Transformation process in engineering education: A holistic approach

Author(s):  
B. Vipin ◽  
Vinay V. Panicker ◽  
R. Sridharan
2021 ◽  
Vol 13 (22) ◽  
pp. 12358
Author(s):  
Dwi Ratna Hidayati ◽  
Elena Garnevska ◽  
Paul Childerhouse

To service high-value international markets, many agrifood value chains in developing countries are required to transform to meet the strict quality and safety standards. This transformation process has become further complicated by increased sustainability expectations. The key players in these countries, typically smallholders, are struggling to meet this new sustainability value focus. Economic drivers pervade in this context, whilst the lack of integration often decouples producers from the end market. To address these challenges, this paper develops a framework to enable sustainable agrifood value chain transformation in developing countries. A narrative review was used to analyse the major enablers and barriers in sustainable agrifood value chain transformation specifically in developing countries. The framework novelty lies in the synthesis and prioritisation of transformations actions, by integrating three central dimensions: sustainability, governance, and value addition. The incorporation of sustainability drivers into value chain governance provides a holistic approach that balances profit maximization with social and environmental impacts, thus enabling smallholders in developing countries to access higher value markets. The framework can assist these value chain actors in identifying their transformation trajectory and guide policymakers, along with the public sector, in prioritising their intervention to overcome barriers.


2021 ◽  
Vol 13 (11) ◽  
pp. 6071
Author(s):  
Davide Pasquali ◽  
Alessandro Marucci

The land transformation process in the last decades produced the urbanization growth in flat and coastal areas all over the world. The combination of natural phenomena and human pressure is likely one of the main factors that enhance coastal dynamics. These factors lead to an increase in coastal risk (considered as the product of hazard, exposure, and vulnerability) also in view of future climate change scenarios. Although each of these factors has been intensively studied separately, a comprehensive analysis of the mutual relationship of these elements is an open task. Therefore, this work aims to assess the possible mutual interaction of land transformation and coastal management zones, studying the possible impact on local coastal communities. The idea is to merge the techniques coming from urban planning with data and methodology coming from the coastal engineering within the frame of a holistic approach. The main idea is to relate urban and land changes to coastal management. Then, the study aims to identify if stakeholders’ pressure motivated the deployment of rigid structures instead of shoreline variations related to energetic and sedimentary balances. The influence of coastal protection (described by an indicator taking into account the linear density of the rigid protection extension alongshore) measures have been considered. Finally, the economical performances in the period just after the land transformation have been studied by means of a dimensionless index based on the concept of the local unit. The method has been applied to the case study of the Abruzzo Region. Results reveal a large urbanization growth and a generalized over-protection of the coast with a resulting spatial alternation of shoreline retreat and advance. On the other hand, the analysis of the local economy reveals that the presence of tourism activities does not necessarily lead to an increase in the local economy. Indeed, the most important improvement in local economies in the region can be associated with coastal stretches characterized by a high environmental value.


Author(s):  
Simon Rogerson

These ideas were developed and refined in a compulsory 30-credit module for software engineering and computer science students. The module employs a number of novel techniques in delivery and assessment, as well as a number of online learning tools. These provide an exemplar environment of new educational experiences for those preparing for a career in software engineering. Also included in this chapter are summarised feedback ideas received from students and the experiences of the tutors delivering the module. This leads to a series of recommendations for future developments, which will be of interest to all involved in software engineering education.


Kybernetes ◽  
2019 ◽  
Vol 48 (7) ◽  
pp. 1478-1499
Author(s):  
Álvaro Hernán Galvis ◽  
Angélica Avalo ◽  
Alexandra Ramírez ◽  
Diana Carolina Cortés ◽  
Helmman Cantor

