Enterprise 2.0 in Engineering Curriculum

Author(s):  
Andreas Ahrens ◽  
Olaf Bassus ◽  
Jeļena Zaščerinska

Engineering education is facing a challenge to bring e-business closer to student engineers. Enterprise 2.0 application in engineering education advances engineering students’ enterprise for the development of innovative products, processes, and services. The aim of the research is to analyze student engineers’ Enterprise 2.0 application underpinning elaboration of pedagogical guidelines on student engineers’ Enterprise 2.0 application in engineering curriculum. The meaning of key concepts of Enterprise 2.0 and engineering curriculum is studied. Moreover, the study indicates how the steps of the process are related following a logical chain: Enterprise 2.0 ? engineering curriculum design ? modelling Enterprise 2.0 application in engineering curriculum ? empirical study within a multicultural environment. The present empirical research was conducted during the Baltic Summer School “Technical Informatics and Information Technology” in 2009, 2010, and 2011. The findings of the research allow drawing the conclusions that student engineers’ Enterprise 2.0 application in engineering curriculum is efficient.

Author(s):  
Andreas Ahrens ◽  
Olaf Bassus ◽  
Jeļena Zaščerinska

Engineering education is facing a challenge to bring e-business closer to student engineers. Enterprise 2.0 application in engineering education advances engineering students' enterprise for the development of innovative products, processes, and services. The aim of the research is to analyze student engineers' Enterprise 2.0 application underpinning elaboration of pedagogical guidelines on student engineers' Enterprise 2.0 application in engineering curriculum. The meaning of key concepts of Enterprise 2.0 and engineering curriculum is studied. Moreover, the study indicates how the steps of the process are related following a logical chain: Enterprise 2.0 ? engineering curriculum design ? modelling Enterprise 2.0 application in engineering curriculum ? empirical study within a multicultural environment. The present empirical research was conducted during the Baltic Summer School “Technical Informatics and Information Technology” in 2009, 2010, and 2011. The findings of the research allow drawing the conclusions that student engineers' Enterprise 2.0 application in engineering curriculum is efficient.


2020 ◽  
Vol 21 (6) ◽  
pp. 1169-1187 ◽  
Author(s):  
Zejing Qu ◽  
Wen Huang ◽  
Zhengjun Zhou

Purpose The purpose of this study is to evaluate the effectiveness of applying sustainability to the engineering curriculum at a university in China. Design/methodology/approach A new curriculum, “ethics, involvement and sustainability,” was designed and presented to engineering students from an undergraduate major in quality management engineering. This curriculum incorporated knowledge acquisition and skills training into sustainability via various teaching approaches in a mandatory curriculum at Tongling University, China. Pre- and post-questionnaire surveys, as well as a fuzzy comprehensive evaluation model, were adopted to evaluate the changes in knowledge, attitudes and behaviors of respondents before and after curriculum implementation. Findings Significant changes in knowledge and attitudes were observed following the implementation of the curriculum. In terms of the development of new behaviors, the changes tended to be moderate. Generally, respondents were satisfied with the effectiveness of the new interdisciplinary curriculum post-implementation. Practical implications Positive results were observed for the pilot and practice of the new engineering education (NEE) strategy at the cooperating university in China. Specifically, the integration of sustainability into curriculum design, implementation and evaluation inspired greater social responsibility in engineering students’ decision-making processes. Additionally, it shed light on how to integrate the concept of sustainability into curricula. One limitation of this study was the absence of a comparison group that did not experience the new curriculum. Originality/value Scant attention has been paid to local universities in the context of the newly-launched NEE strategy. This study provides new insight regarding the implementation of sustainability into engineering curricula and practice via formal, but diversified, teaching approaches.


Author(s):  
Andreas Ahrens ◽  
Jelena Zašcerinska ◽  
Olaf Bassus

A proper development of computing which penetrate our society more thoroughly with the availability of broadband services is provided by varied cooperative networks. However, the success of social dimension of computing requires collaboration within a multicultural environment to be considered. Aim of the following chapter is to analyze collaboration within the social dimension of computing on the pedagogical discourse. The meaning of the key concepts of social dimension of computing, collaboration and its factors is studied within the search for the success of social dimension. The manuscript introduces the study conducted within the Baltic Summer School Technical Informatics and Information Technology in 2009. The conducted explorative research comprises four stages: exploration of the contexts of collaboration, analysis of the students’ needs (content analysis), data processing, analysis and data interpretation, and analysis of the results and elaboration of conclusions and hypothesis for further studies.


