-
Presentation
Presentation
The curricular unit Integrated Management of River Basins and Coastal Zones is part of the Environmental Engineering program as a fundamental component for understanding and sustainably managing continental and coastal water systems, recognizing the strong interconnections between river basins, transitional zones, and the marine environment. The course addresses the main challenges related to anthropogenic pressures, climate change, risk management, and the reconciliation of water and land uses, promoting an integrated and systemic perspective consistent with the principles of environmental engineering. In this context, students develop a critical understanding of planning, management, and governance instruments applicable at different scales, reinforcing essential competencies for professional practice and informed decision-making in complex, multidisciplinary contexts.
-
Class from course
Class from course
-
Degree | Semesters | ECTS
Degree | Semesters | ECTS
Bachelor | Semestral | 5
-
Year | Nature | Language
Year | Nature | Language
3 | Mandatory | Português
-
Code
Code
ULHT39-26248
-
Prerequisites and corequisites
Prerequisites and corequisites
Not applicable
-
Professional Internship
Professional Internship
Não
-
Syllabus
Syllabus
Theoretical: Water and civilization. Principles, concepts and objectives of water management. Analysis of availability, uses and other pressures. Water resources planning system and articulation with land use planning. Measurement programs. Cross-border issues. Management of land use and water resources in upstream sub-basins. Reservoir management and protection plans. Management of ecological flows and sediment transport Management of water quality. Management and protection of water collection, storage and distribution systems. Interaction with coastal zones. Mathematical modeling as a management support tool. Basic concepts of systems analysis and modeling Integrated watershed modeling. Interaction between water, soil and land use. Biogeochemical cycles in soil and water. Practice: Integrated modeling of hydrographic basins. Interaction between water, soil and land use. Coastal modeling. Coastal dynamics. Simulation of coastal flooding.
-
Objectives
Objectives
Develop skills in the field of water resource planning, protection of water bodies and aquatic ecosystems, licensing, and water use management. Translate knowledge of watershed functioning into measures and strategies for water and land use management. Identify the main challenges/risks/opportunities in the face of climate change. Develop skills in the use of mathematical models to solve planning and management problems. Develop plans and strategies for adaptation to climate change in the face of hazards, vulnerabilities, and risks to surface water resources. Understand the concepts associated with the coastal zone (anamorphic and catamorphic environments). Understand: dynamics of transitional/coastal environments; local/global driving factors; dynamic processes in the evolution of coastal zones; past and future evolution of the Portuguese coastline.
-
Teaching methodologies
Teaching methodologies
Theoretical concepts are presented in class alongside illustrative exercises. Students are also required to complete assignments. Assessment is based on a weighted average of assignments (40%) and two midterm exams (30% + 30%) or a final exam (60%). The minimum grade for each component (T and P) is 8. The final weighted grade must be higher than 9.5 points. Students have the option of taking an exam covering all the material taught in the theoretical and theoretical-practical classes if they do not meet the above requirements in the continuous assessment or if they so choose. In each test or exam, students may be called for an oral test, in any circumstance and without restrictions, to confirm their grade before the professor.
-
References
References
Beatley, T., Brower, D. J., & Schwab, A. K. (2002). An introduction to coastal zone management (2nd ed.). Island Press. 352 p. Daniel P. Loucks and Eelco van Beek with contributions from Jery R. Stedinger, Jozef P.M. Dijkman, Monique T. Villars. (2005). Water Resources Systems Planning and Management - An Introduction to Methods, Models and Applications: UNESCO, http://ecommons.cornell.edu/handle/1813/2804. Davis, R. A., Jr., & Fitzgerald, D. M. (2020). Beaches and coasts (2nd ed.). John Wiley & Sons. 536p. Komar, P. D. (1998). Beach processes and sedimentation (2nd ed.). Prentice Hall. Masselink, G., Hughes, M., & Knight, J. (2011). Introduction to coastal processes and geomorphology (2nd ed.). Routledge. Diversas páginas de internet institucionais (Carta Geotécnica de Lisboa, Lisboa Interactiva, GeoPortal, Catálogo ICNF, etc).
-
Assessment
Assessment
Descrição
Data limite
Ponderação
AVALIAÇÃO CONTÍNUA
2 Testes ou Teste global
Trabalho(s)
a combinar
30% + 30% ou 60%
40%
EXAME (T e P)
de acordo com o calendário de exames
100%
A nota mínima em cada componente (T e P) é 8 valores. A nota final ponderada tem de ser superior a 9,5 valores.
Podem usar IA para pesquisa de informação mas devem sempre confrontar com fontes fidedignas e informar onde foi usada (textos, figuras, gráficos, etc).
Em momentos presenciais de avaliação (escrita ou prática: frequências, teste global, exame) NÃO É PERMITIDO o uso destas ferramentas e se o aluno copiar ou utilizar a IA, a prova será anulada.
Em cada teste ou exame o aluno pode ser chamado para uma prova oral, em qualquer circunstância e sem restrições, para confirmar a nota perante o docente.
-
Mobility
Mobility
Yes





