MF2024 Robust and Probabilistic Design 6.0 credits
Robust konstruktion
Probabilistic design is an engineering design methodology with the aim to produce high-quality products, by systematically studying the effects of variations in the design parameters on product performance. Robust design is a methodology for optimising this quality by making the performance of the product insensitive to variations in the manufacturing, material, operational, and environmental properties.
Educational level
Second cycleAcademic level (A-D)
DSubject area
Grade scale
A, B, C, D, E, FX, F
Course offerings
Autumn 12 for programme students
Periods
Autumn 12 P2 (6.0 credits)
Application code
50980Start date
2012 week: 43End date
2013 week: 1Language of instruction
EnglishCampus
KTH CampusNumber of lectures
Number of exercises
Tutoring time
DaytimeForm of study
NormalNumber of places
No limitationSchedule
Schedule (new window)Course responsible
Sergei Glavatskikh <segla@kth.se>
Teacher
Ulf Olofsson <ulfo@kth.se>
Ulf L Sellgren <ulfse@kth.se>
Ellen Bergseth <bergseth@kth.se>
Target group
CDEPR3, CMAST3, CFATE3,
Masterprogram TIPUM, TIPDM, TAEEM
Part of programme
Autumn 13 for programme students
Periods
Autumn 13 P2 (6.0 credits)
Application code
50992Start date
2013 week: 45End date
2014 week: 3Language of instruction
EnglishCampus
KTH CampusNumber of lectures
Number of exercises
Tutoring time
DaytimeForm of study
NormalNumber of places
No limitationSchedule
Schedule (new window)Course responsible
Sergei Glavatskikh <segla@kth.se>
Teacher
Ulf Olofsson <ulfo@kth.se>
Ellen Bergseth <bergseth@kth.se>
Ulf L Sellgren <ulfse@kth.se>
Target group
CDEPR3, CMAST3, CFATE3,
Masterprogram TIPUM, TIPDM, TAEEM
Part of programme
Learning outcomes
Probabilistic design is an engineering design methodology with the aim to produce high-quality products, by systematically studying the effects of variations in the design parameters on product performance. Robust design is a methodology for optimising this quality by making the performance of the product insensitive to variations in the manufacturing, material, operational, and environmental properties.
A student that has completed the course shall be able to:
• describe the characteristic properies of various design characteristics in statistical terms,
• assess the confidence interval of the assessed reliability of a technical system,
• find the type of probability distribution for a given set of data,
• describe the purpose for, the methodology of, and the output from Design of Experiments,
• define a testplan for a set of physical and numerical experiments,
• describe the purpose and steps for performing a Monte-Carlo simulation.
• use Monte Carlo simulations to analyse how the uncertainties in a models input variables affects the results from the model;
• describe the purpose of Robust design and how it relates to optimization approaches,
• use the Robust design methodology to minimize the sensitivity of a technical response parameter to variations in a set of component design parameters,
• use the Robust design methodology to minimize the sensitivity of a technical response parameter to variations i a set of technical interaction parameters,
• use the Robust design methodology to minimize the sensitivity of an interactive response parameter to variations in a set of ergonomic parameters.
Course main content
Engineering statistics; distributions, Normal, exponetial, Weibull, confidence intervals
Design of experiments: physical and simulation experiments, suspended or censured tests
Probabilistic design; Monte-Carlo simulation (Matlab, Ansys) of performance variations caused by variations in design (manufacturing tolerances, material properies, geometric configuration), user (anthropometric data), and environmental parameters (humidity, electromagnetic fields, temperature, dust)
Robust design; minimizing performance variation due to variation in design parameters, human properties and environmental conditions
Disposition
• Twelve lectures (12 x 2 hours)
• Four laborations (4 x 2 hours)
• Two group assignments
• Two individual assignments
• A written examination
Eligibility
Qualified for studies in grade 3 and P: MF1012/4F1812, MF1013/4F1813, MF1014/4F1814 ellerM: MG1003/4G1162, MG1004/4G1163 T: MF1015/4F1815
Design and product realization-methods/Productrealization-design/Product realization for T and MF101X/MF102X/MF104X/MF111X/MF112X/MF114X/MF1025/MF1026 and MF2018 or a Bachelor in Mechanical Engineering.
Literature
• Handouts
• Clyde M. Creveling "Tolerance Design: A Handbook for Developing Optimal Specifications .
Examination
- INL1 - Assignments, 3.0 credits, grade scale: P, F
- TEN1 - Examination, 3.0 credits, grade scale: A, B, C, D, E, FX, F
• INL1 - Individual assignment, 4.0 credits, grade scale: A, B, C, D, E, FX, F
• TEN1 - Examination, 2.0 credits, grade scale: A, B, C, D, E, FX, F
Final grading based on INL1 and TEN1 requires passed laboratory work and group assignments
Offered by
ITM/Machine Design
Contact
Sergei Glavatskikh, 08-790 63 82, segla@kth.se
Examiner
Sergei Glavatskikh <segla@kth.se>
Version
Course plan valid from:
Autumn 11.
Examination information valid from:
Spring 08.
