se-Indonesia (Indonesian Poultry Farmer Association
and Information Centre)
PIR : Plasma Inti Rakyat (Nucleus-Plasma Farming System)
PPUI : Perhimpunan Peternak Unggas Indonesia (Indonesian Association of Poultry
Farmers)
PDSR : Participatory Disease Surveillance and Response
PS : Poultry shop
PSH : Poultry slaughterhouse
PSP : Poultry slaughter point
RW : Rukun Warga (neighbourhood administrative unit)
UPTD : Unit Pelaksana Teknis Daerah (Regional technical implementing unit)
VCA : Value chain analysis
Pro-Poor HPAI Risk Reduction
viii
Glossary
Pullet : 6-month-old female layer ready to lay eggs
Farm Categories (FAO 2004)
Sector 1 farm : Industrial integrated system with high level of biosecurity and birds/products
marketed commercially (e.g. farms that are part of an integrated broiler production
enterprise with clearly defined and implemented standard operating procedures
for biosecurity)
Sector 2 farm : Commercial poultry production system with moderate to high biosecurity and
birds/products usually marketed commercially (e.g. farms with birds kept indoors
continuously; strictly preventing contact with other poultry or wildlife)
Sector 3 farm : Commercial poultry production system with low to minimal biosecurity and
birds/products entering live bird markets (e.g. a caged layer farm with birds in open
sheds; a farm with poultry spending time outside the shed; a farm producing
chickens and waterfowl)
Sector 4 farm : Village or backyard production with minimal biosecurity and birds/products
consumed locally
Africa/Indonesia Team Working Paper
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Executive summary
Poultry is an important source of income and protein for poor households in Indonesia. In a normal
year, the production of poultry meat in Indonesia is approximately 1.285 million tons per annum,
representing around 62% of total domestic meat production. In addition, egg production amounts to
1.2 billion tons, with domestic production fulfilling domestic consumer demand for eggs. However,
the entry of highly pathogenic avian influenza (HPAI) in Indonesia beginning in 2003 has had large
negative impacts on rural livelihoods, both in terms of the production losses caused by the disease
and the fears of its potential spread in humans. At present, HPAI is endemic throughout Indonesia
and has affected all parts of the poultry business. Its spread in Jakarta, where a number of people
died from HPAI, prompted the local government of Jakarta to adopt strict movement controls in
controlling and monitoring poultry rearing and marketing in the metro Jakarta region.
These regulations will have important effects on the poultry sector in Indonesia. Given the
importance of Jakarta as a destination for poultry products, the ban on live poultry markets will
result in the reorganization of market chains that service Jakarta, providing specific opportunities for
surrounding regions. One of the regions that could benefit from these new regulations is Bogor, a
district located directly to the south of Jakarta. As with other parts of Indonesia, poultry industries in
Bogor have been directly affected by HPAI. At the same time, the new poultry regulations imposed
by the local DKI Government provide opportunities for the region provided that HPAI can be
effectively controlled. However, the ability of Bogor to benefit from these new regulations requires
an enhanced knowledge of the structure of the poultry industry in Bogor, its relationships and
linkages with regional markets, and the extent to which specific links in the marketing chain
potentially impinge on the ability of Bogor to supply poultry that meets the standards of the Jakarta
market, including its ability to effectively control disease.
This study adopted a value chain approach to assess the impact of HPAI on the Bogor region,
highlighting the direct commercial and livelihood impacts within Bogor itself and potential socio-
economic risk factors emanating from these chains. Primary data were collected from four
subdistricts in Bogor and in Bogor City itself. Research locations were defined purposively based on
their spatial geography, with four subdistricts in Bogor chosen as research locations: Ciawi, Cibinong,
Leuwiliang and Parung. Ciawi and Leuwiliang are dominantly occupied by the Sundanese ethnic
group and are characteristic of the local culture in the region. By contrast, the inhabitants of
Cibinong and Parung, located close to Jakarta, represent a multitude of different local cultures, and
provide a more diverse perspective on local production and consumption habits. The inclusion of
Bogor City provides insights on the dynamics of large wet markets (Pasar Anyar and Pasar Bogor)
that absorb poultry products from Bogor and surrounding areas, and is home to a number of formal
sector retailers and supermarkets.
Value chains for poultry in Bogor are quite diverse. Poultry production in Bogor is dominated by
broilers, which represented over 73% of the poultry population in 2008. Indigenous kampong
chicken populations have been falling over the past few years and in 2008 comprised around 7% of
total poultry population in Bogor. Value-added generated from the poultry sector is estimated to be
at least IDR 359 billion, or approximately USD 35.9 million. As this figure excludes many important
linkages for which data were not available, it is not unreasonable to posit that the poultry sector and
Pro-Poor HPAI Risk Reduction
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its ancillary services contribute close to 1% of regional GDP in Bogor. Not surprisingly, the broiler
sector comprises almost 80% of sector value added. Besides generating income, the poultry trade
employs an estimated 6300 workers out of 1 million total labourers in Bogor District.
Governance relationships in the broiler sector involve a mix of contract farms and independent
farms. Contract farming relationships formally link farms with a company that provides day-old
chicks (DOCs), feed and other inputs to farmers in return for guaranteed purchases of contracted
birds. Coordination and biosecurity in such chains is reasonably tight, with company standards
strictly governing transactions and prices. Independent farms involve much looser coordination,
although some coordination exists with feed suppliers. In the layer chain, spent female layers are
sold almost entirely through independent farmers, while male layers are integrated in a contract
farm relationship akin to broilers. Nonetheless, the layer business is supported by feed industry,
pharmaceutical and vaccine industry, and other actors related to poultry distribution (collectors,
slaughter points, restaurants etc.). In both chains, a large proportion of products are sold outside of
Bogor, including to nearby markets in Jakarta.
The traditional kampong sector is largely uncoordinated. In general, the production of kampong
chicken is not commercially oriented, with farmers selling their chickens only when they need to pay
their bills, such as tuition fees for their children. Generally they sell 2-5 birds per 6 months. Kampong
chickens also contribute to food security in the rural community and are used in social and cultural
events, such as wedding parties.
The impacts of HPAI in Bogor varied notably by the type of value chain affected. Commercial
producers of layers and poultry were greatly impacted by the outbreaks since 2003, with layer
numbers falling by two-thirds, while broiler growth stalled. However, with the change in regulations
in Jakarta banning live poultry in 2007, demand from nearby regions soared, and commercial
populations of both broilers and layers in 2008 exceeded pre-HPAI numbers in 2003 in response to
these new opportunities. Mortality rates rose for both contract and independent farmers, but were
higher for independent farmers. Feeding costs also rose, as feed conversion rates increased. This
impacted independent farmers more than contract farmers. Interestingly, while consumer prices fell
by around 20% due to a drop in consumer demand during one major consumer scare, prices quickly
recovered within one month. Poultry demand remains strong despite the HPAI outbreak as poultry is
one of the cheapest sources of animal protein available in Indonesia.
In the kampong chicken sector, impacts were felt disproportionately among sector 3 farms.
Interestingly, the kampong chicken sector was not that impacted by HPAI (relative to the commercial
sector) in 2006, although the numbers of birds in the sector fell by over 30% over 2006-2008 as
government depopulation and culling programs were implemented. Approximately 5% of kampong
farms (mainly commercialized, sector 3 farms) went out of business as a result of HPAI. Those
commercial kampong farmers that were impacted by HPAI were able to find other livelihoods in
activities such as petty trading, but incomes fell by 40% relative to their previous income raising
poultry. While compensation was paid to such farmers, government compensation rates for culled
chickens were typically well below current market prices. By contrast, sector 4 backyard farms were
not as impacted, although mortality rates of poultry rose. Moreover, new regulations banning
backyard poultry production among households without land could potentially impact some sector 4
farmers, although it is not clear how well such regulations can or will be enforced.
Africa/Indonesia Team Working Paper
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A variety of risk hotspots potentially compromise the control of HPAI within the different Bogor-
based value chains. Survey results regarding biosecurity knowledge and practices revealed that while
most actors across different sectors (e.g. sector 1 through sector 4) could identify suspected HPAI
cases, awareness was lower in the kampong chicken and duck sector. Disinfectants are rarely applied
in traditional value chains, given perceptions that disinfectants are expensive. Live bird retailers are a
particular risk point for the spread of HPAI given over 50% of live bird retailers reported that they
simply throw away the dead birds, without any treatment. Slaughter points and traditional farmers
(Sector 4 duck and kampong chicken farmers) are also potential risk points given the handling of
dead poultry; the carcasses are either thrown away or fed to catfish.
There are two competing narratives with respect to HPAI control that emerge from the analysis: the
commercial narrative with actors that have the incentive, capacity and institutionalized coordination
mechanisms to adopt improved biosecurity on their own; and the informal narrative involving
smaller-scale commercial or informal actors with little incentive, if any, to invest in mitigating HPAI
risk. These narratives are relatively mutually exclusive, although the small-scale layer chain has a
combination of coordination upstream between breeders and farmers and more amorphous
transactions downstream by traders and retailers. At the same time, market-based interactions
between each narrative potentially compromise the biosecurity of the sector as a whole, with
interventions needed that understand these dynamics.
For this latter set of actors, public intervention and incentives justified by the public health
dimension are likely to be required to stimulate the desired changes. With limited coordinating
mechanisms, either through trade associations or other forms of social capital, a heavy reliance on
informal, market-based transactions, and limited financial return from improved biosecurity,
designing such interventions will be extremely challenging. Particular bottlenecks include traders,
who may operate as mobile individuals rather than fixed businesses, and informal market retailers,
whose knowledge and awareness of better biosecurity practices is often limited. Imposing
biosecurity through regulation is one option, but not likely to be effective: enforcement would be
nearly impossible with existing public resources. With the lack of coordination and leverage within
these value chains, actors might be encouraged to ‘go underground’ and shift into the informal
sector, potentially modulating disease risk even further.
