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Automation Systems Lecture 1.0 - requirements/introduction Jakub Możaryn

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Automation Systems

Lecture 1.0 - requirements/introduction

Jakub Możaryn

Institute of Automatic Control and Robotics, Department of Mechatronics, WUT

Warszawa, 2016

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Programme

Information about course lectures

instructor: Jakub Możaryn, e-mail: j.mozaryn@mchtr.pw.edu.pl, www: http://jakubmozaryn.esy.es

time: semester IV - 18 hours, 9 meetings, tue. (17-19) place: room 3.2 (SIMR)

laboratories

instructors: Alicja Siewnicka, Alicja Cegielska, Damain Suski time: semester IV - 12 hours, 6 meetings, tue. (17-19) place: room 3.2 (SIMR), room 227 (Mechatronics)

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Programe

Lecture information Lecture: 18 hours

Laboratory: 12 hours Work at home: 20 hours Exam preparation: 10 hours

Requirements for passing: pass an exam and attend all laboratories

ECTS points - 3

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Literature

in english:

Richard C. Dorf, Robert H.Bishop,Modern Control Systems, Prentice Hall, 2008

Gene F. Franklin, J. David Powell, Abbas Emami-Naeini,Feedback Control of Dynamic Systems, Addison-Wesley, 1994

Norman S. Nise, Control Systems Engineering, Wiley, 2015 on-line MOOC courses: Coursera, EdX, Iversity

in polish:

Holejko D., Kościelny W.: Automatyka procesów ciągłych.

Oficyna Wyd. PW, Warszawa 2012.

Żelazny M.: Podstawy Automatyki. WNT, Warszawa 1976.

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Introduction

Today, many devices are equipped with what is generally called

automation. Ranging from household appliances like iron (temperature controller), washing-machine (programmer) to devices with the most advanced technology as an aircraft.

One of the first controllers, which has been applied in practice was Watt’s regulator to stabilize the rotation of the steam engine (1784).

Since then, automation has become a field of science, and the number of its practical application is constantly growing. The theory of automatic control, now includes

theory of linear systems, theory of nonlinear systems, optimal control,

theory of discrete systems (logical automation systems),

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Natural and technological processes

Natural processes

The physical and chemical changes of a state of matter, taking place without human intervention.

weather changes,

water movement in rivers, tectonic movements, chemical processes in the human body.

Technological processes The processes designed by man using devices are constructed by him, to obtain the intended changes in state of matter.

temperature changes in the greenhouse,

water level changes in the tanks in chemical plants.

During the course there will be discussed issues related to technological processes.

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Control Systems Engineering

Engineering

Understanding and controlling the materials and forces of nature for the benefit of humankind.

Control Systems Engineering

Understanding and controlling segments of an environment, often called systems, to provide useful economic products for society

Concepts Feedback Theory Linear Systems Analysis Network Theory Communication Theory

Domains Mechanical Engineering Automotive Engineering Electrical Engineering Aeronautical Engineering Environmental Engineering

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Introduction

Aims of the course

Acquiring the ability to recognize and assess the problems of automation and control.

Assimilate the basic concepts of automation of different processes, methods to determine the nature and elements of automation.

Understanding the basic principles of operation of control systems and functions of the elements making up these systems.

Understanding the requirements of automation systems and methods of ensuring the fulfillment of these requirements.

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Programme

Scope

1 Basic concepts, classification of control systems, examples.

2 Methods for description of dynamical systems: differential equations, transfer fuctions, description in time-frequency domain.

3 Static and dynamic fetures of basic components.

4 Designinig and reducing block schemes of systems.

5 Process identification.

6 PID controller, selection of controller parametrs.

7 Stability of control systems.

8 Static and dynamic indicies of control quality.

9 Designing a control systems.

10 Complex control systems.

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Automation Systems

Lecture 1.0 - requirements/introduction

Jakub Możaryn

Institute of Automatic Control and Robotics, Department of Mechatronics, WUT

Warszawa, 2016

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