The objectives of the course of the Organization-Feasibility Analysis and Project Management listed in the intended and expected results (output), which are: - The possibility to evaluate (qualitatively and quantitatively) the economic impact - consequences of our technical decisions, namely what implications these decisions on resource consumption, but also what we expect to deliver.  The configuration of this overall perception is so essential because: - The resources with which we operate (human resources, capital, equipment, installations) is always limited and should engineers to minimize resource consumption and maximize the performance of projects. On the other hand, the engineer is often faced with the need to choose among alternative resource investment opportunities, or between alternative projects to be implemented. It must therefore be able, in a structured way and rational criteria, prioritization of priorities on what / which investment decisions have to be taken, taking into account technical and economic parameters.

The aim of the course is the introduction to the algorithmic thinking and problem solving The / Y. This course addressed: the concept of the algorithm, the data show, the algorithm design techniques, solving algorithmic problems. Also the students know the basic concepts of structured programming. It presents the typical characteristics and mechanisms of a structured language and introduction to the design and development of structured programs using that language. The principles of structured programming are presented using the programming language C. The theoretical lessons are accompanied by workshops in which students will have the opportunity to apply the theory in an appropriate programming environment.

Approach to Building. Review all building work briefly. Introduction- Masonry (rules & artificial materials - disadvantages and advantages; openings in load toichous- toichon- investments epichrismata- anoflia- thresholds-window aprons). General introduction to the floor construction. Overview frames. Roofs. Introduction to roofing. Heating- cooling buildings naturally energy saving methods of heating buildings - fireplaces and hearths. Stairs. Functional forms, materials and assessment scales. Reforms and aesthetic corrections.

This course is intended as a sequel to “Automatic Control Systems I”, which introduced the basics of System Theory for open-loop systems. Here, emphasis is given to the analysis of systems control in closed-loop control circuits. Initially, the concept of system stability is presented. We specifically explain how stability is linked to the operational behavior of the system. Then, we focus on the stability and performance characteristics of systems under control in a closed loop circuit. The closed-loop stability is studied by means of the Routh algebraic criterion. The performance characteristics are analyzed by means of the transient parameters (overshoot, settling time etc) of the closed loop system response to typical inputs and the associated steady state error. Next, we introduce the concept of relative stability, which essentially explains how the closed loop stability is affected by the choice and tuning of the controller. Tools for studying the relative closed loop stability include the Root Locus theory and the Nyquist (and Bode) plots. These are used in a controller design context, with essentially materializes in choosing the suitable controller and tuning it on a basis of obtaining the desired closed loop response to typical inputs. Finally, we introduce the concept of inner system state by focusing on State-Space representation of systems. The State-Space equations are solved using either Laplace transform of the system eigenvalues, the system response is computed and the trajectories of state-space variables are presented.

Motion systems are one of the main aspects of modern technological devices and installations, not only in purely industrial sector, but also in agricultural production, transport, the environment and many other areas of application. Therefore the control of motion systems so that the motion systems can operate safely and effectively is one of the most important and most common areas of responsibility of the graduate Automation Engineer Technologist.