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CONTENTS · CONTENTS Summary of Program ... 21 Descriptive Geometry 2 2 m 3 2 ... (SCHAUM’S SOLVED PROBLEM SERIES), McGraw-Hill, 1990, ISBN 0 …

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  • 1

    CONTENTS

    Summary of Program Facts.2

    Curriculum..5

    Course Descriptions9

    Faculty of Engineering and its Laboratories...75

    Pharma Flight79

  • 2

    PROGRAM FACTS

    Name and Level Professional Pilot with type rating, BSc

    Credits 210

    Duration 7 semesters

    Mode Full time on campus + in partnership

    with Pharma Flight

    Language English

    Start date September 2017

    OBJECTIVES

    The main objective of the Professional aviator education is to give the applicants the

    knowledge and skills that make the passing of the ATPL (Airline Transport Pilot

    Licence) integrated trainings manual and academic licencing of the National

    Transport Authority, Aviation Authority possible without any further

    education. The aim is to train professionals who are capable of working for aviation

    companies as professional pilots, who understand aviation, traffic, air operation and

    ground handling assignments and tasks, who can manage valid quality control tasks,

    have met requirements of ATP (A) (Airline Transport Pilot, Aircraft) integrated

    training. The future graduates understand and excel in the usage of the professional

    English language as per the 1178/2011(2011.11.03.) EU ordinate.

  • 3

    CORE MODULES

    Basic Science Module (Mathematics, Technical Mechanics, Engineering

    Physics, Thermodynamics and Fluid Mechanics, Informatics, Descriptive

    Geometry, Meteorology)

    Economy and Law Module (Economics for Engineers, Microeconomics,

    Management for Engineers, Basics of Quality Management,

    Environmental protection, Dangerous Goods, Flight Administration and

    Law, ATPL, Air Law)

    Engineering Module (Machine Elements, Materials Science, Manufacturing

    Processes, Electro-technics and Electronics, Measurements and

    Automatics, Industrial Safety, Sensors and Actuators, Mechatronics)

    Aviation Engineering Module (Aircraft Technology, PPL Theoretical

    Knowledge, Principles of Flight, Aircraft General Knowledge

    (Airframe/Systems/Power Plants) ATPL, Aircraft General Knowledge

    Instrumentation)

    Aviation Management and Administration Module (Crew Management,

    Rules of Aerodromes, Radiotelephony, Mass and Balance, Performance,

    Flight Planning and Monitoring, General Navigation, Radio Navigation,

    Operational Procedures, Communication)

    The program includes:

    40 courses + flight training

    14 ATPL (Airline Transport Pilot Licence) courses

    40 hours on FNPTII MCC simulator

    15 hours on FTD simulator

    40 hours on FFS simulator

    200 flight hours

  • 4

    The students acquire:

    a Bachelors degree a frozen ATPL (Airline Transport Pilot Licence) with A320 type rating, PPL (Private Pilot Licence), CPL (Commercial Pilot Licence), ME-IR (Multi-engine Instrument Rating), MCC (Multi-Crew Cooperation Training), Jet Familiarization a professional UAV (Unmanned Aerial Vehicle) pilot licence (optional)

    Flight Simulation Training Devices

    1. Airbus 320-200 FFS (Full Flight Simulator), Level D with CFM56-5B4 and

    IAE V2527-A5 engine version

    2. Boeing 737-800 FTD (Flight Training Device) Level 2 with CFM56-7

    engine version

    3. FNPTII MCC, generic single engine, multi-engine, turboprop piston

    configuration

  • 5

    CURRICULUM

    Professional Pilot BSc

    Nr.

    lect sem exam credit semester Prerequisite

    Bas

    ics

    of

    Nat

    ura

    l Sci

    ence

    s

    1 Mathematics I. 2 3 e 6 1

    2 Mathematics II. 2 3 e 6 2 Mathematics I.

    3 Technical Mechanics I. 2 2 e 4 1

    4 Technical Mechanics II.

    2 2 e 4 2 Technical Mechanics I., Mathematics I.

    5 Engineering Physics 2 0 e 2 1

    6 Thermodynamics and Fluid Mechanics I.

    2 2 e 5 2 Mathematics I., Engineering Physics

    7 Thermodynamics and Fluid Mechanics II.

    2 2 e 5 3 Thermodynamics and Fluid Mechanics I.

    8 Electrotechnics and Electronics I.

    3 2 e 5 3 Mathematics II., Engineering Physics

    9 Measurements and Automatics I. 2 1 e 3 4 Electrotechnics and Electronics I.

  • 6

    CURRICULUM (contd) E

    con

    om

    ics

    and H

    um

    anit

    ies

    10 Economics for Engineers 3 0 e 4 6

    11 Microeconomics 1 2 m 4 7 Economics for Engineers

    12 Management for Engineers 1 3 m 4 2

    13 Basics of Quality Management 1 1 m 2 7 Management for Engineers

    14 Environmental Protection, dangerous-goods

    0 2 m 2 5

    15 Flight Administration and Law 2

    16 Terminology I. 0 2 m 1

    17 Terminology II. 0 2 m 1 2 Terminology I.

    18 Terminology III. 0 2 m 1 3 Terminology II.

    19 Terminology IV. 0 2 m 1 4 Terminology III.

  • 7

    Sp

    ecif

    ic C

    om

    puls

    ory

    Sub

    ject

    s

    20 Informatics 0 2 m 3 1

    21 Descriptive Geometry 2 2 m 3 2

    22 Aircraft technology 2 2 e 4 2

    23 Machine Elements I.

    3 2 e 5 3 Technical Mechanics II., Descriptive Geometry

    24 Machine Elements II. 2 2 e 5 4 Machine Elements I.

    25 Materials Science 2 2 e 5 1

    26 Manufacturing Processes I. 2 1 e 4 2 Materials Science

    27 Electrotechnics and Electronics II. 2 2 m 5 4 Electrotechnics and Electronics I.

    28 Measurements and Automatics II. 2 2 m 4 4

    29 Industrial Safety 2 0 e 4 6

    30 Sensors and actuators 2 1 m 5 5 Electrotechnics and Electronics II

    31 Mechatronics 1 2 m 3 6 Sensors and actuators

    32 PPL theoretical knowledge I. 3 2 e 3

    33 PPL theoretical knowledge II. 3 2 e 3 2 PPL theoretical knowledge I.

    34 Principles of Flight I. 1 2 e 3

    35 Principles of Flight II. 1 2 m 3 4 Principles of Flight I.

    36 Aircraft General Knowledge I. (Airframe/Systems/Power plants) ATPL

    1 2 e 3 5

    37 Aircraft General Knowledge II. (Airframe/Systems/Power plants) ATPL

    1 1 m 2 6 Aircraft General Knowledge I. (Airframe/Systems/Power plants) ATPL

    38 Aircraft General Knowledge Instrumentation

    2 2 e 4 6 Sensors and actuators

    39 Human Performance 3 2 e 3 4

  • 8

    Fie

    ld-S

    pec

    ific

    Vo

    cati

    on

    al S

    ub

    ject

    s

    40 Meteorology I. 1 2 e 2 3

    41 Meteorology II. 1 2 m 2 4 Meteorology I.

    42 Air Law 4 0 e 2 6

    43 Crew Management 0 2 m 2 6

    44 Rules of Aerodromes 0 2 m 2 6

    45 Radiotelephony 2 1 m 3 7

    46 Mass and Balance 1 2 e 3 4

    47 Performance 1 2 e 3 4

    48 Flight Planning and Monitoring 2 1 e 2 5

    49 General Navigation 4 6 e 6 5

    50 Radio Navigation 2 3 e 4 6 General Navigation

    51 Operational Procedures 1 1 e 3 6 General Navigation

    52 Communication I-II.(VFR IFR) 0 4 e 5 5

    53 Flight Training I. 0 8 m 2 3

    54 Flight Training II. 0 8 m 2 4 Flight Training I.

    55 Flight Training III. 0 8 m 2 5 Flight Training II.

    56 Flight Training IV. 0 8 m 2 6 Flight Training III.

    57 Flight Training V. 0 12 m 2 7 Flight Training IV.

    58 Training I. 3 weeks

    59 Training II. 3 weeks Training I.

    60 Training III. 3 weeks Training II.

    61 Thesis 15

    62 Optional subjects 10

  • 9

    COURSE DESCRIPTIONS

    Course: Mathematics I. Credits: 6

    Lecture, hours/week: 2 Practice, hours/week: 3

    Assessment: exam

    Actual semester: 1.

