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The paper describes the design and implementation of a virtual lab for on-line lab training on optical communications, part of the 'Optical Communications' course offered at the Dept. of Electrical & Electronic Engineering Educators, School of Pedagogical & Technological Education (ASPETE), Athens, Greece. The virtual lab is based on the OptiSystem 16 software tool while the on-line component was implemented by using the MS-Teams tool of MS-Office. The lab includes a synchronous and an asynchronous part. Since the virtual lab was offered for the first time, students' response was evaluated on the basis of the submitted lab reports to allow for proper corrective actions during the subsequent academic year. Results were encouraging in that 79% of the students achieved a passing grade, however, 60% of students either failed or attained a low passing grade, which leaves room for improvement. Further analysis revealed a lack of a proper background in mathematics, physics and essential signal quantities. Future actions will include an investigation of the optimum combination between the physical and the simulation lab, development of short notes and multiple-choice questions, a closer association between the lab work and relevant small tasks/projects and a more systematic feedback process.

During the last decade, significant funding has become available to Greek public universities to support the convergence to the common European space of higher education. In a number of departments, this funding was wisely invested in the development of a quality culture, covering not only the educational process, but also the services offered by the department's administration and technical support staff. This paper presents the design and implementation of a quality-oriented studies' reform plan in the Mechanical Engineering Department, University of Thessaly in the period 2002-2008. Based on the successful experience from its application, a significant part of the personnel and students have become acquainted with basic quality assurance procedures and performance evaluation. Experience and lessons learnt from this effort are reported and discussed in this paper. (Contains 3 figures.)

This paper presents the structure of an undergraduate course entitled "programming techniques and the use of specialised software in structural engineering" which is offered to the fifth (final) year students of the Civil Engineering Department of Aristotle University Thessaloniki in Greece. The aim of this course is to demonstrate the use of new information technologies in the field of structural engineering and to teach modern programming and finite element simulation techniques that the students can in turn apply in both research and everyday design of structures. The course also focuses on the physical interpretation of structural engineering problems, in a way that the students become familiar with the concept of computational tools without losing perspective from the engineering problem studied. For this purpose, a wide variety of structural engineering problems are studied in class, involving structural statics, dynamics, earthquake engineering, design of reinforced concrete and steel structures as well as data and information management. The main novelty of the course is that it is taught and examined solely in the computer laboratory ensuring that each student can accomplish the prescribed "hands-on" training on a dedicated computer, strictly on a 1:1 student over hardware ratio. Significant effort has also been put so that modern educational techniques and tools are utilised to offer the course in an essentially paperless mode. This involves electronic educational material, video tutorials, student information in real time and exams given and assessed electronically through an ad hoc developed, personalised, electronic system. The positive feedback received from the students reveals that the concept of a paperless course is not only applicable in real academic conditions but is also a promising approach that significantly increases student productivity and engagement. The question, however, is whether such an investment in educational technology is indeed timely during economic recession, where the academic priorities are rapidly changing. In the light of this unfavourable and unstable financial environment, a critical overview of the strengths, the weaknesses, the opportunities and the threats of this effort is presented herein, hopefully contributing to the discussion on the future of higher education in the time of crisis.

An academic legislative reform of the public university sector was recently initiated in Greece (since 2005). It was designed to respond to the requirements of convergence to a common frame of the European Space of Higher Education. This reform found significant resistance from university personnel and students, resulting in a very slow degree of implementation. A careful examination of possible causes for the slow pace of reform usually points to the reluctance of a significant part of the academic and administrative personnel (tenured public service employees), to follow quality assurance procedures and undergo performance evaluation. Engineering schools, on the other hand, are more apt to adopt such principles, since they are taught in engineering curricula and widely applied in industry and services sectors. In this paper, the authors comparatively describe their experience in applying basic quality principles and practices to the university laboratory environment, motivated by cooperation with industry. The comparative discussion adds insight to the reasons for the resistance of the public higher education sector to quality assurance procedures and indicates specific directions to enhance the dissemination of quality culture in engineering faculties. After two decades of experience with the application and introduction of quality structures in the university and industry, the authors believe that engineering laboratories are a valuable tool in initiating and establishing a quality culture in the Greek higher education system. (Contains 1 table and 2 figures.)

