224,956 research outputs found
Envisioning Futures of Design Education: An Exploratory Workshop with Design Educator
The demand for innovation in the creative economy has seen the adoption and adaptation of design thinking and design methods into domains outside design, such as business management, education, healthcare, and engineering. Design thinking and methodologies are now considered useful for identifying, framing and solving complex, often wicked social, technological, economic and public policy problems. As the practice of design undergoes change, design education is also expected to adjust to prepare future designers to have dramatically different demands made upon their general abilities and bases of knowledge than have design career paths from years past. Future designers will have to develop skills and be able to construct and utilize knowledge that allows them to make meaningful contributions to collaborative efforts involving experts from disciplines outside design. Exactly how future designers should be prepared to do this has sparked a good deal of conjecture and debate in the professional and academic design communities.
This report proposes that the process of creating future scenarios that more broadly explore and expand the role, or roles, for design and designers in the worldâs increasingly interwoven and interdependent societies can help uncover core needs and envision framework(s) for design education. This approach informed the creation of a workshop held at the Design Research Society conference in Brighton, UK in June of 2016, where six design educators shared four future scenarios that served as catalysts for conversations about the future of design education. Each scenario presented a specific future design education context. One scenario described the progression of design education as a core component of K-12 curricula; another scenario situated design at the core of a network of globally-linked local Universities; the third scenario highlighted the expanding role of designers over time; and the final scenario described a distance design education context that made learning relevant and âcloseâ to an individual learnerâs areas of interest. Forty participants in teams of up to six were asked to collaboratively visualize a possible future vision of design education based on one of these four scenarios and supported by a toolkit consisting of a set of trigger cards (with images and text), along with markers, glue and flipcharts. The collaborative visions that were jointly created as posters using the toolkit and then presented by the teams to all the workshop participants and facilitators are offered here as a case study. Although inspired by different scenarios, their collectively envisioned futures of what design education should facilitate displayed some key similarities. Some of those were:
Future design education curricula will focus on developing collaborative approaches within which faculty and students are co-learners;
These curricula will bring together ways of learning and knowing that stem from multiple disciplines; and
Learning in and about the natural environment will be a key goal (the specifics of how that would be accomplished were not elaborated upon.)
In addition, the need for transdisciplinarityâwas expressed across the collaborative visions created by each of the teams, but the manner that participants chose to express their ideas about this varied. Some envisioned that design would evolve by drawing on other disciplinary knowledge, and others envisioned that design would gradually integrate with other disciplines
A New Course on Creativity in an Engineering Program: Foundations and Issues
The importance of innovation in the world's economy, now undeniable, draws
great attention to the need to improve organizations' creative potential. In
the last 60 years, hundreds of books have been written on the subject and
hundreds of webpages display information on how to be more creative and achieve
innovation. Several North American and European universities offer graduated
programs in creativity. However, building an effective and validated creativity
training program is not without challenges. Because of the nature of their
work, engineers are often asked to be innovative. Without aiming for a degree
in creativity, could future engineers benefit from training programs in
creativity? This article presents the conceptual framework and pedagogical
elements of a new course in creativity for engineering students.Comment: 10 pages, Intl Conf on Innovative Design and Manufacturing (pp.
270-275). Aug 13-15, Montreal. IEEE Conference Proceeding
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Making meaning: developing an understanding of form in distance design education
Design education throughout the world provides students with a variety of experiences that help them develop an understanding of form and shape. The conventional model of such education requires students to participate in studio and workshop-based projects to develop skills through the creation of models and prototypes. However, with the increase in distance education worldwide we need to explore new ways for students to create and manipulate form remotely. This paper presents new work at the Open University, UK which set out to engage design students in form-making from a distance. Participants were given access to technical and design support that took rough sketches of chair designs and converted these into tangible scale models which were mailed back to the students. Several cycles of this activity generated data on how such supported modelling activity stimulated students' creative ability, design knowledge and motivation. This paper proposes new priorities for distance design education
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Unpacking capabilities underlying design (thinking) process
Engineering graduates must know how to frame and solve non-routine problems. While design classes explicitly teach problem framing and solving, it is lacking throughout much of the rest of the engineering curriculum and is often relegated to capstone classes at the end of the studentsâ educational experience. This paper explores problem framing and solving through the lens of experiential learning theory. It captures core problem framing and solving approaches from critical, design and systems thinking and concludes with a table of learning outcomes that might be drawn upon in designing an engineering curriculum that more fully develops the problem framing and solving capabilities of its students
STEM futures and practice, can we teach STEM in a more meaningful and integrated way?