    Compulsory prerequisite: -

    Course description:

    The arithmetic of real and complex numbers. The algebra of vectors in 2 and 3

    dimensions. Coordinate systems. Functions and their graphs. The composition of

    functions. Inverse functions. Sequences and series of numbers, and convergence

    criteria. Sequences and series of functions, power series, convergence criteria.

    Real functions. Polynomials. Limits, continuity. Interpolation.

    The arithmetic of matrices. Determinants. Systems of linear equations. Cramer's rule.

    Linear space, subspace, generating systems, bases, orthogonal and orthonormal bases.

    Linear transformations, eigenvectors, eigenvalues.

    Literature:

    Thomas Calculus, Addison Wesley (11th edition, 2005), ISBN: 0-321-24335-8

    S. Minton, Calculus Concept and Connections, McGraw Hill (2006), ISBN 0-

    07111200-6

    Responsible for the subject: Imre Kocsis, PhD, college professor

    Lecturer/instructor involved in the training: -

  • 10

    Course: Mathematics II. Credits: 6

    Lecture, hours/week: 2 Practice, hours/week: 3

    Assessment: exam

    Actual semester: 2.

    Compulsory prerequisite: Mathematics I.

    Course description:

    Derivatives, linear approximation. Differentiation rules. Applications in physics. Taylor

    polynomials. Extreme values. Monotony and convexity testing. Mean value theorems,

    l'Hospital's rule, Taylors theorem. Curve sketching for a function, local and absolute

    extrema.

    Antiderivatives. Integration by parts and by substitution. Integration in special classes

    of functions. The Riemann integral. The Newton-Leibniz theorem. Improper integrals.

    Applications of the integration in geometry and physics. Fourier series.

    Classification of differential equations. Initial value problems, boundary value

    problems. First order differential equations. Slope fields. Eulers and Runge-Kutta

    methods. Problems leading to differential equations. Separable differential equations.

    Second order differential equations. The theory of linear differential equations, method

    of variation of parameters, method of undetermined coefficients, application of the

    Laplace transform.

    Literature:

    1. Thomas Calculus, Addison Wesley (11th edition, 2005), ISBN: 0-321-24335-8

    2. S. Minton, Calculus Concept and Connections, McGraw Hill (2006), ISBN 0-

    07111200-6

    3. M. D. Greenberg, Fundamentals of engineering analysis, Cambridge University Press,

    ISBN 978-0-521-80526-1

    Responsible for the subject: Imre Kocsis, PhD, college professor

  • 11

    Course: Technical Mechanics I. Credits: 4

    Lecture, hours/week: 2 Practice, hours/week: 2

    Assessment: exam

    Actual semester: 1.

    Compulsory prerequisite: -

    Course description:

    The lectures deal with the following topics:

    The fundamentals of mechanics and statics. Newtons three laws of motion. Force,

    moment, and couples. Reduction of a force system. Resultant forces and the

    classification of force systems. Equilibrium equations. Statics of material points. Statics

    of rigid bodies (moment of inertia, systems of planar forces). Static problems in planar

    systems. Internal force systems of rigid bodies. Loading of beams (cantilevers, freely

    supported beams, fraction lined beams). Determination of shear and moment

    functions, and diagrams of beams. Statically determined beam structures (hinged-bar

    systems, compound beams, truss systems). Practical structures (friction, pin-friction,

    rolling resistance, rope friction).

    Literature:

    Required:

    Joseph F. Shelley (1990): 800 solved problems in vector mechanics for engineers,

    Volume I: Statics. (SCHAUMS SOLVED PROBLEM SERIES), McGraw-Hill, 1990,

    ISBN 0-07-056835-9

    Recommended:

    1. Russel C. Hibbeler (2006): Engineering Mechanics Statics and Dynamics, Prentice

    Hall, 2006. ISBN-13 9780132215091

    2. Lakshmana C. Rao, J. Lakshminarasimhan, Raju Sethuraman, Srinivasan M.

    Sivakumar (2004): Engineering Mechanics: Statics and Dynamics, PHI Learning Pvt.

    Ltd.,

    ISBN 8120321898, 9788120321892

  • 12

    3. Lawrence E. Goodman, Susan Goodman, William H. Warner (2001): Statics

    Courier Dover Publications, ISBN 0486420051, 9780486420059

    4. Ferdinand P. Beer, E. Russell Johnston, Jr., (1987): University of Connecticut,

    Mechanics for Engineers: Statics and Dynamics (Package), 4th Edition, 1987,

    ISBN-13 9780070045842

    Responsible for the subject: Tams Mankovits, PhD, associate professor

    Lecturer/instructor involved in the training: -

  • 13

    Course: Technical Mechanics II. Credits: 4

    Lecture, hours/week: 2 Practice, hours/week: 2

    Assessment: exam

    Actual semester: 2.

    Compulsory prerequisite: Technical Mechanics I., Mathematics I.

    Course description:

    Statics review. Mathematical preliminaries (vector, matrix and tensor algebra).

    Fundamentals of the strength of materials. Elastic and plastic deformation. Physical

    interpretation of strain terms. State of deformation. State of stresses. Principal values

    of normal stresses, principal axes. Strain energy. Constitutive equations (Hookes law).

    Simple loadings (tension, compression, bending, torsion, shear). Sizing methods. Area

    moment of inertia and product of inertia. Polar moment of inertia. Determination of

    principal axes. Mohrs circle. Combined loadings (tension and bending, inclined

    bending, eccentric tension, tension and torsion, bending and torsion). Buckling of

    columns. Energy methods (Bettis theorem). Statically indeterminate beams

    (Castiglianos theorem).

    Literature:

    Stephen Timoshenko (1955): Strength of Materials: Elementary Theory and Problems,

    Van Nostrand

    2. Jacob Pieter Den Hartog (1961): Strength of Materials, Courier Dover Publications,

    ISBN 0486607550, 9780486607559

    3. Ladislav Cerny (1981): Elementary Statics and Strength of Materials, McGraw-Hill,

    ISBN 0070103399, 9780070103399

    4. Lszl Kocsis (1988): Brief Account of the Lectures of Mechanics, Strength of

    Materials, BME

    5. Ferdinand P. Beer, E. Russel Johnston, Jr., John T. DeWolf (2006): University of

    Connecticut Mechanics of Materials, 4th Edition, 2006, ISBN-13 9780073107950

    Responsible for the subject: Tams Mankovits, PhD, associate professor

    Lecturer/instructor involved in the training: -

  • 14

    Course: Engineering Physics Credits: 2

    Lecture, hours/week: 2 Practice, hours/week: 0

    Assessment: exam

    Actual semester: 1.

    Compulsory prerequisite: -

    Course description:

    The lectures deal with the following topics:

    The basics of kinematics and dynamics of particles:

    Giving the position of a particle. Position-time function, velocity and acceleration.

    Newtons laws. Types of forces. The concept of mechanical work, potential and kinetic

    energy. Work-energy theorem.

    The basics of electricity and magnetism. Transport processes.

    Electrostatics, electrical potential, electric fields around conductors, capacity and

    capacitors. Transport processes. Electric current, AD circuits. Heat transfer: thermal

    conduction, convection and radiation. The fields of moving charges, the magnetic field,

    electromagnetic induction and Maxwells equations, AC circuits, electric and magnetic

    fields in matter.

