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BENEFITS OF RESPONSIBLE FISHING: THE IMPACT OF AN INNOVATIVE TRIAL OF VOLUNTARY RESTRAINT Contract No. 2003/C 115/08-17 Partners: North Sea Fishermen’s
Organisation Limited (NSFO) – Co-ordinator Cooperative Producentenorganisatie
Oost Nederland UA (CPO)
Erinshore Economics
Limited 20th
July 2005
Acknowledgements We would like to thank Teun Visser and the staff of Visafslag Urk for their help in providing the auction market data and useful comments on the text, and Andre Buijsman and the staff of GIBO Groep, accountants and business advisers, for their help in collecting the costs and earnings data. We would also like to thank the vessel-owners who kindly allowed us to have access to their accounts. Study Team: A. Read (NSFO) G. Meun (CPO) P.E. Rodgers (Erinshore Economics Limited) This
report was part-funded by the Commission of the European Communities
Directorate-General for Fisheries. The opinions represented
in this report do not necessarily reflect the views of the Commission of the
European Communities and do not anticipate the Commission's future policy in
this area. BENEFITS
OF RESPONSIBLE FISHING: THE IMPACT OF AN INNOVATIVE TRIAL OF VOLUNTARY
RESTRAINT Executive
Summary
Estimated
Gains in Revenue from Operating the Tie-Up Scheme
BENEFITS
OF RESPONSIBLE FISHING: THE IMPACT OF AN INNOVATIVE TRIAL OF VOLUNTARY
RESTRAINT Early
in 2002, members of the North Sea Fishermen’s Organisation (NSFO), in the
United Kingdom, and of the Cooperative
Producentenorganisatie Oost
Nederland UA (CPO), in
the Netherlands, realised that quotas of plaice and sole on their North Sea
fishing grounds were insufficient to ensure a fishery until the end of the
quota period and would be quickly exhausted.
In
response to this realisation, NSFO members agreed voluntarily to tie up their
vessels for one week in four during the first three months of the year.
Similarly, members of CPO limited their fishing to 40 days at sea
during the first quarter, with at least 3 weeks without any fishing activity
at all. The
intention of this action was several-fold.
First, it would ensure a more steady supply of plaice and sole to
processors and consumers. Secondly,
it could have been expected slightly to raise the price received at auction
while the tie-ups were in place, but to have prevented a sharp rise in prices
when the quota was exhausted early as had happened in 2001.
There
may also have been benefits to the fleet in slightly increased catches arising
from fishing more-abundant (less fished) stocks later in the year, as well as
a reduction in costs, due to fewer days being spent at sea.
The
temptation to fish illegally is also reduced owing to the consequent benefits
of stock conservation and future earnings.
As
such there appears to have been the chance of gains to all participants in the
supply chain right through to consumers, and also to the crew share of sales,
from this socially responsible approach. Normally,
these would be impossible to achieve without appropriate government
intervention; intervention which has been successful hardly anywhere in the
world. It represents in a sense
the ideal of fishery managers – fishing enterprises acting collectively to
constrain their action for their own and others' benefit. The
action was repeated under the same principle but slightly different terms in
2004 and 2005 but not in 2003. This
project responds to Criteria 1(3) of the Call for Proposals in that if it can
be demonstrated empirically that this innovative socially responsible
behaviour and good practice in the fisheries sector can result in gains for
the participants then there may be an incentive for others to follow, with the
consequent positive impact on illegal fishing, stock conservation and future
earnings. This
is particularly pertinent given the continued apparent failure of measures,
imposed on the fishing industry as part of the Common Fisheries Policy (CFP),
to reduce fishing effort in Northern Europe, whilst maintaining fleet
viability. The
results will be of general interest in fisheries management, serve to improve
the image of fishing, and have wider benefits for the community, preserving a
steady flow of raw material to processors and stable prices for consumers.
The
objective of this study has therefore been to identify whether, following the
voluntary restraint on fishing imposed by the NSFO and CPO during the early
part of 2002, 2004 and 2005 the expected improved price stability for plaice
and sole on the Urk auction market was achieved, and to estimate the amount of
the improvement in revenues, crew share, profits and cost-savings for the
fleet.
