Nurturing the designerly thinking and design capabilities of five-year-olds: technology in the new entrant classroom

Technology is one of eight learning areas of the New Zealand national curriculum. It aims to develop a broad technological literacy through students participating in programmes in which the practice of technological development is experienced, as is knowledge informing practice, and students gain an understanding of technology as a domain in its own right. In New Zealand children begin school at 5 years of age and this paper describes a classroom research project during which these students design and then construct a photo frame. The inducement for this development arose from students needing to safely transport home and then display a class photograph. This provided the opportunity for developing technological knowledge and skills within a real and relevant context—two key drivers when working with young students (Ministry of Education 2007) [MoE]. The results of this project suggest that teaching technology to five-year-old students is achievable and a valuable addition to other learning opportunities provided in the new entrant classroom. Strategies are suggested that will enable students to successfully achieve their goals whilst gaining a simple understanding of the technological process. By making good use of these it is possible to create a worthwhile and imaginatively challenging activity that reflects the essence of the technology education curriculum.     

A pedagogic approach to enhance creative <Emphasis Type="Italic">Ideation</Emphasis> in classroom practice

The real intent for technology education is to prepare young people so that they may fully participate and function in human society. To achieve this aim, learners are guided towards the development of attributes that include perceptive, critical, creative and informed decision making. Although effective teaching strives to inspire the creative spark in every learner, there is little guidance to inform actual classroom practice. The selection of strategies and implementation methods that engender creative responses in students, is usually left to an individual teacher’s interpretation. A working knowledge of design processing provides a most advantageous methodology to guide teaching and learning as students develop ways “of knowing through thinking and doing,” Sharma and Poole (Des Manag Inst 20(4):64–74, 2010) within classroom design and technological practice. This article looks at the broad stage of Ideation in creative design practice, where designers instigate and generate ideas within their own practice. Insight and transferable skills are observed to inform classroom practice. One event from the ideation stage of design practice processing is selected to enhance student visual communication skills. A pedagogic approach is then shared to inform the implimentation of a teaching and learning strategy that has been trialled with design (aged from 12 to 18 years) and Initial Teacher Education adult students.     

Dilemmas and opportunities of a new curriculum: Design and technology with Young Children

The article draws on the University of Leeds research project Technological Capability in Young Children. The research objectives were to identify and characterize capability in design and technology for children aged 5–11; to document features of progression in capability within the domains of graphicacy, evaluation skills and the handling of tools and equipment; and to identify and investigate factors which contribute to the development of a technological knowledge base in primary school classrooms. The research perspective relates to previous studies of contextual and developmental features of capability and the development of practical intelligence. Data sources include fieldnotes and video recordings of children working on tasks defined by their teachers as design and technology activities; interviews with the teachers and children about the outcomes of the activities; and contextual data such as availability of materials, resources, use of teacher time, and classroom organization.Analysis of classroom recordings, together with teacher and pupil interviews, revealed a learning environment which presented teachers with new dilemmas and children with opportunities to demonstrate previously unnoted capabilities and deficiencies, particularly in graphicacy, evaluation processes and the manipulation of tools. The findings are exemplified through analysis of critical incidents.     

Recent Research in Learning Technological Concepts and Processes

This paper examines recent research in student learning of technological concepts and processes. To explore this area three inter-related aspects are considered; existing concepts of technology, technological knowledge and processes. Different views of technology and technology education are reflected in both research outcomes and curriculum documents. Teacher and student perceptions of technology impact on the way in which technology is undertaken in the classroom. Teacher's perceptions of technology influence what they perceive as being important in learning of technology. student's perceptions of technology and technology education influence what knowledge and skills they operationalise in a technological task and hence affect student technological capability. Technological concepts and processes are often defined in different ways by particular groups. Subject subcultures are strongly held by both teachers and students. The influence of subject subcultures and communities of practice will be discussed in terms of defining and operationalising technological concepts and processes. Technological concepts are not consistently defined in the literature. For students to undertake technological activities, knowledge and processes cannot be divorced. Recent research highlights the problems when processes are emphasised over knowledge. This paper will examine different technological concepts in an attempt to create a critical balance between knowledge and process. Much of the literature in technology education has rightly emphasised definitions, curriculum issues, implementation and teacher training. This paper argues that it is now time to place a great emphasis on in-depth research on student understanding of technological concepts and processes and ways in which these can be enhanced.     