Another option considered for HPAI control has been restructuring the value chains to concentrate
more of the production and trade within the more coordinated actors; the restructuring of live bird
markets in Jakarta is an example of this. Here, the government faces the critical trade-off of
reversing its long-time and extremely successful promotion of small-scale poultry enterprises as a
mechanism for broad-based development and income generation, and replacing it with higher
industrial concentration, exacerbating income disparities and reducing resilience among lower-
income groups.
A third option would entail ‘smart’ interventions carefully designed to create or align with actor
incentives to enhance compliance, either through subsidies or through schemes that increase
coordination and leverage among the actors in the value chain, such as creating professional
associations with certification schemes. This option will require empowering chain-level ‘champions
engaged in activities that can better coordinate the value chain to meet specified market needs. An
often overlooked partner in such an option is the consumer, finding ways to tap into latent concerns
Pro-Poor HPAI Risk Reduction
xii
about food safety and public health, for instance. Organizing chains in a bottom-up, organic manner
that provides opportunities to value-add production, improve biosecurity and target key consumer
attributes is likely to be more sustainable over time than top-down mandates, particularly in chains
as amorphous and constantly evolving as those found in the informal poultry sector.
Africa/Indonesia Team Working Paper
1. Introduction
1.1 Study motivation and objectives
Poultry is an important source of income and protein for poor households in developing countries.
Unlike other types of livestock, poultry has a short gestation period, with investment returns
available much more quickly. Second, the land needed to raise poultry does not need to be as
extensive as that for raising ruminants. Finally, the amount of investment required to engage in
poultry production is relatively small. As a consequence, poultry production can serve as an
important source of livelihoods in rural areas, both in terms of income and employment generation.
In a normal year, the production of poultry meat in Indonesia is approximately 1.285 million tons per
annum, representing around 62% of total domestic meat production. In addition, egg production
amounts to 1.2 billion tons, with domestic production fulfilling domestic consumer demand for eggs
(Ditjennak 2007). However, the entry of the virulent H5N1 strain of highly pathogenic avian influenza
(HPAI) into Indonesia in 2003 has had large negative impacts on rural livelihoods, both in terms of
the production losses caused by the disease and the fear of its potential spread in humans. At
present, HPAI is endemic throughout Indonesia and has affected all parts of the poultry sector. Its
spread in Jakarta, where a number of people have died as a result of HPAI, has forced the local
government of Jakarta to adopt strict movement controls for managing and monitoring poultry
rearing and distribution in the Daerah Khusus Ibukota (DKI) Jakarta region. These culminated in the
adoption of two poultry regulations: Peraturan Gubernur (Governor Regulation) No. 15/2007
(Pemprov DKI Jakarta 2007a) and Peraturan Daerah (Regional Regulation) No. 4/2007 (Pemprov DKI
Jakarta 2007b), which mandated that Jakarta communities ban the rearing of poultry in residential
areas while slaughtering of local poultry is to take place in specialized areas in the city. These
regulations have particular effects on the poultry trade in Indonesia. Given the importance of Jakarta
as a destination for poultry products, the ban on live poultry markets will result in the reorganization
of market chains that service Jakarta, creating specific opportunities for surrounding regions.
One of the regions that could benefit from these new regulations is Bogor, a district located directly
to the south of Jakarta. As with other parts of Indonesia, poultry industries in Bogor have been
directly affected by HPAI. At the same time, the new poultry regulations imposed by the local DKI
Jakarta government offer opportunities for the region provided that HPAI can be effectively
controlled. However, the ability of Bogor to benefit from these new regulations requires an
enhanced knowledge of the structure of the poultry industry in Bogor, its relationships and linkages
with regional markets, and the extent to which critical control points in the marketing chain
potentially impinge on the ability of Bogor to supply poultry that meet the standards of the Jakarta
market, including its ability to effectively control disease.
The main objective of this study is to understand the nature of the poultry sector in Bogor and its
market linkages in the context of HPAI control in Indonesia. A major gap in our knowledge of HPAI is
the means by which interactions within the marketing chain serve to exacerbate the risk of disease
introduction and spread within a region. Related to this is a limited understanding of how HPAI
impacts different value chain actors and how these impacts would influence various incentives for
disease control. Our unit of analysis in this study is the value chain, defined by Kaplinsky (2000: 121)
Pro-Poor HPAI Risk Reduction
as “the full range of activities which are required to bring a product or service from conception,
through the intermediary phases of production, delivery to final consumers and final disposal after
use.” The emphasis on the value chain is critical in the context of an animal health outbreak because
of the systems context in which diseases take place. Indeed, the impact of an animal disease is felt
not only at production level, but also through the marketing chain (traders, processors, retailers
etc.), necessitating a more holistic understanding of its economic effects. Moreover, because disease
impacts can affect different groups in different ways, understanding the incentives behind disease
control is critical to conceiving successful, system-oriented interventions that can better contain
HPAI.
Given the interactions of Bogor with the greater Jakarta market and the potential that successful
disease control could have on the poultry sector in Bogor, this case study provides insights into the
effects and risks of HPAI at a regional level. It is hoped that this case can provide broader insights
into disease control implications in other settings in Indonesia and beyond.
Research Questions
Specific research questions addressed in this study include the following:
1. What are the characteristics of participants in the poultry business in Bogor?
2. What types of market chains exist for major types of poultry products generated in Bogor, and
how do such chains differ by level of commercialization? What is the flow of volume and value
by chain?
3. Who benefits from value chain participation in terms of the shares of value added received by
different actors in the chain?
4. What are the governance structures of the value chain for poultry products? To what extent can
these be mobilized to effectively enhance disease control? To what extent do governance
structures impede compliance with control mechanisms?
5. What types of negative impacts, in terms of economic impacts and effects on employment, have
been caused by HPAI?
6. What are the critical points for disease risk in the value chain and what types of mechanisms
could be adopted to enhance incentives for disease control?
For the purposes of this study, we focus on veterinary risk of HPAI introduction and spread among
poultry and birds rather than the associated public health risk.
Africa/Indonesia Team Working Paper
1.2 Methodology and approach
Overview of value chain analysis
The methodological approach taken in this analysis follows the value chain framework spelled out in
Kaplinsky and Morris (2001). This analysis characterizes value chains through a four-step process:
chain mapping, governance relationships, upgrading in the chain and distribution effects. An
important advantage of this approach is that it is a systematic, peer-reviewed way of highlighting the
linkages and interactions between key actors in the value chain, highlighting not only the nature of
economic transactions but also social, political and cultural factors that influence how such
transactions take place. This approach has been applied in the context of livestock systems
(Humphrey and Napier 2005; SADC 2009) and in the analysis of livestock diseases (Kobayashi 2006;
Taylor et al. 2008; McLeod et al. 2009). An advantage of utilizing the value chain framework in the
context of animal health is in its ability to identify risk hotspots (sometimes loosely referred to as
“critical control points,” despite their more specific meaning in the Hazard Analysis Critical Control
Point [HACCP] literature) that might impede disease control in their socio-economic and value chain
level context (Taylor et al. 2008).
Figure 1 illustrates that the poultry industry in Bogor provides many advantages to local
communities through its contributions of household income and employment. HPAI outbreaks have
had direct (i.e. by reducing the volume of birds reared and traded) and indirect (i.e. via regulations
limiting backyard poultry) impacts on both income and employment. Our value chain analysis helps
to illuminate those linkages and impacts more systematically to better assess those parts of the
chain that were more or less influenced by the occurrence of HPAI.
Figure 1. Framework for poultry value chain analysis
Regulation: live
poultry ban in
DKI Jakarta
Labour absorption
Household income
Poultry business
activities
HPAI outbreak
Poultry industry in
Bogor
Impact of
HPAI
- Characteristics of
poultry business
actors
- Value chain
analysis
Pro-Poor HPAI Risk Reduction
The first step in a value chain analysis (VCA) is to systematically map the actors participating in the
production, distribution, marketing and sale of a particular product (or products). This mapping
assesses the characteristics of actors, profit and cost structures, flow of goods throughout the chain,
employment characteristics and the destination and volumes of domestic and foreign sales
(Kaplinsky and Morris 2001). As illustrated in a generic example in Figure 2, livestock value chains are
replete with a multitude of different chain actors. At a basic level, livestock value chains consist of
producers; intermediaries including traders, processors and wholesalers; and various types of
retailers (butchers, supermarkets, restaurants and hotels). Different types of ancillary service
providers, such as feed manufacturers and animal health service providers, further support livestock
value chains. Moreover, as illustrated in Figure 2, there is a range of products derived from the
primary production of animals, including meat, hides, eggs, manure and other by-products, each
with its own value chain. Other examples of livestock value chain mapping are provided in Annex 1.
Value chain analysis is suitably flexible enough to examine the broader commodity chain or specific
characteristics of particular subsectors, though a broader analysis will come at the expense of
specific sector detail. Mapping of the overall value chain can highlight the general structure and links
between key points in the chain, as shown in Figure 3 in an illustrative example from the Egyptian
poultry sector. Mapping of a specific subsector, such as the chain for layers within the poultry sector,
describes its detailed linkages (including the volume and value of flows between actors) from
production to final consumption. An example from Egypt is displayed in Figure 4. The approach
taken in this study is to first identify the larger poultry value chain and to then elucidate details of
the most important subchains.
