Please note! Course description is confirmed for two academic years (1.8.2018-31.7.2020), which means that in general, e.g. Learning outcomes, assessment methods and key content stays unchanged. However, via course syllabus, it is possible to specify or change the course execution in each realization of the course, such as how the contact sessions are organized, assessment methods weighted or materials used.
LEARNING OUTCOMES
After the course, the student:
Can describe main systems requirements in ships
Can define and justify the ways to fulfil systems requirements
Can create a concept design of a machinery system by selecting appropriate components, guided by principles of energy efficient design
Can apply current regulatory requirements for ship systems and understands what it takes to go beyond them
Knows the utilization of automation systems in contemporary ship designs
Can describe how adverse environmental effects of ships can be minimized, below the current and known future requirements
Credits: 5
Schedule: 07.01.2019 - 18.02.2019
Teacher in charge (valid 01.08.2020-31.07.2022): Pentti Kujala, Pentti Kujala
Teacher in charge (applies in this implementation): Pentti Kujala, Pentti Kujala
Contact information for the course (valid 08.12.2018-21.12.2112):
Professor Pentti Kujala
Office: Tietotie 1C, 2nd floor
Email: pentti.kujala@aalto.fi
tel:+ 358 400 878145
CEFR level (applies in this implementation):
Language of instruction and studies (valid 01.08.2020-31.07.2022):
Teaching language: English
Languages of study attainment: English
CONTENT, ASSESSMENT AND WORKLOAD
Content
Valid 01.08.2020-31.07.2022:
Ship system engineering in ship design, Foundations of systems engineering and its connection to marine systems, Propulsion plant management and its systems, Auxiliary power management and machinery operation, Navigation and maneuvering, IT and communication systems, Ballast and trim management systems. In addtion 3 special sessions organised jointly with Finnish Maritime cluster
Applies in this implementation:
The purpose of the course
is to give a summary of the all the important ship systems needed for ship
operations and which enable control ship operations on various levels.After the course, the
student:- Can describe main systems
requirements in ships- Can define and justify the
ways to fulfil systems requirements- Can create a concept design
of a machinery system by selecting appropriate components, guided by principles
of energy efficient design- Can apply current
regulatory requirements for ship systems and understands what it takes to go
beyond them- Knows the utilization of
automation systems in contemporary ship designs- Can describe how adverse
environmental effects of ships can be minimized, below the current and known
future requirementsThe course utilizes guided
problem-based learning concept. Ship system requirements are identified in
beginning and the lectures evolve around them. The course project is to select,
describe and justify the choice of certain equipment. Each lecture introduces
certain type of system or equipment and students afterwards consider that topic
for their projects. Some topics are introduced by visiting lecturers from
industry. Projects are carried out in groups of 3-5 students, preferably the
same as in Principles of Naval Architecture- course.Ship system design and its
integration to ship design, Energy sources and fuel types in modern
applications, Modern motor types, Exhaust treatment systems, HVAC systems, Heat
balance and heat recovery systems, Energy efficiency, Electric systems, Propulsion
systems and manoeuvring technology, Ship automation and control systems, Fire
safety equipment, Communication and IT equipment, Selected topics on special
ship systems (e.g. arctic/sub-arctic conditions), Environmental impact and
legislation, Design methods and tools (CFD, 3D-CAD, NAPA etc.)
Assessment Methods and Criteria
Valid 01.08.2020-31.07.2022:
The project is assessed weekly, contributing to 40% of course grade. Comments will be given on the assignments, which will allow for the improved submission in the form of a final report, giving another 10% of the grade. Final exam will be second 50% of the grade. The grading is based 50% on technical contents, 20% on using technical tools, 15% on reporting and 15% on reflection to previous studies.
Applies in this implementation:
Evaluation will be based on the exam and and evaluation of the project work. The project is assessed
weekly, contributing to 40% of course grade. Comments will be given on the
assignments, which will allow for the improved submission in the form of a
final report, giving another 10% of the grade. Final exam will be second 50% of
the grade.
Workload
Valid 01.08.2020-31.07.2022:
The course utilizes system engineeting and guided problem-based learning concept. Ship system requirements are identified in beginning and the lectures evolve around them. The course project is to select, describe and justify the choice of certain equipment. Each lecture introduces certain type of system or equipment and students afterwards consider that topic for their projects. Some topics are introduced by visiting lecturers from industry. Projects are carried out in groups of 3-5 students, preferably the same as in PNA or Applied Mechanics Project course.