Author(s):  
Radian Belu ◽  
Richard Chiou ◽  
Tzu-Liang (Bill) Tseng ◽  
Lucian Cioca

Major challenges such as energy, food, water, environment, health and so many more have never been more prominent than they are today. Engineers and educators, as problem solvers should be addressing these issues and challenges in sustainable ways. They have an enormous opportunity to help create a more sustainable world. Technology problems interconnecting sustainability challenges such as climate change, loss of biodiversity, environmental pollution, economic and social instability are becoming increasingly major concerns for mankind. However, the engineers and scientists have failed on large extend to fully address the sustainability issues. It was also found that engineering graduates do not possess necessary skills to tackle sustainability related problems. Engineering practice and education are changing as social expectations and conditions for engineering practice change too. Students have the responsibility and opportunity to continue improving our life while reducing or even reversing the negative impacts that our industrial society is having on the environment. Current engineering curricula are not equipping them to properly deal with these challenges due to little integration of sustainable and green design strategies and practice. Transforming higher education curricula for sustainable development is a tough challenge, dealing with the complexness of sustainability concepts and integration into engineering education. Teaching students the sustainability principles and equipping them with necessary tools help them to make better choices on materials and energy use, or design. These concepts and methods are still relatively new to engineering curriculum and are not an established practice for most of such programs. Meanwhile, today’s students have a strong desire to improve the world through their work, and sustainability connects with these interest and motivations. However, students’ hunger for knowledge often outstrips what is available in their courses and the experiences of their professors. Furthermore, to make sustainable design compelling to a wider base of engineering students, we need to craft sustainable design in terms of mainstream design problems that are important, cutting-edge, and achievable. Then we need to help them how to effectively deal with environmental and societal needs and constraints as part of their core design process. The paper highlights the process required for embedding sustainability and green design into our programs, curriculum design, implementation and impediments to surmount for sustainability and green design in engineering education. This was done through a project-based approach, developing three new courses and appropriate changes in a number of existing courses. The skill requirements were studied and finally the list of subjects, topics, teaching and learning methods are identified and discussed in this paper.


2021 ◽  
Author(s):  
David Reynolds ◽  
Nicholas Dacre

As Engineering Education Research (EER) develops as a discipline it is necessary for EER scholars to contribute to the development of learning theory rather than simply being informed by it. It has been suggested that to do this effectively will require partnerships between Engineering scholars and psychologists, education researchers, including other social scientists. The formation of such partnerships is particularly important when considering the introduction of business-related skills into engineering curriculum designed to prepare 21st Century Engineering Students for workplace challenges. In order to encourage scholars beyond Engineering to engage with EER, it is necessary to provide an introduction to the complexities of EER.With this aim in mind, this paper provides an outline review of what is considered ‘rigorous’ research from an EER perspective as well as highlighting some of the core methodological traditions of EER. The paper aims to facilitate further discussion between EER scholars and researchers from other disciplines, ultimately leading to future collaboration on innovative and rigorous EER.


Author(s):  
Jelena Zašcerinska ◽  
Andreas Ahrens ◽  
Olaf Bassus

The aim of the following chapter is to analyze students’ view on Enterprise 2.0 and 3.0 of Web technologies in engineering and business education. The meaning of the key concepts of Enterprise 2.0and 3.0 and needs analysis is studied. Moreover, the study demonstrates how the key concepts are related to the idea of education. Finally, the study presents how the steps of the process are related: Enterprise 2.0 and 3.0 ? Enterprise 2.0 and 3.0 in engineering and business education ? empirical study. The following hypothesis for further studies is put forth: in order to develop the students’ view on Enterprise 2.0 and 3.0 in education, it is necessary to promote students’ use of Enterprise 2.0 and 3.0 for individual, organizational, and professional purposes, as well as to create a favourable learning environment which supports learners’ needs and provides successful use of Enterprise 2.0 and 3.0 in a multicultural environment.


