M. Leandro Cruz
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17 records found
1
Embedding transversal and societal skills in aerospace engineering programme
Bachelor curriculum revision
The Faculty of Aerospace Engineering at TU Delft is currently reviewing its Bachelor curriculum in response to several interrelated developments. These include changes in the educational landscape, such as the growing impact of artificial intelligence (AI) and sustainability, the shifting balance between content knowledge and skills, evolving assessment practices, and an increased emphasis on student-centred learning. At the same time, the aerospace sector itself is undergoing rapid transformation, driven by the need for sustainable innovation and the growing importance of software, data, AI and sustainability. In addition, changes in the demand and capacity landscape, including skills-based educational needs, accessibility and inclusion, diversity, and rising student numbers, call for a reevaluation of the curriculum. This paper focuses on strengthening the transversal and societal skill set of Bachelor Aerospace Engineering graduates by making these skills explicit, visible, and coherently embedded throughout the curriculum. A learning-line approach was adopted to structure the development of skills such as teamwork, ethical reasoning, learning from failure, and diversity and inclusion alongside technical content. The paper compares how these skills are addressed in the current and revised curricula and presents a concrete implementation example from the first week of the programme, called Aerospace Ground School. The paper concludes with reflections and recommendations for engineering programmes seeking to systematically embed transversal and societal skills without overloading the curriculum.
To assist in resolving the perceived lack of transversal competencies (TCs) of engineering graduates by industry, this study investigates the characteristics of transforming an existing industry TC instrument for use in engineering education. The instrument consists of 36 nuanced sub-competencies with the corresponding definitions and descriptive mastery levels. This instrument was first used to determine required TCs mastery levels for BSc and MSc graduates by European industry and subsequently, using two representative curricula as case studies to map TCs course outcomes and lecturer perceptions of TCs course outcomes, using interviews for further exploration. The main findings are that the TC instrument is suitable to determine desired industry mastery levels as well as to map TCs course outcomes both in formal documentation and by lecturers. Also, a gap between the formal and perceived curriculum was found i.e. discrepancies in reported TC learning outcomes between formal documentation and lecturer-reported TCs in courses.
Measurement and Practice of Transversal Competencies in Engineering Education
Evaluation of Perceptions and Stimulation of Reflections of industry, lecturers and students
As the field of Engineering Education Research is maturing, more and more literature on Engineering Education is becoming available. Combined with increasing digitization and data analysis possibilities in the area of educational research literature, as well as a trend towards requiring more transparent and reproducible literature studies, researchers are required to adopt new and different approaches towards literature studies and reviews. Some examples of the different types are the systematic review, the critical review and the literature overview. This paper intends to assist engineering education researchers by outlining a typology of different literature review types within the field of engineering education research. This typology is based on an elaborate analysis of published literature studies in 3 leading engineering education journals, the IEEE transactions on education, EJEE and JEE, making use of the SALSA Framework (Search, AppraisaL, Synthesis and Analysis) based on a SCOPUS search. A similar method has previously been successfully employed when creating a literature typology in health research by Booth and Grant in 2009 [1]. The characteristics of each typology will be described and suitable and relevant examples of each typology will be given. The outcomes presented in this paper will provide engineering education researchers with a valuable resource to conduct, inform, interpret and guide literature studies in their field.
Contribution: This study reports on a reliable and valid instrument that measures engineering students' perceptions of their competency levels. A better understanding of students' needs in engineering curricula will support the development of engineering students' transversal competencies. Background: Prior research has investigated how engineering students perceive competency levels in transversal competencies. However, limitations in the competency definition, psychometric properties, and generalizability were found. Research questions: 1) What is the reliability and validity of the competency level instrument? and 2) what are the transversal competency level perceptions of engineering Bachelor and Master students? Methodology: A questionnaire consisting of 36 transversal competencies was designed based on an existing industry model and administered to 1087 engineering Bachelor and Master students from the University of Technology, The Netherlands. Validity and reliability were tested through exploratory factor analysis (EFA) and confirmatory factor analysis (CFA) and Cronbach's alpha. Findings: EFA resulted in five scales with reliable Cronbach's alpha values. CFA demonstrated a good model fit for the five-factor model with 25 items. Students perceived they are most competent in teamwork and lifelong learning competencies and less competent in entrepreneurial competencies.
Evaluation of competency methods in engineering education
A systematic review
Teaching other communication skills than writing and presenting
A take home workshop created as part of the PREFER project
Conference Key Areas: Continuing Engineering Education and Lifelong Learning; Skills and Engineering Education; Curriculum Development ...
Conference Key Areas: Continuing Engineering Education and Lifelong Learning; Skills and Engineering Education; Curriculum Development