Systems engineering requires a holistic view and multidisciplinary cooperation and a systematic approach.
Desired effects, such as long life, small energy losses and good cooling, and undesired effects, such as high cost, high weight, large deformations, vibrations and noise are two types of technical effects that are intimately related to most mechanical and electromechanical systems. An optimal technical design can be defined as the design that in the best possible way maximizes the most important desired effects and/or minimizes the most dominant undesired effects. For a design to be optimal from customer, as well as society and enterprise perspectives it must also possess many other important properties despite from purely technical properties. Development and design of advanced technical systems prerequisites a good treatment of technical complexity and uncertainty and efficient cooperation between individuals and groups of individuals with different types of competence. Collaborative tools are tools designed to help people involved in a common task achieve goals. Collaborative computer based tools, such as integrated CAD and CAE software, is the basis for computer supported collaborative engineering work.
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Content and learning outcomes
Course contents
The course is based on an analysis and redesign scenario for an existing technical system. Topics treated are:
- the system development process and planning – V-model, Stage-gate model, network planning, Gantt-scheme;
- requirements specification (end user-, corporate-, regulatory- and societal requirements);
- the active environment and environmental impact;
- integration of components and interfaces between components;
- manufacturing, assembly, and service aspects;
- system architecture (integrated/modular) and methods, tools and frameworks for systems engineering (QFD,DfX,DSM,MFD).
- reliability engineering, design aspects of reliability and methodologies such as FTA anad FMEA;
- system dynamics and related phenomena and mechanisms, as well as constructive countermeasures;
- systems modeling and simulation, static and dynamic substructuring;
- System verification and validation;
- PLM (PDM and CAE) - frameworks, standards, and tools for collaborative engineering
Intended learning outcomes
The main goal is that the students shall develop their capabilities to treat systems engineering from a holistic and lifecycle perspective (interaction with the environment, existing and future customer needs and demands, the technological development, etc.). Further more, the course aims at that the students shall acquire a thorough knowledge of available methods and frameworks for product modeling (CAD), product data management (PDM), and geometry-based simulations (CAE), as well as industrially relevant strategies and methods for integrated management of all product information during the products entire lifecycle, i.e. product lifecycle management (PLM).
A student that has completed the course shall:
- be able to integrate and apply component- and tribological knowledge to systems engineering;
- be able to describe common models for planning and executing systems engineering;
- have planned and performed a distributed collaborative technical design project with the support from a master CAD-model and related simulation models;
- have applied the FBS method to systematic funktion analysis and synthesis;
- have performed a DSM-based analysis of the architecture of a complex product and identified module candidates with the MFD tool;
- be able to describe the most industrially relevant product model standards and neutral formats that enable collaborative engineering, and be able to discuss their pros and cons;
- have performed an integrated FEM- and MBS-simulation;
- have performed a qualitative as well as a quantitative risk analysis with the aid of Fault-Tree Analysis (FTA) and Failure-Mode and Effect Analysis (FMEA);
- be able to elaborate on the business motives for using PDM-, PLM-, CAD- and CAE-in technical development and engineering;
- be able to describe the pros and cons for the most important formats and standards for product data and models;
Course Disposition
Computer exercises
Project assignments
Written examination
Literature and preparations
Specific prerequisites
A Bachelor´s degree in Mechanical Engineering or equivalent.
Recommended prerequisites
No information inserted
Equipment
No information inserted
Literature
Course folder
Examination and completion
If the course is discontinued, students may request to be examined during the following two academic years.
Grading scale
A, B, C, D, E, FX, F
Examination
- INL1 - Assignment, 6,0 hp, betygsskala: P, F
- TEN1 - Home exam, 3,0 hp, betygsskala: A, B, C, D, E, FX, F
Based on recommendation from KTH’s coordinator for disabilities, the examiner will decide how to adapt an examination for students with documented disability.
The examiner may apply another examination format when re-examining individual students.
Other requirements for final grade
Final grading requires passed exercises and project assignments (INL1;6hp) and passed written examination (TEN1;3hp).
Opportunity to complete the requirements via supplementary examination
No information inserted
Opportunity to raise an approved grade via renewed examination
No information inserted
Examiner
Ethical approach
- All members of a group are responsible for the group's work.
- In any assessment, every student shall honestly disclose any help received and sources used.
- In an oral assessment, every student shall be able to present and answer questions about the entire assignment and solution.
Further information
Course web
Further information about the course can be found on the Course web at the link below. Information on the Course web will later be moved to this site.
Course web MF2011Offered by
Main field of study
Mechanical Engineering
Education cycle
Second cycle
Add-on studies
No information inserted
Contact
Ulf Sellgren, 08-790 73 87, ulfs@md.kth.se