AT-334 Arctic Marine Measurements Techniques, Operations and Transport (10 ECTS)

Autumn semester, (August–September), annually. Cancelled in 2020.
10 ECTS with AT-834
Letter grade (A through F)
Lecture notes and selected papers will be handed out (ca. 300 pages).
10/20 students (AT-334/834 in total)
Bilingual dictionary between English and mother tongue
April 15, 2020


Martin Ludvigsen
Martin Ludvigsen
Adjunct Associate Professor, Marine technology

UNIS contact person: Aleksey Shestov

Course requirements:

Enrolment in a relevant master programme. Knowledge in mathematics/statistics and mechanics/physics corresponding to an engineering bachelor level.

Academic content:

The course addresses instrumentation, cybernetics and measurements/analysis of parameters and operations in the Arctic marine environment relevant for the offshore oil and gas, shipping and ocean science. The course consists of 3 modules:

  • Module I: Physical-statistical characterization of Arctic marine environment, in particularly sea ice and icebergs
  • Module II: Sensors, sensor platforms and control techniques for marine surveillance and marine operations in the Arctic including autonomous systems (underwater, surface and aerial) and dynamic positioning and thruster assisted position mooring of ships and floaters in ice
  • Module III: Design and operations of ships in ice, Arctic transport and shipping

In Module I, the different sea ice environment is described and classified with respect to age, distance to land/open water, and type. The topics include ice formation and growth, icebergs source and properties, ice ridge properties and processes, and sea ice drift. The students will spend time the two first weeks in the UNIS ice laboratory and study level ice formation and growth, and the process and properties of ice ridges. They will submit reports. Module I gives the basis for the two other modules.

In Module II, autonomous sensors and sensor platforms including underwater vehicles, surface and aerial vehicles in addition to dynamic positioning and thruster assisted position mooring of ships and floaters will be addressed. This includes introduction to sensors and signal processing, mathematical modelling of loads and response from sea and ice loads, control system design, autonomy aspects, and requirements for operations in an Arctic environment with extreme coldness, darkness and remoteness. Fieldwork with underwater vehicles (ROV and AUV) for marine mapping and monitoring in Isfjorden will be carried out to demonstrate principles of sensors, sensor platforms, control systems and autonomy.

In Module III, Arctic shipping and transport is discussed. The essential differences between an Arctic and a non-Arctic environment is the presence of sea ice and icebergs, in addition to factors such a low temperatures, remoteness, darkness (in the winter), icing, less communication and other things. The design of icebreakers and ice-enforced ships will be discussed, both through codes and standards and by presenting and discussing the ongoing research activities to improve the engineering practice. Aspects of risk and safety will be covered.

Application areas are shipping, offshore oil and gas, fisheries and aquaculture, and ocean science.

Learning outcomes:

Students will acquire basic knowledge in quantifying the physical environment through measurements, analysis and simulations. The knowledge of the students is relevant to the industry and the society as a whole. Students will develop competence through lectures and group work related to several case studies.

Upon completing the course, the students will have:

  • basic knowledge about sea ice features, sensors and techniques for marine surveillance in the Arctic.

Upon completing the course, the students will be able to:

  • describe the conditions for sea ice formation, the ice growth process and general level ice thicknesses in different Arctic and sub-Arctic areas, especially the Barents Sea and the Fram Strait
  • describe the relevant physical-statistical properties of ice ridges and iceberg and the processes determining these
  • formulate the equations for description of sea ice drift
  • use the codes to determine ice loads on ships and ice breakers and understand the fundamental assumptions behind these rules and discuss the ongoing research
  • determine the relevant parameters in an Arctic marine environment required for design and operation of ships and icebreakers
  • understand the concept of mathematical modeling for design, analysis and verification of marine control systems for ships, rigs, underwater vehicles and slender structures operating in an Arctic climate
  • understand the fundamental structure and architecture in marine control systems from low-level control of motors and propellers to high-level control and optimization including autonomy subject to the particular marine operation, desired behavior and constraints
  • understand fundamental safety and operational requirements for operation of sensors, sensor platforms and ships in an Arctic environment.

General competences
Upon completing the course, the students will:

  • have competence in using sensors and techniques for marine surveillance (subsea and aerial) and marine operations both for data collection as well as using these data in operations of structures in the Arctic
  • be able to estimate ice loads and impact on control system design on e.g. icebreakers and ships operating in different ice conditions.

Learning activities:

The course extends over a period of ca. 5 weeks including compulsory safety training, and is run in combination with AT-834.

The lectures will provide an overview of theoretical concepts and explain how these concepts can be applied in a practical context. The laboratory work and fieldwork will give the students a hands-on experience of instruments and measurements techniques. Students are to write reports from laboratory and fieldwork, and these reports will be organized as scientific/technical papers so that the students get practical experience in how to communicate their work.

Total lecture hours: 35 hours.
Exercises and data analysis: 25 hours.
Excursions: 1 day.
Fieldwork: 2–3 days.
Laboratory work: 5–10 days.
Work on field/lab logs, reports, assignments: 30 hours.

Compulsory learning activities:

Participation in fieldwork and laboratory work.
All compulsory learning activities must be approved in order to sit the exam.


Method Duration Percentage of final grade
Written reports 25%
Written exam 4 hours 75%

All assessments must be passed in order to pass the course.
Only the final grade will be reported, based on an average of the grades from the examination parts.

Application deadline: 15 April 2020



Photo: Sören Ehlers


AT-334 illustration

Illustration: Bjarne Stenberg/NTNU

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