Coastal and Offshore Engineering (B-KUL-B3079Q)

6 ECTSEnglish78 Second termCannot be taken as part of an examination contract
Anogiatis Georgios (coordinator) |  Anogiatis Georgios |  Beerlandt Jadon (cooperator) |  Rauwoens Pieter (cooperator)
OC Bouwkunde - Campus Brugge

Learning outcomes and development goals:

  • MK1L Scientific-disciplinary knowledge and comprehension in the field of Engineering Technology
  • MK2L Advanced and up-to-date scientific-disciplinary knowledge and understanding in the field of Civil Engineering Technology and/or Surveying Engineering Technology: Structural design of structures, Civil infrastructure and Geotechnics, Construction techniques, Energy Efficiency and Comfort, Materials management, Surveying and Geomatics
  • MI1L Problem analysis and solving
  • MI2L Design and/or development
  • MI2V Creative and innovative attitude
  • MI4L Ethical behaviour
  • MI4V Social responsability
  • MP1L To make operational
  • MG1L Information gathering and processing
  • MG2L Communication with engineers and non-engineers
  • MG3L Critical thinking
  • MG3V Self-regulation
  • MG4L Working in a team in different roles
  • MG4V Cooperative attitude
  • MG5L Professionalism

Objectives:

  • The student knows the terminology used in coastal and offshore engineering and knows the operation and construction techniques of water bound infrastructure (MK1)
  • The student understands the physical processes in coastal and offshore engineering (MK1)
  • The student understands the processes and construction techniques of soft (beaches, dunes, ...) and hard (sea walls, groins, breakwaters, jetties, quay walls, fixed and floating offshore structures, ...) water bound infrastructure (MK2)
  • The student can design complex civil infrastructure in an integrated manner both individually and in team (MK2)
  • The student can evaluate and select the proper construction methods for the design of complex structures (MK2)
  • The student is able to approach a complex problem in a methodological manner (MI1)
  • The student can select a proper solution, based on an objective approach, even if not all boundary conditions are fully known or controllable (MI1)
  • The student can design in a scientific way a water bound structure, hereby using proper calculation methods and/or software tools (MI2)
  • The student pays attention to the ethical, ecological and socio-economic aspects in the design process (MI4)
  • The student independently explores, acquires and properly cites scientific and technical information (MG1)
  • The student is tenacious and convincing when choices made are defended against a professional jury (MG2)
  • The student knows how to deal with contradictive or incomplete sources and deals critically with his/her results (MG3)
  • The student can work in a multidisciplinary environment (MG4)
  • The student is able to attain a professional attitude in order to independently honor agreements made, to show commitment and to cooperate efficiently as a team (MG5)

Geotechnics, Hydraulics, Structural Mechanics I and II

Mixed prerequisite:
You may only take this course if you comply with the prerequisites. Prerequisites can be strict or flexible, or can imply simultaneity. A degree level can be also be a prerequisite.
Explanation:
STRICT: You may only take this course if you have passed or applied tolerance for the courses for which this condition is set.
FLEXIBLE: You may only take this course if you have previously taken the courses for which this condition is set.
SIMULTANEOUS: You may only take this course if you also take the courses for which this condition is set (or have taken them previously).
DEGREE: You may only take this course if you have obtained this degree level.


FLEXIBLE(B3077R) OR FLEXIBLE(JPI0WJ) OR FLEXIBLE(YI1474)

The codes of the course units mentioned above correspond to the following course descriptions:
B3077R : Waterlopen en rivieren
JPI0WJ : Waterlopen en rivieren
YI1474 : Waterlopen en rivieren

Activities

3 ects. Coastal and Offshore Engineering: Lecture (B-KUL-B551D3)

3 ECTSEnglishFormat: Lecture33 Second term
OC Bouwkunde - Campus Brugge

Introduction

  • Climate change and sea level rise
  • Importance of coastal and offshore engineering
  • Illustrative (recent) projects

Fundamental knowledge and physical processes

  • Water level
  • Tide
  • Currents
  • Water waves, wave transformations and structural response
  • Sediment mechanics

Seabed and coastal morphology

  • Cross-shore transport
  • Longshore transport
  • Marine and aeolian sediment transport

Meteo-marine measurements

  • Bathymetry and topography
  • Marine measurement devices and databases

Coastal Defence

  • Beaches and dunes
  • Sea walls
  • Groins
  • Breakwaters
  • Jetties
  • Nature-Based Solutions
  • Construction methods and equipment

Offshore structures

  • Offshore geotechnics
  • Offshore wind, tidal, solar and wave energy
  • Gravity based, monopile, jacket foundations
  • Floating structures: stability, mooring and anchoring
  • Construction methods and equipment

Slides and reference material in the digital learning environment

Company visit - Practical lecture - Traditional lecture

Colleges are partly taught by external speakers and partly by the coordinator.
A calender specifying the contact hours is provided.