Interactive lectures: 20h (2 x 2h/week, 5 weeks, 10 occasions)
Instructed workshops: 6h (1h/week, 6 weeks)
Group work: 48h (8 hours/week, 6 weeks)
Studying materials: 42h (7 hours/week, 6 weeks)
Preparing for exams: 18h
Applies in this implementation:
The total workload can be assume to be:
Lectures: 6*4 + getting ready for the lecture and reading the material: 40 hours
Exersice: 6*12 = 72 hours
Excursion on a ship: 8 hours
Final exam: 15 hours
DETAILS
Study Material
Valid 01.08.2020-31.07.2022:
Lamb, Ship design and construction, SNAME, Chapter 24: Machinery considerations; Taggart, Ship design and construction, SNAME, selected chapters, Van Dokkum, Ship Knowledge, 3rd edition, Dokmar, selected chapters; Lecture notes, additional up-to-date materials (journal and conference papers etc.) to be announced
Applies in this implementation:
Each lecture is given as power points slides
Prerequisites
Valid 01.08.2020-31.07.2022:
Recommended MEC-E1004 Principles of Naval Architecture
Registration for Courses
Valid 01.08.2020-31.07.2022:
WebOodi
Applies in this implementation:
Preliminary schedule
Mon 7.1 10-11 1 Ship systems, course opening Pentti Kujala ok Aalto Mon 7.1 11-12 Ship system in ship design Osiris Valdez Banda ok Aalto Tue 8.1 08-10 2 Energy sources and fuel types in modern applications, Ossi Mettälä  Deltamarin Mon 14.01 10-12 3 Modern motor types, concept design of machinery systems Rakkola, Ari  MT Tue 15.01 08-10 4 Energy efficiency, Exhaust treatment
systems, Environmental impact and legislation,ÂElg, Mia  Deltamarin Mon 21.01 10-12 5 HVAC systems, Heat balance and heat
recovery systems,ÂKosonen, Risto  Aalto, Dept. Energy Technology Tue 22.01 08-10 6 Electric systems, Propulsion systems
and maneuvering technology,ÂMatti Lehti  ABB Mon 28.01 10-12 7 Ship automation and control systems,
Communication and IT equipment,Visala, Arto  Aalto, Dept. Electrical Engineering
and AutomationTue 29.01 08-10 8 Special ship systems (e.g.
arctic/sub-arctic conditions),ÂEsa Hakanen  Aker Arctic Mon 04.02 10-12 9 Design methods and tools (CADMATIC,
CFD, 3D-CAD, NAPA etc.)ÂAntti Yrjänäinen  Elomatic Tue 05.02 08-10 10 Advanced machinery space design Antero Apajalahti  Arctech Helsinki Mon 11.02 10-12 11 Future energy solutions for cruise
shipsMarjo Keiramo ok RCCL Tue 12.02 08-10 12 Open issues on exercises, course
material etcPentti Kujala ok Aalto
SDG: Sustainable Development Goals
7 Affordable and Clean Energy
9 Industry, Innovation and Infrastructure
12 Responsible Production and Consumption
FURTHER INFORMATION
Further Information
Valid 01.08.2020-31.07.2022:
Visiting invited lecturers possible
Applies in this implementation:
Preliminary schedule
Mon 7.1 10-11 1 Ship systems, course opening Pentti Kujala ok Aalto Mon 7.1 11-12 Ship system in ship design Osiris Valdez Banda ok Aalto Tue 8.1 08-10 2 Energy sources and fuel types in modern applications, Ossi Mettälä  Deltamarin Mon 14.01 10-12 3 Modern motor types, concept design of machinery systems Rakkola, Ari  MT Tue 15.01 08-10 4 Energy efficiency, Exhaust treatment
systems, Environmental impact and legislation,ÂElg, Mia  Deltamarin Mon 21.01 10-12 5 HVAC systems, Heat balance and heat
recovery systems,ÂKosonen, Risto  Aalto, Dept. Energy Technology Tue 22.01 08-10 6 Electric systems, Propulsion systems
and maneuvering technology,ÂMatti Lehti  ABB Mon 28.01 10-12 7 Ship automation and control systems,
Communication and IT equipment,Visala, Arto  Aalto, Dept. Electrical Engineering
and AutomationTue 29.01 08-10 8 Special ship systems (e.g.
arctic/sub-arctic conditions),ÂEsa Hakanen  Aker Arctic Mon 04.02 10-12 9 Design methods and tools (CADMATIC,
CFD, 3D-CAD, NAPA etc.)ÂAntti Yrjänäinen  Elomatic Tue 05.02 08-10 10 Advanced machinery space design Antero Apajalahti  Arctech Helsinki Mon 11.02 10-12 11 Future energy solutions for cruise
shipsMarjo Keiramo ok RCCL Tue 12.02 08-10 12 Open issues on exercises, course
material etcPentti Kujala ok Aalto
- Teacher: Chaal Meriam
- Teacher: Kujala Pentti