scholarly journals The Development of Technology-supported Approaches to the LO Process for Accredited Engineering Programs

2019 ◽  
Vol 1 (2) ◽  
pp. 74-84
Author(s):  
Dale Lackeyram ◽  
John R Donald ◽  
Richard Gorrie ◽  
Richard G Zytner

Tracking graduate outcomes is a new requirement for engineering education in Canada.  Working closely with curriculum developers and educational technologists, the School of Engineering at the University of Guelph has shown it is possible to put in place an effective process.  The process requires engaged participants, an open-mindedness and integrated technologies to collect and report the data.  Combining people, process and technology provides a way for data analysis to satisfy accreditation requirements and internal quality education metrics.  This paper describes the approach taken and identifies strengths, challenges, and opportunities to be successful, and support the ultimate goal of curriculum improvement.

Author(s):  
Marcia Friesen ◽  
Nadine Ibrahim ◽  
Grant McSorley ◽  
Stephen Mattucci

Industry engagement in undergraduate engineering education is a community-centred approach to learning that is hands-on and links the engineering theory to practice. This paper provides a review of existing Engineer-in-Residence (EIR) programs in Canada, including the University of Manitoba, Dalhousie University, University of Calgary, Ryerson University, University of Ottawa, and the University of Waterloo, as well as a brief international scan. We consider the motivations behind the institutions’ initiative to introduce EIR programs, different types of engagements, challenges, and opportunities. Programs are also examined externally relative to professional residency programs in business schools, among others, and relative to other forms of industry engagement in undergraduate engineering education. A brief overview of the history and role of EIRs within engineering programs is also presented. The paper will be of interest to those exploring a similar industry engagement framework at their institution, and offers a forward-looking perspective on ways to leverage the skills and experience of practicing engineers in preparing students to tackle the challenges of the future.


2021 ◽  
Vol 9 (3) ◽  
pp. 63-79
Author(s):  
Norshahida Sarifuddin ◽  
Zuraida Ahmad ◽  
Ahmad Zahirani Ahmad Azhar ◽  
Hafizah Hanim Mohd Zaki ◽  
Amelia Wong Azman ◽  
...  

In line with the current global focus on sustainability and the well-being of the planet, becoming a professional engineer nowadays requires more than simple mastery of technical skills. Considering that engineers are required to have a deep sense of responsibility not only for humankind but also for the environment, engineering education and practices must be reformed substantially to prepare engineers that will contribute to sustainable development. This necessitates updating conventional engineering programs (CEE) to incorporate Humanizing Engineering Education (HEE). Although HEE is an old practice of individual engineers and other organizations outside the academic field, it is relatively new in academic engineering. While the definition of what truly merits being considered HEE remains debatable, many engineers believe that their work involves a humanitarian aspect. To streamline the development of HEE, there is a need for developing guidelines and frameworks for a comprehensive model. Ideally, that framework should integrate humanizing pedagogy in the new curriculum design. The objective of the paper is to share the experience of the authors in designing a new curriculum for a Materials Engineering Programme (MEP) that is embedded with Humanitarian Engineering (HE), which is among the main elements of HEE. Data collection was through interviews, qualitative surveys, reports from the stakeholders, accreditation bodies and benchmarking with other Higher Learning Institutions (HLI). An extensive scholarly literature review was executed to identify shortcomings in CEE and how it could be reformed by integrating it with HEE. The Sejahtera Academic Framework (SAF); a strategic framework for academic programmes developed by the university, was used as a reference to customize MEP to better meet students’ needs. Since the proposed model applies a new emerging concept, it inevitably raises challenges related to different levels of understanding among course implementers and perceptions of external stakeholders. Moreover, the developers had to consider the limitations imposed by the university's policies and structures while acknowledging the availability of finite resources (i.e. time, money, equipment, and expertise).


2007 ◽  
Vol 35 (3) ◽  
pp. 256-270 ◽  
Author(s):  
Nadia Kellam ◽  
Michelle Maher ◽  
James Russell ◽  
Veronica Addison ◽  
Wally Peters

Complex systems study, defined as an understanding of interrelationships between engineered, technical, and non-technical (e.g., social or environmental) systems, has been identified as a critical component of undergraduate engineering education. This paper assesses the extent to which complex systems study has been integrated into undergraduate mechanical engineering programs in the southeastern United States. Engineering administrators and faculty were surveyed and university websites associated with engineering education were examined. The results suggest engineering administrators and faculty believe that undergraduate engineering education remains focused on traditional engineering topics. However, the review of university websites indicates a significant level of activity in complex systems study integration at the university level, although less so at college and department levels.


Author(s):  
Doug Reeve ◽  
Greg Evans ◽  
Annie Simpson

There is an urgent need for engineers to participate more fully in debate and decision-making to address the many challenges, local, national and global, that society faces. Engineering education provides graduates with technical competence but there are relatively few engineering programs that directly address development of leadership capability. At the University of Toronto, we have been developing leadership education since 2002 and presently offer wide-ranging curricular and co-curricular programming through Engineering Leaders of Tomorrow (LOT). Leadership can be defined as “a relational and ethical process of people together attempting to accomplish positive change”. Adding leadership capability to an engineer creates a powerful combined capability. A leader-engineer has the capability to leverage and empower engineering competence with leadership competence.