Emerging Assessment Practices in an Emergent Curriculum: Implications for Technology

This paper reports on detailed case studies into emerging assessment practices in technology in two New Zealand primary schools (Years 1–6) with nine teachers. This research is part of the two year Research in Assessment of Primary Technology (RAPT) project and formed the basis for the one year New Zealand Ministry of Education funded Learning in Technology Education (Assessment) project.Emerging classroom assessment practices in technology, a new subject area in the national curriculum, are discussed. It was found that the existing subcultures in schools, teachers' subject expertise and the school wide policies impacted on the teachers' assessment practices. Assessment was often seen in terms of social and managerial aspects such as team work, turn taking and information skills, rather than procedural and conceptual aspects. Therefore teachers' formative interactions with students distorted the learning away from procedural and conceptual aspects of the subject, and the learning and the formative assessment interactions focused on generic skills rather than student technological understanding.The importance of developing teacher expertise in three dimensions of knowledge about the subject, knowledge in the subject and general pedagogical knowledge is highlighted. Thus the findings from this research have implications for thinking about teaching, learning and assessment in technology.     

Students' design of a biometric procedure in upper secondary school

Making the connection between science and technology might be important for students to learn to identify and solve problems and to acquire scientific knowledge and skills. The research reported in this article concerned the development of a design situation in a science classroom and the study of students performing in this situation. More specifically, the setting involved students’ design of a measurement procedure as a way of attaining understanding of the underlying scientific concepts. In fact, at higher secondary level, the classical experimental procedure of measuring facial angle is employed within the topic of human evolution to find out to which species a given human cranium belongs. At the same time, designing a procedure, instead of just executing it, is thought to entail higher odds for attaining teleological understanding. The development of the learning situation involved pursuing parallels between the expert design task as described in the literature and the assignment given to students. We proceeded through step-wise development of the learning situation that was successively tested out in the classroom. Our analysis of the student-devised procedures revealed three issues regarding the graphical representation of angles, the reproducibility of the points and the communicational demands of the situation. Students used both prior knowledge (e.g. about evolution), and new knowledge about cranium anatomy and angles. They also exhibited new experimental skills like anticipating each experimental action. Such cognitive tasks which are at the origin of students’ activity make the situation approximate the goals of laboratory work by distancing it from the simple execution of a series of steps. Future research could be directed towards further exploring the benefits of an approach that combines essential characteristics of science and technology.     

Knowledge Acquisition in University–Industry Alliances: An Empirical Investigation from a Learning Theory Perspective*

A firm's technological knowledge base is the foundation on which internal product and process innovations are generated. However, technological knowledge is not accumulated solely through internal learning processes. Increasingly, firms are turning to external sources in the technology supply chain to acquire the technological knowledge they need to introduce product and process innovations. Thus, the successful structuring and executing of partnerships with external “technology source” organizations is often critical to competitive success in technologically dynamic environments. This study uses situated learning theory as a basis for explaining how factors inherent to the knowledge acquisition context may affect the successful transference of technological knowledge from universities to their industry partners. Data collected via a survey instrument from 104 industry managers were used to explore the effects of various organizational knowledge interface factors on knowledge acquisition success in university–industry alliances. The organizational knowledge interface factors hypothesized to affect knowledge acquisition success in the current research include partner trust, partner familiarity, technology familiarity, alliance experience, formal collaboration teams, and technology experts' communications. Results indicate that partner trust predicts the successful acquisition of tacit knowledge but not explicit knowledge. Both forms of knowledge are predicted by partner familiarity and communications between the partners' technology experts. These findings suggest three principal managerial implications. First, although the development of a trusting relationship between the knowledge source and knowledge‐seeking parties is generally advisable, firms that seek to acquire explicit technological knowledge from their alliance partners may successfully do so without having made significant time and energy investments designed to assure themselves that they can trust those partners. The relative observability and verifiability of explicit knowledge relative to tacit knowledge may enable knowledge‐seeking parties to have greater confidence that knowledge has been acquired when partner trust is in question or has not been deliberately developed. A second implication is that, other things being equal, a knowledge‐seeking party's interests may be best served through repeated exposures to particular alliance partners, particularly if those exposures facilitate mutual understandings on relevant process‐related matters. A third managerial implication is that ongoing, broad‐based communications between the partners' technology experts should be used to effect technology transfer. A key quality of the organizational knowledge interface that promotes the successful acquisition of technological knowledge, both tacit and explicit, is multipoint, real‐time contact between the technology experts of the partner organizations. Such communications potentially enable the knowledge‐seeking party to directly access desired information through the most knowledgeable individuals on an as‐needed basis.     