The
membership of CPO is made up of beam trawlers fishing for flatfish in the
North Sea. They land almost
exclusively to the markets at Urk and Harlingen.
CPO membership in 2004 consisted of more than 100 vessels of widely
varying sizes. The annual turnover
of CPO members is approximately €115 million. The
NSFO is a Producer Organisation (PO) with a membership of some 25 active
vessels representing mainly British and Anglo-Dutch beam trawlers, most of
which originate in the Dutch port of Urk.
They constitute the majority of the UK’s beam trawlers fishing in the
North Sea. The beam trawlers in
the NSFO average 35m in length; only four of the beam trawlers in membership
are the smaller class of ‘Eurocutter’ which
work mainly from ports in the south-west of England.
Total income of the 23 North Sea beam trawlers in the
NSFO, in 2004 was approximately €30 million. A
further 7 Urk beam trawlers with similar fishing patterns work within other UK
Producer Organisations. The
Anglo-Dutch vessels also land mostly into the fish auction at Urk, or
Harlingen, also in the Netherlands and the next most important market.
Urk
vessels also work under the flags of Belgium, Denmark and Germany,
representing a significant fleet tonnage in both Belgium where they comprise
approximately 25% of the beam trawl fleet and Germany, 80%. The
Dutch vessels operate under an Individual Transferable Quota (ITQ) management
system where each fishing company originally had a quota given according to
previous fishing practice and which could subsequently be traded.
Under the UK’s Fixed Quota Allocation (FQA) system each vessel has
been allocated a share of the UK fish quotas also based on track record.
The vessel quotas are allocated to a vessel’s PO and administered by
the PO. It is effectively very
similar to an ITQ system since quota may be, and is, traded, both between PO
members and between POs. The
mainstay of both Urk fishermen and the Urk fish auction has historically been
flatfish, in particular plaice and sole, and it is changes to the availability
of plaice quota that appears to have driven the move by fishermen from a
single port to be so adventurous in flagging vessels elsewhere, combined with
the financial strength induced by the Individual Transferable Quota (ITQ)
regime under which they work. Figures
2.1 and 2.2 trace the changes in plaice and sole landings and quota since
1987. Much of the behaviour of Urk
fishermen can be seen as a response to these declines, in particular to the
dramatic cut in the Total Allowable Catch (TAC)
in 1995 and again in 1996. Flagging
out tonnage to other Member States has allowed total plaice quota available to
Urk fishermen to remain relatively stable during a period of significant
overall decline in the TAC.
Figure
2.1: Landings of North Sea Plaice and the Total Allowable Catch 1987 to 2003
Source:
ICES Figure
2.2: Landings of North Sea Sole and the Total Allowable Catch 1987 to 2003
Source:
ICES Fleet
ownership remains remarkably similar to the patterns seen in Urk 20 years ago,
with the majority of vessels in single ownership, often with more than one
family member on board, and others associated with the shore side aspects of
running the vessel. A
trend towards rationalisation is discernable, but family-owned vessels remain
the mainstay of the Urk fleet. Technological
changes within the beam trawl fleet in the Netherlands have been well
documented by the European Commission. Whilst
the flagging out of the Urk fleet has continued since the first tentative
approaches to the UK around the time of the Factortame
case in the 1990s, numbers of vessels and quota available have not
increased. The changes in
ownership, with the associated costs of operating away from Urk, have been in
effect moves to maintain the status quo within the port. Under
the system of Relative Stability within the CFP, the United Kingdom has 27% of
the North Sea plaice TAC and Netherlands 38%, a combined holding of two-thirds
the stock available to be fished. Quota
prices in the United Kingdom have historically been well below those of the
Netherlands, and the quota market developed several years later than in the
Netherlands, allowing the first Dutch operators to flag into the United
Kingdom to gain access to quota at much cheaper rates than were available on
their own flag. Vessels
operating in Belgium, Germany and Denmark are allocated quotas centrally,
usually on a monthly basis. The
average British North Sea beam trawler has access to significantly more annual
plaice quota than average Dutch flagged vessels (approximately 400 tonnes
compared to 175), and significantly less sole quota (15 tonnes compared
to 50), leading to different fishing patterns evolving between what are
physically very similar vessels. Vessels each had (and still have) significantly less quota of sole and plaice than they are capable of catching; they have in the order of 70-80% of their needs for sole but only 50-60% of the plaice they could catch. [1] Dutch
vessels are likely to fish in areas where sole are found, typically the muddy
grounds in the southern North Sea, close to the Plaice Box, an area off the
coasts of Belgium, Denmark, and the Netherlands where plaice fishing is
restricted.