A second component of VCA is the role of governance in the value chain. Governance in a value
chain refers to the structure of relationships and coordination mechanisms that exist between actors
in the value chain. Many of the issues in the governance of the value chain are related to who
decides what is produced, how the rules of trade are determined and the nature of relationships
between the participants. The extent of chain power may be related to the relative size of a
particular firm in the chain in terms of the share of chain sales, share of chain value added, share of
chain profits, share of chain buying power and control over a key technology. Some authors have
looked at governance from the standpoint of power relationships, with the emphasis on which
actors in the value chain are responsible for coordinating activity (Dolan and Humphrey 2000).
Gereffi et al. (2005) have recently proposed a typology of five governance structures of increasing
integration based on the complexity of transactions, the ability to codify transactions and the
capabilities in the supply base. The analysis of chain governance is important from a policy
perspective since it allows for the identification of institutional arrangements that may need to be
targeted to improve capabilities in the value chain, remedy distributional distortions and increase
value-added in the sector.
Such governance structures can be graphically mapped based on the level of coordination in a
particular chain; Figure 5 presents such an example for the layer chain in Egypt. In this study, we try
to identify the nature of transactions in terms of whether there is no coordination (i.e. reliance on
anonymous market transactions), partial coordination (i.e. informal relationships that govern
transactions) or formal coordination (i.e. contracts between value chain actors).
Africa/Indonesia Team Working Paper
Figure 2. A generic livestock value chain (Source: Taylor et al. 2008)
Figure 3. A value chain mapping of the entire chicken industry in Egypt
(Source: Kobayashi 2006)
Pro-Poor HPAI Risk Reduction
Figure 5. A value chain mapping of the layer sector in Egypt indicating volumes
and value of product flows between actors (Source: Kobayashi 2006)
Africa/Indonesia Team Working Paper
Third, VCA can be used to examine the impact of upgrading within the chain. This differentiates it
from the filière approach, which tends to take a static view of relationships within the chain
(Kaplinsky and Morris 2001). Upgrading can involve improvements in quality and product design that
enable producers to gain higher value or diversify the product lines served. In the context of animal
health, upgrading has been applied to better understand how the chain adapts to and copes with
shocks (past and present), in terms of products, markets, relationships and the cost of compliance
with new regulations (Rich et al. 2009).
An analysis of the upgrading process includes an assessment of the profitability of actors within the
chain as well as information on constraints that are currently present. As noted in UNCTAD (2000),
governance issues play a key role in defining how such upgrading occurs. In addition, the structure of
global regulations, entry barriers, trade restrictions and standards can further shape and influence
the environment in which upgrading can take place. Upgrading further addresses the capabilities of
actors to innovate and ensure continuous improvement in product and process development.
Finally, VCA can play a key role in identifying the distribution of benefits of actors in the chain. That
is, through the analysis of margins and profits within the chain, one can determine who benefits
from participation in the chain and which actors could benefit from increased support or
organization. This is particularly important in the context of developing countries (and agriculture in
particular), given concerns that the poor are vulnerable to the process of globalization (Kaplinsky
and Morris 2001). One can supplement this analysis by determining the nature of participation
within the chain to understand the characteristics of its participants. In the context of animal
diseases, these distributional effects can be studied to assess the impact of HPAI and measures to
Figure 6. An example of mapping governance mechanisms in the formal layer value
chain in Egypt (Source: Kobayashi 2006)
Pro-Poor HPAI Risk Reduction
control it on different actors in the chain to better assess incentives and capacity for control. This
provides further insights on the nature of potential risk points along the value chain.
Research schedule and location
This research was divided into four phases. First, secondary data on the sector were collected from
online sources, libraries and reports from relevant institutions. This activity was conducted during
January 2009. Second, an enumerator workshop in the methodology of participatory rapid appraisal
and VCA was conducted during the same period (19-21 January) to train study participants in VCA
tools and to finalize data collection instruments. Third, based on the survey instruments developed
in the training workshop, primary data were collected in various sites in Bogor from February to
March 2009. Finally, preliminary data analysis and report writing were carried out during March
2009.
Primary data collection
Primary data were collected from four sub-districts in Bogor and in Bogor city itself. Research
locations were defined purposively based on spatial geography (see Chapter 2 for a map of site
locations). Four sub-districts in Bogor were chosen as research locations, namely Ciawi, Cibinong,
Leuwiliang and Parung. These four sub-districts represent a geographical distribution covering the
southeast, northeast, southwest and northwest of Bogor District, respectively. Ciawi and Leuwiliang
are dominantly occupied by the Sundanese ethnic group, which represents the indigenous culture.
The inhabitants of Cibinong and Parung, which are located closer to Jakarta, represent a multitude of
different local cultures. Other reasons for choosing these sub-districts were: (1) their access to main
roads; (2) presence of a sub-district wet market; and (3) presence of a unit pelaksana teknis daerah
(regional technical implementing unit) of livestock.
Bogor City is the central business district of Bogor. There are two big wet markets in the city, Pasar
Anyar and Pasar Bogor, where a large number of poultry product retailers operate. These markets
absorb poultry products from farmers in Bogor and its surrounding areas. There is also a central
slaughter point, Kebon Pedes. Hence, Pasar Anyar and Pasar Bogor were selected for sampling
retailers and Kebon Pedes for workers at the abattoir. In addition, two modern retail markets, Yogya
and Super Indo, were also sampled to represent large and small modern markets.
Primary data were collected from the various poultry chain actors. Categories of actors were
identified during the training exercise and included breeders, poultry shops, farmers, collectors,
slaughterhouses and retailers. The training exercise further identified four main poultry commodities
to be covered in the study: broilers, layers, kampong chickens and ducks. All primary data, with the
exception of information from kampong and duck farmers, were collected through semi-structured
interviews guided by checklists that identified specific information required from each type of value
chain actor. Five different questionnaires were used to guide the interviews according to the
category of actor: retailer, collector, slaughter house/point, commercial farmer (sector 2 and 3
broiler and layer) and sector 4 farmer (kampong chicken and duck). In the case of duck and kampong
chicken farmers, we relied on focus group discussions that were facilitated by checklists for farm-
level information. For all actor categories, checklists solicited information on enterprise
Africa/Indonesia Team Working Paper
characteristics, linkages with other actors, flows and values of products traded, governance
mechanisms in the chain, experiences with HPAI and associated coping mechanisms, and the effects
of new regulations and compliance programs. Two kinds of primary data were collected: recent and
recall. Recent data were needed for the VCA analysis, while recall data were needed to undertake a
descriptive analysis of the pattern of poultry farm input and output prices and to gauge the impact
of previous HPAI outbreaks.
Data analysis
The value chain mapping as described in the preceding sections was used as the principal analytical
framework for synthesizing information collected during the data collection. A key challenge was
using a combination of secondary data and respondent answers usually in the form of estimated
market sharesto derive estimates of the volumes and value of commodities moving between
actors. Where possible, quantitative data were aggregated and analyzed to provide perspectives on
commodity flows, trade and prices in each of the surveyed chains. Based on simple price (and, where
available, cost) data collected, aggregated and averaged at different parts of the chain, we
calculated value-added generated along the chain using the Hayami method (Hayami et al. 1987).
Table 1 describes the basic elements and computations used in the Hayami method to estimate
value added (item #10) and related indicators. There were two particular challenges faced in our
analysis. First, at certain parts of the chain, we found actors involved in discrete activities (e.g.
collecting birds) alongside those engaged in collection, slaughter and retail, each with different cost
structures and supply bases (and consequently, different prices of procurement and sales). Since
upstream and downstream actors will feed into one or both of these chains at any given period of
time, analysis of the distribution of value added throughout the chain was extremely problematic.
Second, the regional nature of the analyzed chains often confounds simple averaging of prices at
different chain nodes.
Analysis of value provides both information about distributional issues and an indicator of program
achievement. Steps in the Hayami analysis are:
1. Constructing the commodity chain including specifying the form of a commodity (e.g. as live
birds or carcasses) and any transformation it undergoes along the chain.
2. Identifying financial transactions and their characteristics occurring along the chain.
3. Defining basic computations.
The computation of value added takes into consideration the cost of basic raw materials, labour and
other additional inputs. Some variables related to the analysis of added value are:
The conversion factor, which expresses physical output per unit of input
The direct labour coefficient which describes labour use for processing per unit of
input
Output value per unit of input
Pro-Poor HPAI Risk Reduction
10
Table 1. Key components and computations of the Hayami Method to analyze value added
No.
Output, Input, Price
Unit
Notation/Formula
1.
Output
Bird
A
2.
Input of main raw material
Bird
B
3.
Input of Labour
Man day
C
4.
Conversion factor
D = A/B
5.
Labour factor
E = C/D
6.
Price of output
IDR*/bird
F
7.
Average wage labour
IDR/Man day
G
Income, Profit
8.
Cost of main raw material
IDR/bird
H
9.
Cost of other inputs
IDR/bird
I
10.
Value of output
IDR/bird
J = D * F
11.
a. Added value
IDR/bird
K = J H I
b. Ratio of added value to total value
%
L = K/J * 100
12.
a. Labour opportunity cost
IDR/bird
M = E X G
b. Labour as share of added value
%
N = M/K * 100
13.
a. Profit
IDR/bird
O = K M
b. Profit as share of output value
%
P = O/J * 100
Opportunity Cost of Input Factor
14.
a. Margin
IDR/bird
Q = J H
b. Labour income
%
R = M/Q * 100
c. Share of other input
%
S = I/Q * 100
d. Institution profit
%
T = O/Q x 100
Note: IDR = Indonesian Rupiah
Africa/Indonesia Team Working Paper
11
2. The Bogor poultry sector
2.1 Overview
Bogor is divided into two administrative areas, Bogor City and Bogor District, with Bogor City located
in the middle surrounded by Bogor District.