Design knowledge and teacher–student interactions in an inventive construction task

The teacher plays an important role in the Technology and Design (T&D) classroom in terms of guiding students in their design process. By using concepts developed within engineering philosophy along with a framework for teacher–student interactions the design process in a T&D classroom is classified. The material shows that four of six predefined categories of design knowledge and three of seven predefined classes of activity are present in the material. Findings suggest that two categories of design knowledge, fundamental design concepts and practical considerations, are particularly significant in the students’ work. The teacher’s influence with respect to particularly the first of these categories is crucial for the students’ design process. Direct trial is found as the students’ dominating activity for solving the technological challenges. The results indicate that it is beneficial for students to be introduced to an operational principle before they can be innovative and develop their own design configuration when they establish their fundamental design concept. Curriculum developers, designers of teaching materials as well as teachers should take into account the students’ need of sufficient time to explore their design configuration.     

An Analysis of Student Existing Technological Capability: Developing an Initial Framework

This paper reports on the analysis of student (ages 6–15 years) technological capability as they undertake technological tasks. The activities covered a number of different contexts (including different subject areas), and had differing degrees of openness and methods of presentation. Data was obtained from 261 of the 400 students that took part in the classroom activities. A holistic approach to analysing student performance was developed and this provided insights into the strategies adopted by the students. Some preliminary conclusions are: the focus of students on an end-product meant that they did not fully consider the processes that might be required to solve the problem; student technological approaches were influenced by the culture of the classroom; and existing concepts of technological processes influenced the approaches undertaken. This revised version was published online in August 2006 with corrections to the Cover Date.     

Experiential Education In New Product Design And Business Development

We describe an experiential approach to teaching new product design and business development in a year‐long course that combines intensive project work with classroom education. Our course puts together up to six teams of graduate students from management and engineering who work on projects sponsored by individual companies. Student teams work with faculty from multiple disciplines and personnel from the sponsoring companies. The year‐long format and involvement with company personnel provide opportunities for students to gain hands‐on experience in a real product development project. Time constraints, coupled with students' determination to demonstrate what they can accomplish, stimulate teams to learn how to compress the design and development cycle. To help students generalize from their own projects to a wider universe of product design and business development phenomena, students participate continuously in constructive critiques of others' projects; and in presentations, case discussions and workshops that help them learn about the product and business development process itself. This article describes course objectives, syllabus, projects, sponsors, faculty, students and our course administration. In an effort to move towards a “paperless” course, we have put as much of the course material as possible on the World Wide Web; relevant websites are referred to in the article. At the end of the course each team presents a prototype and a protoplan to the sponsoring company in a final report, which in many cases includes suggestions for the sponsor on how to improve its design and development process. Students' positive evaluations, along with their comments, indicate that they are attaining their educational goals. Course projects have resulted in commercialized products, patents, continuing development projects in sponsoring companies, and placements for students. The course has generated public relations value for the units involved and for the university as a whole. © 2002 Elsevier Science Inc. All rights reserved.     

Embedded creativity: teaching design thinking via distance education

This paper shows how the design thinking skills of students learning at a distance can be consciously developed, and deliberately applied outside of the creative industries in what are termed ‘embedded’ contexts. The distance learning model of education pioneered by The Open University is briefly described before the technological innovations—which feature a fully integrated web 2.0 learning environment and design studio—and concepts behind a new course in Design Thinking are explained in detail. In teaching the more generic skills of design and developing experiential knowledge in students, the paper also explores the changing role of designers in becoming less problem-focussed and more socially engaged through the construction of design process. The paper ends by presenting the results of an extensive student and tutor survey as part of an ongoing longitudinal study which indicate that this new approach to teaching design has been successful.     

