[{"title":{"valueFi":"Kuvaus","valueEn":"Description","valueSv":""},"content":{"valueEn":"In the Digital Manufacturing track, you will learn skills that will enable you to develop innovative solutions for digital manufacturing technologies   utilized in a wide variety of applications and in various industries. In fact, you will also learn the skills to design and manufacture your own 3D-printers along with designing and printing various materials (metals, ceramics, polymers and their composites) for various applications. \r\n\r\nThink3DPrint3D with digital manufacturing track!\r\n\r\nThe Digital Manufacturing track trains fresh graduates as well as experienced engineering professionals with thorough theoretical understanding and hands-on practical skills in 3D printing and other digital manufacturing technologies along with various traditional manufacturing technologies.\r\n\r\nDigital manufacturing (including also 3D printing or Additive Manufacturing (AM)) is considered as one of the key pillars in creating a sustainable and digital industrial era through the ongoing industrial revolution, Industry 4.0 along with Big Data and the Internet of Things. Digital manufacturing is a key enabler of the transition from industry 4.0 to industry 5.0 which foster harmonious and synergistic collaboration between humans and machines with enhanced focus on sustainability and environment. \r\n\r\nIndustries around the globe are thriving for maturing various digital manufacturing technologies and are facing a serious deficiency of skilled engineers trained in such a highly demanding field. Therefore, this master-level programme is custom-designed to educate and train young ambitious graduates as well as experienced engineering professionals to be the next digital manufacturing experts who can solve the challenges that various industries are currently facing.","valueFi":"In the Digital Manufacturing track, you will learn skills that will enable you to develop innovative solutions for digital manufacturing technologies   utilized in a wide variety of applications and in various industries. In fact, you will also learn the skills to design and manufacture your own 3D-printers along with designing and printing various materials (metals, ceramics, polymers and their composites) for various applications. \r\n\r\nThink3DPrint3D with digital manufacturing track!\r\n\r\nThe Digital Manufacturing track trains fresh graduates as well as experienced engineering professionals with thorough theoretical understanding and hands-on practical skills in 3D printing and other digital manufacturing technologies along with various traditional manufacturing technologies.\r\n\r\nDigital manufacturing (including also 3D printing or Additive Manufacturing (AM)) is considered as one of the key pillars in creating a sustainable and digital industrial era through the ongoing industrial revolution, Industry 4.0 along with Big Data and the Internet of Things. Digital manufacturing is a key enabler of the transition from industry 4.0 to industry 5.0 which foster harmonious and synergistic collaboration between humans and machines with enhanced focus on sustainability and environment. \r\n\r\nIndustries around the globe are thriving for maturing various digital manufacturing technologies and are facing a serious deficiency of skilled engineers trained in such a highly demanding field. Therefore, this master-level programme is custom-designed to educate and train young ambitious graduates as well as experienced engineering professionals to be the next digital manufacturing experts who can solve the challenges that various industries are currently facing.","valueSv":""}},{"title":{"valueFi":"Lisätiedot","valueEn":"Further information","valueSv":""},"content":{"valueEn":"The Master’s Degree Programme in Mechanical Engineering: Digital Manufacturing is a two-year programme of 120 ECTS credits.\r\n- Joint mechanical engineering studies 20 ECTS\r\n- Digital Manufacturing studies 20 ECTS\r\n- Thesis and project 40 ECTS\r\n- Minor or Thematic Studies 20-25 ECTS\r\n- Other studies 15-20 ECTS\r\n\r\nThe persons in charge of the Digital Manufacturing track are Antti Salminen and Ashish Ganvir.","valueFi":"The Master’s Degree Programme in Mechanical Engineering: Digital Manufacturing is a two-year programme of 120 ECTS credits.\r\n- Joint mechanical engineering studies 20 ECTS\r\n- Digital Manufacturing studies 20 ECTS\r\n- Thesis and project 40 ECTS\r\n- Minor or Thematic Studies 20-25 ECTS\r\n- Other studies 15-20 ECTS\r\n\r\nThe persons in charge of the Digital Manufacturing track are Antti Salminen and Ashish Ganvir.","valueSv":""}},{"title":{"valueFi":"Osaamistavoitteet","valueEn":"Objective","valueSv":""},"content":{"valueEn":"After completing this programme, the students shall:\r\n- Have acquired a broader understanding of various traditional and state-of-the-art manufacturing technologies such as welding, machining, cladding, thermal and cold spray, etc. along with an in-depth understanding of the next-generation digital manufacturing technologies such as directed energy deposition, powder bed fusion, material jetting, etc. to utilize them for creating sustainable and digital industries; \r\n- Be able to transform innovative ideas in the field of digital manufacturing into viable business solutions;\r\n- Have gained a basic understanding of material science and engineering concepts relevant to digital manufacturing to succeed in developing novel materials for various digital manufacturing processes;\r\n- Have attained a broader understanding of various surface and coating methods for modifying the surfaces of the digitally manufactured components for various industrial applications;\r\n- Have acquired understanding of the processes, costs, working principles and quality assurance tools and procedure in modern industrial welding production.