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General information |
Course unit name: Aquaculture as a Productive Sector
Course unit code: 568747
Academic year: 2021-2022
Coordinator: Maria Isabel Navarro Alvarez
Department: Department of Cell Biology, Physiology and Immunology
Credits: 10
Single program: S
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Estimated learning time |
Total number of hours 250 |
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Face-to-face and/or online activities |
76 |
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- Lecture |
Face-to-face |
76 |
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Supervised project |
66 |
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Independent learning |
108 |
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Learning objectives |
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Referring to knowledge The general objective at the end of the course is to have the knowledge to successfully manage an aquaculture operation, mainly with fish.
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Teaching blocks |
1. Technology for aquaculture production
1.1. Identification of the product and its market
Analysis of market demands: volume of fish consumed, trends
Analysis of the supply from aquaculture: volumes, countries, species
1.2. Product definition
Product definition concept
Identification of the main biological, physical and economic-financial criteria
Influence of technical management on the viability of the operation
1.3. Bioprogramming of an aquaculture farm
General objective of bioprogramming
General methodology
Development of an example in a computer room
1.4. Technical management of a farm
General objectives of technical management. Influence of technical management on the viability of the operation
Specific objectives of technical management
Management routines:
1.5. Sustainability in aquaculture
Sustainability indicators of an aquaculture operation
2. Facilities engineering
2.1. Aquaculture production systems
Classification and description of the main aquaculture production systems
Identification of its productive and environmental limitations
2.2. Water quality requirements
Effect of environmental variables on fish physiology. Temperature. pH. Salinity. Dissolved oxygen. Carbon dioxide. Gas supersaturation. Amoni. Nitrites. Nitrates. Turbidity. Aquatic toxicology
2.3. Load capacity of the facilities
Estimation of the load capacity of the systems according to the availability of oxygen and the concentrations of metabolites
2.4. Facility design
Offshore facilities: site. Anchorage. Types of cages. Facilities and equipment of the farms
Ground installations: water collection and pumping. Flow control. Types of tanks. Control of thefouling. Effluent treatment
2.5. Water treatment in recirculation systems
Principles of mechanical filtration, biological filtration and sedimentation. Biological filter design methods
Aeration and oxygenation
Disinfection
Operation and management of recirculation systems
3. Economic and financial management of the aquaculture company
3.1. The aquaculture company as a system
3.2. The management of aquaculture companies
The planning function
The organization function
The management function
The control function
Human resources management
3.3. The business decision
Decision environments
Analysis tools: regression analysis and linear programming
Decision criteria in uncertain environments
Probability and risk
Pert method and Gantt charts
3.4. Financial resources
Annual report and accounts
Sources of funding: own and others
Self-financing. Depreciation and dividend policy
Average ripening period: economic and financial
The working capital
3.5. The dynamics of financial ratios
Short-term ratios
Long-term ratios
3.6. Study of profitability and growth
Economic profitability
Financial profitability
Growth models. Self-sustaining growth capacity
3.7. Investment analysis
Investment concepts and classification
Relevant variables of an investment plan
Temporary analysis of investment projects
Static method. Recovery period or payback
Dynamic methods. NPV and IRR criteria
3.8. The company’s production system
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Reading and study resources |
Check availability in Cercabib
Book
Belaud, A. (1995) OXYGENATION DE L’EAU EN AQUACULTURE INTENSIVE. Cépaduès-Editions, France ![]()
BEVERIDGE, M.C. (2004) Cage Aquaculture. Blackwell Publishing, Oxford, UK. ![]()
FAO (2001) Integrated agriculture-aquaculture: a primer. Editorial FAO, Rome, Italia. ![]()
HUNTINGFORD, F. (2012) Aquaculture and behavior. Ed. Wiley-Blackwell, UK. ![]()
JOBLING, M. (1994) Fish bionergetics. Chapman and Hall. Fish and Fisheries Series 13. London, UK. ![]()
LEKANG, O.-I. (2007) Aquaculture Engineering. Blackwell Publishing, UK. ![]()
PILLAY, T.V. (2004) Aquaculture and the environment. 2nd ed. Chichester : John Wiley & Sons ![]()
RANKIN, J. C. & JENSEN, F. B. (1993) Fish ecophysiology. Fish and Fisheries Series, 9. Chapman & Hall, UK.
SCHRECK, C.B. & MOYLE, P.B. (1990) Methods for fish biology. American Fisheries Society, USA. ![]()
STICKNEY, R.R., McVEY, J. P. (2002) Responsible marine aquaculture. CABI Publishing, Oxon, UK ![]()
UICN (2007) Interactions entre l’aquaculture et l’environnement. Malaga, Spain
TIMMONS, M. B., & EBELING, J.M. (2010) Recirculating Aquaculture. USDA. 2nd Edition. ![]()
VERDEGEM, M. (2009) Water use and re-use in aquaculture. Wiley-Blackwell, USA.
WEDEMEYER, G.A. (1996) Physiology of fish in intensive culture systems. Chapman and Hall. ![]()