Marine Machinery
Machinery, auxiliary systems, maintenance, repair, and shipboard engineering.
Graduate Learning Outcomes
Engineering the
Systems Behind Ships.
The Graduate Learning Outcomes of the Undergraduate Program in Marine Engineering are designed to develop graduates who can engineer, analyse, supervise, maintain, and improve ship machinery, propulsion, electrical, control, piping, and marine systems.
Program Snapshot
11
Graduate Learning Outcomes
5
Graduate Profiles
144 Credit Points
Total Credits (CP)
7
Academic Semesters
What the program develops
A complete marine systems engineering foundation.
The curriculum connects knowledge, general skills, specialised engineering skills, and professional values so that learning progresses from fundamental concepts to applied ship-system work.
Electrical & Control
Ship electrical systems, control systems, instrumentation, and monitoring.
Propulsion & Fluids
Propulsion, fluid systems, piping, hydrodynamics, and related applications.
Safety & Regulation
Survey, supervision, standards, regulations, safety, energy, and pollution concerns.
Graduate profiles
Five pathways. One engineering foundation.
The program identifies five graduate profiles aligned with stakeholder aspirations and the needs of the Marine engineering field.
01
Ship Machinery Engineer
Develops engineering designs and solutions for machinery, propulsion, control, piping, and electrical Marine.
02
Consultant & Systems Analyst
Analyses ship machinery systems and performs technical supervision, inspection, and survey activities.
03
Inspector & Supervisor
Supervises shipbuilding activities and applies standards, classification requirements, statutory rules, and shipyard standards.
04
Regulator / Public Sector
Supports oversight, regulation, safety, security, shipping, port activities, and ship safety management.
05
Academic / Researcher
Formulates and analyses Marine problems, develops solutions, and communicates research outcomes.
11 Graduate Learning Outcomes
What our graduates are expected to achieve.
The CPL structure consists of attitude, knowledge, general skills, and specialised skills. Select a domain to explore the outcomes.
How you learn
Learning is built around application.
A range of learning strategies used to support achievement of the program's CPLs, including project-based learning, case studies, simulation, discovery learning, and practicum.
From theory to shipboard engineering.
Learning activities are connected to the intended outcomes. Project work, cases, simulations, literature review, presentation, cooperative learning, and practical activities provide different pathways for developing competence.
Group DiscussionCollaboration & communication
Simulation / ModelSystems understanding
Cooperative LearningTeam-based learning
Project-Based LearningApplied engineering work
Case StudyProblem solving
Discovery LearningIndependent exploration
PresentationTechnical communication
Literature ReviewEvidence-based learning
PracticumHands-on application
Curriculum & course catalogue
Explore the courses behind the outcomes.
The K-23 curriculum is presented by semester. English titles are used for international-facing communication, while the official Indonesian course titles are retained below for reference.
Semester I
Foundation of engineering and maritime studies
20 CP
listed credits
Semester VII elective pathways
Choose your laboratory direction.
Identifies laboratory-based compulsory and general elective options in four main areas.
Laboratory of Ship Machinery
Hydraulic & Pneumatic Systems2 CP
Machinery Safety2 CP
Machinery Experimental Techniques2 CP
Machinery Survey & Inspection2 CP
Laboratory of Electrical & Control
Ship Monitoring Systems2 CP
Electrical Power Generation Systems2 CP
Electrical & Control Experimental Techniques2 CP
Control System Design2 CP
Laboratory of Propulsion
Propulsion Hydrodynamics2 CP
Propulsion System Modelling2 CP
High-Speed Ship Propulsion2 CP
Propulsion Experimental Techniques2 CP
Laboratory of Marine Structures
Fluid Distribution Modelling2 CP
Marine Structure Installation Systems2 CP
Marine Experimental Techniques2 CP
Energy Management2 CP
General Laboratory Electives
Marine Instrumentation Systems2 CP
Optimisation Methods2 CP
Numerical Methods & Analysis2 CP
Electrical Transmission Systems2 CP
Air Propulsion Systems2 CP
Electric Propulsion Systems2 CP
Energy Efficiency2 CP
Underwater Technology2 CP
Artificial Intelligence2 CP
CPL × curriculum
See how learning outcomes connect to learning methods.
The mapping below follows the learning-method matrix. Select a CPL to highlight the methods associated with it.
| Learning Method | S1 | P1 | P2 | P3 | KU1 | KU2 | KU3 | KK1 | KK2 | KK3 | KK4 |
|---|
Career pathways
Build a career across the maritime engineering ecosystem.
The graduate profiles provide pathways into engineering practice, consultancy, inspection and supervision, regulation, and academic or research careers.
Marine Engineering & Design
Marine Systems Consulting & Analysis
Inspection, Survey & Supervision
Maritime Regulation & Public Sector
Research & Academic Development
Systems thinking.
Marine impact.
A foundation for designing, operating, supervising, maintaining, and improving Marine in a changing maritime environment.
Explore the curriculum behind the outcomes.
The curriculum is structured so that courses and bodies of knowledge contribute to the achievement of the program's CPLs.