Department of Mechanical Engineering and Materials Science and Engineering

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Department of Mechanical Engineering and Materials Science and Engineering
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Grades - Exomoiosi (SIS) Candidate Students

Candidate Students General Information History What is ME and MSE? Vision and Objectives Acquired Skills and Employment Opportunities Mechanical Engineering (ME) and Materials Science and Engineering (MSE) are among the broadest engineering disciplines; the objectives of these fields are to utilize the scientific principles of physics, mathematics, chemistry and biology for the analysis, design, development, optimization, and production of components, machines, processes and systems. The profile of the engineering field has changed so dramatically over the years that it is no longer an easy task to define a “typical” mechanical engineer. Indeed, the level of education afforded to the mechanical engineer of today permits him or her to work in diverse areas ranging from research, design, development, consulting, fabrication, processing, testing, and characterization to operation, planning, marketing, sales and management. In fact, as they mature professionally, many mechanical engineers move from the more technical environment of design and development to the more business-oriented environment of operations, sales and management. Thus, it is perhaps more appropriate to talk about a typical career path rather than a typical mechanical engineer. In recognition of the diversity of the mechanical engineering discipline, the Department of Mechanical Engineering and Materials Science and Engineering aims to foster the appropriate learning environment for its students that will allow them to meet their educational aspirations and pursue their career goals in Cyprus. The single feature that characterises and distinguishes engineers from other professionals is design, and that could entail design of machinery (Mechanical Engineering), design of major highways (Civil Engineering), design of electronic materials/devices and systems (Materials Engineering and Electrical Engineering), and many others. In order for design to have practical significance, however, it must culminate in the production or fabrication of a device, structure or system. Fabrication of any product, however, requires the selection of the appropriate materials. In fact, materials selection is so important from both engineering and economic perspectives that it constitutes an integral and often the most important component of engineering design. If one also takes into account the fact that the rapid technological advancements of recent years have brought into the forefront novel materials like composite and smart materials that allow the design of materials with enhanced properties and characteristics, then one appreciates that the term “modern mechanical engineering design” entails the design of not only a product or a structure but also the material itself. Thus, it is logical that a Department that combines the fields of Mechanical Engineering and Materials Science and Engineering will be able to arm its graduates with the necessary tools to effect complete engineering design beginning with the preliminary stages of design of not only the product or structure but also of the appropriate material and culminating in the last stages of production. In our Department therefore, integrated with the field of Mechanical Engineering is the field of Materials Science and Engineering. Materials Science and Engineering is an interdisciplinary field that has only recently come into the forefront of technology. The stature of the field has grown from that of a support field to that of an independent engineering discipline when it became evident that the activities in various materials categories such as metals, ceramics and polymers have a lot of common features among them involving both their processing and experimental characterization techniques as well as the micromechanical (numerical and analytical) methodologies for the assessment of their properties. Materials Science and Engineering, therefore, has emerged from the integration of these activities. Materials Science and Engineering may be defined as the field of study of the structure and properties of different materials that has the objective of appreciating the relationships between the structural characteristics, processing techniques, and properties of a certain product. Materials Science and Engineering is the utilization of the accumulated knowledgebase for the purpose of effecting specific design, synthesis, control and modification of appropriate materials for engineering and general technological applications. The interdisciplinary nature of the field has its foundations in the fact that one needs to appreciate both the underlying scientific foundations of the pertinent materials – beginning from their fundamental building blocks at the nanoscopic level to their macroscopic behaviour – as well as the specific mechanics characterising their applications. Thus, it is a very broad field attracting scientists and engineers that come from a wide range of educational and research backgrounds such as Physics, Chemistry, Biology, and Engineering. Moreover, it has been observed that, in the recent years, many leading Universities throughout the world are offering both undergraduate and graduate degrees in Materials Science and Engineering. This trend will continue as more countries realise the importance of the field in the achievement of innovative and ambitious technological goals.

OrgUnit's Researchers publications
(Dept/Workgroup Publication)

Results 701-720 of 1069 (Search time: 0.006 seconds).