    Literature:

    Required:

    Alvin Halpern (1988): 3,000 Solved Problems in Physics (SCHAUMS SOLVED

    PROBLEM SERIES), McGraw-Hill, 1988, ISBN 0-07-025734-5

    Recommended:

    1. Michael Browne (1999): Physics for Engineering and Science, McGraw-Hill, 1999,

    ISBN 0-07-161399-6

    2. Robert Balmer (2006) Thermo-dynamics, Jaico Publishing House, ISBN:

    817224262X, 868 pages

    Responsible for the subject: Gusztv ron Szki, PhD, college professor

  • 15

    Course: Thermodynamics and Fluid Mechanics I. Credits: 5

    Lecture, hours/week: 2 Practice, hours/week: 2

    Assessment: exam

    Actual semester: 2.

    Compulsory prerequisite: Mathematics I., Engineering Physics

    Course description:

    Thermodynamic properties. Definitions and fundamental ideas of thermodynamics.

    Changing the state of a system with heat and work. Change of phase. The zeroth law

    of thermodynamics. The isotherm, isochore and isobar, adiabatic and polytropic

    processes. The first law of thermodynamics: conservation of energy. Generalized

    representation of thermodynamic cycles. The Carnot cycle. Entropy. The second law

    of thermodynamics. Reversibility and irreversibility in natural processes. Technical

    work. Enthalpy. Exergy. Gas mixtures: partial pressures, Dalton's law. Real gases.

    Steam. Humid air. T-s diagrams. Energy cycles. Modes of heat transfer. Heat Flux,

    thermal conductivity. The general differential equation of heat conduction. Steady state

    and transient conduction. Thermal resistance. Conduction rectangular and cylindrical

    coordinates. Convection: concepts and basic relationships, boundary layers, the

    similarity concept. Heat transfer through gases, fluids and solids. Overall heat transfer

    coefficient. Moving heat source. Extended surfaces, fin performance. Radiative heat

    transfer. Heat exchangers.

    Literature:

    LAKATOS A. Thermodynamics and Fluid mechanics. 2014.

    Responsible for the subject: kos Lakatos, PhD, associate professor

    Lecturer/instructor involved in the training: -

  • 16

    Course: Thermodynamics and Fluid Mechanics II. Credits: 5

    Lecture, hours/week: 2 Practice, hours/week: 2

    Assessment: exam

    Actual semester: 3.

    Compulsory prerequisite: Thermodynamics and Fluid Mechanics I.

    Course description:

    Definitions, concepts and properties of fluids. Hydrostatics, pressure, density. Main

    equations (Continuity, Law of Impulse Navier-Stokes etc.) Velocity and acceleration

    representations. Euler and Bernoulli equations. Ideal and Real Fluids. Flows in piped,

    friction and fitting losses in pipe flow. Frictional Bernoulli equation.

    Literature:

    LAKATOS A. Thermodynamics and Fluid mechanics. 2014.

    Responsible for the subject: kos Lakatos, PhD, associate professor

    Lecturer/instructor involved in the training: -

  • 17

    Course: Electrotechnics and Electronics I. Credits: 5

    Lecture, hours/week: 3 Practice, hours/week: 2

    Assessment: exam

    Actual semester: 3.

    Compulsory prerequisite: Mathematics II., Engineering Physics

    Course description:

    Course description: Introduction to DC circuits: voltage, current, basic components.

    Magnetic field: induction, flux, Lorentzs Law

    Network analysis: Ohms Law, Kirchhoffs Law, current and voltage divider,

    superposition, Thevelin and Nortons Law

    Alternating current circuits: sinusoidal wave, calculation on the complex plane, power

    and effective values.

    Transient signals in the AC circuits: series and parallel RLC circuits.

    Introduction to electronics: features of electronic circuits, solid state devices.

    Transistors, unipolar and bipolar transistors. Operation, characteristics, and basic

    circuits.

    Darlington circuit, current and voltage feedback. Transistor as a switch.

    Multi-layer solid state devices: Thysistors, and diac: operation, circuit, example

    application.

    IGBT transistor: operation, characteristic, sample circuits.

    Literature:

    Literature: Electronic Circuits: Handbook for Design and Application, U. Tietze, Ch.

    Schenk, 2nd edition, 2008, ISBN-10: 3540004297

    Responsible for the subject: Sndor Piros, PhD, college associate professor

    Lecturer/instructor involved in the training: -

  • 18

    Course: Measurements and Automatics I. Credits: 3

    Lecture, hours/week: 2 Practice, hours/week: 1

    Assessment: exam

    Actual semester: 4.

    Compulsory prerequisite: Electrotechnics and electronics I.

    Course description:

    Basic Concepts of Measurement, measurement systems. Measuring instrument design,

    measurement instruments. Electromechanical and electronic instruments. Digital

    instrumentation. Microelectronic sensors. Elastic deformation gauges. Temperature,

    light and radiation sensors. Fiber optic sensors. Signal processing systems. Pressure,

    temperature, strain and rotational movement measurement using National Instruments

    LabVIEW software.

    Literature:

    1. David G. Alciatore, Michael B. Histand: Introduction to mechatronics and

    measurement systems, McGraw-Hill, 2011, ISBN-13: 978-0073380230

    2. U. A. Bakshi V.U. Bakshi: Electronic Measurement and Instrumentation, Technical

    Publications Pune, 2009, ISBN: 9788184315295

    Responsible for the subject: Jnos Tth, PhD, associate professor

    Lecturer/instructor involved in the training: -

  • 19

    Course: Economics for Engineers Credits: 4

    Lecture, hours/week: 3 Practice, hours/week: 0

    Assessment: exam

    Actual semester: 6.

    Compulsory prerequisite: -

    Course description:

    This course is intended to introduce students to the fundamental context and

    terminology of macroeconomics, and to introduce the main concepts and theories

    about economic science so that students are able to understand economic processes

    and relationships. An overview of the modern market economy as a system for dealing

    with the problem of scarcity.

    This course focuses on the theory and application of the following: Measuring national

    income and output (real vs. nominal GNP, GDP, NNP NDP, the problem of double

    counting). Consumption and investment. The economic role of government

    (externalities). Fiscal policy. The role of money in the economy; the evolution of

    money, the development of banks and the financial system; the role of the Central

    Bank and commercial banks; the analysis of demand and supply; the money market.

    Monetary policy (varieties and problems of monetary policy). The labour market.

    Unemployment and inflation.

    Literature:

    Required literature:

    1. Mankiw, Gregory: Principles of Economics. Fifth Edition. South-Western, Mason,

    USA, 2009. ISBN:9780324589979

    Recommended literature:

    2. Heyne, Paul Boettke, Peter Prychitko, David: The Economic Way of Thinking.

    Twelfth Edition. Pearson Education International, New Jersey, 2010.

    3. Samuelson P.A., Nordhaus W.D.: Economics, 18th edition, Academic Internet

    Publishers Inc., 2006. ISBN: 0072872055

  • 20

    4. Parkin, M., Powell, M. & Matthews, K. (2008) Economics. 7th ed. Harlow: Addison

    Wesley. ISBN-13: 9780132041225

    5. Parkin, M (2005) Economics, 7th edn, Addision Wersley: Pearson. ISBN:

    0321248449

    Responsible for the subject: Judit T. Kiss, PhD, associate professor

    Lecturer/instructor involved in the training: Andrs Farkas

  • 21

    Course: Microeconomics Credits: 4

    Lecture, hours/week: 1 Practice, hours/week: 2

    Assessment: mid-semester grade

    Actual semester: 7.

    Compulsory prerequisite: Economics for Engineers

    Course description:

    This course aims to make students familiar with the basic concepts of microeconomic

    analysis. In particular, the course will be focused on the analysis of how economic

    actors, consumers and firms choose between different alternatives. By the end of the

    course, the student should be able to use the basic tools and models of

    microeconomics, and apply them in solving problems. The course focuses on the

    theory and application of the following: The basics of supply and demand. The

    elasticity of demand. Consumer behaviour. Firms production (factors), costs of

    production, profit-maximizing behaviour. Market structures (perfect competition,

    imperfect competition: monopoly, oligopoly, monopolistic competition). Profit

    maximizing under perfect competition, and monopoly. The role of innovation.

