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CONTENTS
1. GLOBAL PERSPECTIVE ......................................................................................... 1
2. ACP STATES SITUATION ........................................................................................ 2
3. CHALLENGES FOR AQUACULTURE DEVELOPMENT ......................................... 5
4. KEY TAKE-AWAY MESSAGES FOR ACP FISHERIES MINISTERS ....................... 9
5. REFERENCES .......................................................................................................... 9
1
1. GLOBAL PERSPECTIVE
1. With production from capture fisheries being relatively static since the late 80’s,
aquaculture has been responsible for the continuing growth in the supply of fish for
human consumption, representing in 2017 53 percent of total world supply of fish for
human consumption with almost 112 million tonnes produced (see next figure). In the
recent period, aquaculture continues to grow faster than other major food production
sectors although it no longer shows the high annual growth rates of the 1980s and
1990s (11.3 and 10.0 percent). Average annual growth declined to 5.8 percent during
the period 2000–2016, although two-digit growth still occurred in a small number of
individual countries, particularly in Africa from 2006 to 2010 (FAO, 2018).
Figure 1 : World capture fisheries and aquaculture production
Source: FAO (2018)
2. At global level, Asia is by far the major continent for aquaculture production (almost
100 million tonnes produced per year on average over the 2015-2017 period) with
China alone producing more that the rest of the world combined. The other major
producers are Indian, Indonesia, Viet Nam, Bangladesh, Egypt and Norway. Total
aquaculture production was 2 to 3 million tonnes in Africa, about the same level in
Europe and Americas, and about 200 000 tonnes in Oceania. In terms of production
environment, 49 percent of world production originates from products grown in marine
waters, 43 percent from freshwater bodies, and 8 percent from brackish water.
2
Figure 2: Global aquaculture production by continent (left) and global aquaculture production by environment (right). Data are average annual production over the 2015-2017 period.
Source: based on data published by FAO (2019)
3. In addition to be an important source of food supply, aquaculture provides jobs to
almost 20 million people worldwide including 15 percent women. In Africa alone,
aquaculture is estimated to provide jobs opportunities to 300 000 people (FAO, 2018).
2. ACP STATES SITUATION
4. In 2017, aquaculture production by ACP States was 680 000 tonnes, a modest
share of the word production (less than 1 percent). As shown in the figure below,
ACP States production is largely driven by production in ACP African States, which
reflects the higher potential of the region in particular, due to the importance of its
freshwater bodies. In 2017, aquaculture production was close to 620 000 tonnes
for African ACP States, 40 000 tonnes for Caribbean States, and 12 000 tonnes for
Pacific ACP States. According to FAO data, 94 percent and 77 percent of
aquaculture production is obtained in freshwater environment in Africa and in
Caribbean respectively, and 83 percent from marine waters in the Pacific.
2% 3%
92%
0% 3%
Production by continent
Africa Americas Asia Oceania Europe
43%
8%
49%
Production by environment
Freshwater Brackishwater Marine waters
3
Figure 3: Aquaculture production by group of ACP countries
Source: based on data published by FAO (2019)
5. In Africa, the top producing countries are Nigeria (almost 300 000 tonnes in 2017),
Uganda (112 000 tonnes) and Ghana (58 000 tonnes), with significant production
in Zambia and Madagascar. Nigeria, Uganda and Ghana are also the ACP
countries which witnessed the most important development of their aquaculture
sector since 2000. Zambia is another country that has witnessed a significant
production of its aquaculture sector in relative terms with a three-fold increase in
volumes since 2011. By contrast, aquaculture production in other African States
tended to stagnate, and decreased in some cases (ex. Kenya, Mozambique).
6. In the Caribbean, the top producing country is by far Cuba (31 000 tonnes in 2017,
with Dominican Republic (2 500 tonnes), Haiti (1 400 tonnes), Jamaica (1 300
tonnes) and Belize (1 100 tonnes) having some significant production. For most
Caribbean countries, aquaculture production remained stable since 2000, even
decreasing in 2017 compared to past levels (ex. Belize, Cuba). Only Haiti shows
some increase in national production over the past few years.
7. In the Pacific, Solomon Islands (10 600 tonnes in 2017) and Papua New Guinea
(6 000 tonnes) and Kiribati (3 600 tonnes) are the three top producers. Production
significantly increased in Solomon Islands and Papua New Guinea since 2010,
stagnated in other countries and decreased in Kiribati.
