Ocean policy research (해양정책연구)

Korea Maritime Institute (한국해양수산개발원)
권호 표지

Determining Optimal Production of Mackerel and Jack Mackerel Caught by Large Purse Seine Based on Hamiltonian Method

해밀토니안기법을 이용한 대형선망어업의 고등어.전갱이 최적어획량 결정

  • Published : 2011.12.31
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Abstract

This paper estimates optimal production, fishing efforts, and stock of mackerel and jack mackerel caught by the large purse seine with current value Hamiltonian method and surplus production model. First of all, this study investigates volume of catches and fishing efforts of mackerel and jack mackerel caught by the large purse seine to estimate intrinsic growth rate, environmental carrying capacity, and catchability coefficient. Secondly, the study analyzes landing price and unit cost per fishing effort, and social discount rate to find optimal solution of production, fishing efforts, and stock by species from the current value Hamiltonian method. As a result, optimal production, fishing efforts, and stock summed from mackerel and jack mackerel caught by the large purse seine were 173,647 ton, 25,925 hauls, and 2,532,659 ton respectively. Optimal production, fishing efforts, and stock of mackerel caught by the large purse seine were 172,972 ton, 25,082 hauls, and 2,516,906 ton and optimal production, fishing efforts, and stock of jack mackerel were 702 ton, 843 hauls, and 15,753 ton respectively. In addition, when social discount rate continuously augments, the optimal production, fishing efforts, and stock of both species also increased. With increasing intrinsic growth rate of mackerel and jack mackerel, the optimal production, fishing efforts, and stock of them also increased. However, changing in the landing price and the cost per haul of both species, signals of the optimal production and stock of them were moved into opposite direction respectively. In conclusion, this study found that the large purse seine gears would catch much more mackerel with relatively high economic efficiency than jack mackerel under the optimal condition.

Keywords

References

  1. 국립수산과학원, 한국 연근해 2007년도 TAC 대상어종에 대한 어획동향 분석 및 자원상태 평가, 2006, pp. 7-37.
  2. 박장일, "현대자본이론과 최적어업관리", 수산경영론집 제23권 2호, 1992, pp. 53-66.
  3. 유동운․강세훈, 자원경제학 , 법문사, 1989, pp. 187-197.
  4. 조정희․홍성걸, "고등어 최적어획량 추정에 관한 연구 - 생물경제모델을 이용하여", 농업경제연구 , 제43권 2호, 2002, pp. 35-55.
  5. 조정희․이정삼․남종오, 생물경제모형을 이용한 수산물 최적생산량 추정 및 활용에 관한 연구 , 한국해양수산개발원, 2009, pp. 1-153.
  6. 최종열․김도훈, "자율갱신적 어업자원의 최적 생산 결정 : 고등어 대형선 망어업을 사례로", 한국생산관리학회지 , 제20권 1호, 2009, pp. 109-126.
  7. 통계청, 어업생산동향조사 및 어업경영조사, 각 연도, http://kosis.kr/
  8. 한국해양수산개발원, 대형선망어업 전진기지 조성을 위한 타당성 분석 연구 , 2008, pp. 1-131.
  9. Clark, C. W. and G. R. Munro, "The Economics of Fishing and Modern Capital Theory: A Simplified Approach", Journal of Environmental Economics and Management, 1975, 2:92-106. https://doi.org/10.1016/0095-0696(75)90002-9
  10. Clark, C. W., F. H. Clarke and G. R. Munro, "The Optimal Exploitation of Renewable Resource Stocks: Problems of Irreversible Investment", Econometrica, 1979, 47:25-47. https://doi.org/10.2307/1912344
  11. Clark, C. W., Mathematical Bioeconomics, John Wiley & Sons, 1990, pp. 1-386.
  12. Conrad, J. M., Resource Economics, Cambridge, 1999. pp. 44-49.
  13. Fleming, C. M. and R. R. Alexander, "Single-species versus Multiple-species Models: the Economic Implications", Ecological Modelling, 2003, 170:203-211. https://doi.org/10.1016/S0304-3800(03)00227-8
  14. Hanley, N., J. F. Shogren, and B. White, Environmental Economics, In Theory and Practice, New York Oxford University Press, 1997, pp. 308-311.
  15. Jung-Hee Cho, Optimal Exploitation of Atlantic Herring Stocks in U.S.A.: Bioeconomic Model for Atlantic Herring, Ph.D. Dissertation, Environmental and Natural Resource Economics, University of Rhode Island, 2001, pp. 45-56.
  16. Ragozin, D. and G. Brown, "Harvest Policies and Nonmarket Valuation in a Predator-prey System", Journal of Environmental Economics Management, 1985, 12:155-168. https://doi.org/10.1016/0095-0696(85)90025-7
  17. Skonhoft, A., "On the Optimal Exploitation of Terrestrial Animal Species", Environmental Resource Economics, 1999, 13(1):45-57. https://doi.org/10.1023/A:1008261206811