    Investment, interest, profits and capital. The rate of return on capital; present value,

    net present value; internal rate of return; Investment decisions.

    Literature:

    Required literature:

    1. Besanko, David Breautigam, Ronald R.: Microeconomics. Third Edition

    (International Student version). John Wiley and Sons, Inc., New York, 2008.

    2. Besanko, David Breautigam, Ronald R.: Microeconomics. Study Guide. Third

    Edition. John Wiley and Sons, Inc., New York, 2008.

    or

    3. Gregory Mankiw: Principles of Microeconomics, 4th edition. South-Western College

    Pub, 2006

    4. Gregory Mankiw: Principles of Microeconomics - Study Guide. South-Western

    College Pub, 2006

  • 22

    Recommended literature:

    5. Samuelson P.A., Nordhaus W.D.: Economics, 18th edition, Academic Internet

    Publishers Inc., 2006. ISBN: 0072872055

    6. Parkin, M., Powell, M. & Matthews, K. (2008) Economics. 7th ed. Harlow: Addison

    Wesley. ISBN-13: 9780132041225

    Responsible for the subject: Judit T. Kiss, PhD, associate professor

    Lecturer/instructor involved in the training: Andrs Farkas

  • 23

    Course: Management for Engineers Credits: 4

    Lecture, hours/week: 1 Practice, hours/week: 3

    Assessment: mid-semester grade

    Actual semester: 2.

    Course description:

    The history of management (the classical school, bureaucratic management, scientific

    management, administrative management, the human relations school, the human

    resources school, integrating the management theories, emerging management

    positions). What managers and organizations do (managers and organizations, strategic

    thinking, planning and control, organizing work teams and structures, organizational

    culture). Managing people (perception, learning and personality, motivation and

    organizational learning). Managing relationships (communications, interpersonal

    relationships, building groups into teams). Leadership and management practices

    (problem solving, power and organizational politics). Managing change (stress at work,

    change and organizational development, origins and methods of management and OB

    theories). The basics of strategic management (strategic analysis, strategy formulation,

    strategy implementation). The basics of Total Quality Management (customer focus,

    process improvement, total involvement, developing the quality strategy).

    Literature:

    1. Edit SZCS: Management of Complex Production Systems : Course Book,

    Debrecen : [University of Debrecen Faculty of Engineering], 2012, ISBN: 978 963 473

    524 3, 316 p.

    2. Curtis W. Cook Phillip L. Hunsaker Robert E. Coffey: Management and

    Organizational Behavior, IRWIN, Chicago, 1997.

    3. Carry L. Cooper Chris Argyris: Encyclopedia of Management, Blackwell Publisher

    Ltd., 1998.

    4. Arthur R. Tenner Irving J. DeToro: Total Quality Management, Addison-Wesley

    Publishing Company, Massachusetts, 1993.

    Responsible for the subject: Edit Szcs, PhD, habil, college professor

    Lecturer/instructor involved in the training: Andrs Farkas

  • 24

    Course: Basics of Quality Management, compliance monitoring Credits: 2

    Lecture, hours/week: 1 Practice, hours/week: 1

    Assessment: mid-semester grade

    Actual semester: 7.

    Compulsory prerequisite: Management for Engineers

    Course description:

    This course focuses on making the theories and principles of total quality both practical

    and useful. Practitioners in a corporate setting will find it a valuable guide in helping

    them learn how to be effective agents of the total quality approach, understand and

    implement total quality. The topics covered include:

    Quality and global competitiveness. Strategic management: planning and execution.

    Quality management and ethics, and communication and interpersonal relations. Total

    Quality Management. Quality improvement techniques. Statistical concepts. Control

    charts for variables, control chart interpretation and analysis, other variable control

    charts. Fundamentals of probability. Reliability. Quality costs. Quality function

    deployment. Design of experiments. Quality systems: ISO 9000, Six Sigma.

    Literature:

    1. David L. Goetsch, Stanley Davis: Quality management: introduction to total quality

    management for production, Pearson Prentice Hall, 2006, ISBN 0131189298,

    9780131189294

    2. B. G. Dale: Managing Quality, Wiley-Blackwell, 2003, ISBN 0631236147,

    9780631236146

    Responsible for the subject: Edit Szcs, PhD, habil, college professor

    Lecturer/instructor involved in the training: -

  • 25

    Course: Environmental protection, dangerous-goods Credits: 2

    Lecture, hours/week: 0 Practice, hours/week: 2

    Assessment: mid-semester grade

    Actual semester: 5.

    Compulsory prerequisite: -

    Course description:

    This series of lectures is based on the topics of environmental issues. The basic

    concepts of environmental protection and management. Characterization of

    environmental elements. Green chemistry. Chemicals in the environment: their fate

    and transport. Transport processes in the environment. Conservation of mass.

    Conservation of mass in integral (control volume) form. The differential form of

    conservation of mass. Groundwater hydrology. Diffusion of an instantaneous, point

    source. Reactions and exchanges. Exchange across an air-water interface. Partitioning

    of a solid. Transport of particles in the environment. Water resource systems. Aquatic

    chemistry. Water quality control. Water and wastewater treatment technology. Air

    chemistry. Air, water and soil pollution control, waste management, recycling, noise

    and vibration problems, environmental health engineering. Pollution control through

    different methods.

    Literature:

    Compulsory Readings:

    1. Andrew Farmer: Handbook of Environmental Protection and Enforcement:

    Principles and Practice (Hardcover), 294 pages, 2007, ISBN-13: 978-1844073092

    Recommended Readings:

    2. Mukesh Doble: Green Chemistry and Engineering (Hardcover), 381 pages, 2007,

    ISBN-13: 978-0123725325

    Responsible for the subject: Ildik Bodnr, PhD, college professor

    Lecturer/instructor involved in the training: -

  • 26

    Course: Flight administration and Law Credits: 2

    Lecture, hours/week: 0 Practice, hours/week: 2

    Assessment: mid-semester grade

    Actual semester: 2.

    Compulsory prerequisite: -

    Course description:

    The course teaches the basic knowledge of Flight Administration and Air Law to

    demonstrate a level that grants a prerequisite knowledge for commencing the ATPL

    Air Law subject.

    The course covers the following main areas and give basic information on:

    Rules of the air, procedures for air navigation services: aircraft operations, air traffic

    services and air traffic management, aeronautical information service, aerodromes or

    heliports, facilitation, search and rescue, security, aircraft accident and incident

    investigation, international law: conventions, agreements and organisations,

    airworthiness of aircraft, aircraft nationality and registration marks, personnel

    licensing

    By conducting the course the student will have the basic prerequisite knowledge in

    order to be able to commence ATPL Air Law subject described by the EU legislation

    (AMC1 FCL.310; FCL.515 (b); FCL.615 (b) and will understand the legal background

    and basis of aviation, learn the structure and sources of the rules.

    Learning Objectives (LOs) published by the European Commission are used when

    developing the Part-FCL theoretical knowledge elements of the course.

    The course is aimed to contribute to the achievement of safe flight during their

    proposed pilot career. It is crucial that a pilot could be able to recognize the hazard and

    apply for the well-known procedures in this matter during a flight.

  • 27

    Literature:

    CAE OXFORD AVIATION ACADEMY (UK), Air Law, 2015, ISBN 978 1 90620

    264 4

    Responsible for the subject: Tams Fzer, PhD, associate professor

    Lecturer/instructor involved in the training: -

  • 28

    Course: Terminology I., II., III., IV. Credits: 1+1+1+1

    Lecture, hours/week: 0 Practice, hours/week: 2+2+2+2

    Assessment: mid-semester grade

    Actual semester: 1., 2., 3., 4.

    Compulsory prerequisite: Terminology I., II., III.

    Course description:

    The course aims to provide future pilots with the English language proficiency needed

    for clear, accurate and problem-free communication without misunderstandings both

    in voice-only and face-to-face situations even in the case of unexpected events. To

    achieve this the improvement of General English and the sound acquisition of ICAO

    phraseology are both required.