\r\n- Be able to utilize advanced machine learning and artificial tools along with relevant modelling and simulation tools to improve the various additive manufacturing processes and resultant structures created by them.  \r\n- Be able to independently and creatively engage in industrial collaborations via various means such as project/assignment/thesis etc. to utilize the theoretical concepts learned during the program and be able to critically think beyond traditional disciplinary boundaries to find innovative solutions to real-world industrial problems with new ideas;\r\n- Be able to formulate research questions in the field of digital manufacturing, draw up plans accordingly and execute it during the thesis work by conducting scientific, ethical, and societally relevant research work as preparatory training for doctoral research studies in digital manufacturing.\r\n\r\nAfter completing this programme, the students shall acquire the following skills:\r\n- In processing the raw material (powder, wire, liquid, etc.) using various heat sources such as laser, electron beam, arc, plasma, and light to create 3D printed components as well as 2D functional surfaces\r\n- In analysing and developing new raw materials for 3D printing and related technologies\r\n- In applying appropriate post-treatment (thermal and mechanical) methods to obtain finished 3D printed components\r\n- In characterizing raw materials, 2D functional surface coatings and 3D printed parts using basic and advanced material characterization techniques\r\n- In using some of the fundamental tools in modelling, simulation and machine learning\r\nAfter completing this programme, the students shall gain the competence in following areas:\r\n- Materials processing via 2D and 3D printing technologies which uses various heat sources such as laser, electron beam, arc, plasma, light \r\n- Tools to analyze and develop new raw materials for 3D printing and related technologies\r\n- Tools to post treat (thermally and mechanically) the 3D printed parts\r\n- Basic and advanced material characterization techniques to study raw materials and 3D printed parts\r\n- Fundamental tools for modeling and simulation used in additive manufacturing","valueFi":"After completing this programme, the students shall:\r\n- Have acquired a broader understanding of various traditional and state-of-the-art manufacturing technologies such as welding, machining, cladding, thermal and cold spray, etc. along with an in-depth understanding of the next-generation digital manufacturing technologies such as directed energy deposition, powder bed fusion, material jetting, etc. to utilize them for creating sustainable and digital industries; \r\n- Be able to transform innovative ideas in the field of digital manufacturing into viable business solutions;\r\n- Have gained a basic understanding of material science and engineering concepts relevant to digital manufacturing to succeed in developing novel materials for various digital manufacturing processes;\r\n- Have attained a broader understanding of various surface and coating methods for modifying the surfaces of the digitally manufactured components for various industrial applications;\r\n- Have acquired understanding of the processes, costs, working principles and quality assurance tools and procedure in modern industrial welding production.\r\n- Be able to utilize advanced machine learning and artificial tools along with relevant modelling and simulation tools to improve the various additive manufacturing processes and resultant structures created by them.  \r\n- Be able to independently and creatively engage in industrial collaborations via various means such as project/assignment/thesis etc. to utilize the theoretical concepts learned during the program and be able to critically think beyond traditional disciplinary boundaries to find innovative solutions to real-world industrial problems with new ideas;\r\n- Be able to formulate research questions in the field of digital manufacturing, draw up plans accordingly and execute it during the thesis work by conducting scientific, ethical, and societally relevant research work as preparatory training for doctoral research studies in digital manufacturing.\r\n\r\nAfter completing this programme, the students shall acquire the following skills:\r\n- In processing the raw material (powder, wire, liquid, etc.) using various heat sources such as laser, electron beam, arc, plasma, and light to create 3D printed components as well as 2D functional surfaces\r\n- In analysing and developing new raw materials for 3D printing and related technologies\r\n- In applying appropriate post-treatment (thermal and mechanical) methods to obtain finished 3D printed components\r\n- In characterizing raw materials, 2D functional surface coatings and 3D printed parts using basic and advanced material characterization techniques\r\n- In using some of the fundamental tools in modelling, simulation and machine learning\r\nAfter completing this programme, the students shall gain the competence in following areas:\r\n- Materials processing via 2D and 3D printing technologies which uses various heat sources such as laser, electron beam, arc, plasma, light \r\n- Tools to analyze and develop new raw materials for 3D printing and related technologies\r\n- Tools to post treat (thermally and mechanically) the 3D printed parts\r\n- Basic and advanced material characterization techniques to study raw materials and 3D printed parts\r\n- Fundamental tools for modeling and simulation used in additive manufacturing","valueSv":""}}]