Issue DateTitleAuthor(s)
7019-Jun-2006Probing the structure and energetics of dislocation cores in sige alloys through Monte Carlo simulationsRemediakis, Ioannis N. ; Jesson, David E. ; Kelires, Pantelis C. 
702Jul-2010The production of biodegradable waste in CyprusTassou, Savvas A. ; Florides, Georgios A. ; Kythreotou, Nicoletta 
703Feb-2014Promoting the assembly of carbon onions: An atomistic approachAdhikari, Bibek ; Muthuraman, Balaji ; Mathioudakis, Christos ; Fyta, Maria G. 
7042010A proposed extension of the CODAM model for human attentionNeokleous, Kleanthis C. ; Avraamides, Marios N. ; Neocleous, Costas 
705Apr-2012A proposed methodology for the calculation of direct consumption of fossil fuels and electricity for livestock breeding, and its application to CyprusFlorides, Georgios A. ; Kythreotou, Nicoletta ; Tassou, Savvas A. 
706Feb-2011Proteomic characterization of human early pro-angiogenic cellsUrbich, Carmen ; De Souza, Ayesha I ; Rossig, Lothar ; Yin, Xiaoke ; Xing, Qiuru ; Prokopi, Marianna ; Drozdov, Ignat ; Steiner, Marianne ; Breuss, Johannes ; Xu, Qingbo ; Dimmeler, Stefanie ; Mayr, Manuel 
7072-Jan-2009Proteomics identifies thymidine phosphorylase as a key regulator of the angiogenic potential of colony-forming units and endothelial progenitor cell culturesPula, Giordano ; Mayr, Ursula ; Evans, Colin ; Prokopi, Marianna ; Vara, Dina S ; Yin, Xiaoke ; Astroulakis, Zoe ; Xiao, Qingzhong ; Hill, Jonathan ; Xu, Qingbo ; Mayr, Manuel 
70818-Feb-2011Proteomics: a reality-check for putative stem cellsProkopi, Marianna ; Mayr, Manuel 
7091-Dec-2003Pull-out behaviour of steel fibres recycled from used tyresTlemat, H. ; Pilakoutas, Kypros ; Neocleous, Costas 
7101-Nov-2021PV roofs as the first step towards 100% RES electricity production for Mediterranean islands: The case of CyprusAgathokleous, Rafaela A. ; Kalogirou, Soteris A. 
711Oct-2016Quality control of solar shortwave and terrestrial longwave radiation for surface radiation measurements at two sites in CyprusPashiardis, Stelios ; Kalogirou, Soteris A. 
7122016Quantification of local blood flow characteristics in microfluidic applicationsKaliviotis, Efstathios ; Sherwood, J.M. ; Dusting, J. ; Balabani, Stavroula 
71323-Aug-2016Quantifying local characteristics of velocity, aggregation and hematocrit of human erythrocytes in a microchannel flowKaliviotis, Efstathios ; Dusting, Jonathan ; Sherwood, Joseph M. ; Balabani, Stavroula 
714Oct-2011Quantifying Plasticity-independent Creep Compliance and Relaxation of Viscoelastoplastic Materials Under Contact LoadingConstantinides, Georgios ; Vandamme, Matthieu ; Tweedie, Catherine A. ; Ulm, Franz Josef ; Vliet, Krystyn J Van 
715Aug-2009Quantitative impact testing of energy dissipation at surfacesConstantinides, Georgios ; Tweedie, Catherine A. ; Savva, Nikos ; Smith, James Fielding ; Vliet, Krystyn J. Van 
71614-Oct-2021Quantum Confinement of Electron-Phonon Coupling in Graphene Quantum DotsZacharias, Marios ; Kelires, Pantelis C. 
7177-Oct-2021Quasiparticle Band Structure and Phonon-Induced Band Gap Renormalization of the Lead-Free Halide Double Perovskite Cs2InAgCl6Ha, Viet Anh ; Volonakis, George ; Lee, Hyungjun ; Zacharias, Marios ; Giustino, Feliciano 
71817-Dec-2013Radiation emitting device
719Aug-2019Real-time energy convex optimization, via electrical storage, in buildings – A reviewGeorgiou, Giorgos S. ; Christodoulides, Paul ; Kalogirou, Soteris A. 
7202008Real-world experiments over the Internet: the solar energy e-learning laboratory experienceEleftheriou, Polyvios ; Michaelides, Ioannis