The north side of Bogor District borders on the capital city of Jakarta, Depok City and Tangerang
District; to the south side are Sukabumi and Cianjur Districts; to the east, Karawang and Bekasi
Districts; and to the west, Banten Province. The climate is tropical with average temperatures
varying from 25oC in the north to 21oC in the south and humidity at 70%. Precipitation averages
2500-5000 mm per year over most of Bogor.
Its 299,000 ha of land area lie mainly between 15 and 1000 m above sea level, and is divided
between protected areas (38%) of forest and estates, and utilized urban and rural areas (62%).
The District of Bogor consists of 40 sub-districts and 427 villages, with a population of 4,237,962 as
of 2007, representing 10% of the West Java Province total. Among those of working age, 6% are
farmers, 30% are entrepreneurs, and 27% are manual labourers, with the remainder in skilled labour
or other professional employment. Bogor City consists has 6 sub-districts, 68 villages and a
population of 750,250 as of 2006 (Renstra Kota Bogor 2007).
There are seven main roads connecting Bogor with other cities, including two roads to Jakarta and
five others to Sukabumi, Cianjur, Banten Province, Tangerang and Bekasi. Given this infrastructure
and geographical position, there is considerable movement of goods and people in and out of Bogor.
2.2 Research area description
The locations of interviews held in the study sites were recorded using GPS and are shown in Figure
6 by category of respondent.
2.3 Identification of actors
For the broiler and layer chains, the major actors found in Bogor area were breeders, feed millers,
sector 2 and 3 farmers (commercial farm), collectors of live birds, collectors of eggs, slaughter
points/houses and retailers in either traditional markets or modern markets (supermarkets).
However in the duck and kampong chicken chains, the main actors were sector 3 and 4 farmers,
collectors of live birds, collectors of eggs, slaughter points/houses and retailers in traditional and
modern markets (specifically for kampong and duck eggs). Table 2 shows the number of respondents
interviewed in each study location. Our target research group in each location consisted of breeders,
feed mills, livestock farmers, poultry shops, collectors, slaughterhouses, slaughter points, retailers
and supermarkets. Based on information provided by Livestock and Fisheries Services of Bogor
District (Disnakan 2009), we identified nine breeders (PT. Kerta Mulya Sejahtera, PT. Central Avian
Pro-Poor HPAI Risk Reduction
12
Pertiwi, PT. Cibadak Indah Sari Farm, PT Dasa Asta Utama, PT. Isa Indonesia, PT. Multi Breeders
Adirama Indonesia, PT. Anwar Sierad, PT. Super Unggas Jaya and PT. Satwa Borneo Jaya Breeding
Farm) and four feed millers (PT. Wellgro Feedmill Indonesia, PT Sinta Prima Feedmill Indonesia, PT.
Cargill Indonesia and PT Allied Feeds Indonesia) with operations in Bogor District; no breeders and
feed millers were found in Bogor City. The number of sector 4 farmer respondents was the highest
with 125 respondents (53% of the total) reflecting the use of focus group discussions for collecting
information within this group.
Table 2. Number of respondents by actor category and by location
Actor Category
Number of Respondents
Bogor District
Bogor
City
Ciawi
Cibinong
Leuwiliang
Parung
Total
Breeder
0
0
1
0
1
0
Feed mill
0
2
1
0
3
0
Farmer Sector 2 &3
7
9
7
6
29
0
Farmer Sector 4
30
30
35
30
125
0
Poultry shop
1
1
2
1
5
0
Collector
4
6
7
3
20
5
Slaughterhouse
1
1
0
0
2
0
Slaughter point
2
8
3
3
16
8
Retailer
5
13
14
4
36
22
Supermarket
0
0
0
0
0
2
Total
50
70
70
47
237
37
The following subsections provide some summary of the characteristics of respondents surveyed in
this study, including gender, age and level of formal education, business period and the number of
people employed.
Africa/Indonesia Team Working Paper
13
Figure 7: Map of Bogor and location of study interviews, by category of respondent
Pro-Poor HPAI Risk Reduction
14
Gender
The gender category of respondents as shown in Table 3 revealed that most respondents (91%) were
male. Women in poultry business were only involved in kampong chicken farms and as carcass
retailers in traditional markets. Neither activity requires intense levels of energy, hence are suitable
for women. Other poultry farming (duck, layer and broiler farms) and trading activities were mostly
carried out by men. Those activities require high capital for transactions or high mobilization for
transporting the product.
Table 3. Gender of respondents, by actor category for each commodity chain
Commodity
Actor Category
N
Gender
Percentage (%)
Male
Female
Male
Female
Broiler Carcass
Retailer
7
5
2
71
29
Broiler
Retailer
3
3
0
100
0
Collector
7
7
0
100
0
Slaughter point
14
14
0
100
0
Slaughter house
2
2
0
100
0
Farmer sector 2/3
15
15
0
100
0
Layer
Retailer
3
2
1
67
33
Collector
1
0
1
0
100
Slaughter point
2
1
1
50
50
Farmer sector 2/3
10
8
2
80
20
Male Layer
Retailer
6
5
1
83
17
Farmer sector 2/3
2
1
1
50
50
Duck
Retailer
7
7
0
100
0
Collector
6
6
0
100
0
Slaughter point
5
5
0
100
0
Farmer sector 4
44
44
0
100
0
Farmer sector 2/3
1
1
0
100
0
Kampong
chicken
Retailer
9
9
0
100
0
Collector
6
6
0
100
0
Slaughter point
3
3
0
100
0
Farmer sector 4
81
66
15
81
19
Farmer sector 2/3
1
1
0
100
0
Breeder
1
1
0
100
0
Layer eggs
Retailer
7
7
0
100
0
Collector
5
5
0
100
0
Duck eggs
Retailer
8
8
0
100
0
Kampong eggs
Retailer
8
8
0
100
0
Feed mill
3
2
1
67
33
Poultry shop
5
5
0
100
0
Supermarket
2
2
0
100
0
TOTAL
274
249
25
91
9
Africa/Indonesia Team Working Paper
15
Age
Table 4 reveals that most of the respondents were between 40 and 55 years old, while only 9% of
respondents were less than 25 years of age. This means that most actors in poultry business were in
the mature productive age bracket.
Table 4. Distribution of respondents by age and actor category for each commodity chain
Commodity
Actor Category
N
Age (years)
Percentage (%)
< 25
25-39
40-55
>55
< 25
25-39
40-55
>55
Broiler Carcass
Retailer
7
2
3
2
0
29
43
29
0
Broiler
Retailer
3
0
2
1
0
0
67
33
0
Collector
7
0
1
6
0
0
14
86
0
Slaughter point
14
0
5
9
0
0
36
64
0
Slaughter house
2
0
0
2
0
0
0
100
0
Farmer sector 2/3
15
0
1
13
1
0
7
87
7
Layer
Retailer
3
0
1
2
0
0
33
67
0
Collector
1
0
0
1
0
0
0
100
0
Slaughter point
2
0
0
2
0
0
0
100
0
Farmer sector 2/3
10
0
2
4
4
0
20
40
40
Male Layer
Retailer
6
1
1
3
1
17
17
50
17
Farmer sector 2/3
2
0
0
1
1
0
0
50
50
Duck
Retailer
7
0
0
4
3
0
0
57
43
Collector
6
0
0
5
1
0
0
83
17
Slaughter point
5
0
0
3
2
0
0
60
40
Farmer sector 4
44
6
10
15
13
14
23
34
30
Farmer sector 2/3
1
1
0
0
0
100
0
0
0
Kampong
chicken
Retailer
9
0
2
4
3
0
22
44
33
Collector
6
1
0
3
2
17
0
50
33
Slaughter point
3
0
0
2
1
0
0
67
33
Farmer sector 4
81
11
33
28
9
14
41
35
11
Farmer sector 2/3
1
0
0
1
0
0
0
100
0
Breeder
1
0
0
1
0
0
0
100
0
Layer eggs
Retailer
7
0
1
4
2
0
14
57
29
Collector
5
0
2
3
0
0
40
60
0
Duck eggs
Retailer
8
1
2
4
1
13
25
50
13
Kampong eggs
Retailer
8
1
2
4
1
13
25
50
13
Feed mill
3
0
1
1
1
0
33
33
33
Poultry shop
5
0
1
3
1
0
20
60
20
Supermarket
2
0
0
0
2
0
0
0
100
TOTAL
274
24
70
131
49
8.8
26
48
18
Pro-Poor HPAI Risk Reduction
16
Level of formal education
The level of formal education of respondents is presented in Table 5. Most of the respondents had
reached elementary school level. The highest level of formal education of the respondents was
university level. Respondents with university level education were found in sector 2/3 farms, feed
mill factories and slaughterhouses.
The low formal education level of a large portion of the respondents may be due to the status of
much of poultry business as an informal activity. Ramli (1992) reported that the informal business
sector in urban areas has an important role as a potential source of income for such actors and their
families.