How an integrative STEM curriculum can benefit students in engineering design practices

STEM-oriented engineering design practice has become recognized increasingly by technology education professionals in Taiwan. This study sought to examine the effectiveness of the application of an integrative STEM approach within engineering design practices in high school technology education in Taiwan. A quasi-experimental study was conducted to investigate the respective learning performance of students studying a STEM engineering module compared to students studying the technology education module. The student performances for conceptual knowledge, higher-order thinking skills and engineering design project were assessed. The data were analyzed using quantitative (t test, ANOVA, ANCOVA, correlation analysis) approaches. The findings showed that the participants in the STEM engineering module outperformed significantly the participants studying the technology education module in the areas of conceptual knowledge, higher-order thinking skills, and the design project activity. A further analysis showed that the key differences in the application of design practice between the two groups were (a) their respective problem prediction and (b) their analysis capabilities. The results supported the positive effect of the use of an integrative STEM approach in high school technology education in Taiwan.     

Improving Supplier New Product Development Performance: The Role of Supplier Development

Suppliers play an increasingly central role in helping firms achieve their new product development (NPD) goals. The literature implicitly assumes that suppliers are able to meet or exceed the quality standards and technological expectations of the firm, and yet, in practice, suppliers often lack the technological capabilities needed to undertake collaborative NPD. In such situations, a firm may choose to intervene and actively develop the supplier's technological and product development capabilities. We develop a theoretical framework that conceptualizes supplier development activities within interorganizational NPD projects as part of a bilateral knowledge‐sharing process: design recommendations, technical specifications, and new technology flow from supplier to the firm, and in turn, the firm can implement supplier development activities to upgrade the supplier's technological capabilities. Antecedents (supplier responsibility, skills similarity, single sourcing strategy) and consequences of supplier development activities (on supplier, product, and project performance) are examined using a sample of 153 interorganizational NPD projects within UK manufacturers. We find broad support for our hypotheses. In particular, we show that the relational rents (in the form of improved product and project performance) attained from supplier development activities in new product development are not achieved directly, but rather indirectly, via improvements in the supplier's creative and technological capabilities. Our results emphasize the importance of adopting a strategic view of the potential returns available from investing in the NPD capabilities of key suppliers, and provide clues about underlying reasons for the suboptimal experiences of many companies' collaborative NPD projects.     

Visible parts,invisible whole: Swedish technology student teachers’ conceptions about technological systems

Technological systems are included as a component of national technology curricula and standards for primary and secondary education as well as corresponding teacher education around the world. Little is known, however, of how pupils, students, and teachers conceive of technological systems. In this article we report on a study investigating Swedish technology student teachers’ conceptions of technological systems. The following research question is posed: How do Swedish technology student teachers conceive of technological systems? Data was collected through in-depth qualitative surveys with 26 Swedish technology student teachers. The data was analysed using a hermeneutic method, aided by a theoretical synthesis of established system theories (system significants). The main results of the study are that the technology student teachers expressed diverse conceptions of technological systems, but that on average almost half of them provided answers that were considered as undefined. The parts of the systems that the students understood were mostly the visible parts, either components, devices, or products such as buttons, power lines, hydroelectric plants, or the interface with the software inside a mobile phone. However, the ‘invisible’ or abstract aspects of the technological systems, such as flows of information, energy or matter, or control operations were difficult to understand for the majority of the students. The flow of information was particularly challenging in this regard. The students could identify the input and often the output of the systems, that is, what systems or components do, but the processes that take place within the systems were elusive. Comparing between technological systems also proved difficult for many students. The role of humans was considered important but it was mostly humans as users not as actors on a more systemic level, for example, as system owners, innovators, or politicians. This study confirms previous research in that the students had a basic understanding of structure, input and output of a technological system. Thus, the adult students in this study did not seem to have better understanding of technological systems than school pupils and teachers in previous studies, although this is in line with previous investigations on the general system thinking capabilities of children and adults. The most important implication of this study is that students need to be trained in systems thinking, particularly regarding how components work and connect to each other, flows (especially of information), system dependency, and the human role in technological systems.     

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.     

The Influences of Teacher Knowledge and Authentic Formative Assessment on Student Learning in Technology Education

Students involved in holistic technological practice need to develop an understanding of technological practice outside the classroom and to participate in tasks set as close as practicable to actual technological practice. This paper investigates the context of assessment and its relationship to achievement and the importance of teacher knowledge to student technological practice. I argue that ‘out of context’ assessment tasks do not give an accurate indication of achievement levels of the children assessed. Introduced is the Model of Student Technological Practice, which identifies four constraints that influence student technological practice. A significant factor is teacher knowledge, as it impacts greatly on the quality of feedback given to students by their teachers. Timely teacher intervention and formative assessment feedback will alter student technological practice and should improve the students’ likelihood of developing successful outcomes.     