    Course content:

    1. Introduction to air communication (clear communication, asking for

    repetition, questions-short answers, time expressions, ICAO)

    2. Pre-flight (checks, delays, local conditions)

    3. Ground movements (asking for more time, giving a reason,

    4. Departure, climbing and cruising

    5. Enroute events (explaining changes, unusual events, stating a problem)

    6. Contact and approach (descent, saying what you are going to do)

    7. Landing (landing hazards)

    8. On the ground (getting to the gate)

    Literature:

    Sue Ellis-Terence Gerighty: English for Aviation for Pilots and Air Traffic Controllers.

    Express Series. Oxford Business English. OUP. 2008.

    Philip Shawcross: Flightpath. Aviation English for Pilots and ATCos. Cambridge

    Professional English. CUP. 2011.

    Henry emery- Andy Roberts: Aviation English. Macmillan. 2008.

    Responsible for the subject: Zita Hajdu, PhD, senior lecturer

    Lecturer/instructor involved in the training: -

  • 29

    Course: Informatics Credits: 3

    Lecture, hours/week: 0 Practice, hours/week: 2

    Assessment: mid-semester grade

    Actual semester: 1.

    Compulsory prerequisite: -

    Course description:

    Introduction to informatics. Computer structures. Operating systems. Computer

    networks, the Internet. Theoretical and practical data structures. Algorithms.

    Spreadsheets: entering data, records, fields, creating a table, sorting and filtering data,

    expanding the database, formatting the database.

    Relational databases, SQL language, normalizing databases, securing databases

    (confidentiality, integrity and availability), keys, transactions.

    Literature:

    1. J. Walkenbach, Excel 2007, Wiley Publishing Inc.

    2. C. N. Prague, M. R. Irwin, J. Reardon, Access 2003 Bible, Wiley Publishing Inc.

    Responsible for the subject: Mria Princz Krauszn, PhD, associate professor

    Lecturer/instructor involved in the training: -

  • 30

    Course: Descriptive Geometry Credits: 3

    Lecture, hours/week: 2 Practice, hours/week: 2

    Assessment: mid-semester grade

    Actual semester: 2.

    Compulsory prerequisite: -

    Course description:

    Monges method of projecting: methods of projection, image-plane system,

    representation of spatial elements, reconstruction.

    The fundamentals of intersection: line-plane and plane-plane intersection.

    Metrical problems: distance and angle tasks, perpendicularity, rotation of a plane to

    parallel to an image plane, method of the replacing image-planes, constructing a

    illustrative picture using new image-planes, visibility.

    Polyhedrons: their representation, their intersection with a line, plane and the other

    polyhedron.

    Curved surfaces: construction and representation of curved surfaces, their intersection

    with a line, plane and the other surface.

    Literature:

    1. Vlasta Szirovicza: Descriptive geometry, Self-published, Zagreb, Croatia, 2007,

    ISBN 978-953-95667-0-6

    2. Par, E. G.: Descriptive geometry, Prentice Hall, 1997

    3. Gordon, V. O.: A course in descriptive geometry, Mir, 1980

    Responsible for the subject: Lszl Kozma, PhD, habil, associate professor

    Lecturer/instructor involved in the training: -

  • 31

    Course: Aircraft technology Credits: 4

    Lecture, hours/week: 2 Practice, hours/week: 2

    Assessment: exam

    Actual semester: 2.

    Compulsory prerequisite: -

    Course description:

    The course teaches the basic knowledge of Aircraft technology in order to gain the

    prerequisite knowledge for Aircraft General Knowledge Airframe/Systems/Power

    plant I and II subjects.

    Part I of the course covers the following main areas and give basic information on:

    System design, loads, stresses and maintenance, airframe, hydraulics, landing gear, wheels, tyres and brakes, flight controls, pneumatics: pressurisation and air conditioning, anti and de-icing systems, fuel system, protection and detection systems, oxygen systems

    By conducting the course the student will have the basic prerequisite knowledge in

    order to be able to commence Aircraft General Knowledge

    Airframe/Systems/Power plant I and II subjects described by the EU legislation

    (AMC1 FCL.310; FCL.515 (b); FCL.615 (b) and will understand the basic technological

    background, structures, simple solutions used in airframes, systems and power plants

    in aviation.

    Learning Objectives (LOs) published by the European Commission are used when

    developing the Part-FCL theoretical knowledge elements of the course.

    The course is aimed to contribute to the achievement of safe flight during their

    proposed pilot career. It is crucial that a pilot could be able to recognize the hazard and

    apply for the well-known procedures in this matter during a flight.

  • 32

    Literature:

    CAE OXFORD AVIATION ACADEMY (UK), Airframes and Systems, 2015, ISBN

    978 1 90620 265 1

    CAE OXFORD AVIATION ACADEMY (UK), Electrics and electronics, 2015, ISBN

    978 1 90620 266 8

    CAE OXFORD AVIATION ACADEMY (UK), Power plant, 2015, ISBN 978 1

    90620 267 5

    Responsible for the subject: Gza Husi, PhD, habil, associate professor

    Lecturer/instructor involved in the training: -

  • 33

    Course: Machine elements I. Credits: 5

    Lecture, hours/week: 3 Practice, hours/week: 2

    Assessment: exam

    Actual semester: 3

    Compulsory prerequisite: Technical Mechanics II., Descriptive Geometry

    Course description:

    This series of lectures is based on topics covered in technical drawing and mechanics.

    It reviews the fundamental relationships of the sizing process for machinery (stress

    analysis for static combined loads, dimensioning and strength at harmonically varying

    loads, fatigue and the fatigue life of parts) and the concepts of manufacturing tolerance

    and fit. It then covers connections between components (connection through force

    transmission by friction, positive connection, bolted connection, welding), gaskets,

    elastic connections (metal springs, rubber spring), machine beds such as rolling

    bearings and plain journal bearings.

    In line with the lectures, laboratory work includes studying and testing machine

    elements. Seminars include two design tasks: for a welded engine frame and a hydraulic

    cylinder.

    Literature:

    1. Joseph Shigley, Charles Mischke, Richard Budynas: Mechanical Engineering Design,

    7th Edition Hardcover with access card, 1056 pages2004, ISBN-13 9780072921939

    2. Ansel Ugural, NEW JERSEY INSTITUTE TECH: Mechanical Design: An

    Integrated Approach, 1st Edition Hardcover with access card, 2004, ISBN-13

    9780072921854

    Responsible for the subject: Zsolt Tiba, PhD, habil, college professor

    Lecturer/instructor involved in the training: -

  • 34

    Course: Machine elements II. Credits: 5

    Lecture, hours/week: 2 Practice, hours/week: 2

    Assessment: exam

    Actual semester: 4.

    Compulsory prerequisite: Machine Elements I.

    Course description:

    This series of lectures reviews types of couplings, clutches and breaks and their sizing.

    It covers the classification and sizing of shafts, and reviews the components of drive

    trains and their construction: operation methods of the belt and chain drive, basic

    mechanical relationships of the sizing procedure. It then covers the types of gearing,

    gear tooth geometry, the load capacity of gears, the design of geared transmission.

    In line with the lectures, laboratory work includes studying and testing machine

    elements. Seminars include two design tasks: for an external long-shoe drum brake, and

    for a counter drive containing a V belt drive and a chain drive.

    Literature:

    1. Joseph Shigley, Charles Mischke, Richard Budynas: Mechanical Engineering Design,

    7th Edition Hardcover with access card, 1056 pages2004, ISBN-13 9780072921939

    2. Ansel Ugural, NEW JERSEY INSTITUTE TECH: Mechanical Design: An

    Integrated Approach, 1st Edition Hardcover with access card, 2004, ISBN-13

    9780072921854

    Responsible for the subject: Zsolt Tiba, PhD, habil, college professor

    Lecturer/instructor involved in the training: -

  • 35

    Course: Materials Science Credits: 5

    Lecture, hours/week: 2 Practice, hours/week: 2

    Assessment: exam

    Actual semester: 1.

