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This paper presents the strategies used for effective teaching and skill development in integrated circuit (IC) design using project-based learning (PBL) methodologies. It presents the contexts in which these strategies are applied to IC design courses at the University of South Australia, Adelaide, Australia, and the National Institute of Applied Science (INSA), Toulouse, France. Collaborations among the faculty members of the two institutions have produced a set of learning resources and design tools to support the development of industry-relevant design skills and lifelong learning skills. At the pedagogical level, the emphasis is on the development of practical circuit design, critical thinking, and problem-solving skills rather than the mastery of complex circuit design tools. The courses enable students to learn about the most recent technological developments and their implications, using a set of user-friendly tools. The PBL methodologies, intuitive design tools, and latest technology models have consistently produced high levels of student satisfaction with the overall quality of the courses at the two institutions. (Contains 25 figures and 3 tables.)

This paper reports the integration of supplementary training in academic literacy, for those without the assumed entry standard, into a standard electrical engineering program without compromising any other educational objectives. All students who commenced an engineering degree were tested as part of their first session's assessment activities. Those identified as having inadequate academic literacy were directed to study a specifically designed credit-bearing course, which is controlled by the Engineering Faculty but was designed and is taught in collaboration with academic literacy teachers. Students who completed this course responded positively and also demonstrated measurable improvement in their communication skills. The approach has alleviated the skepticism about teaching academic literacy usually found amongst engineering faculty staff and has been adopted by the wider Engineering Faculty. (Contains 3 tables and 1 figure.)

Remote and virtual laboratory classes are an increasingly prevalent alternative to traditional hands-on laboratory experiences. One of the key issues with these modes of access is the provision of adequate audiovisual (AV) feedback to the user, which can be a complicated and resource-intensive challenge. This paper reports on a comparison of two studies of remote and virtual access to hardware, one with rich AV feedback and one without. The comparison shows that the learning outcomes of the remote access mode are dependent upon the richness of the feedback; the learning outcomes of the simulated access mode are largely robust to an absence of feedback. The students' preferences are affected by the feedback, with a clear preference for richer feedback. (Contains 4 tables and 14 figures.)