Vessels
flying the United Kingdom flag spend longer on grounds further north, where
sole are less abundant. Virtually
the entire Urk-based fleet leaves for the fishing grounds early on a Monday
morning, returning to land at the end of the week.
The reason for this is mainly cultural, but there has been an
increasing trend for British-flagged vessels, fishing further afield,
to fish longer trips, though many still choose not to fish on a Sunday.
The preference for fishing patterns of this type leads to very large
auctions on a Friday and Monday, with much smaller volumes of fish available
for sale midweek. Urk processors
appear to be well adapted to these peaks and troughs. The
fish action at Urk is the leading fish auction in the Netherlands, taking a
third of all Dutch sales, with a throughput of 35,500 tonnes in 2004.
The majority of this is flatfish, with 20,000 tonnes of plaice, 3,800
tonnes of sole and 2,750 tonnes of dabs. United
Kingdom vessels consigned 9,000 tonnes of fish to Urk for auction in 2004, the
bulk being from vessels owned and operated from Urk itself. Urk
vessels flagged out to Belgium, Denmark and Germany consigned a further 5,000
tonnes to the auction. 94% of the
plaice sold on the market is purchased by local processors.
A third of this is sold as fresh fish, mainly within the Netherlands,
the remainder being processed for freezing and subsequent export.
Section
3
A Literature Review of Demand and Inverse Demand Functions in the
Quayside Market for Fish The large number of studies that have been made of the landings market for fish have confirmed the responsiveness of the price of fish to the quantity landed for sale as economic theory predicts. Not surprisingly, the development of understanding of demand and inverse demand functions in general has been considerably enhanced by the emergence of information technology and the refinement of econometric techniques that powerful desk-top computers have made possible. These have made it possible to test the theory empirically. The purpose of this literature review is:
This will serve to give a sound theoretical foundation to the work to be reported later in this study. The
Inverse Relationship between Quantity and Price It has already been obvious for many years that the demand for fish and the price it obtains are responsive to supply, especially on a daily basis. For example, during the heyday of the seasonal East Anglian Herring Fishery in the early 1930s the fleet would land its catch each morning before bunkering and returning to sea. The fish processing companies in Great Yarmouth would accept all the fish for which they had capacity. When they were full the international code flag “N” would be hoisted on the fishwharf and vessels too late to land to the market would turn and dump their catch at sea. Even now the trade press carries occasional stories of perfectly good fish being withdrawn and sent for reduction because of excess supply on a particular day. These anecdotes suggest that there are limitations to the amount of fish the market can absorb on a daily basis governed perhaps by processors throughput and chilling capacity.