Purpose The REDINGE2 – Reengineering Engineering Teaching, version 2 – project seeks to transform engineering education practices at the University of los Andes (UNIANDES) by using technology-based active learning strategies in courses from different disciplines that are to be reformed using a Big-ideas approach. Studies from this two-year project (2017-2018) seek to solve three main questions: What changes in engineering teaching conceptions, methods, tools and practices could be generated by reengineering courses using a Big-ideas approach? What changes in key conditions of learning environments have the students perceived in courses that use a Big-ideas approach? What lessons can be derived from the initial studies of REDINGE2’s pilot experiences? Design/methodology/approach The REDINGE2 project was conceived as a technology-based educational transformation initiative. It is the Faculty of Engineering at UNIANDES’ explicit intention to move engineering teaching from being content-focused to being big-ideas focused. It also wants to migrate from teacher-centered teaching strategies to student- and group-centered approaches. Additionally, this project intends to enrich engineering education ecologies with digital resources by integrating experiential, flexible and collaborative digital learning environments with traditional classroom/workshop/library/home/work learning settings. To promote this organic change, the project implemented a facilitation-from-the side strategy, which redesigned 14 engineering courses: each was given a two-year grant from the Office of the Dean of Engineering to rethink teaching practices and redesign the course. A cybernetic evaluation system was embedded in the life cycle of the transformation process that could support decision-making through each of the project’s stages (Stufflebeam, 1971). Questions of interest in this study are provided with information using triangulation of data at different times during each course’s redesign process. Findings After a year and half of the two-year REDINGE2 project (2017-2018), it is possible to say the following three research questions are fully solved. Concerning Question #1: What changes in engineering teaching conceptions, methods, tools and practices contribute to reengineering courses when using a Big-ideas approach? Participating teaching staff have demonstrated changes in their teaching conceptions, methods and resources, which can be attributed to their exposure to active-learning strategies supported by digital technologies. In fact, each one has redesigned and pilot tested at least one restructured learning unit for one of their courses according to the proposed Big-ideas approach; in addition, most admit to already having adjusted their teaching practices by changing their mindset regarding learning and how to promote it. Concerning Question #2: What changes in key conditions of learning environments have the students perceived in courses that have been redesigned using a Big-ideas approach? Data collected from students and participating staff members, both before the redesign and throughout this process, have provided teachers and students with feedback concerning perceived changes in learning environments. This has had positive results and provided opportunities for improvement. Concerning Question #3: What lessons can be derived from REDINGE2’s pilot experiences? Lessons from this project are multi-dimensional and there are organizational, pedagogic, technological and cultural considerations. A decalogue of critical success factors was established, which considered the things that must go right to successfully accomplish proposed educational transformations. Research limitations/implications This study is a good case of educational transformations in engineering teaching. No generalizations should be made, but it shows that similar processes of planned change can be made in tertiary science, math, engineering and technology (SMET) education. Practical implications The lessons learned from this experience are very valuable for higher education decision-makers who want to innovate by using learning ecologies in their institutions. In addition, theoretical considerations that illuminate the innovation process become very useful to help provide a foundation to similar interventions. Originality/value A non-conventional approach to integrate digital technologies in higher education teaching is the most significant contribution this experience has made. Its focus has been to transform educational practices with pedagogically sound uses of digital technologies instead of just integrating technologies in current SMET teaching practices. Facilitation-from-the-side and embedded cybernetic evaluation through the transformation process are key ideas that add value to organic change processes.


IEEE Access ◽  
2017 ◽  
Vol 5 ◽  
pp. 8148-8161 ◽  
Author(s):  
Anthony A. Maciejewski ◽  
Thomas W. Chen ◽  
Zinta S. Byrne ◽  
Michael A. De Miranda ◽  
Laura B. Sample Mcmeeking ◽  
...  

Author(s):  
Jenö Beyer ◽  
Lajos Tóth

The structural changes during reversible martensitic transformation of near-equiatomic NiTi alloys can best be studied in TEM at around room temperature. Ternary additions like Mn offer this possibility by suppressing the Ms temperature below RT. Besides the stable intermetallic phases (Ti2Ni, TiNi, TiNi3) several metastable phases with various crystallographic structures (rhombohedral, hexagonal, monoclinic, cubic) have also been reported to precipitate due to suitable annealing procedures.TiNi:Mn samples with 0.9 and 1.3 at% Mn were arc melted in argon atmosphere and homogenized at 948 °C for 72 hours in high vacuum in an infrared furnace. After spark cutting slices of 0.2 mm, TEM specimens were prepared by electrochemical polishing with the twin-jet technique in methanol - perchloric acid electrolyte. The TEM study was carried out in a JEOL 200 CX analytical electron microscope.In this paper a new intermetallic phase is reported which has been observed in both samples by TEM during the martensitic transformation process.


2012 ◽  
Vol 2 (1) ◽  
pp. 25-33 ◽  
Author(s):  
Michaela Heese

Members of the Civil Air Navigation Services Organisation have committed themselves to measure and improve safety culture within their organizations by 2013 ( CANSO, 2010 ). This paper attempts to offer support to air navigation service providers that have already implemented a standardized safety culture survey approach, in the process of transforming their safety culture based on existing survey results. First, an overview of the state of the art with respect to safety culture is presented. Then the application of the CANSO safety culture model from theory into practice is demonstrated based on four selected case studies. Finally, a summary of practical examples for driving safety culture change is provided, and critical success factors supporting the safety culture transformation process are discussed.


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