2004 ◽  
Vol 49 (8) ◽  
pp. 73-79 ◽  
Author(s):  
P.L. Bishop ◽  
T.C. Keener ◽  
A.R. Kukreti ◽  
S.T. Kowel

Environmental engineering education has rapidly expanded in recent years and new teaching methods are needed. Many professionals and educators believe that a MS degree in environmental engineering should be the minimum in order to practice the profession, along with practical training. This paper describes an innovative program being offered at the University of Cincinnati that combines an integrated BS in civil engineering and an MS in environmental engineering with extensive practical co-operative education (co-op) experience, all within a five-year period. The program includes distance learning opportunities during the co-op periods. The result is a well-trained graduate who will receive higher pay and more challenging career opportunities, and who will have developed professionalism and maturity beyond that from traditional engineering programs.


Author(s):  
A. Grami ◽  
G. S. Rao ◽  
M. A. Rosen

The University of Ontario Institute of Technology (UOIT) is Ontario’s only laptop university, and among the few universities in the world where every seat in classrooms and laboratories is connected to the Internet, and the faculty are required to appropriately integrate the use of technology into the teaching-learning enterprise. In this paper, we discuss how the use of laptops in Internet-enabled learning spaces can enhance electrical engineering education. Issues of importance are highlighted. The discussions apply to the bachelor program in Electrical Engineering at the UOIT as well as to courses related to electrical engineering that form part of other engineering programs in UOIT’s Faculty of Engineering and Applied Science.


TEM Journal ◽  
2020 ◽  
pp. 1687-1691
Author(s):  
Ioana Opriș ◽  
Cristina Sorana Ionescu ◽  
Sorina Costinaș ◽  
Daniela Elena Gogoașe Nistoran

The overall objective of this paper is to propose a viable approach to quality Education in Power Engineering during the COVID-19 period. To this end, we base the study on our previous steps in implementing Augmented Reality technology for training future engineers in the field of energy. To cope with the present challenges brought by the COVID-19 pandemic, we analyzed the necessary paradigm shift to maintain the benefits of using Augmented Reality in teaching.


Author(s):  
Jan Fertig ◽  
Subha Kumpaty

More than half of U.S. students entering college are female, but female students are still largely absent from engineering fields. The persistent absence of females in engineering may owe itself, at least in part, to a fundamental difference in cognitive approaches between males and females. Although there is a significant amount of cross-over, males are more likely than females to have a systemizing brain, which is associated with a drive to understand how the world works through the identification and creation of patterns and rules. Females are more likely to be born with an empathizing style, which lends itself to a natural aptitude for identifying others’ thoughts and emotions. This systemizing-empathizing dichotomy is based on the work of Simon Baron-Cohen at the University of Cambridge in the UK. Engineering programs are geared toward those with a higher SQ (systemizing quotient). This paper reviews relevant research on how systemizing-empathizing (S-E) theory applies to engineering education and examines current research on the reasons behind the dearth of females in engineering, finding that the contemporary engineering culture in college is also characterized by subtle forms of discrimination that systematically direct women away from engineering. Finally, some recommendations are made for how engineering programs might engage a broader base of students.


Author(s):  
Michel Couturier ◽  
Dawn MacIsaac ◽  
Liuchen Chang

Following its rich tradition of over 150 years of excellence in engineering education, the Faculty of Engineering at the University of New Brunswick (UNB) is currently implementing an exciting first year program. In consultation with Atlantic businesses, governments and members of the Faculty, an Engineering Education Task Force was formed in the summer of 2003 with the mandate to enhance integrated learning in undergraduate engineering programs at UNB. The Task Force proposed a substantially-common first year program for all engineering disciplines with design projects in both the first and second terms. The design projects are used to integrate knowledge gained in the first year and are part of two new design courses. The first design course is centered on Design and Communications. The second design course is centered on Design and Computations. This new approach requires that teaching of core materials be integrated at a level that crosses disciplinary boundaries.


2018 ◽  
Vol 6 (1) ◽  
pp. 69-109 ◽  
Author(s):  
Tengteng Zhuang ◽  
Xiaoshu Xu

Since becoming a formal signatory of the Washington Accord in 2016, China has outlined an initiative ‘New Engineering Education’ (NEE) to reform its engineering education at university level. This paper elaborates upon the NEE initiative by presenting analysis of its domestic and international context, the goals of the initiative, how the initiative draws upon international standards, major actions under the initiative, and the challenges remaining for NEE to achieve its goals. The paper argues that China views international practices and standards of engineering education in developed nations as highlands to imitate and surpass, and the NEE goals embody an ambitious systematic rather than partial reform of the sector. China has pushed forward the NEE reform with measures such as formulating National Standards for dozens of categories of engineering programs, commissioning 600+ research projects on NEE development, establishing new engineering programs and interdisciplinary courses, strengthening university-partnership, updating accreditation for engineering programs, and improving both external and internal quality assurance mechanism. The sector, however, still faces challenges in achieving systematic quality upgrade due to hindering factors like enlarged uneven resource allocation, downplayed teaching activities and the difficulties in reforming the curricula system. Expected changes are also discussed.Received: 06 March 2018Accepted: 07 November 2018Published online: 29 November 2018


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