0
100000
200000
300000
400000
500000
600000
700000
800000
Ton
nes
ACP States aquaculture production
Africa Caribbean Pacific
4
8. The next table shows the main groups of species grown in the different ACP
regions. In Africa, production is dominated by tilapias and catfish, preceding carps.
All these fish species are omnivorous freshwater species with some tolerance to
salinity (brackishwater environment). In the Caribbean, production is dominated in
weight by carps, but by shrimps in value (mostly in Cuba and Belize). For Pacific
States, seaweeds (euchemas) are the main aquaculture species grown at present.
Table 1: Main groups of species grown in the three ACP regions
Africa Caribbean Pacific
Tilapias (Clichidae) (248 000 t) Catfish (Clariidae) (235 000 t) Carps (Cyprinidae) (30 000 t) Seaweed euchema (Solieriaceae) (25 000 t)
Carps (Cyprinidae) (17 600 t) Shrimps (Penaeide) (7 400 t) (mostly P. vannamei) Catfish (Clariidae) (6 500 t) Tilapias (Clichidae) (4 000 t)
Seaweed euchema or elkhorn (Solieriaceae) (10 000 t) Tilapias (Clichidae) (1 450 t) Carps (Cyprinidae) (400 t)
Source : based on data published by FAO (2019)
9. Aquaculture can take a number of different forms and operate at various scales. It
can vary from subsistence-level ‘backyard’ fish farming in the family pond to the
industrial-scale production of thousands of tonnes from a single site, often destined
for overseas markets. Aquaculture systems may be characterised by their
productivity, for example, from simple pond farms to high yield re-circulation
systems. In the context of rural development, a most relevant classification is based
on a combination of ownership, management, labour and markets distinguishing
subsistence aquaculture and small scale commercial aquaculture with activities
integrated into small-holder farming activities, small to medium enterprises (SME)
aquaculture and industrial aquaculture (AFD et al., 2017). The different types of
aquaculture systems bring different contributions to SDGs. Whilst subsistence and
small-scale aquaculture have the potential to contribute to most of the relevant
SDGs1, SME aquaculture has the potential to be fast growing and dynamic.
However, growth may not benefit all, and intensification may introduce
environmental and socioeconomic challenges. Industrial aquaculture may support
economic growth, but its contribution to development may be low due to
mechanisation of jobs and export-orientation of production; and high environmental
risks through water pollution, fish disease outbreaks, excessive use of antibiotics
and harmful effects on biodiversity.
1 SDG 1 (No poverty), SDG 2 (Zero hunger), SDG 5 (Gender equality), SDG 8 (Decent work) and SDG 12, 13, 14 & 14 (environmental sustainability)
5
3. CHALLENGES FOR AQUACULTURE DEVELOPMENT
10. Three recent studies initiated by the ACP Secretariat confirmed that there is a
potential for aquaculture development in Africa (Kaunda, 2015), in the Caribbean
(Myvett et al., 2015) and in the Pacific (Amos et al., 2014). Whilst aquaculture
development in Africa can be supported by availability of large freshwater bodies
(inland lakes and reservoirs) with tilapia and carps as main candidate species, the
development of the aquaculture sector in the Caribbean and in the Pacific will
always be small by global standards due to natural limitations of potential sites, but
locally significant at national level in marine waters. According to these studies,
aquaculture development is challenged by many factors including inter alia poor
governance, lack of technical knowledge, increased competition for land and water,
growing environmental concerns to degrading environmental conditions,
unqualified labour forces, limited economic and/or community benefits. Other
factors, such as low R&D effort, lack of basic services and/or raw materials and
equipment and financial limitations, are also relevant.
11. As identified by the ACP action plan, the development of an adequate governance
framework is pivotal to support aquaculture development at country level.
According to FAO (2017a), an adequate governance framework includes i) a good
aquaculture administrative framework with designation of a lead agency in charge
of integrating and coordinating actions of the different ministries concerned by
aquaculture2 like for example INAQUA in Mozambique, ANAG in Guinea or ANA in
Senegal; ii) good legal and regulatory frameworks to provide aquaculture producers
with a predictable legal environment that considers inter alia security of property
rights and economic incentives as appropriate, iii) good licensing policy and
administration ensuring clear eligibility criteria and a timely process for applications,
evaluations and appeals and taking into account environmental sustainability and
social equity, iv) adequate participation of non-state actors in the decision-making
process through dedicated consultation mechanisms, v) robust aquaculture
statistics and adequate demand-oriented research in support of policy and
planning. Several ACP States engaged in this process, but according to FAO
(2017b) strategic plans generally lack clear links between various policy goals, the
specific types of aquaculture and specific support measures to be developed.
