The abilities of understanding spatial relations,spatial orientation,and spatial visualization affect 3D product design performance: using carton box design as an example

Three-dimensional (3D) product design is an essential ability that students of subjects related to product design must acquire. The factors that affect designers’ performance in 3D design are numerous, one of which is spatial abilities. Studies have reported that spatial abilities can be used to effectively predict people’s performance in conducting complex operations. Nevertheless, few studies have explored the relationship between spatial abilities and designers’ performance in 3D product design. Spatial ability is a type of mental ability and comprises numerous factors. Carton box design is a typical type of standardized 3D product design, in which designers’ performance is affected by the spatial abilities they possess. The most crucial factor among these abilities is the space conversion ability, which is the ability to convert two-dimensional (2D) surface developments into 3D perspective views and convert 3D carton boxes into 2D plans. These operations require an in-depth perception of objects, an understanding of the relative spatial relations among objects, and spatial visualization. In this study, carton box design was used as an example to investigate, using structural equation modeling, the effects that the ability to understand spatial relations, spatial orientation, and spatial visualization have on designers’ performance in 3D product design. The results indicated that all three spatial abilities (i.e., understanding spatial relations, spatial orientation, and spatial visualization) directly influence designers’ performance in carton box design. Therefore, spatial abilities are vital factors affecting designers’ performance in 3D product design.     

Using an analogical thinking model as an instructional tool to improve student cognitive ability in architecture design learning process

Lack of creativity is a problem often plaguing students from design-related departments. Therefore, this study is intended to incorporate analogical thinking in the education of architecture design to enhance students’ learning and their future career performance. First, this study explores the three aspects of architecture design curricula, interaction and students’ cognitive development. Then the study discusses learning based on analogical thinking into two parts: analogical learning and analogical reasoning. The samples in this study were the freshmen of the Department of Architecture, China University of Technology. The model was used in a five-week unit of the course of Architecture Design, a required course for all the freshmen. Questionnaires were given to the students before and after the unit to evaluate the influences of the model in the dimensions of Teaching, Teacher-student Interactions, Student–student Interactions, Cognitive Development, and Overall Learning Performance. The questionnaire results were collected and statistically analyzed. The analysis results indicated that, the students scored significantly higher in each of the dimension after the unit than before the unit. These findings suggested that the use of an analogical thinking model can be helpful in the teaching of architecture design. Hopefully, the findings of this study can provide helpful references for not only teaching of architecture design but also future related research.     

The Technology Fair: a project-based learning approach for enhancing problem solving skills and interest in design and technology education

This paper presents an innovative way in which university education can help pre-service teachers become better problem-solvers. The central idea is to use the “Technology Fair” as a means for promoting pre-service teachers pedagogical content knowledge about technological problem solving skills. This innovation is supported with results from a study carried out in autumn 2004. The purpose of the study was to investigate the influence of a procedure of working with primary school children to complete and present a technology fair project, on the educational value and meanings attached to problem solving skills by pre-service teachers. Pre-tests, mid-test and post-tests were administered to the pre-service teachers before, during, and after the preparation of the technology fair, respectively. A number of pre-service teachers were selected and interviewed after the completion of the technology fair. Data were also collected from reflective diaries kept by the pre-service teachers during the preparation phase of the technology fair. Analysis of the results indicates that the technology fair contributes to the development of positive values and attitudes in technology education and has a significant influence on improving pre-service teachers understanding and application of problem solving strategies within the domain of technology.     

Managerial perceptions of technology licensing as an alternative to internal R&D in new product development: an empirical investigation

Increasingly, companies are using the licensing approach to acquire external technology as an alternative to internal new product development. However, the licensing literature presents lists of benefits and costs without identifying either their relative importance or the underlying dimensions. This article presents the results of a survey of Australian licensee firms designed to fill this gap in the literature. The results show that the major reason for licensing relates more to the immediate need to gain competitive advantage than the relative low cost advantage of technology licensing or having access to future technology. The major impediments to licensing are the entry and exit costs and the loss of decision-making autonomy resulting from licensor-imposed restrictions. Further, only two factors, perceived search costs and low cost market entry advantage of licensing appear to vary among the industries studied. Future research and managerial implications of the results are discussed.     

Problem-solving in technology education as an approach to education for sustainable development

This paper explores the issue of how students might learn about sustainability in technology––education classrooms and the relevance of problem-solving in that learning. One of the emerging issues in technology education research is the nature of problem-solving specified in curriculum documents and the kinds of learning activities undertaken by students in technology education classrooms. In parallel with our developing understanding of the characteristics of good technology education programs is the inclusion in recent curriculum documents of the concept of sustainability or sustainable development. However, as yet there is little information about how technology students think about sustainability and how they might best learn about it. This is of particular interest because in technology education, sustainability is often described in curriculum documents as an issue that is intended to be integrated within design projects and activities, rather than being the topic of a classroom lesson as might happen in a subject such as environmental studies. This paper explores current understanding of the issue generally and within technology education. It concludes that the design, problem-solving approach that is common to technology education classrooms provides many affordances to students engaging meaningfully with ideas of sustainability and of developing strong understandings of its scope and significance.