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The present research refers to the assigning of a hands-on group project to freshman engineering students, evaluating their performance, and deriving conclusions on student benefits and educational advances. The research procedure included action plans for the instructor and the students, instructions to the students on performing the work, organizational instructions to the teams and reporting guidelines, and evaluation of the success of the project. The main outcomes refer to the team co-operation, the performance of tasks, the quality of results and the reporting effectiveness. The ‘paper beam’ project benefited the student’s learning and proved the need of complementary learning styles in teams, of the appreciation of quality performance and results, as well as of the accuracy in project details. [ABSTRACT FROM AUTHOR]

This paper presents a design-based research project undertaken to test and implement an interest-based engineering challenges framework for pre-college students. This work is motivated by the need for innovative engineering education practices in pre-college settings, and making engineering more inclusive for people from diverse backgrounds. The design-based research methodology can be challenging to implement as it comprises of multiple, cyclical research activities that provide challenges in documenting and communicating the larger study's progress. This paper presents findings from this continuously evolving study, and also the design and implementation of this design-based research at roughly the halfway point for a four-year study. Each of the consequent versions scaffold to answer the broader research questions of the study pertaining to: engineering appealing to students' personal interests, empowering underrepresented groups to find meaningful connections to engineering, leading more authentic engagement in engineering and design practices, and improving students' attitudes and perception of engineering. [ABSTRACT FROM AUTHOR]

This paper aims at presenting the experience of the Power Conversion project in teaching students to design a proof-of-principle contactless energy transfer system for the charging of electrical vehicles. The Power Conversion is a second-year electrical engineering (EE) project in which students are to gather and apply EE knowledge to design and test a system. This system is to work with power level and operates independent from an electricity grid. The instructional method used in this project is design-based learning (DBL). As an educational approach, DBL is to support students to gather and apply knowledge inopen-endedassignments. The set-up of the project has gone through different modifications and iterations in three consecutive years regarding the organisation and supervision of the students. We have analysed the students’ design products in the past three academic years in order to evaluate whether the project set-up and supervision have influenced students’ designs. Results indicate that theopen-endedcharacter of the project has a positive influence on the designs especially regarding the criteria on efficiency, Maximum Power Point Tracking algorithm and power tracking. [ABSTRACT FROM PUBLISHER]

Product design is the convergence point for engineering and design thinking and practices. Until recently, product design has been taught either as a component of mechanical engineering or as a subject within design schools but increasingly there is global recognition of the need for greater synergies between industrial design and engineering training. Product design engineering (PDE) is a new interdisciplinary programme combining the strengths of the industrial design and engineering. This paper examines the emergence of PDE in an environment of critique of conventional engineering education and exemplifies the current spread of programmes endorsing a hybrid programme of design and engineering skills. The paper exemplifies PDE with the analysis of the programme offered at Swinburne University of Technology (Australia), showing how the teaching of 'designerly' thinking to engineers produces a new graduate particularly suited to the current and future environment of produce design practice. The paper concludes with reflections on the significance of this innovative curriculum model for the field of product design and for engineering design in general. [ABSTRACT FROM AUTHOR]

In the modern working environment it is essential for a structural engineer to have an understanding of abstract concepts in structural behaviour and an ability to use them qualitatively. This paper presents the findings of a study on how effectively students acquire such conceptual understanding within a new project/design focused degree course. The new degree programme is described. The first-year students experience a mixture of learning opportunities, including model building/testing, laboratories, workshops/tutorials, and lectures. In the second year there are two design exercises but no formal structural theory course. Specific concepts-based learning material was introduced into the first-year course at mid-semester and the effectiveness of this examined by tests and interviews. The performance of the first-year students is compared to that of the second-year students. The findings show that there is good student engagement and satisfaction with the course and that basic skills are successfully being acquired throughout both years. However, the study highlights areas where concepts are not being adequately developed in the first year and subsequently show little enhancement in the second year. [ABSTRACT FROM AUTHOR]

This paper presents a teaching strategy of the scheduling and developmental phase of an Industrial Engineering computer project. It is based on a real project which has been carried out by our department in collaboration with a local company. The classroom setting provides an environment where students can experience firsthand all phases of the development of an electronic product: design, development and implementation of a prototype board to the final commercial product. [ABSTRACT FROM AUTHOR]

This paper considers an introductory engineering course that surveys engineering success, engineering design and ethics, EXCEL and MATLAB. Concerns and comments of students who took the course are addressed by employing existing successful theories of learning applied in similar situations and observing the students' characteristics and performance. The course improvements include early lectures by the instructor on engineering design and design tools and stressing the need for EXCEL and MATLAB. The improvements also include the assignment of problems in calculus and physics to be solved with EXCEL and MATLAB, the focus on issues according to the interests of students in the different engineering disciplines, and the emphasis on oral and writing presentation skills. Further, the improvements include the motivation of students in understanding the ABET engineering criteria and in developing enthusiasm towards their engineering studies. [ABSTRACT FROM AUTHOR]

Engineering education has recently been going through a process of internal fighting between the tendency to introduce more and more information and skills in the fields of computerization and mathematics (mathematics for engineers), on the one hand, and the need to provide the student with pure empirical technical and design knowledge and experience, on the other hand. In most mechanical engineering departments, the outcome of this competition has been a reduction in the time allotted to teaching the empirical part of engineering information: there is often a psychological barrier to understanding the importance of this group of subjects, and the computer- and mathematics-associated subjects usually win out. As a result, the new graduate usually knows how to fight the computation struggle but he/she is not able to formulate his/her final engineering goal. This paper focuses on various aspects of this situation. In particular, we set out to defend the need for serious and in-depth teaching of the empirical information required in engineering design work. [ABSTRACT FROM AUTHOR]