Table 5. Distribution of respondents by level of formal education and actor category for each
commodity chain
Commodities
Actor Category
N
Level of Formal Education
Percentage (%)
ES
JHS
SHS
HE
ES
JHS
SHS
HE
Broiler Carcass
Retailer
7
3
2
2
0
43
29
29
0
Broiler
Retailer
3
1
1
1
0
33
33
33
0
Collector
7
1
3
1
2
14
43
14
29
Slaughter point
14
7
3
2
2
50
21
14
14
Slaughter house
2
0
0
0
2
0
0
0
100
Farmer sector 2/3
15
1
1
4
9
7
7
27
60
Layer
Retailer
3
1
2
0
0
33
67
0
0
Collector
1
1
0
0
0
100
0
0
0
Slaughter point
2
2
0
0
0
100
0
0
0
Farmer sector 2/3
10
2
0
5
3
20
0
50
30
Male Layer
Retailer
6
4
1
1
0
67
17
17
0
Farmer sector 2/3
2
0
0
2
0
0
0
100
0
Duck
Retailer
7
5
2
0
0
71
29
0
0
Collector
6
4
2
0
0
67
33
0
0
Slaughter point
5
5
0
0
0
100
0
0
0
Farmer sector 4
44
21
8
14
1
48
18
32
2
Farmer sector 2/3
1
0
0
1
0
0
0
100
0
Kampong
chicken
Retailer
9
5
4
0
0
56
44
0
0
Collector
6
4
2
0
0
67
33
0
0
Slaughter point
3
3
0
0
0
100
0
0
0
Farmer sector 4
81
27
19
34
1
33
23
42
1
Farmer sector 2/3
1
0
0
0
1
0
0
0
100
Breeder
1
0
0
0
1
0
0
0
100
Layer eggs
Retailer
7
4
1
2
0
57
14
29
0
Collector
5
2
1
2
0
40
20
40
0
Duck eggs
Retailer
8
3
1
4
0
38
13
50
0
Kampong eggs
Retailer
8
3
1
3
1
38
13
38
13
Feed mill
3
0
0
0
3
0
0
0
100
Poultry shop
5
0
0
2
3
0
0
40
60
Supermarket
2
0
0
0
2
0
0
0
100
TOTAL
274
109
54
80
31
40
20
29
11
ES=elementary school, JHS=junior high school, SHS=secondary high school, HE=higher education
Africa/Indonesia Team Working Paper
17
Business experience
Business experience of the respondents is presented in Table 6. Only a few respondents (7%) had
extensive business experience of more than 25 years, which in some cases was because the
respondents had continued a family business. Business experience of more than 25 years was found
among respondents of slaughter points, sector 2/3 farms, collectors and feed mills.
The largest share of respondents had taken up poultry activities only recently, reflecting the large
numbers of new farmers among the Sector 4 farmers. Otherwise, the intermediate range between 6
and 15 years was generally most frequent among many of the trade-related categories.
Table 6. Distribution of respondents by years of business experience and actor category for
each commodity chain
Commodities
Actor Category
N
Years of Experience
Percentage (%)
<6
6-15
16-25
>25
<6
6-15
16-25
>25
Broiler Carcass
Retailer
7
2
3
2
0
29
43
29
0
Broiler
Retailer
3
3
0
0
0
100
0
0
0
Collector
7
2
2
1
2
29
29
14
29
Slaughter point
14
3
6
3
2
21
43
21
14
Slaughter house
2
0
1
1
0
0
50
50
0
Farmer sector 2/3
15
6
3
2
4
40
20
13
27
Layer
Retailer
3
0
3
0
0
0
100
0
0
Collector
1
0
1
0
0
0
100
0
0
Slaughter point
2
0
1
1
0
0
50
50
0
Farmer sector 2/3
10
2
6
1
1
20
60
10
10
Male Layer
Retailer
6
0
2
4
0
0
33
67
0
Farmer sector 2/3
2
1
1
0
0
50
50
0
0
Duck
Retailer
7
0
3
4
0
0
43
57
0
Collector
6
2
2
2
0
33
33
33
0
Slaughter point
5
1
2
2
0
20
40
40
0
Farmer sector 4
44
24
14
3
3
55
32
7
7
Farmer sector 2/3
1
0
1
0
0
0
100
0
0
Kampong
chicken
Retailer
9
1
3
5
0
11
33
56
0
Collector
6
0
3
3
0
0
50
50
0
Slaughter point
3
0
2
1
0
0
67
33
0
Farmer sector 4
81
49
20
6
6
60
25
7
7
Farmer sector 2/3
1
0
0
1
0
0
0
100
0
Breeder
1
0
0
1
0
0
0
100
0
Layer eggs
Retailer
7
3
2
2
0
43
29
29
0
Collector
5
2
3
0
0
40
60
0
0
Duck eggs
Retailer
8
4
3
1
0
50
38
13
0
Kampong eggs
Retailer
8
4
3
1
0
50
38
13
0
Feed mill
3
0
1
1
1
0
33
33
33
Poultry shop
5
1
3
1
0
20
60
20
0
Supermarket
2
0
0
2
0
0
0
100
0
TOTAL
274
110
94
51
19
40
34
19
7
Pro-Poor HPAI Risk Reduction
18
Number of labourers employed
Labour employed in poultry business is categorized as either family or hired labour. Table 7 indicates
that most of the respondents have one to five labourers employed. Broiler commodity absorbs the
most labourers, especially the slaughter points and slaughterhouses. The survey results showed that
the type of labourers employed were mostly family labourers, especially among the retailers,
collectors and slaughter points. This practice minimizes the cash burden of employing labour,
thereby increasing their financial profit.
Table 7. Distribution of respondents by number of labourers employed and actor category for
each commodity chain
Commodities
Respondents
N
Number of Employees
Percentage (%)
1-5
6-10
>10
1-5
6-10
>10
Broiler Carcass
Retailer
7
6
1
0
86
14
0
Broiler
Retailer
3
3
0
0
100
0
0
Collector
7
6
1
0
86
14
0
Slaughter point
14
10
1
3
71
7
21
Slaughter house
2
0
0
2
0
0
100
Farmer sector 2/3
15
8
4
3
53
27
20
Layer
Retailer
3
3
0
0
100
0
0
Collector
1
1
0
0
100
0
0
Slaughter point
2
2
0
0
100
0
0
Farmer sector 2/3
10
5
0
5
50
0
50
Male Layer
Retailer
6
5
1
0
83
17
0
Farmer sector 2/3
2
0
1
1
0
50
50
Duck
Retailer
7
7
0
0
100
0
0
Collector
6
6
0
0
100
0
0
Slaughter point
5
5
0
0
100
0
0
Farmer sector 4
44
44
0
0
100
0
0
Farmer sector 2/3
1
1
0
0
100
0
0
Kampong
chicken
Retailer
9
9
0
0
100
0
0
Collector
6
6
0
0
100
0
0
Slaughter point
3
3
0
0
100
0
0
Farmer sector 4
81
81
0
0
100
0
0
Farmer sector 2/3
1
0
0
1
0
0
100
Breeder
1
0
0
1
0
0
100
Layer eggs
Retailer
7
7
0
0
100
0
0
Collector
5
5
0
0
100
0
0
Duck eggs
Retailer
8
8
0
0
100
0
0
Kampong eggs
Retailer
8
8
0
0
100
0
0
Feed mill
3
0
1
2
0
33
67
Poultry shop
5
5
0
0
100
0
0
Supermarket
2
0
0
2
0
0
100
TOTAL
274
244
10
20
89
4
7
Africa/Indonesia Team Working Paper
19
2.4 Identification of product flows
Product flows start from the farmer who has backward and forward linkages with different input and
output value chain actors. Backward linkages are especially important for commercial farms and
relate to the inputs required for production such as day-old chicks (DOC) or day-old ducklings (DOD),
pullets, feed and other production requirements. Forward linkages relate to selling the product.
Figure 7 presents product flows for the overall poultry sector in Bogor.
Figure 8. Map of value chains in the Bogor poultry sector
The poultry sector in Bogor has all of the main poultry value chains represented. Poultry meat is
derived from production of exotic and indigenous kampong chickens and, on a smaller scale, ducks,
either as broilers or as by-products from egg producers in the form of male or spent layers. Live birds
are traded along the supply chains with slaughter occurring anywhere from the point of production
to the point of consumption. Eggs are produced commercially mainly from exotic chicken breeds,
but also to a minor extent from kampong chickens and ducks.
Whereas some products are sold directly by producers to the final consumers restaurants and
individuals most pass through specialized live bird and egg collectors to supply poultry
slaughterhouses and wet markets, or may be delivered to supermarkets (‘modern markets’). Each
specific production system tends to be associated with a particular set of supply routes.
Larger-scale commercial production relies almost entirely on exotic breeds of broilers and layers in
timed all-in, all-out production cycles, though there are some smaller scale commercial operations
(generally <5000 birds) specializing in kampong chickens or ducks. Otherwise, the majority of
Pro-Poor HPAI Risk Reduction
20
kampong chickens and ducks are kept in small flocks in backyard systems by sector 4 farmers who
sell their poultry products in small numbers in a much less systemized fashion, or use for their own
home consumption.
A light blue line in Figure 7 distinguishes those components of the various value chains that are
located in rural versus urban areas within Bogor. While much of the production is based in rural
zones, there are some commercial farms in peri-urban zones, and sector 4 kampong chickens and
ducks can be found nearly everywhere. As expected, much of the trade gravitates from the rural
zones towards the highly populated urban areas, so live and slaughtered birds (carcasses) and eggs
are transported and traded across both zones with final markets and end consumers found in both.
The Bogor poultry sector is very open in the sense that a large share of inputs, including DOC and
pullets, are imported into the district, and similarly a large share of the products produced are
exported to neighbouring districts, especially DKI Jakarta.