2 Administrative overlap is inevitable for aquaculture because of its complexity and diversity, typically involving may sectors (e.g. water, land, agriculture, forestry, fisheries, transport, health and tourism)
6
12. In order to support governance, FAO (2018) encourages use of spatial planning as
a fundamental tool to integrate management of land, water and other resources
and to enable the sustainable development of aquaculture in a way that
accommodates the needs of competing economic sectors and minimizes conflict.
Use of unmanned drones has been reportedly used in Angola for this purpose.
13. Availability of seed is the first factor limiting commercial production. The availability
of seed remains a serious problem in many ACP countries, in particular in Africa
and in the Caribbean. Dedicated commercial hatcheries are functional in some
countries (e.g. Benin, Nigeria, Ghana, Uganda, Kenya, Zambia, Madagascar, etc.)
and projected in others like Cameroon or Gabon. In terms of seed, there has been
significant developments in the last ten years including the development of
appropriate technologies to produce all-male tilapia fingerlings, making production
of a crop comprised primarily of high-value large fish possible; and spawning of
catfish in large numbers using injections of fresh pituitary followed by hand-
stripping. These techniques are now widely known and practiced in several
countries. Seed production is presently a profitable segment of aquaculture in Africa
(Aulanier et al., 2011). Quality of seed has been improved recently as evidenced
by the successful development of the Akombo strain of tilapia extensively used in
Ghana.
14. Availability of aquafeed for commercial production is also commonly cited as a
bottleneck for development. Although there is an expansion of local feed milling
capacity underway in a number of countries (e.g. Ghana, Kenya, Nigeria, Gambia),
significant quantities of aquafeed are imported. However, there are frequent
aquafeed shortages or some of the aquafeed produced of poor quality. The price
of aquafeeds varies between countries and within countries due to source of import
and for locally produced feeds the costs of feed ingredients and seasons. Feed
costs tend to increase and can represent in excess of 60 percent of production
costs. This being said, the orientation of production on freshwater omnivorous
species reduces reliance on imported fish meal and fish oil. As shown in the
following figure, tilapia, catfish or carps require less fish meal and fish oil as
ingredient, compared to carnivorous species. This has positive impacts on prices
and availability, but also on environment as fish meal production is an issue of
concern for sustainability of wild fish stocks (see Naylor et al. (2000) for example).
7
Figure 4: Estimated use of fish meal (percentage of dry feed basis) within aquafeeds in 2008
Source: Bostock et al. (2010)
15. Access to finance is another hindrance to aquaculture development, in particular
for small holders. Commercial credit and insurance providers continue to be risk-
averse regarding aquaculture, and it is also the case for small-scale fishing.
However, access to credit has improved in many of the major aquaculture
producing countries as operators have demonstrated that, with a pivotal shift to a
commercial-oriented model, aquaculture is a viable proposition. In countries like
Kenya, Niger, Nigeria and Uganda, governments have set up specific credit
schemes to support the development of commercial aquaculture. However, in many
countries producers still depend on non-formal sources and this reduces their
capacity to invest in production systems and to finance operating costs (feed, seed,
water management).
16. Provisions for training and development of skills and knowledge in aquaculture are
important issues to address to ensure the long-term development of the sector.
There is a need to raise awareness of targeted populations, including women, on
the potential of aquaculture and new developments in the sector, and to develop
adequate sensitisation and training materials for fish farmers. Aquaculture research
centres and other relevant agencies have a role to play through the development
of short-term technical and vocational training courses for basic and continuing
training on aquaculture for small-scale operators. Higher level tertiary education in
aquaculture should also be encouraged for researchers and civil servants to scale
up management capacities. As examples of good practice, Kenya developed a
National Aquaculture Development (Sagana) and is considering developing a
Mariculture Resources Centre on the coast, and the EU-funded Sustainable
Aquaculture Research Networks for sub-Saharan Africa (SARNISSA) project could
link researchers, farmers and the private sector and had proved highly effective in
promoting networking within the farming community and as an information and
educational tool.
