course-details-portlet

NAUT2002

Ship stability and cargo handling 1

New from the academic year 2026/2027

Credits 7.5
Level Intermediate course, level II
Course start Autumn 2026
Duration 1 semester
Language of instruction Norwegian
Location Ålesund
Examination arrangement School exam

About

About the course

Course content

The course NAUT2002 Ship and Cargo Engineering 1 is a technical introduction to key aspects of ship design, construction, stability and operation. The course covers the theoretical knowledge requirements of STCW Chapter II, Section A-II/2, "Control of the operation of the ship and care of persons onboard.

  • Ship hydrostatics and stability: Perform calculations to determine the stability of a ship in both intact and damaged conditions. Including various issues with effects that affect stability.
  • Ship construction and drawings.
  • Regulations concerning the seaworthiness of the ship.

Learning outcome

Knowledge: The student

  • Has knowledge of key topics, theories and issues related to ship stability, trim and loading.
  • Has knowledge of principles for ship construction.
  • Has knowledge of the most important international conventions and codes that govern the construction and operation of ships, including SOLAS, MARPOL, and the Load Line Convention.

Skills: The student

  • can solve relevant theoretical, technical and practical problems related to ship hydrostatics. Example: Can calculate the change in the ship's KG during loading/unloading, and can calculate the ship's static heeling angle.
  • Can use methods and formulas that are relevant to the subject and that contribute to analytical and structured work. Example: Can use numerical integration (Simpson's rule) to calculate area and volume, and can calculate GZ (right arm) using the Wall Sided formula.
  • Can use calculation methods to assess the ship's condition. Example: Can calculate the ship's GM using the ship's rolling period, and can calculate shear force and bending moment for a simple barge.
  • Can find, critically approach, and use relevant information from the ship's documentation. Example: Can use GM minimum tables and KG maximum tables to verify stability against regulatory requirements.
  • Can present and discuss subject matter so that it illuminates the problem. Example: Can explain why the formula GZ=GM∙sinφGZ=GM∙sin𝜑 has limitations in use.
  • can use a load calculator to verify a ship's load condition.

General competence: The student

  • can convey maritime professional knowledge both in writing and orally about the ship's construction and stability.
  • can plan and carry out similar projects, both alone and together with others, related to loading, unloading operations and stability calculations.
  • has experience working towards a common goal by performing stability checks required for safe operation. Knowledge: The student
  • Has knowledge of key topics, theories and issues related to ship stability, trim and loading.
  • Has knowledge of principles for ship construction.
  • Has knowledge of the most important international conventions and codes that govern the construction and operation of ships, including SOLAS, MARPOL, and the Load Line Convention.
  • Skills: The student
  • can solve relevant theoretical, technical and practical problems related to ship hydrostatics. Example: Can calculate the change in the ship's KG during loading/unloading, and can calculate the ship's static heeling angle.
  • Can use methods and formulas that are relevant to the subject and that contribute to analytical and structured work. Example: Can use numerical integration (Simpson's rule) to calculate area and volume, and can calculate GZ (right arm) using the Wall Sided formula.
  • Can use calculation methods to assess the ship's condition. Example: Can calculate the ship's GM using the ship's rolling period, and can calculate shear force and bending moment for a simple barge.
  • Can find, critically approach, and use relevant information from the ship's documentation. Example: Can use GM minimum tables and KG maximum tables to verify stability against regulatory requirements.
  • Can present and discuss subject matter so that it illuminates the problem. Example: Can explain why the formula GZ=GM∙sinφGZ=GM∙sin𝜑 has limitations in use.
  • can use a load calculator to verify a ship's load condition.
  • General competence: The student
  • can convey maritime professional knowledge both in writing and orally about the ship's construction and stability.
  • can plan and carry out similar projects, both alone and together with others, related to loading, unloading operations and stability calculations.
  • has experience working towards a common goal by performing stability checks required for safe operation.

Learning methods and activities

Lecturing, written exercises Mandatory assignments: 3 approved compulsary individual exercises

Compulsory assignments

  • Mandatory submissions

Further on evaluation

6 hours written exam. C: Specified printed and handwritten aids permitted. Certain, simple calculator permitted.

New and postponed exam: following semester.

Specific conditions

Admission to a programme of study is required:
Nautical Studies (353MN)
Nautical Studies (353YV)

Course materials

  • Klaas Van Dokkum: Ship Knowledge, Dokmar Maritime Publishers B.V. (2008), ISBN: 978-90-71500-10-7
  • Klaas Van Dokkum: Ship Stability, Dokmar Maritime Publishers B.V. Edt 6, ISBN: 978-90-71500-37-4

Subject areas

  • Nautic

Contact information

Course coordinator

Department with academic responsibility

Department of Ocean Operations and Civil Engineering

Examination

Examination

Examination arrangement: School exam
Grade: Letter grades

Ordinary examination - Autumn 2026

School exam
Weighting 100/100 Examination aids Code C Duration 6 hours Exam system Inspera Assessment Place and room Not specified yet.

Re-sit examination - Spring 2027

School exam
Weighting 100/100 Examination aids Code C Duration 6 hours Exam system Inspera Assessment Place and room Not specified yet.