2.5 Identification of governance and coordination mechanisms between
actors
Governance and coordination between actors in poultry business in Bogor area can be classified
under two main mechanisms, as indicated in the legend in Figure 7. The first is arm’s-length
coordination (dotted lines in Figure 7) which usually occurs in semi-commercial or traditional one-
time transactions, such as often occurs when consumers buy directly from retailers. The second is
what we term “semi-coordination” (solid lines in Figure 7) which occurs in commercial sector
transactions, e.g. from producers to retailer supermarkets or to restaurants.
Semi-coordination in the commercial sector consists of a spectrum of arrangements. In some cases,
farmers are relatively independent, but have a type of “informal contract” based on mutual trust
with a collector, and similarly between collectors and slaughter points/houses, and between
slaughter points/houses and retailers. In these cases, prices of the products traded depend on the
cost of production especially with respect to prices of inputs (mainly feed and DOC) offered by feed
millers and breeder companies, but are primarily established based on the current balance between
supply and demand in the market. In this system, when business conditions are not conducive, the
actor in the chain bearing the most risk and absorbing the most financial loss is the farmer.
Membership in a poultry farmer association usually provides improved access to market information
to help the farmer manage the price risk dimension better. Market information in the form of spot
prices (Table 8) is also available at the PINSAR (Asosiasi Peternak Unggas Se-Indonesia = Indonesian
Poultry Farmer Association and Information Centre) website (www.pinsar.com) maintained by the
poultry business association, but few farmers have access to the Internet. As indicated in Table 8,
there is a well established size classification for pricing of broilers by weight.
Africa/Indonesia Team Working Paper
21
Table 8. Representative price list of live bird poultry on different dates, Oct-Dec 2008 (IDR)
Item
Date
20/10/08
19/11/08
19/12/08
Broilers: < 1 kg
15,300
15,700
14,000
Broilers: 1 1.2 kg
14,700
14,200
12,500
Broilers: 1.2 1.4 kg
14,500
13,500
11,800
Broilers: 1.4 1.6 kg
14,300
13,300
11,400
Broilers: 1.6 1.8 kg
14,100
13,300
11,000
Broilers: 1.8 2.0 kg
14,100
13,300
10,600
Broilers: > 2.0 kg
14,400
13,300
10,200
DOC Broilers (head)
2,750
3,250
1,500
DOC Layers (head)
7,000
8,000
8,000
Egg (kg)
14,400
11,900
11,900
Male
24,500
16,000
19,000
Spent Layers
15,000
14,500
13,000
Spent Parents
18,500
15,000
8,500
Source: CJ Feed Indonesia (2008)
Also commonly practised is coordination in the form of business partnership systems in which
contractual relationships are more formalized, with a company providing its farmers with production
input and technical service and helping them in marketing their product. The partnership contract is
signed by both parties, usually lasts for one production cycle, and can be repeatedly renewed. Some
companies cover rearing costs for the farmer, while the farmer provides the poultry house and
labour for keeping the birds from DOC until maturity. Specific partnership terms are decided by the
contracting company, such as the prerequisites for becoming a contracted farmer, input and output
product price decisions, production practices and any reward and punishment system. When broiler
prices at harvest time are higher than the one stated in the contract at signing time, the farmers
usually receive bonuses from the company. This type of business partnership started in 1987 and
began becoming popular in the early 1990s.
For kampong chickens and ducks, collectors seem to have a significant role in defining product prices
either when buying from farmers or selling to retailers. The price defined by the collector depends
on the cost of transport and supply and demand conditions.
Pro-Poor HPAI Risk Reduction
22
3. Specific poultry value chains
Based on mapping the overall poultry sector in Bogor (Figure 7), we identified four primary value
chains within the poultry sector as the focus of this study: commercial layers, commercial broilers,
kampong chickens and ducks. In this chapter, we describe each of these subsector chains in more
detail, including flows and linkages and governance relationships.
3.1 Commercial layers
Layer population
The layer population in Bogor represents around 3% of Indonesia’s total layer population. Table eggs
produced by layer farmers in Bogor serve not only Bogor consumers but also those outside Bogor,
particularly Jakarta. Since the beginning of the outbreak of HPAI in 2003, layer populations in Bogor
declined somewhat, with a particularly dramatic drop in 2006 when the layer population fell from
3.0 million to 1.1 million birds (Table 9), though the population quickly rebounded the following year
to 3.8 million birds.
The more recent increase in female layer population was due to expansion of scale on existing farms
rather than new entrants; the number of female-layer farmers in Bogor only increased by one, from
128 in 2006 to 129 in 2007 (Disnakan). The data thus reveal that the impact of HPAI was short term
and the poultry sector was able to recover quickly. As of 2008, Bogor had 125 larger-scale
commercial layer farms (more than 15,000 birds per farm) with a total population of 3.7 million birds
and had become the main supplier for Jakarta’s table eggs.
Table 9. Female layer population in Bogor, 2002-2008
Area
Layer population (1,000 birds)
2002
2003
2004
2005
2006
2007
2008
Bogor City1
0
0
0
0
0
0
0
Bogor District2
3,581
3,439
3,055
3,045
1,102
3,792
3,679
Total Bogor
3,581
3,439
3,055
3,045
1,102
3,792
3,679
Total Indonesia3
78,039
79,206
93,416
84,790
100,202
111,489
116,474
% Bogor on Indonesia
4.59
4.34
3.27
3.59
1.10
3.40
3.16
Source : 1 Dinas Agribisnis 2009
2Disnakan, 2009
3Ditjennak, 2009
Characteristics of actors in the layer chain
The layer business is generally run by commercial farms classified as sector 2 and 3 as their main
household income. There are two types of layer businesses in Bogor, female layer systems that
produce eggs and male-layer systems that produce meat. Male layers are a by-product of layer
parent stock, and are discussed briefly. The focus of discussion, however, is the female layer system.
Female-layer farms were found in all four study areas in Bogor, while male-layer production was only
found in Parung. Male-layer DOC are a by-product of layer DOC breeders, and are produced in
Africa/Indonesia Team Working Paper
23
limited numbers. Only a few farmers (those in Parung) have access to purchasing male-layer DOC.
The number of female layers raised on a farm ranges between 1,600-40,000 birds; male layers, on
the other hand, are raised on a larger scale of between 50,000-60,000 birds per farm.
Table 10. Layer population per sampled farm in Bogor
Population
(birds/farm)
Number of Respondents
Ciawi
Cibinong
Leuwiliang
Parung
Total
Female
Female
Female
Female
Male
1,600
0
1
0
0
0
1
3,000
0
1
0
0
0
1
3,750
1
0
0
0
0
1
5,000
1
0
0
0
0
1
7,500
1
0
0
0
0
1
10,000
0
1
0
2
0
3
25,000
0
0
0
1
0
1
30,000
0
1
0
0
0
1
40,000
0
0
1
0
0
1
50,000
0
0
0
0
1
0
60,000
0
0
0
0
1
0
Total
3
4
1
3
2
13
Source: survey data
Farmers raise male layer DOC for six to eight weeks similar to broilers; feeding male layers beyond
this period is not profitable. The live weight of a male layer ready for slaughter is around 0.8 to 1.0
kg, and fetches a price of IDR 11,000-16,000 per bird. Farmers rear female layers either starting with
the DOC or buying already grown pullets (a pullet is a 6-month-old female layer ready to lay eggs).
Unless treated, female layers are culled at 17 months old; with molting treatment, female layers can
be kept until the age of 24 months. Molting is a treatment to make female layers continue producing
sufficient numbers of eggs. Egg production by female layers declines after the age of 24 months.
Day-old chicks are transported from hatcheries (breeder farms) to layer farms in ventilated trucks
owned by the breeding company. Live pullets are brought in plastic, bamboo or wooden baskets on
open trucks. The purchase of new female layer DOC by farmers occurs three times within a 24
month period, so the number per delivery of DOC is equal to 33% of existing layers.
At the time of the study, the price of a male layer DOC was IDR 1050 to IDR 2000 per bird while the
price of a female layer DOC was IDR 7000 to IDR 8500 per bird, and a pullet was IDR 33,600 to
35,000 per bird. Price fluctuations in layer DOC are generally aligned with those for broiler DOC for
meat, reflecting the opportunity cost in the production of layer DOC in terms of broiler DOC. When
the demand for broiler DOC increases (followed by an increase in price), breeders will prefer to
hatch broiler DOC, leading to reduced supply and higher prices for DOC layers.
Fluctuations in prices of male layer DOC compared to those of female layer DOC are also subject to
other supply and demand forces. Like broilers, male layers are also produced for meat. There is
seasonal demand of DOC for meat due to seasonal demand for chicken meat. The peak demand for
chicken meat occurs during month of Ramadhan (the Muslim fasting month) and Idd ul Fitr, and
Pro-Poor HPAI Risk Reduction
24
increases farmer demand for DOC in the two months prior to those festive periods, since it takes six
to eight weeks to raise male layers.
The farm management system in female layers is generally divided into three phases based on
feeding formula; namely, starters (0 to 8 weeks); growers (9 to 20 weeks); and layers (21 to 78
weeks). In the starter and grower phases, birds are housed in floor houses. The floor is made of slats
or litter (from rice hulls or sawdust). During the layer phase, birds are kept in cages/battery in open-
sided poultry houses.
The nature of layers in producing eggs can be described as s shape (sigmoid curve). There are three
stages in producing eggs i.e. increasing stage, peak stage and decreasing stage. In order to maintain
stability in the volume of production throughout the year, layer farmers usually raise layers in four
age cohorts. Therefore, in the farm there are four chicken group houses, i.e. a group for growers (1-
20 weeks old), and three groups for layer based on their particular age cohort (21-40 weeks, 41-60
weeks and 61-78 weeks old). The number of birds in each group represents one fourth of the layer
population in the farm.