    Compulsory prerequisite: -

    Course description:

    Lectures:

    The structure and composition of a material, including the types of atoms and their

    arrangement, as viewed over a range of length scales (nano-, micro-, meso-, and macro-

    scale). The crystalline structure of metals, crystal defects. Solid solutions, compounds,

    alloys. Equilibrium conditions of systems, binary systems, phase diagrams. The iron-

    carbon phase diagram. Austenite transformations, principles of transformation

    diagrams (isothermal, continuous cooling). Ferrous and non-ferrous metals, basic

    micro-structures. Polymers, ceramics, composites. Material properties (physical,

    mechanical, electrical, optical, magnetic).

    Practice:

    Calculation tasks for crystalline systems, phase diagrams, transformation diagrams.

    Literature:

    1. William D. Callister and David G. Rethwisch: Materials Science and Engineering,

    John Wiley and Sons, 2011., 9th Edison SI version ISBN 978-0-470-505861-1

    2. J.-P. Mercier: Introduction to Materials Science, Elsevier, 2002.

    3. ASM Handbook, Vol. 3: Alloy Phase Diagrams, ASM International, 1992

    Responsible for the subject: Istvn Budai, PhD, associate professor

    Lecturer/instructor involved in the training: -

  • 36

    Course: Manufacturing Processes I. Credits: 4

    Lecture, hours/week: 2 Practice, hours/week: 1

    Assessment: exam

    Actual semester: 3.

    Compulsory prerequisite: Materials Science

    Course description:

    Basic principles of mechanical engineering. Overview of generally used raw materials

    manufacturing processes (steel-, copper-, alumina based and other alloys). Introduction

    of the basic material removal manufacturing processes. The basic concept of cutting,

    applicable tools and tool materials. Machining processes, turning, milling, drilling,

    planning, chipping, abrasive processes, gearing, and thread cutting technology.

    Methods of tool life analysis and management. Special machining, UP, HSC,

    electrochemical, laser-, and water-jet cutting.

    Literature:

    1. L. Edwards, M. Endean: Manufacturing with Materials, Butterworths, London, 1990.,

    ISBN 0-408- 02770-3 2. M. F. Ashby: Materials Selection in Mechanical Design. 3.rd

    edition. Elsevier. London, 2005. ISBN 0- 7506-6168-2.

    3. DeGarmo's Materials and Processes in Manufacturing, 10th Edition DeGarmo,

    Black, Kohser, 2008.ISBN: 978-0-470-05512-0

    4. Fundamentals of Modern Manufacturing: Materials, Processes, and Systems, 3rd

    Edition, Groover, 2007. ISBN: 978-0-471-74485-6

    Responsible for the subject: Sndor Bodzs, PhD, college associate professor

    Lecturer/instructor involved in the training: -

  • 37

    Course: Electrotechnics and Electronics II. Credits: 5

    Lecture, hours/week: 2 Practice, hours/week: 2

    Assessment: mid-semester grade

    Actual semester: 4.

    Compulsory prerequisite: Electrotechnics and Electronics I.

    Course description:

    Introduction: electronics circuits, components, introduction to mechatronics system

    Signals: Sinusoidal waves, periodic and quasi-periodic signals.

    Amplifiers: 4 port theory, transfer functions, feedback: positive and negative. Common

    emitter amplifier.

    Differential amplifier: operational modes, circuit. Class A and AB amplifiers. Power

    amplifiers.

    Operational amplifiers: inverting and non-inverting type.

    Regulated power supplies: linear regulators, zener diode.

    AC-DC converter: non controlled one phase, controlled three phase.

    DC-AC converter: one and three phase converters.

    Oscillators: RC and LC oscillators. Si oscillators.

    Filters: Low and high pass filter, band pass filter.

    Literature:

    Electronic Circuits: Handbook for Design and Application, U. Tietze, Ch. Schenk, 2nd

    edition, 2008, ISBN-10: 3540004297

    Responsible for the subject: Sndor Piros, PhD, college associate professor

    Lecturer/instructor involved in the training: -

  • 38

    Course: Measurements and Automatics II. Credits: 4

    Lecture, hours/week: 2 Practice, hours/week: 2

    Assessment: mid-semester grade

    Actual semester: 4.

    Compulsory prerequisite: -

    Course description:

    Theoretical Foundations of Control Engineering. Technical and application control

    functions. Programmable Logic Controllers. Members of the control loop. The

    members of the control loop steady state analysis. Linear transition state regulations.

    Linear members describing the state transition. Control loop analysis. Stability and

    quality characteristics. Regulators Selection and Setting. Digital controllers.

    Literature:

    1. Robert H. Bishop: Labview 2009 student edition, 2009, Prentice Hall, ISBN-13:978-

    0132141291

    2. Jeffrey Travis, Jim Kring: LabVIEW for everyone: graphical programming made easy

    and fun, Prentice Hall, 2007 ISBN: 0131856723

    Responsible for the subject: Jnos Tth, PhD, associate professor

    Lecturer/instructor involved in the training: -

  • 39

    Course: Industrial Safety Credits: 4

    Lecture, hours/week: 2 Practice, hours/week: 0

    Assessment: exam

    Actual semester: 6.

    Compulsory prerequisite: -

    Course description:

    The Industrial Safety focuses on more of the real issues future safety and health

    practitioners will encounter, such as dealing with enforcement, protecting workers

    from ergonomic hazards, and accommodating the latest advances in process

    technology, health management, a modern perspective on compliance with mandatory

    standards for workplace safety and health, and a variety of solved problems

    Topics covered include workers' compensation, fault tree analysis, hearing protection,

    environmental protection, fire protection, workers with disabilities, OSHA violation

    policy.

    Literature:

    (The books can be found in the library of Faculty of Engineering)1. C. Ray Asfahl,

    David W. Rieske: Industrial safety and health management 6th ed. (Intern. ed.) Boston

    Pearson, cop. 2010

    2. Roger L. Brauer: Safety and health for engineers 2nd ed. John Wiley, cop. 2006

    Responsible for the subject: Istvn Budai, PhD, associate professor

    Lecturer/instructor involved in the training: -

  • 40

    Course: Sensors and Actuators Credits: 5

    Lecture, hours/week: 2 Practice, hours/week: 1

    Assessment: mid-semester grade

    Actual semester: 5.

    Compulsory prerequisite: Electrotechnics and Electronics II.

    Course description:

    Sensors and Actuators in the mechatronics system. Signal processing (properties and

    forming of incoming signals.) Digitalization of analogue signals. Binary coding.

    Sampling and rebuilding of a signal. Elementary Sample and Holder circuits. D/A and

    A/D converter topologies. Working principals of sensors and actuators. Usage of

    magnetism, sound, light and other phenomena in mechatronics systems. Bus systems

    (parallel and serial ports). Electromagnetic actuators. Usage and working principals of

    DC/AC driving systems. Hydraulic and pneumatic servo systems.

    Literature:

    1. De Silva, C.W., Sensors and Actuators. Control System Instrumentation, CRC Press, 2007

    2. Fukuda T. and Menz W., Handbook of sensors and actuators, Elsevier, 1998

    Responsible for the subject: Jnos Tth, PhD, associate professor

    Lecturer/instructor involved in the training: -

  • 41

    Course: Mechatronics Credits: 3

    Lecture, hours/week: 1 Practice, hours/week: 2

    Assessment: mid-semester grade

    Actual semester: 6.

    Compulsory prerequisite: Sensors and actuators

    Course description:

    The course gives an overview of the basics of mechatronic systems and products

    including the components and characteristics typical for such systems. The course

    introduces a mechatronics design procedure and provides insight both into the

    advantages and difficulties of mechatronics design. The overall aim is that the students

    in relevant subsequent courses will apply this design procedure and in a stepwise

    manner deepen their proficiency in using it. The main topic of the course: Introduction

    to mechatronic engineering, Overall of Physics terminology, analogies, Mechanical

    components state-space representation, input-output model, model linearization. Bond

    graphs, transfer function, frequency domain model, fluid and thermal systems,

    Pneumatics Theory and applications, Hydraulics Theory and applications, Actuators

    and drive systems, Mechanical actuators, Electrical actuators, Sensors and Transducers

    components interconnection and signal conditioning.

