{"id":null,"code":"KTEK0030","name":{"valueFi":"Design Optimisation (Structure and Topology)","valueEn":"Design Optimisation (Structure and Topology)","valueSv":"Design Optimisation (Structure and Topology)"},"credits":5.0,"minCredits":5,"maxCredits":5,"tags":[],"createdAt":1790534309668,"contentList":[{"title":{"valueFi":"Osaamistavoitteet","valueEn":"Learning outcomes","valueSv":""},"content":{"valueFi":"After taking this course, the students will be able to:\r\n-\texplain the concept of design variables, constraints, and objective functions. \r\n-\trecognize principles of structural optimization.\r\n-\tmathematically formulate a structural design optimization problem.\r\n-\tsolve problems analytically (when possible) and computationally.\r\n-\tappreciate the need for optimization to improve a structure.\r\n-\tuse numerical techniques for practical size, shape, and topology optimization problems.\r\n-\tread and understand the research articles on structural optimization especially topology optimization.\r\n-\tuse topology optimization and CAD tools to build a 3D model.","valueEn":"After taking this course, the students will be able to:\r\n-\texplain the concept of design variables, constraints, and objective functions. \r\n-\trecognize principles of structural optimization.\r\n-\tmathematically formulate a structural design optimization problem.\r\n-\tsolve problems analytically (when possible) and computationally.\r\n-\tappreciate the need for optimization to improve a structure.\r\n-\tuse numerical techniques for practical size, shape, and topology optimization problems.\r\n-\tread and understand the research articles on structural optimization especially topology optimization.\r\n-\tuse topology optimization and CAD tools to build a 3D model.","valueSv":"After taking this course, the students will be able to:\r\n-\texplain the concept of design variables, constraints, and objective functions. \r\n-\trecognize principles of structural optimization.\r\n-\tmathematically formulate a structural design optimization problem.\r\n-\tsolve problems analytically (when possible) and computationally.\r\n-\tappreciate the need for optimization to improve a structure.\r\n-\tuse numerical techniques for practical size, shape, and topology optimization problems.\r\n-\tread and understand the research articles on structural optimization especially topology optimization.\r\n-\tuse topology optimization and CAD tools to build a 3D model."}},{"title":{"valueFi":"Sisältö","valueEn":"Content","valueSv":""},"content":{"valueFi":"Contents of the course include: Formulation of a structural design optimization problem, size optimization, minimizing compliance, combining large numbers of constraints, mathematical programming, sensitivity analysis, shape optimization, distributed parameter systems, topology optimization, the optimality criterion method, SIMP-penalization, evolutionary structural optimization, well-posedness, numerical instabilities and filters","valueEn":"Contents of the course include: Formulation of a structural design optimization problem, size optimization, minimizing compliance, combining large numbers of constraints, mathematical programming, sensitivity analysis, shape optimization, distributed parameter systems, topology optimization, the optimality criterion method, SIMP-penalization, evolutionary structural optimization, well-posedness, numerical instabilities and filters","valueSv":"Contents of the course include: Formulation of a structural design optimization problem, size optimization, minimizing compliance, combining large numbers of constraints, mathematical programming, sensitivity analysis, shape optimization, distributed parameter systems, topology optimization, the optimality criterion method, SIMP-penalization, evolutionary structural optimization, well-posedness, numerical instabilities and filters"}},{"title":{"valueFi":"Suoritustavat","valueEn":"Study methods","valueSv":""},"content":{"valueFi":"Assignments and exam","valueEn":"Assignments and exam","valueSv":""}},{"title":{"valueFi":"Toteutustavat","valueEn":"Course unit methods","valueSv":""},"content":{"valueFi":"Lectures, assignments, exercises, and demonstrations","valueEn":"Lectures, assignments, exercises, and demonstrations","valueSv":""}},{"title":{"valueFi":"Oppimateriaalit","valueEn":"Learning material","valueSv":""},"content":{"valueFi":"P.W. Christensen and A. Klarbring, An introduction to structural optimization, Springer, 2009","valueEn":"P.W. Christensen and A. Klarbring, An introduction to structural optimization, Springer, 2009","valueSv":""}},{"title":{"valueFi":"Lisätiedot","valueEn":"Further information","valueSv":""},"content":{"valueFi":"","valueEn":"","valueSv":""}},{"title":{"valueFi":"Kurssikirjallisuus","valueEn":"Literature","valueSv":""},"content":{"valueFi":"","valueEn":"","valueSv":""}},{"title":{"valueFi":"Esitietovaatimukset","valueEn":"Qualifications","valueSv":""},"content":{"valueFi":"Solid mechanics course is recommended before taking this course. It is recommended that the student knows the basic principles of the finite element method and is able to perform analysis of structures under static loading. Furthermore, familiarity with MATLAB programing is desired.","valueEn":"Solid mechanics course is recommended before taking this course. It is recommended that the student knows the basic principles of the finite element method and is able to perform analysis of structures under static loading. Furthermore, familiarity with MATLAB programing is desired.","valueSv":""}},{"title":{"valueFi":"Arviointiasteikko","valueEn":"Assessment scale","valueSv":""},"content":{"valueFi":"0-5","valueEn":"0-5","valueSv":"0-5"}},{"title":{"valueFi":"Arviointikriteerit","valueEn":"Assessment criteria","valueSv":""},"content":{"valueFi":"50% of points to pass","valueEn":"50% of points to pass","valueSv":""}},{"title":{"valueFi":"Arviointikriteerit 2","valueEn":"Assessment criteria 2","valueSv":""},"content":{"valueFi":"","valueEn":"","valueSv":""}},{"title":{"valueFi":"Arviointikriteerit 3","valueEn":"Assessment criteria 3","valueSv":""},"content":{"valueFi":"","valueEn":"","valueSv":""}},{"title":{"valueFi":"Arviointikriteerit 4","valueEn":"Assessment criteria 4","valueSv":""},"content":{"valueFi":"","valueEn":"","valueSv":""}},{"title":{"valueFi":"Kielet","valueEn":"Languages","valueSv":""},"content":{"valueFi":"englanti","valueEn":"English","valueSv":"engelska"}},{"title":{"valueFi":"Taso","valueEn":"Level","valueSv":""},"content":{"valueFi":"Syventävät opinnot","valueEn":"Advanced Studies","valueSv":""}},{"title":{"valueFi":"Oppiaine","valueEn":"Subject","valueSv":""},"content":{"valueFi":"Konetekniikka","valueEn":"Mechanical Engineering","valueSv":"Mechanical Engineering"}},{"title":{"valueFi":"Vastuuhenkilöt","valueEn":"Person in charge","valueSv":""},"content":{"valueFi":"Asim Rashid","valueEn":"Asim Rashid","valueSv":"Asim Rashid"}},{"title":{"valueFi":"Luokittelu","valueEn":"Classification","valueSv":""},"content":{"valueFi":"","valueEn":"","valueSv":""}},{"title":{"valueFi":"Linkit","valueEn":"Links","valueSv":""},"content":{"valueFi":"","valueEn":"","valueSv":""}}]}