Feed is usually purchased from feed mills located nearby in West Java and Banten (Wonokoyo,
Charoen Pokphand, Comfeed and Gold Coin feed companies) or is mixed by farmers themselves
(generally a mixture of concentrate and corn). The type of feed given to female layers generally
depends on the growing phase, i.e. starter, grower or layer feed. The female layer feed price is
relatively constant at IDR 4000-5000 per kg depending on nutritional content. Feed portions depend
on live weight and growth phase. For the layer phase, the amount of feed is relatively stable at
around 100 g per bird per day. The price of male layer feed is also relatively constant at IDR 4000-
4800 per kg. Farmers feed the male layers ad libitum (feed is always available). The feed conversion
ratio for male layers is around 2.0 (i.e. male layers consume 2 kg of feed resulting in 1 kg of live
weight).
Other inputs used in layer farms include vaccines for Newcastle disease (ND), infectious bursal
disease (IBD), infectious bronchitis (IB) and HPAI. Some apply vaccine chicken pox. Farmers buy
vaccines from a poultry shop or a vaccine producer. The average cost for each vaccine is IDR 1000
per bird. Altogether, such vaccine costs would be approximately IDR 4000 per bird during rearing.
Male layers from commercial farms are usually taken by collectors and sent to a slaughterhouse. In
Bogor, most male layer meat is sold to restaurants, especially “Padang” restaurants, which prefer
male layer meat that is considered tastier than that of broilers even though its price is relatively
higher. Smaller shares are sold through traditional markets and supermarkets to middle-income
socio-economic groups. Bogor consumers choose male layer meat because it has similar texture to
backyard (kampong) chicken meat, but has a lower price.
Table eggs and spent layers (cull chickens) are the products of female layers. Commercial layer farms
sell live spent layers at 17-24 months of age at a weight of 2.0-2.3 kg per bird. Seasonality has an
important influence on price. In normal periods, the price of a live spent layer is IDR 15,000 per bird
but during Idd ul Fitr it can rise to as high as IDR 20,000 per kg or IDR 40,000 per bird.
Africa/Indonesia Team Working Paper
25
Output and input prices of male and female layers are shown in Table 11, with the range of
minimum and maximum prices indicated. There was little variation in these prices across the four
study sites.
Table 11. Input and output prices of male and female layers
Layer
Type of Input/Output
Unit
Price (IDR)
Minimum
Maximum
Female Layer
Input Price
DOC
bird
7,000
8,500
Pullet (15 weeks)
bird
33,600
35,000
Feed
kg
4,000
5,000
Output Price
Live bird
bird
15,000
20,000
Egg
kg
10,000
14,000
Consumer Price
Live bird
bird
22,000
25,000
Egg
kg
12,000
16,000
Male Layer
Input Price
DOC
bird
1,050
2,000
Feed
kg
4,000
4,800
Output Price
Live bird
bird
11,000
16,000
Consumer Price
Live bird
bird
20,000
22,500
Product flow and governance mechanism map
Figure 8 summarizes the layer value chain in Bogor, providing estimates for 2008 of the volumes and
value of commodities traded among the various categories of actors. Ranges are reported for the
value to capture the price ranges reported in Table 11. The lines depicting commodity flows are also
coded to represent the type of governance that generally characterizes the relationship between
actors in each link. Not shown are backward linkages to input suppliers and services, including the
feed, pharmaceutical and vaccine industries. These backward linkages are complex given the
stringent requirements for feed, breed and management required by the exotic breeds used on layer
farms, and these requirements have contributed to a relatively high degree of specialization within
the layer sub-sector. The chain starts from breeders that produce final stock, to farmers who raise
the birds and processors and other actors related to poultry distribution who supply poultry
products to consumers.
Breeder farms produce 4.2 million female-layer DOC annually and sell the majority directly to large-
scale commercial layer farms (50% of the breeder farm annual production, or 2.1 million DOC, and
representing a total value of IDR 15-18 billion) and pullet farms (45%; 1.9 million DOC; IDR 13-16
billion), but also distribute a small share through agents or distributors (5%; 0.2 million DOC; IDR 1-2
billion). These agents supply poultry shops (IDR 2 billion), which sell the DOC to small-scale
commercial layer farms (IDR 2 billion). After growing out the DOC, pullet farms sell all of their
production (1.8 million birds, taking into account 5% mortality; IDR 60-62 billion) to small-scale layer
farms. With the exception of poultry shop sales, the relationships between actors along these chains
are considered semi-coordinated in the sense that they generally involve repeated transactions
between suppliers and buyers as an informal arrangement. Farmers are less likely to have such
26
Modern Market
Poultry Shop
Collector (Eggs)
Lower Income
Consumer
Male
20% (0.555/
7.77-10.83B)
Female
40% (0.599/
10.18-12.58B)
DOC
Traditional Market
EXTERNAL
IMPORT
Higher Income Consumer
Live Bird
Meat
Egg
Manure
Technical Services
Arms length
Semi-coordination
Full coordination
Egg Retailer
Manure
Collector
Commercial Farm
(Plasma
4.171 million birds
Breeder Nucleus (Male)
4.171 million birds
DOC
DOC
DOC
Pullet
Farm
DOC Agent
5% (0.209/
1.46-1.77B)
100% (0.209/
1.56-1.88B)
50%
(2.086/
14.60-17.73B)
Breeder Farm (Female)
4.171 million birds
Female
53% 2.089/
31.33-41.78B)
Female
10% (0.516/
9.28-10.83B)
Slaughterhouse/Slaughter Point
outside market
Male 2.774 million birds
Female 1.498 million birds
Female
25% (1.289/
23.21-27.07B)
83%
(0.938/
14.08-18.77B)
17%
(0.209/
3.13-4.17B)
45% (1.877/
13.14-15.95B)
100%
(0.209/
1.67-1.98B)
100%
(1.783/
59.91-62.41B
Pullet
100%
(0.941/
14.11-18.82B)
Collector (Live bird)
Male 1.189 million birds
Female 3.968 million birds
Restaurant
Small-scale Commercial Farm
1.992 million birds
100%
(5.34 Mkg/
53.38-74.73B)
50%
(2.93 M kg/
29.33-41.06B)
3.5%
Remark: % = percent of total volume handled by each
individual actor category (volume/value in billion IDR)
95%
8.82
Mkg/
97.02
-
132.3
0B)
11%
1.01 M
kg/
10.10-
14.14B
)
70% (0.388/
7.77-8.74B)
30%
(1.189/
13.08-19.02B)
30%
(0.166/
3.33-3.74B)
60%
(0.084 Mkg/
1.01-1.34B)
40%
(0.056 Mkg/
0.67-0.90B)
60%
(0.313/
6.88-7.82B)
30%
(0.10 Mkg/
1.20-1.60B)
70%
(0.22 Mkg/
2.64-3.52B)
Male 60% (1.664/ 23.30-31.62B)
Female 60% (0.899/15.28-18.87B)
3.5%
(0.32 Mkg/
3.52-4.80B)
Male
20%
(0.555/
7.77-10.54B)
70% (2.774/
30.51-44.38B)
1.5%
(0.14 Mkg/
1.54-2.10B)
Large-scale Commercial Farm
2.086 million birds
OUTSIDE BOGOR
Tangerang, Subang, Cianjur,
Cipanas, Bandung, Pasuruan,
Palembang, Cigombong,
Cidahu, Jakarta, Depok, Bekasi,
Male
90% (1.498/
29.96-33.70B)
Female
90% (0.809/
17.79-20.22B)
Male
10%
(0.166/
3.33-3.74B)
Female
10%
(89 865/
1.98-2.25B)
Male
100% (1.189/
16.64-22.59B)
Female
65% (2.163/
36.77-45.43B)
Slaughter point
40% (0.203/
4.46-5.07B)
Grand Parent Stock
Male = 2 979
Female =26 814
(1.19B)
Carcass Retailer
Middle Income Consumer
Figure 9. Layer value chain in Bogor (volumes and value)
27
longer term arrangements with certain poultry shops. Indeed, there are many poultry shops that
farmers can choose the right for transaction.
Female-layer farms produce eggs and spent layers. Small-scale female-layer farmers in Bogor are
generally independent farmers. They have no contract system for procuring inputs or selling table
eggs. These farmers are free to decide from whom to buy feed, vitamins and vaccines, and to whom
they sell the table eggs and spent layers. They do, however, usually have regular suppliers of pullets.
Larger-scale farmers exhibit more systematic semi-coordination; they partner with feed suppliers
and egg collectors in informal agreements. This coordination is important to ensure the continuity of
feed supply and to ensure markets for selling products, both eggs and birds.
All eggs produced by small-scale farms are sold to collectors (5.3 million kg; IDR 53-75 billion),
usually in arm’s-length transactions, while those from large-scale farms are sold in roughly equal
shares to regular buyers among collectors and modern markets (2.9 million kg; IDR 29-41 billion,
respectively). Egg collectors also import an estimated 1.0 million kg (IDR 10-14 billion) of eggs from
outside the district (especially Tangerang, Cianjur, Cidahu and Cigombong). Of the egg collectors
volume, an estimated 95% of eggs (8.8 million kg; IDR 97-132 billion) are exported to outside Bogor
(Jakarta, Depok and Bekasi) in open-market transactions; the remaining 5% are sold in equal shares
(0.3 million kg; IDR 4-5 billion each) as regular suppliers to supermarkets and in arm’s-length
transactions to egg retailers in traditional markets.