In the famous case of the pacific halibut in the USA an attempt was made to control output by limiting fishing effort. Instead, the year-round fishery of the early 1920s became one of only 48 hours and less in the 1990s. The economic distortion of investment on-shore resulting from the failure of the policy was the development of vast chilled storage capacity to provide steady supplies for the downstream consumer market. Adam Smith (1776) demonstrated that the price of goods will vary according to the amount becoming available for the market. In developing his rudimentary theory he was particularly influenced in his thinking by the markets for agricultural produce. He noted that a glut was accompanied by a fall in price, whereas a poor harvest would lead to high prices for the produce. This Classical view of the inverse relationship between the market-clearing price and quantity sold suggested that the determination of price was driven by supply. The Keynesians suggested that the direction of causality might be in the opposite direction. They felt that the price set by the market determined what producers could supply (Keynes 1936). This difference in view, however, is in large part due to the fact that the Keynesians were writing in a time when industrial production was in the ascendancy in the world economy. Industrialists have much greater control over the level of output than crop-growers. They are generally not subject to the responsiveness of production-in-hand to the natural factors that cause gluts and shortages in crops. An industrialist can plan to use given amounts of the factors of production and expect a certain level of output, within the variability caused only by reasons such as breakdowns and human error. This means that industry can adjust its output to the going price. The relationship between the market-clearing price of fish and the quantity sold is closer to the Classical view of markets than that of the Keynesians, because fishing enterprises do not have the tight control of output that is available to industrialists. The supply of fish is governed by the same kind of variability faced by agricultural output. Environmental factors may play a considerable part in deciding the amount of fish that is available to a market. Annual recruitment of juvenile fish to a fishery is highly variable, with the maximum being 7 times the minimum for plaice and 45 times the minimum for sole since stock assessments began in 1957 (ICES 2003). The existence of TACs has served only to cap the amount of fish that may be landed in any one year, allowing for misreported and illegal landings. However, this has not removed the natural variability of landings on a daily basis. There are several reasons for this variability. First, stock estimates may be inaccurate, and the TAC set incorrectly or in the face of a stock assessment for political reasons. Sometimes, in spite of the availability and use of fish-finders, the fish are just not about. So, whatever the stock level, there are days when fish landings are scarce or abundant. Bad weather may prevent a fleet from fishing or force it to move to a second-best fishing ground. This variability of supply to the market may be expected to drive the price.
Early work in estimating the relationship between the quantity of fish supplied and the price achieved at fish auctions concentrated on the market for fish in the USA, where Bell (1968), Nash and Bell (1969), and Waugh and Norton (1969) established the empirical linkage between the price obtained for fish and the quantity landed. Gates (1974) confirmed the relationship and showed the importance of including the size of fish as an explanatory variable in the inverse demand function. This relationship between changes in the quantity supplied and variations in the market price is called the price-elasticity of demand but is determined in a function where the quantity supplied is the dependent variable. The price-elasticity of demand gives the percentage change in quantity-sold brought about by a 1% change in the price. When the price is the dependent variable the relationship is called a flexibility. The price-flexibility of demand is the percentage change in price brought about by 1% change in quantity sold. The price flexibility is the inverse of the price elasticity. Other elasticities and flexibilities may reflect the responsiveness of demand or price to changes in another variable such as landings of another species. In a case study of the yellow-tail flounder Gates found a price flexibility of demand of -0.63, equivalent to an elasticity of -1.59. The price flexibility of the mean size of fish landed was 0.43. In Europe, Ioannidis and Whitmarsh (1987) estimated the demand relationship for plaice in the United Kingdom and found the market to be highly competitive. Their models offered high explanatory power for the effect of landings on the price level. Lagged effects explained the price achieved by landings quite sharply but the impact disappeared after a month or two. An important finding was the cross-price effect, where the price obtained for plaice was influenced by landings of other species, notably haddock. Rodgers (1987) also estimated the demand relationship for plaice in the United Kingdom, concluding that the long-run price elasticity of demand using monthly observations over the period from January 1981 to December 1986 was -3.05. The short-run elasticity was more volatile at -6.72, reaffirming the belief that the market reacts sharply to short-term over-supply. Jorgensen et al (1989) suggested that the responsiveness of price to changes in supply of sole in the Dutch market was very sluggish, taking longer than a month to adjust perhaps as a result of frictions faced by processors in adjusting capacity. They found a short-run flexibility of -0.19 which rose in the long-run to -0.57, but both were sensitive to the degree of change of supply. The mean-size flexibility was 0.12 in the short-run and 0.36 in the long-run. In the Danish market the own-price flexibility of plaice was found to be -0.074, implying that a 10% change in the volume of landings will bring about a 0.74% change in price. Table
3.1a Price Elasticities of Demand for Sole in the North European Arena
Table
3.1b Price Flexibilities of Demand for Sole in the North European Arena
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