8
17. The value chain for aquaculture products is generally not well developed, in part because of poor infrastructure and insufficient policies and programmes directly related to value chain development. These include information awareness raising and coordination of value chain activities, developing skills and increasing innovation, increased access to finance and promoting inclusive standards. Successful production at farm level is just one part of the value chain. In order to succeed long term, aquaculture needs to be profitable and it is essential that reliable markets are secured with a potential value chain that ensures financial viability for all participants. This aspect needs serious consideration during the design phase, as it might influence key design criteria, such as species selection (reflecting market demand, price and seasonality), system design (which in turn influences input sourcing and costs, margins and risk), production scheduling, processing and transformation. Value chain analysis is now an established tool for assessing the equity and integrity of value chains and designing interventions to address any issues found. As an example, the value chain analysis of the Zambia aquaculture sector showed that smallholders and large producers could contribute more and better to the sector, the economy and society in general, by overcoming issues and limitations in relation to promotion of innovations and strengthening of governance framework including development policies and strategies, capacity development, and gender and youth issues (Kruijssen et al., 2018).
18. Some countries (e.g. Kenya, Nigeria, Ghana) raised concerns about unfair
competition from cheap imports, from subsidised tilapia from China. Cheap imports in Africa of tilapia may consist of products unfit for sale in developed markets of USA or EU due to high concentrations in growth hormones and heavy metals. In addition to threatening consumer health, imports deprive local operators from access to national or sub-regional markets. Some States tried to impose bans or limitations on tilapia imports from China, but with limited effects so far due to the bargaining power of China and multiple opportunities to circumvent trade measures through imports through other countries.
9
4. KEY TAKE-AWAY MESSAGES FOR ACP FISHERIES MINISTERS
In most ACP States, aquaculture has not yet realised its full development potential. For
most countries, aquaculture production stagnated or even decreased over the past few
years. However, the example of some African countries demonstrate that aquaculture
development is possible.
The development of an adequate governance framework is pivotal to support
aquaculture development. An adequate governance framework includes definition of a
strategic roadmap with clear links between various policy goals, the specific types of
aquaculture and specific support measures to be developed; and accompanying legal
and regulatory frameworks that provide aquaculture producers with a predictable legal
environment. In this respect, spatial planning is now more and more used to support
decision-making
Aquaculture of low-trophic species like tilapias or carp should be considered as the
starting point to capitalise on experience. A value-chain approach should be favoured,
ensuring that aquaculture activities are considered as part of a wider network of
interdependent businesses that includes in particular feed and seeds providers.
5. REFERENCES
AFD, EU, GIZ (2017) Opportunities and challenges for aquaculture in developing countries.
Joint Report.
Amos, M., Garcia, R., Pickering, T., Jimmy, R. (2014) Study on the Potential of Aquaculture in
the Pacific. ACP / CTA report. 55 pp.
Aulanier, F., Desprez, D., Napuru, A., Mikolasek, O. (2011) Role of the private sector in fry and
fingerling production in Uganda, SARNISSA. Avalable at: www.sarnissa.org.
Bostock, J., McAndrew, B., Richards, R., et al. (2010) Aquaculture: global status and trends.
Philosophical transactions of the Royal Society of London. Series B, Biological
sciences 365, 2897-2912. [In eng] 10.1098/rstb.2010.0170.
FAO (2017a) Aquaculture development. 7. Aquaculture governance and sector
development. FAO Technical Guidelines for Responsible Fisheries. N° 5 Suppl. 7,
Rome 50 pp.
FAO (2017b) Regional review on status and trends in aquaculture development in sub-
Saharan Africa – 2015, by Benedict P. Satia. FAO Fisheries and Aquaculture Circular.
No. 1135/4, Rome, 44 pp.
FAO (2018) The State of World Fisheries and Aquaculture 2018 - Meeting the sustainable
development goals. Rome. Licence: CC BY-NC-SA 3.0 IGO.
FAO (2019) Fishery and Aquaculture Statistics. Global capture production 1950-2017
(FishstatJ). In: FAO Fisheries and Aquaculture Department [online]. Rome. Updated
2019.
Kaunda, E. (2015) Study on the Potential of Aquaculture in Africa. ACP / CTA report. 39 pp.
10
Kruijssen, F., Avadí, A., Cole, S., Mungule, C.M., van Duijn, A. (2018) Aquaculture Value Chain
Analysis in Zambia. Report for the European Commission, DG-DEVCO. Value Chain
Analysis for Development Project (VCA4D CTR 2016/375-804). 98 pages + annexes.
Myvett, G., Haughton, M., Murray, P. (2015) Study on the potential of fish farming in the
Carribean. CRFM Technical and Advisory Document. Number 2014/2, 76 pp.
Naylor, R.L., Goldburg, R.J., Primavera, J.H., et al. (2000) Effect of aquaculture on world fish
supplies. Nature 405, 1017-1024. 10.1038/35016500.