Female-layer farmers sell a cohort of spent layers every 20 weeks (5 months), so the number of
spent layers marketed in a year should be close to 50 % of the layer population. Small- and large-
scale commercial female-layer farms contribute roughly equal shares of spent layers. Large-scale
farms sell spent layers through established relationships with buyers (semi-coordination) mainly to
collectors (83%; 0.9 million birds; IDR 14-19 billion), with a smaller share going to slaughterhouses
(17%; 0.2 million birds; IDR 3-4 billion). Small-scale farms sell all of their spent layers to collectors
(0.9 million birds; IDR 14-19 billion).
The collectors in turn sell spent layers either to slaughter points inside traditional markets (10%; 0.5
million birds; IDR 9-11 billion), slaughterhouses (25%; 1.3 million; IDR 23-27 billion) and outside
Bogor (65%; 2.2 million; IDR 37-45 billion), especially to Jakarta, Tangerang, Subang, Cianjur and
Cipanas. From the slaughterhouses, outside market, carcasses are supplied either to carcass (poultry
meat) retailers in traditional markets (60%; 0.9 million birds; IDR 15-19 billion) or to restaurants
(40%; 0.6 million birds; IDR 10-13 billion) in open market sales. Slaughter points inside the traditional
markets act as live bird retailers. Some consumers buy and slaughter the birds at the slaughter
points (60%; 0.3 million birds; IDR 7-8 billion). Other consumer buy live birds (40%; 0,2 million birds;
IDR 4,6-5.3 billion) and slaughter them at home.
In contrast, and while fewer in number, male-layer farm have much stronger market coordination
with input providers and output buyers. All male-layer farmers that we interviewed in Bogor work
under a written contract agreement with PT Salim Wijaya, in a variant of the Nucleus-Plasma
Farming System (Plasma Inti Rakyat: PIR) system, representing full coordination. In PIR, there is a
sharing of product resources and risks between the company and farmer. This business has grown
from an initial contracting of 10 farmers to several hundred chicken farmers today. The company
provides production inputs including male-layer DOC and sells the farmers output, while the
farmers provide chicken houses and rear the birds. The contract agreement covers one 6-8 week
28
cycle of growing out the male-layers like broilers, with the contract agreement repeatedly renewed
for new production cycles. The male-layer system delivers roughly the same total number of birds
annually as the spent layer system. At the end of the cycle, male layers are sold either to collectors
(30%; 1.2 million birds; IDR 13-19 billion) or to slaughterhouses (70%; 2.8 million birds; IDR 31-44
billion). Collectors sell the male layers on the open market (arm’s length) to areas outside Bogor.
Carcasses from slaughterhouses are sold on arrangement to supermarkets (20%; 0.6 million; 8-11
billion) while those from slaughter points are sold on the open market to retailers in traditional
markets (60%; 1.7 million; IDR 23-32 billion) and restaurants (20%; 0.6 million; 8-11 billion).
The average value-added for each commodity handled in the layer chain was calculated using
Hayami’s method (Table 1). As depicted in Figure 8, the marketing chain of spent layers starts from
the live bird in the farm, which is subsequently bought by collectors and then sold to
slaughterpoints. From slaughterpoints, poultry carcasses go to retailers and finally to consumers.
Note that the chain could be handled by one person that acts as a collector, slaughter point and
retailer, or by separate people at each node of the chain, which will influence the amount of value
added generated by such a person. Table 12 shows that collectors combined with slaughterpoints
and retailers had the highest value-added: IDR 7100 per bird. As a collector only, the value-added
gain is at least IDR 2635 per bird.
The table egg marketing chain in Bogor includes two actors: collectors and retailers. The value-added
of layer egg retailers was higher than that of the collectors with a value of IDR 791 per kilogram and
IDR 135 per kilogram, respectively. Other input costs spent by retailers are retribution, water and
electricity.
Table 12. Average value-added of spent layers and table eggs
Actor Category
Input Price
Output Price
Cost of
Other Inputs
Average
Value-Added
Spent layers (IDR/bird)
Carcass retailer
21,000
24,000
209
2,791
Collector
15,000
18,000
365
2,635
Slaughter point & retailer
19,000
25,000
1,535
4,256
Collector & slaughter point
16,000
22,000
1,744
4,465
Collector, slaughter point & retailer
15,000
24,000
1,900
7,100
Table eggs (IDR/kg)
Retailer
12,500
13,500
209
791
Collector
12,000
12,500
365
135
Role of associations
Industry organizations related to the layer business are found mainly at national level among input
suppliers. These include, at the national level, the Association of Indonesian Poultry Breeders
(Gabungan Perusahaan Pembibitan Unggas Indonesia: GPPUI), the Indonesian Animal Drug
Association (Asosiasi Obat Hewan Indonesia: ASOHI) and the Feed Mill Association (Gabungan
Perusahaan Pakan Ternak: GPMT). Three companies operating in Bogor are members of GPMT: P.T.
Charoen Pokphand, P.T. Japfa Comfeed and P.T. Gold Coin (nationally, there are 18 GPMT member
companies). GPPUI members include eight breeder companies and play an important role in
29
controlling the production of DOC to stabilize prices and control supply. In general, these
associations play a key role as a partner to the government in regulating poultry and related
industries. The main roles of the poultry industry associations are:
Sharing information among members
Serving as a partner of government in facing crises such as the HPAI outbreak
In some cases, acting as a cartel in setting the prices of their products.
Layer farmers are represented by the Association of Indonesian Poultry Farmers (Perhimpunan
Peternak Unggas Indonesia: PPUI) and PINSAR (Assosiasi Peternak Unggas Se-Indonesia = Indonesian
Poultry Farmer Association and Information Centre). As with other poultry industry associations, the
role of PPUI and PINSAR also includes sharing information on input and output prices among
members, brokering between members in terms of sales, and in some cases yielding market power
(not unlike a cartel) in establishing their output price.
At the local level in Bogor, there is also a Slaughter Point Society (Ikatan Warga Pemotong Ayam:
IPWA). The members are slaughterhouse workers in the Bogor Area. They meet once a week to
discuss recent issues concerning the supply of live birds from farmers and current demand for
carcasses. The main role of this society is to ensure that there is a single price of carcasses in all
traditional markets in Bogor, particularly at times when prices are potentially unstable.
Public policy and regulation
The local government has established regulations stating that it is compulsory for layer farmers
raising more than 10,000 birds to meet environmental and regional planning requirements (Regents
Regulation 2003). This law necessitates additional farmer expenses for environmental assessment
and site suitability for farm location. Therefore in the registration form, it is very rare for farmers to
state that their farm raises more than 10,000 birds to avoid these regulations. There were around 40
layer farmers who reportedly raised around 40,000 birds in Bogor without the local government
permission.
Since the beginning of the HPAI outbreak, there have been several new policies and measures at the
various levels of government to respond to the disease, e.g. on vaccination, culling and banning of
poultry from residential areas; these are discussed in Section 4.6.
30
3.2 Commercial broilers
Broiler population
The total broiler population in Bogor (Bogor City and Bogor District) is around 1% of Indonesia’s
population, similar to the corresponding share of the human population. From 2002 to 2008, the
broiler population in Bogor has experienced an upward trend, though stalling at 8.4 million birds in
2004-2006 before making a rapid jump in 2007 (Table 13).
Table 13. Broiler population in Bogor, 2002-2008
Area
Broiler (1,000 birds)
2002
2003
2004
2005
2006
2007
2008
Bogor City1
127
158
188
188
188
157
NA
Bogor District2
6,071
7,029
8,294
8,258
8,222
12,756
13,793
Total Bogor
6,198
7,187
8,482
8,446
8,410
12,914
13,793
Total Indonesia3
865,075
847,744
778,970
811,819
797,527
891,659
1,075,885
Bogor as % of Indonesia
0.70
0.85
1.09
1.04
1.05
1.45
1.28
Source : 1 Dinas Agribisnis 2009
2Disnakan, 2009
3Ditjennak, 2009
The jump in the broiler population in 2007 was caused by an increase in numbers of farms. The
number of large-scale broiler farms (> 15,000 birds) in Bogor increased from 42 (2006) to 82 (2007).
The data show that the impact of HPAI was transitory and the recovery was very fast. The number of
broilers produced per fattening cycle (one cycle is 30-40 days) by the 87 large commercial farms in
the district in 2009 reached 4.0 million birds or 24 million per year (the broiler production is 6 cycles
a year).
Characteristics of actors in the broiler chain
Broiler farms were found in all four study areas. These are generally run as sector 2 and 3 family
commercial enterprises for their main source of income. Farm sizes of sampled farms varied widely
from 1200 to 1.5 million birds (Table 14).
Breeding companies supply DOC of exotic breeds specialized for broiler production, transporting
them from the hatcheries on the breeder farms to client farms by ventilated trucks owned by the
breeding company. At the time of the study (February-April 2009), the price of a broiler DOC was IDR
3200. Broiler DOC prices tend to fluctuate during the year, indirectly reflecting seasonal demand for
chicken meat. Peak demand for chicken meat occurs during the Muslim fasting month and Idd ul Fitr
and given that the broiler production cycle is four to six weeks, farmer demand for DOC increases in
the month prior to that time. Demand for DOC tends to increase about 50-65% during this period,
while the DOC price increases by 40-50% and can be as high as IDR 4500 per bird. When demand for
broiler meat decreases (usually at the time when consumers are under pressure to allocate their
income for tuition fees for their children), DOC prices drop as low as IDR 2000 per bird.
There are two kinds of feed used in the broiler sector: starter feed (<3 weeks old) and finisher feed
(3-6 weeks old). During the fattening period, broiler chickens stay in the same poultry house (all in,
all out system) with litter floor (made from rice hulls or sawdust). Feed is usually purchased from