An excursion to the coast is organized to illustrate how the theory is put in practice.

 

3 ects. Coastal and Offshore Engineering: Project (B-KUL-B551D4)

3 ECTSEnglishFormat: Assignment45 Second term
Anogiatis Georgios |  Beerlandt Jadon (cooperator) |  Rauwoens Pieter (cooperator)
OC Bouwkunde - Campus Brugge

The project work considers a global pre-design of a coastal, offshore or river bound construction using a case study. The case study is formulated as an open-ended design question stimulating creativity and innovation. The students work in a team and mimic a consultancy office. The team consists of civil engineering students from the Faculty of Engineering Science and the Faculty of Engineering Technology. The objective is to demonstrate that:

  • the team can make optimal use of the skills of the group members. The team can make an initial planning and can adjust the planning when needed during the course of the project without compromising on the milestones;
  • the team can make a pre-design within the time allocated to the project;
  • the team considers alternatives;
  • the team can come up with a technically sound project taking into account the known or readily available conditions (hydraulic boundary conditions, soil conditions, …);
  • the team can deal with the uncertainty of the available information and/or they can indicate which information is missing and how it can be acquired;
  • the team considers environmental and socio-economic issues;
  • the team can defend their project in front of a professional jury.

The project is introduced by “the client”. This client can be a contractor (e.g. a large dredging company) or a governmental organization (e.g. Maritime Access section of the Mobility of Public Works and Mobility). The project starts with a brainstorm session. After a few weeks, a concept note has to be presented. During this presentation session, feedback is given to the team regarding feasibility and additional sources of information (e.g. regarding hydraulic boundary condition, … ) are pointed at. There are a number of well-defined milestones which each group has to complete. At the end of the project, each group has to give a pitch presentation in plenum. After the pitch presentation, a professional jury goes into discussion with each team individually. Each team also has to submit a final technical report.

Each group has to complete the predefined milestones. The assessment is based on timely completion of the milestones, including a final pitch, demo or  poster presentation, oral defense in front of a professional jury and a final technical and management report. The complete assessment also includes a peer assessment.

Assignment, required data and background information in digital form on the learning platform, software,…

Project work

The students elaborate the design in groups of typically 8 students. The group members are randomly assigned. During the scheduled sessions, progress will be monitored and there is the possibility to ask questions to the supervisor(s). In addition, seminars, company and / or site visits will provide a broader view on the project.

Specific contact moments require on-site presence. This can be either in Bruges, Leuven (Arenberg) or another location. Some contact moments are organized online.

 

Evaluation

Evaluation: Coastal and Offshore Engineering (B-KUL-B80025)

Type : Partial or continuous assessment with (final) exam during the examination period
Description of evaluation : Written, Project/Product, Report, Presentation, Self assessment/Peer assessment, Process evaluation
Type of questions : Open questions


OLA Coastal and River Engineering: Lectures

written examination, closed book examination.

OLA Coastal and River Engineering: Project

Permanent evaluation, according to following recipe.

The group score is calculated based on the technical report (35%), project defense in front of a jury (35%), and a score for the project management (30%)

A peer assessment score is used to apply a correction factor to the group score for each group member.

The exact process of determination of the end score and the criteria used are extensively described on Toledo.

A global score for the OPO is calculated as the average of the scores for both OLA's, with the exeptions as stipulated by the Regulations on Education and Examinations with Complementary regulation Faculty of Engineering Technology (Art. 66).

 

Participation to the activities with permanent evaluation is obligatory.

 

 

 

 

This course unit allows partial mark transfers in case of partial pass mark:

  • B551D3 - Coastal and Offshore Engineering: Lecture (during and beyond academic year)
  • B551D4 - Coastal and Offshore Engineering: Project (during and beyond academic year)

This course unit allows partial mark transfers in case of partial pass mark:

  • Coastal and Offshore Engineering: Lectures (during and beyond academic year)
  • Coastal and Offshore Engineering: Project (during and beyond academic year)

Same modality for OLA Coastal and Offshore Engineering: Lectures

Specific second examination opportunity for OLA Coastal and Offshore Engineering: Project.
In view of the specific evaluation of the project, no alternative exam is organized during the September exam period. For those students who have demonstrated sufficient commitment during the year, but who received a failing score, an exception is made and the opportunity is given to improve (part of) the technical report and present it again orally. In this case, guidance is limited to a single feedback moment.