Integrating innovation skills in an introductory engineering design-build course

Modern engineering curricula have started to emphasize design, mostly in the form of design-build experiences. Apart from instilling important problem-solving skills, such pedagogical frameworks address the critical social skill aspects of engineering education due to their team-based, project-based nature. However, it is required of the twenty-first century engineer to be not only technically competent and socially and culturally aware, but also innovative and entrepreneurial. This paper discusses a reformulated first-year engineering course at the University of Pretoria, which was adopted 6 years ago to better address the required innovation skills of engineering students. This design-build-innovate course employs a unique creative problem-solving strategy in designing and building solutions to set technological problems. The students further investigate the provisional patenting of their design concepts. Mini business plans are developed and the students participate in a university- and in a national innovation competition. This introductory engineering course has been successful as measured by overwhelmingly positive student feedback, several provisional patents, and a number of small start-up companies that emanated from the students’ work.     

Integrated Market-Immersion Approach To Teaching New Product Development In Technologically-Oriented Teams

This article presents a market immersion methodology for teaching NPD in technologically-oriented teams. This methodology was developed during the early 1990s at the Lally School of Management and Technology of Rensselaer Polytechnic Institute. Since then, it has been successfully utilized to train in excess of one hundred MBA-level student teams. The NPD course is taught by a 5-member cross-functional team of faculty with backgrounds in marketing, manufacturing operations, and accounting. The course is modeled on Cooper's stage gate process, and the course is designed to provide a combination of classroom and apprenticeship experiences. The 6-credit, year-long course requires students to work in self-directed teams of approximately 5 to 6 members. Each student team chooses its own industry or technology domain in which to concentrate its efforts, and students undertake intensive market and field research in order to assess any existing market opportunities. Once a specific target market and market need have been identified, students are then required to design a product and an organization to meet that need. In specific, students must produce a detailed marketing, manufacturing, operations, advertising, distribution, and financial plan that can bring their product to market. During the process, students create multiple potential product designs, build mock-ups of their products, and field test the mock-ups. At every phase of the course, the teams are continuously immersed in real customer markets. As a result, teams must struggle to incorporate new market information and learning into their project in a consistent and holistic manner. The following article presents the curriculum content and tools, lessons learned, and student reactions to this original pedagogical approach to teaching NPD. Due to the length of the course, particular attention is paid to the teaming issues that naturally arise when teams work together on long-run projects. © 2002 Elsevier Science Inc. All rights reserved.     

A Synergy Between the Technological Process and a Methodology for Web Design: Implications for Technological Problem Solving and Design

Traditional instructional methodology in the Information System Design (ISD) environment lacks explicit strategies for promoting the cognitive skills of prospective system designers. This contributes to the fragmented knowledge and low motivational and creative involvement of learners in system design tasks. In addition, present ISD methodologies, including web design methodologies, do not focus sufficiently on technological problem solving and design. Engagement in system design tasks demands critical thinking [Shelly, Cashman & Rosenblatt, 2001, Systems Analysis and Design, 4th edn. Course Technology, Boston] and abstraction skills [Harris, 1999, Systems Analysis and Design for the Small Enterprise, The Dryden Press, Harcourt Brace College Publishers, Fort Worth]. The aim of this paper is to explain a synergy between the technological process and web design methodology and its influence on the development of the cognitive skills of learners in the ISD context. In this research, the Team Structure Software Process (TSSP) methodology was integrated with the stages of the technological process. An interface approach between Information Systems and Technology Education was adopted during the implementation of an Instructional Web Design Program (IWDP), which served as a framework for building a software product. This research was based on a qualitative, action-research approach where individual interviews, focus group interviews, observation and document sources were used to gather data. Seventeen students at an institution of higher education were observed and their experiences were investigated through a focus group interview, journals and an essay. In addition, an interview with the teacher was conducted to investigate her thoughts and feelings during the implementation of the IWDP. During the implementation of the IWDP, multi-method learning was promoted, enlarging learners' insight into the design process and a climate for enhancing intellectual processes and skills created [Jakovljevic, 2002, An Instructional Model for Teaching Complex Thinking through Web Page Design, DEd thesis, Rand Afrikaan University, Johannesburg] This revised version was published online in July 2006 with corrections to the Cover Date.