    Literature:

    1. Gza HUSI: MECHATRONICS CONTROL SYSTEMS course book University

    of Debrecen 2012, ISBN 978-963-473-520-5

    2. Gza HUSI: MECHATRONICS CONTROL SYSTEMS laboratory handbook

    University of Debrecen 2012, ISBN 978-963-473-521-2

    3. Radu Ctlin ARC: ADVANCED MECHATRONICS - course book University of Debrecen 2012, ISBN 978-963-473-508-3

    4. Radu Ctlin ARC: ADVANCED MECHATRONICS - laboratory handbook University of Debrecen 2012, ISBN 978-963-473-509-0

    5. Zsolt TIBA, Gza HUSI: MECHANICAL DESIGN OF A MECHATRONICS

    SYSTEM laboratory handbook University of Debrecen 2012, ISBN 978-963-473-

    525-0

  • 42

    6. Jnos TTH: ELECTRICAL ACTUATORS - course book University of Debrecen

    2012, ISBN 978-963-473-512-0

    7. Jnos TTH: ELECTRICAL ACTUATORS - laboratory handbook University of

    Debrecen 2012, ISBN 978-963-473-513-7

    8. Sorin Marcel PATER: DIAGNOSIS AND MAINTENANCE OF

    MECHATRONICS SYSTEMS course book University of Debrecen 2012, ISBN

    978-963-473-531-1

    9. Sorin Marcel PATER: DIAGNOSIS AND MAINTENANCE OF

    MECHATRONICS SYSTEMS- laboratory handbook University of Debrecen 2012,

    ISBN 978-963-473-532-8

    10. Clarence W. De Silva: Mechatronics: An Integrated Approach

    Responsible for the subject: Gza Husi PhD, habil., associate professor

    Lecturer/instructor involved in the training: -

  • 43

    Course: PPL Theoretical Knowledge I. Credits: 3

    Lecture, hours/week: 3 Practice, hours/week: 2

    Assessment: exam

    Actual semester: 1.

    Compulsory prerequisite: -

    Course description:

    The course (Part I and II together) teaches the basic knowledge of Private Pilot License

    to demonstrate a level that grants a successful authority exam according to FCL.215

    ATPL Theoretical knowledge examinations.

    Part I of the course covers the following main areas and give thorough information

    on:

    Air law and act procedures, aircraft general knowledge, flight performance and

    planning, meteorology

    By conducting both Part of the course the student will have the theoretical and practical

    knowledge recommended by the EU legislation (AMC1 FCL.210; FCL.215) in order

    to be able to commence training on single engine piston airplanes under VFR flight

    rules in dual, solo and cross-country flights.

    The course is aimed to contribute to the achievement of safe flight during their

    proposed pilot career. It is crucial that a pilot could be able to recognize the hazard and

    apply for the well-known procedures in this matter during a flight.

    Literature:

    Fbin Andrs, PPL Kziknyv, A replgp-vezets elmlete, 2010, ISBN 978 963 06

    9062 1

    Responsible for the subject: Gza Husi, PhD, habil, associate professor

    Lecturer/instructor involved in the training: Lszl Sitku

  • 44

    Course: PPL Theoretical Knowledge II. Credits: 3

    Lecture, hours/week: 3 Practice, hours/week: 2

    Assessment: exam

    Actual semester: 2.

    Compulsory prerequisite: PPL Theoretical Knowledge I.

    Course description:

    The course (Part I and II together) teaches the basic knowledge of Private Pilot License

    to demonstrate a level that grants a successful authority exam according to FCL.215

    ATPL Theoretical knowledge examinations.

    Part I of the course covers the following main areas and give thorough information

    on:

    Communications (VFR), principles of flight, operational procedures, flight planning

    and flight monitoring, general navigation, radio navigation, human performance

    By conducting both Part of the course the student will have the theoretical and practical

    knowledge recommended by the EU legislation (AMC1 FCL.210; FCL.215) in order

    to be able to commence training on single engine piston airplanes under VFR flight

    rules in dual, solo and cross-country flights.

    The course is aimed to contribute to the achievement of safe flight during their

    proposed pilot career. It is crucial that a pilot could be able to recognize the hazard and

    apply for the well-known procedures in this matter during a flight.

    Literature:

    Fbin Andrs, PPL Kziknyv, A replgp-vezets elmlete, 2010, ISBN szm 978

    963 06 9062 1

    Responsible for the subject: Gza Husi, PhD, habil, associate professor

    Lecturer/instructor involved in the training: Lszl Sitku

  • 45

    Course: Principles of Flight I. Credits: 3

    Lecture, hours/week: 1 Practice, hours/week: 2

    Assessment: exam

    Actual semester: 1.

    Compulsory prerequisite: -

    Course description:

    The course (Part I and II together) teaches the basic knowledge of Principle of Flight

    to demonstrate a level that grants a successful authority exam according to FCL.515

    ATPL Training course and theoretical knowledge examinations.

    Part I of the course covers the following main areas and give thorough information

    on:

    The atmosphere, basic aerodynamic theory, subsonic aerodynamics, lift, drag, stalling,

    high lift devices, airframe contamination

    By conducting both Part of the course the student will have the knowledge

    recommended by the EU legislation (AMC1 FCL.310; FCL.515 (b); FCL.615 (b) and

    will understand the complex low speed aerodynamics of aeroplanes.

    Learning Objectives (LOs) published by the European Commission are used when

    developing the Part-FCL theoretical knowledge elements of the course.

    The course is aimed to contribute to the achievement of safe flight during their

    proposed pilot career. It is crucial that a pilot could be able to recognize the hazard and

    apply for the well-known procedures in this matter during a flight.

    Literature:

    CAE OXFORD AVIATION ACADEMY (UK), Principles of Flight, 2015, ISBN 978

    1 90620 276 7

    Responsible for the subject: kos Lakatos, PhD, associate professor

    Lecturer/instructor involved in the training: -

  • 46

    Course: Principles of Flight II. Credits: 3

    Lecture, hours/week: 1 Practice, hours/week: 2

    Assessment: mid-semester grade

    Actual semester: 4.

    Compulsory prerequisite: Principles of Flight I.

    Course description:

    The course (Part I and II together) teaches the basic knowledge of Principle of Flight

    to demonstrate a level that grants a successful authority exam according to FCL.515

    ATPL Training course and theoretical knowledge examinations.

    Part II of the course covers the following main areas and give thorough information

    on:

    Stability, control, high speed aerodynamics, limitations, propellers, flight mechanics,

    windshear

    By conducting both Part of the course the student will have the knowledge

    recommended by the EU legislation (AMC1 FCL.310; FCL.515 (b); FCL.615 (b) and

    will understand the complex high speed aerodynamics of aeroplanes.

    Learning Objectives (LOs) published by the European Commission are used when

    developing the Part-FCL theoretical knowledge elements of the course.

    The course is aimed to contribute to the achievement of safe flight during their

    proposed pilot career. It is crucial that a pilot could be able to recognize the hazard and

    apply for the well-known procedures in this matter during a flight.

    Literature:

    CAE OXFORD AVIATION ACADEMY (UK), Principles of Flight, 2015, ISBN 978

    1 90620 276 7

    Responsible for the subject: kos Lakatos, PhD, associate professor

    Lecturer/instructor involved in the training: -

  • 47

    Course: Aircraft General Knowledge I.

    (Airframe/Systems/Powerplants) ATPL

    Credits: 3

    Lecture, hours/week: 1 Practice, hours/week: 2

    Assessment: exam

    Actual semester: 5.