Author(s):  
Antony J. Hodgson ◽  
H.F. Machiel Van der Loos

In last year's conference, we presented adiscussion of the relevance of the "Innovation Agenda"for engineering education. In the current paper, wepresent an overview from the literature of what isunderstood about the effectiveness of teaching innovationand entrepreneurship in order to prompt discussion aboutpotential implications for engineering curriculum design.


Author(s):  
Arthur Firipis ◽  
Matthew Joordens ◽  
Siva Chandrasekaran

Engineering curriculum design and delivery within the framework of budget restraints, learning outcome policies and industry standards, is a complex task that understandably universities and the engineering industry invest significant resources. It would be expected that what is actually occurring within the engineering learning space is a reflection of the constraints upon the industry, producing graduates, and products and services that provide a return on investment through intellectual capital. Firstly, the literature review will contextualise and explain the engineering student’s motivational variables to actively engage in their learning spaces, and how this may be applied by curriculum designers to improve the quality and delivery of courses. In particular, what are the intrinsic and extrinsic motivational variables and associated values that student’s desire during their engineering learning experience. Secondly, the research study will explore how motivational theory can be applied to the stages of ‘active learning’ when integrating 1:1 mobile devices for engineering learning. 1:1 mobile devices include iPad, mobile phones, Surface Tablets or handheld Wi-Fi or Internet accessible device used for learning purposes. It is not fully understood how to influence ‘active learning using existing teaching and learning strategies. How to influence an engineering undergraduate student to prioritise the use of 1:1 mobile devices as a means to source prescribed and unprescribed curriculum resources to improve learning outcomes. Is it unreasonable to expect engineering students to be constrained to the learning resources supplied by the engineering course facilitated, or should engineering students be encouraged to use their own initiative and find their own supporting information?


Author(s):  
Sivachandran Chandrasekaran ◽  
Binali Silva ◽  
Arun Patil ◽  
Aman Maung Than Oo ◽  
Malcolm Campbell

The focus of this research study is to evaluate engineering graduates' performance on team-based learning practices in engineering education course. Team based learning (TBL) is an effective approach, which emphasizes active learning in a collaborative task. In an engineering curriculum, students are encouraged to develop skills around TBL that helps to enhance graduate employability opportunities. This paper presents an exploratory analysis of evaluating engineering graduates' performance in practising TBL at a postgraduate study level. The cohort of students that participated in this study were primarily postgraduate engineering students at Deakin University.


2014 ◽  
Vol 15 (4) ◽  
pp. 390-403 ◽  
Author(s):  
Deborah Shields ◽  
Francesca Verga ◽  
Gian Andrea Blengini

Purpose – The purpose of this paper is to describe the ongoing shift in sustainable engineering and the approaches used by universities for engineering students. At the United Nations Earth Summit, in Rio de Janeiro, in 1992, participating nations agreed to work together to achieve the goal of sustainable development. Twenty years on, great progress has been made, but many challenges remain and overcoming them and ensuring a sustainable future will require the knowledge, skills and input of engineering professionals. Ethics and costs have long been part of engineering, but broader understanding is now needed because the skill set those engineers will need has grown dramatically. Design/methodology/approach – In this paper, the authors describe the ongoing shift to sustainable engineering and discuss a variety of approaches that universities are currently using to introduce engineering students and practitioners to sustainability principles and practice and how those can be utilized in mining and petroleum high education institutions. Findings – The authors first place sustainability in an engineering context and vice versa, and then review alternative approaches to incorporating sustainability in engineering curricula, briefly highlighting a few key concepts and documenting an example. Research limitations/implications – The authors first place sustainability in an engineering context and then review alternative approaches to incorporating sustainability in engineering curricula, briefly highlighting a few key concepts and documenting an example. Originality/value – The challenge to educators is to ensure that new concepts addressing sustainability are not only instilled in the next generation of engineers but are also being communicated to practicing engineers. Incorporating sustainability into mining and petroleum engineering education is identified as a way to engage students, encourage their enthusiasm and interest them in pursuing engineering as a career that is not only interesting but also contributes to society. Distance education is identified as a way to education practicing engineers about sustainability concepts.


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