{"id":null,"code":"MTEK0033","name":{"valueFi":"Multiscale Modelling","valueEn":"Multiscale Modelling","valueSv":"Multiscale Modelling"},"credits":5.0,"minCredits":5,"maxCredits":5,"tags":[],"createdAt":1790534754957,"contentList":[{"title":{"valueFi":"Osaamistavoitteet","valueEn":"Learning outcomes","valueSv":""},"content":{"valueFi":"Subject-specific competence \r\nAfter this course, the students will recognize the differences between modelling approaches and scales and will become aware of alternative theoretical approaches, depending on the materials' properties of interest, such as, e.g., transport, mechanical, or thermal properties. The students will also be able to summarize the approximations and simplifications used depending on the modelling approach and will be aware of their consequences and limitations. They will be able to plan and perform realistic computer simulations for studying material properties of both soft and solid materials.\r\n\r\nTransferable skills \r\nAfter completing the course, the students will acquire hands-on experience working in teams while enhancing their IT proficiency through computer simulations and data visualization. Additionally, they will cultivate critical thinking, self-learning, data analysis, problem-solving, and scientific writing skills. Peer evaluation will also provide them with valuable experience in giving and receiving constructive feedback.","valueEn":"Subject-specific competence \r\nAfter this course, the students will recognize the differences between modelling approaches and scales and will become aware of alternative theoretical approaches, depending on the materials' properties of interest, such as, e.g., transport, mechanical, or thermal properties. The students will also be able to summarize the approximations and simplifications used depending on the modelling approach and will be aware of their consequences and limitations. They will be able to plan and perform realistic computer simulations for studying material properties of both soft and solid materials.\r\n\r\nTransferable skills \r\nAfter completing the course, the students will acquire hands-on experience working in teams while enhancing their IT proficiency through computer simulations and data visualization. Additionally, they will cultivate critical thinking, self-learning, data analysis, problem-solving, and scientific writing skills. Peer evaluation will also provide them with valuable experience in giving and receiving constructive feedback.","valueSv":"Subject-specific competence \r\nAfter this course, the students will recognize the differences between modelling approaches and scales and will become aware of alternative theoretical approaches, depending on the materials' properties of interest, such as, e.g., transport, mechanical, or thermal properties. The students will also be able to summarize the approximations and simplifications used depending on the modelling approach and will be aware of their consequences and limitations. They will be able to plan and perform realistic computer simulations for studying material properties of both soft and solid materials.\r\n\r\nTransferable skills \r\nAfter completing the course, the students will acquire hands-on experience working in teams while enhancing their IT proficiency through computer simulations and data visualization. Additionally, they will cultivate critical thinking, self-learning, data analysis, problem-solving, and scientific writing skills. Peer evaluation will also provide them with valuable experience in giving and receiving constructive feedback."}},{"title":{"valueFi":"Sisältö","valueEn":"Content","valueSv":""},"content":{"valueFi":"Both solid and soft materials exhibit multiscale properties, spanning from the atomic level to their macro- or meso-scale. They respectively encompass time scales related to atomistic/molecular interactions up to slow material deformations or self-assembly dynamics. This extensive range of temporal and spatial resolutions requires multiple approaches to fully describe the relevant phenomena, such as, e.g., heat transport in solid materials, or viscosity of soft materials. Computational models offer a versatile tool for understanding, designing, predicting, and optimizing structure and properties of materials. In this course we will discuss various modelling approaches, such as finite element method and particle-based simulations, for several types of materials and analyze their applicability depending on the material scale and specific material property.","valueEn":"Both solid and soft materials exhibit multiscale properties, spanning from the atomic level to their macro- or meso-scale. They respectively encompass time scales related to atomistic/molecular interactions up to slow material deformations or self-assembly dynamics. This extensive range of temporal and spatial resolutions requires multiple approaches to fully describe the relevant phenomena, such as, e.g., heat transport in solid materials, or viscosity of soft materials. Computational models offer a versatile tool for understanding, designing, predicting, and optimizing structure and properties of materials. In this course we will discuss various modelling approaches, such as finite element method and particle-based simulations, for several types of materials and analyze their applicability depending on the material scale and specific material property.","valueSv":"Both solid and soft materials exhibit multiscale properties, spanning from the atomic level to their macro- or meso-scale. They respectively encompass time scales related to atomistic/molecular interactions up to slow material deformations or self-assembly dynamics. This extensive range of temporal and spatial resolutions requires multiple approaches to fully describe the relevant phenomena, such as, e.g., heat transport in solid materials, or viscosity of soft materials. Computational models offer a versatile tool for understanding, designing, predicting, and optimizing structure and properties of materials. In this course we will discuss various modelling approaches, such as finite element method and particle-based simulations, for several types of materials and analyze their applicability depending on the material scale and specific material property."}},{"title":{"valueFi":"Suoritustavat","valueEn":"Study methods","valueSv":""},"content":{"valueFi":"Attending lectures, completing exercises and project work, self-study, participating in peer evaluation.","valueEn":"Attending lectures, completing exercises and project work, self-study, participating in peer evaluation.","valueSv":""}},{"title":{"valueFi":"Toteutustavat","valueEn":"Course unit methods","valueSv":""},"content":{"valueFi":"Lectures, exercises, project work, reporting, peer evaluation.","valueEn":"Lectures, exercises, project work, reporting, peer evaluation.","valueSv":""}},{"title":{"valueFi":"Oppimateriaalit","valueEn":"Learning material","valueSv":""},"content":{"valueFi":"","valueEn":"","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":"Students should complete at least 120 ECT in a BSc degree in Mechanical or Materials Engineering, Physics or Chemistry before taking this course.","valueEn":"Students should complete at least 120 ECT in a BSc degree in Mechanical or Materials Engineering, Physics or Chemistry before taking this course.","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":"","valueEn":"","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":"Materiaalitekniikka","valueEn":"Materials Engineering","valueSv":"Materials Engineering"}},{"title":{"valueFi":"Vastuuhenkilöt","valueEn":"Person in charge","valueSv":""},"content":{"valueFi":"Alberto Scacchi","valueEn":"Alberto Scacchi","valueSv":"Alberto Scacchi"}},{"title":{"valueFi":"Luokittelu","valueEn":"Classification","valueSv":""},"content":{"valueFi":"","valueEn":"","valueSv":""}},{"title":{"valueFi":"Linkit","valueEn":"Links","valueSv":""},"content":{"valueFi":"","valueEn":"","valueSv":""}}]}