Integrating Science, Technology, Engineering and Mathematics (STEM) subjects can be engaging for students, can promote problem-solving and critical thinking skills and can help build real-world connections. However, STEM has long been an area of some confusion for some educators. While they can see many of the conceptual links between the various domains of knowledge they often struggle to meaningfully integrate and simultaneously teach the content and methodologies of each these areas in a unified and effective way for their students. Essentially the question is;how can the content and processes of four disparate and yet integrated learning areas be taught at the same time? How can the integrity of each of the areas be maintained and yet be learnt in a way that is complementary? Often institutional barriers exitin schools and universities to the integration of STEM. Organizationally, at a departmental and administrative level, the teaching staff may be co-located, but when it comes to classroom practice or the teaching and learning of these areas they are usually taught very separately. They are usually taught in different kinds of spaces, in different ways (using different pedagogical approaches) and at different times. But is this the best way for students to engage with the STEM areas of learning? How can we make learning more integrated, meaningful and engaging for the students
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Innovation Skills for the Self-Transformation of Underrepresented Engineering Students
Underrepresented engineering students typically face multiple challenges, for example, the lack of role models and familiar guidance during their studies. Successful students have specific characteristics (i.e. skills) that allow them to thrive. In this paper the authors explore the necessary skills that may allow students to self-transform and innovate into successful engineering students.Cockrell School of Engineerin
Comparative study of selected indoor concentration from selective laser sintering process using virgin and recycled polyamide nylon (pa12)
Additive manufacturing (AM) stands out as one of the promising technologies that
have huge potential towards manufacturing industry. The study on additive manufacturing
impact on the environment and occupational exposure are attracting growing attention recently.
However, most of the researcher focus on desktop and fused deposition modelling type and less
attention given to the industrial type of AM. Usually, during the selective laser sintering process,
recycle powder will be used again to reduce cost and waste. This article compares the PM 2.5,
carbon dioxide (CO2) and total volatile organic compound (TVOC) concentration between virgin
and recycles powder using polyamide-nylon (PA12) towards indoor concentration. Four phases
of sampling involve during air sampling accordingly to the Industry Code of Practice on Indoor
Air Quality 2010 by DOSH Malaysia. It was found that PM 2.5 and CO2
concentration are mainly
generated during the pre-printing process. The recycle powder tended to appear higher compared
to virgin powder in terms of PM 2.5, and CO2. The peak value of PM 2.5 is 1452 ÎŒg/m3 and CO2
is 1218 ppm are obtained during the pre-printing process during 8 hours of sampling. TVOC
concentration from recycling powder is slightly higher during the post- printing phase where
confirm the influence of the powder cake and PA12 temperature from the printing process. In
summary, this work proves that elective laser sintering (SLS) machine operators are exposed to
a significant amount of exposure during the SLS printing process. Mitigation strategies and
personal protective equipment are suggested to reduce occupational exposure
Creativity Training for Future Engineers: Preliminary Results from an Educative Experience
Due in part to the increased pace of cultural and environmental change, as
well as increased competition due to globalization, innovation is become one of
the primary concerns of the 21st century. We present an academic course
designed to develop cognitive abilities related to creativity within an
engineering education context, based on a conceptual framework rooted in
cognitive sciences. The course was held at \'Ecole Polytechnique de Montr\'eal
(\'EPM), a world renowned engineering school and a pillar in Canada's
engineering community. The course was offered twice in the 2014-2015 academic
year and more than 30 students from the graduate and undergraduate programs
participated. The course incorporated ten pedagogical strategies, including
serious games, an observation book, individual and group projects, etc., that
were expected to facilitate the development of cognitive abilities related to
creativity such as encoding, and associative analytical thinking. The CEDA
(Creative Engineering Design Assessment) test was used to measure the students'
creativity at the beginning and at the end of the course. Field notes were
taken after each of the 15 three-hour sessions to qualitatively document the
educative intervention along the semester and students gave anonymous written
feedback after completing the last session. Quantitative and qualitative
results suggest that an increase in creativity is possible to obtain with a
course designed to development cognitive abilities related to creativity. Also,
students appreciated the course, found it relevant, and made important,
meaningful learnings regarding the creative process, its cognitive mechanism
and the approaches available to increase it.Comment: 10 page
The artisan and the artist. Innovation enables transformation
Technologies Excellence Group, for theCurriculum for Excellence Group for SG (commissioned by/for Mike Russell-Cabinet Secy on Education
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A legacy handbook for science, technology, engineering and maths (STEM)
Legacy Handbook reviewing emda's experience of STEM activity. Identifies key achievements and draws out lessons learned that may be relevant to successor bodies active in this area
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