While entrepreneurship has emerged as an important mechanism for the generation of social returns in terms of economic growth and job creation, entrepreneurship education is still something new in Europe and the debate about the need and the way of introduction of specific entrepreneurship courses in higher education is on going. This paper deals with the introduction of entrepreneurship education in engineering curricula. More specific it presents the experience of the National Technical University in Greece, as a case in point for discussing the need of an interdisciplinary approach in designing engineering curricula. The main argument is that the introduction of entrepreneurship education in University curricula should not result as an application of policy initiatives only related to economic imperatives. It should be part of a more general discussion related to educational priorities and of a strategic design of University curricula in order to provide engineers with entrepreneurial and management skills that will enhance their profile in accordance with the new requirements of the knowledge-based economy. (Contains 1 figure.)

This paper presents the structure of an undergraduate course entitled ‘programming techniques and the use of specialised software in structural engineering’ which is offered to the fifth (final) year students of the Civil Engineering Department of Aristotle University Thessaloniki in Greece. The aim of this course is to demonstrate the use of new information technologies in the field of structural engineering and to teach modern programming and finite element simulation techniques that the students can in turn apply in both research and everyday design of structures. The course also focuses on the physical interpretation of structural engineering problems, in a way that the students become familiar with the concept of computational tools without losing perspective from the engineering problem studied. For this purpose, a wide variety of structural engineering problems are studied in class, involving structural statics, dynamics, earthquake engineering, design of reinforced concrete and steel structures as well as data and information management. The main novelty of the course is that it is taught and examined solely in the computer laboratory ensuring that each student can accomplish the prescribed ‘hands-on’ training on a dedicated computer, strictly on a 1:1 student over hardware ratio. Significant effort has also been put so that modern educational techniques and tools are utilised to offer the course in an essentially paperless mode. This involves electronic educational material, video tutorials, student information in real time and exams given and assessed electronically through an ad hoc developed, personalised, electronic system. The positive feedback received from the students reveals that the concept of a paperless course is not only applicable in real academic conditions but is also a promising approach that significantly increases student productivity and engagement. The question, however, is whether such an investment in educational technology is indeed timely during economic recession, where the academic priorities are rapidly changing. In the light of this unfavourable and unstable financial environment, a critical overview of the strengths, the weaknesses, the opportunities and the threats of this effort is presented herein, hopefully contributing to the discussion on the future of higher education in the time of crisis. [ABSTRACT FROM PUBLISHER]

While entrepreneurship has emerged as an important mechanism for the generation of social returns in terms of economic growth and job creation, entrepreneurship education is still something new in Europe and the debate about the need and the way of introduction of specific entrepreneurship courses in higher education is on going. This paper deals with the introduction of entrepreneurship education in engineering curricula. More specific it presents the experience of the National Technical University in Greece, as a case in point for discussing the need of an interdisciplinary approach in designing engineering curricula. The main argument is that the introduction of entrepreneurship education in University curricula should not result as an application of policy initiatives only related to economic imperatives. It should be part of a more general discussion related to educational priorities and of a strategic design of University curricula in order to provide engineers with entrepreneurial and management skills that will enhance their profile in accordance with the new requirements of the knowledge-based economy. [ABSTRACT FROM AUTHOR]

An academic legislative reform of the public university sector was recently initiated in Greece (since 2005). It was designed to respond to the requirements of convergence to a common frame of the European Space of Higher Education. This reform found significant resistance from university personnel and students, resulting in a very slow degree of implementation. A careful examination of possible causes for the slow pace of reform usually points to the reluctance of a significant part of the academic and administrative personnel (tenured public service employees), to follow quality assurance procedures and undergo performance evaluation. Engineering schools, on the other hand, are more apt to adopt such principles, since they are taught in engineering curricula and widely applied in industry and services sectors. In this paper, the authors comparatively describe their experience in applying basic quality principles and practices to the university laboratory environment, motivated by cooperation with industry. The comparative discussion adds insight to the reasons for the resistance of the public higher education sector to quality assurance procedures and indicates specific directions to enhance the dissemination of quality culture in engineering faculties. After two decades of experience with the application and introduction of quality structures in the university and industry, the authors believe that engineering laboratories are a valuable tool in initiating and establishing a quality culture in the Greek higher education system. [ABSTRACT FROM AUTHOR]

The management of complex water problems is nowadays being practised through new ways and approaches. Therefore, water engineers, planners and managers should be appropriately educated through modern undergraduate curricula and by well-designed postgraduate specialisation programmes. Within this framework, a study of the specific characteristics of an ensemble of 14 postgraduate programmes in various fields of environmental water resources engineering and management, offered by Greek universities, is presented. Detailed information and data regarding the formats, structures, educational processes and curricula contents of these programmes are analysed and critically discussed. Similarities and differences among them are depicted and synthesised, in order to reveal individual as well as collective qualities and deficiencies in relation with the overall current needs for engineering postgraduate specialisation in water-related issues. [ABSTRACT FROM PUBLISHER]