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  • Coastal Morphodynamics and Engineering
  • Coastal Morphodynamics and Engineering








    (1) General



    School:Of the Environment
    Academic Unit:Department of Marine Sciences
    Level of studies:Undergraduate
    Course Code:191ΕΩ6ΥSemester:F
    Course Title:Coastal Morphodynamics and Engineering
    Independent Teaching ActivitiesWeekly Teaching HoursCredits
    Total credits5
    Course Type:
    Special background
    Prerequisite Courses:
    No
    Language of Instruction and Examinations:
    Greek
    Is the course offered to Erasmus students:
    Yes
    Course Website (Url):https://www.mar.aegean.gr/?lang=en&pg=3.1.1&lesson=1061

    (2) Learning Outcomes

    Learning Outcomes


    After the successful completion of the course, students should be able to:

    • Understand the basic principles, theory and mathematical equations of coastal engineering

    • Know the main types of coastal environments and understand their function

    • Maintain an integrated approach of processes and transport phenomena in the coastal area

    • Understand the environmental factors controlling coastal geomorphological evolution (morphodynamics)

    • Understand the implementation options of coastal morphodynamics and engineering

    • Use the acquired knowledge to solve real problems

    • Use of state-of-the-art software for the analysis of topographic and meteorological data

    • Use morphodynamic models to simulate nearshore morphological evolution of the coasts and estimate shoreline retreat due to sea level rise

    General Competences


    • Search for, analysis and synthesis of data and information, with the use of the necessary technology

    • Team work

    • Respect for the natural environment

    • Production of free, creative and inductive thinking

    (3) Syllabus


    The course includes the following topics:

    • Elements of wave engineering, Circulation - mixture and sediment transport, Coastal structures and coastal morphodynamics

    • Wave characteristics, Linear and non linear wave theory

    • Shoaling, Refraction, Diffraction, Breaking, Reflection, Runup

    • Typology of currents, Processes in the wave breaking zone, Coastal wave-generated currents (long-shore currents, rip currents)

    • Generation of wind waves, Statistical analysis and energy spectra, Empirical models of wave forecasting

    • Coastal sediments (nature/special characteristics), Movement of sediments and bottom shear stress, Mechanism of sediment transport, Quantitative equations of sediment transport

    • Cross-shore sediment transport, Long-shore sediment transport, Coastal sediment budget, Coast-coastal works interaction

    • Pressure on the coast, Mean Sea Level Rise, Episodic extreme sea levels (storm surge, wave set-up), Coastal retreat/inundation, Vulnerability of coastal infrastructures

    • Coastal erosion, Natural and anthropogenic causes of coastal erosion, Coastal protection schemes under current and future climate

    • Construction materials of coastal works, Jetties, Groins, Breakwaters, Sea walls, Morphological responses from coastal works, Climate change and coastal works

    • Monitoring methods of coastal morphodynamics, The challenges of spatio-temporal scales, Collection of morphodynamic and sediment dynamic data using state-of-the-art equipment, Laboratory experiments in wave tank, Remote sensing methods, Optical monitoring methods

    • Simulation of coastal morphodynamics, Categorization of the models, Sensitivity and validation of the models, Simulations under climate change, Case studies


    (4) Teaching and Learning Methods - Evaluation


    Delivery:

    Face to face

    Use of Information and Communication Technology:
    • Computer-based laboratory exercises using Guide User Interfaces (GUIs)

    • Use of ICT in teaching (PowerPoint presentations)

    • Communication with students through the platform eclass and email

    • Uploading of lecture slides and other educational material on e-class

    Teaching Methods:
    ActivitySemester workload
    Lectures40
    Laboratory exercises22
    Independent study35
    Homework25
    Final exam3
    Course total125
    Student Performance Evaluation:
    • Assessment of the knowledge base is through a combination of coursework submissions (30%) as well as final examination (70%).

    • Students with writing difficulties are tested orally

    • Language of evaluation: Greek, in case of ERASMUS students: English




    (5) Attached Bibliography


    - Suggested bibliography:

     

    a) Basic Text books:

    b) Additional References:

      • Coastal engineering manual, (2008). U.S. Army Corpses of Engineers. https://www.publications.usace.army.mil/USACE-Publications/Engineer-Manuals/

      • Robert G. Dean and Robert A. Dalrymple, (2000). Water wave mechanics for engineers and scientists. World Scientific Publishing.

      • Robert G. Dean and Robert A. Dalrymple, (2002). Coastal processes with engineering applications, Cambridge University Press.

      • Μέμος Κ. (2005): Μαθήματα Λιμενικών Έργων, Εκδ. Συμμετρία, Αθήνα

      • Sawaragi T., (1995). Coastal engineering - waves, beaches, wave-structure interactions, Elsevier, The Netherlands.

      • Robert Sorensen, (1997). Basic coastal engineering, Springer (Editor).

      • Crossland Ch. (2005) Coastal Fluxes in the Anthropocene, ISBN-10 3-540-25450-10 (e-book) Springer Berlin Heidelberg New York

      • Nick Harvey, Global Change and Integrated Coastal Management, ISBN-10 1-4020-3628-0 (e-book)

      • Koutsogiannis D. & Xanthopoulos (1999) Technical hydrology, NTUA

      • Mimikou M. (2006) Water Resources Technology, Papasotiriou