    Compulsory prerequisite: -

    Course description:

    The course (Part I and II together) teaches the comprehensive knowledge of Aircraft

    General Knowledge Airframe/Systems/Power plant to demonstrate a level that

    grants a successful authority exam according to FCL.515 ATPL Training course and

    theoretical knowledge examinations.

    Part I of the course covers the following main areas and give thorough information

    on:

    System design, loads, stresses and maintenance, airframe, hydraulics, landing gear, wheels, tyres and brakes, flight controls, pneumatics: pressurisation and air conditioning, anti and de-icing systems, fuel system, protection and detection systems, oxygen systems

    By conducting both Part of the course the student will have the knowledge

    recommended by the EU legislation (AMC1 FCL.310; FCL.515 (b); FCL.615 (b) and

    will understand the complex technological background, structures, solutions used in

    airframes, systems and power plants in aviation.

    Learning Objectives (LOs) published by the European Commission are used when

    developing the Part-FCL theoretical knowledge elements of the course.

    The course is aimed to contribute to the achievement of safe flight during their

    proposed pilot career. It is crucial that a pilot could be able to recognize the hazard and

    apply for the well-known procedures in this matter during a flight.

  • 48

    Literature:

    CAE OXFORD AVIATION ACADEMY (UK), Airframes and Systems, 2015, ISBN

    978 1 90620 265 1

    CAE OXFORD AVIATION ACADEMY (UK), Electrics and electronics, 2015, ISBN

    978 1 90620 266 8

    CAE OXFORD AVIATION ACADEMY (UK), Power plant, 2015, ISBN 978 1

    90620 267 5

    Responsible for the subject: Gza Husi, PhD, habil, associate professor

    Lecturer/instructor involved in the training: -

  • 49

    Course: Aircraft General Knowledge II.

    (Airframe/Systems/Powerplants) ATPL

    Credits: 2

    Lecture, hours/week: 1 Practice, hours/week: 1

    Assessment: mid-semester grade

    Actual semester: 6.

    Compulsory prerequisite: Aircraft General Knowledge I.

    (Airframe/Systems/Powerplants) ATPL

    Course description:

    The course (Part I and II together) teaches the comprehensive knowledge of Aircraft

    General Knowledge Airframe/Systems/Power plant to demonstrate a level that

    grants a successful authority exam according to FCL.515 ATPL Training course and

    theoretical knowledge examinations.

    Part II of the course covers the following main areas and give thorough information

    on:

    DC and AC electrics, switches, generators and alternators, aircraft electric power system, piston engines, lubrication, cooling, ignition, fuel, mixture, carburettors, turbine engines, air inlets, compressors, combustion chambers, exhaust, thrust, auxiliary power units, bleed air

    By conducting the course the student will have the knowledge recommended by the

    EU legislation (AMC1 FCL.310; FCL.515 (b); FCL.615 (b) and will understand the

    complex technological background, structures, solutions used in airframes, systems and

    power plants in aviation.

    Learning Objectives (LOs) published by the European Commission are used when

    developing the Part-FCL theoretical knowledge elements of the course.

    The course is aimed to contribute to the achievement of safe flight during their

    proposed pilot career. It is crucial that a pilot could be able to recognize the hazard and

    apply for the well-known procedures in this matter during a flight.

    Literature:

  • 50

    CAE OXFORD AVIATION ACADEMY (UK), Airframes and Systems, 2015, ISBN

    978 1 90620 265 1

    CAE OXFORD AVIATION ACADEMY (UK), Electrics and electronics, 2015, ISBN

    978 1 90620 266 8

    CAE OXFORD AVIATION ACADEMY (UK), Power plant, 2015, ISBN 978 1

    90620 267 5

    Responsible for the subject: Gza Husi, PhD, habil, associate professor

    Lecturer/instructor involved in the training: -

  • 51

    Course: Aircraft General Knowledge Instrumentation Credits: 4

    Lecture, hours/week: 2 Practice, hours/week: 2

    Assessment: exam

    Actual semester: 6.

    Compulsory prerequisite: Sensors and actuators

    Course description:

    The course teaches the basic knowledge of Aircraft General Knowledge

    Instrumentation to demonstrate a level that grants a successful authority exam

    according to FCL.515 ATPL Training course and theoretical knowledge

    examinations.

    The course covers the following main areas and give thorough information on:

    Sensors and instruments, measurement of air data parameters , magnetism: direct reading compass and flux valve, gyroscopic instruments, inertial navigation and reference systems, aeroplane: automatic flight control systems, trims, yaw damper and flight envelope protection, autothrottle: automatic thrust control system, communication systems, fms, alerting systems and proximity systems, integrated instruments: electronic displays, maintenance, monitoring and recording systems, digital circuits and computers

    By conducting the course the student will have the knowledge recommended by the

    EU legislation (AMC1 FCL.310; FCL.515 (b); FCL.615 (b) and will understand the

    complex knowledge of instrumentation used in general and professional aviation by

    simple, complex and jet airplanes.

    Learning Objectives (LOs) published by the European Commission are used when

    developing the Part-FCL theoretical knowledge elements of the course.

    The course is aimed to contribute to the achievement of safe flight during their

    proposed pilot career. It is crucial that a pilot could be able to recognize the hazard and

    apply for the well-known procedures in this matter during a flight.

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    Literature:

    CAE OXFORD AVIATION ACADEMY (UK), Instrumentation, 2015, ISBN 978 1

    90620 268 2

    Responsible for the subject: Jnos Tth, PhD, associate professor

    Lecturer/instructor involved in the training: Jnos Szerecz

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    Course: Human Performance Credits: 3

    Lecture, hours/week: 3 Practice, hours/week: 2

    Assessment: exam

    Actual semester: 4.

    Compulsory prerequisite: -

    Course description:

    The course teaches the basic knowledge of Human Performance to demonstrate a level

    that grants a successful authority exam according to FCL.515 ATPL Training course

    and theoretical knowledge examinations.

    The course covers the following main areas and give thorough information on:

    Human factors: basic concepts, basic aviation physiology and health maintenance, basic aviation psychology, the circulatory system, oxygen and respiration, the eye and vision, flying and health, stress, behaviour and motivation, cognition in aviation, sleep and fatigue, communication and co -operation, man and machine, decision-making and risk

    By conducting the course the student will have the knowledge recommended by the EU

    legislation (AMC1 FCL.310; FCL.515 (b); FCL.615 (b) and will understand the complex

    knowledge of human physiology and health, risks, fatigue and decision making process

    under different flight conditions.

    Learning Objectives (LOs) published by the European Commission are used when

    developing the Part-FCL theoretical knowledge elements of the course.

    The course is aimed to contribute to the achievement of safe flight during their proposed

    pilot career. It is crucial that a pilot could be able to recognize the hazard and apply for

    the well-known procedures in this matter during a flight.

    Literature:

    CAE OXFORD AVIATION ACADEMY (UK), Human Performance and limitations,

    2015, ISBN 978 1 90620 271 2

  • 54

    Responsible for the subject: Judit T. Kiss, PhD, associate professor

    Lecturer/instructor involved in the training: Imre Melles

  • 55

    Course: Meteorology I. ATPL Credits: 2

    Lecture, hours/week: 1 Practice, hours/week: 2

    Assessment: exam

    Actual semester: 3.

    Compulsory prerequisite: -

    Course description:

    The course (Part I and II together) teaches the basic knowledge of Meteorology to

    demonstrate a level that grants a successful authority exam according to FCL.515

    ATPL Training course and theoretical knowledge examinations.

    Part I of the course covers the following main areas and give thorough information on:

    The atmosphere, pressure, density, pressure systems, synoptic charts, altimetry,

    temperature, humidity, adiabatics and stability, turbulence, wind, thermodynamics,

    clouds and fog, precipitation

    By conducting both Part of the course the student will have the knowledge

    recommended by the EU legislation (AMC1 FCL.310; FCL.515 (b); FCL.615 (b) and

    will understand the complex knowledge of meteorological conditions, different

    atmospheric structure and activities.

    Learning Objectives (LOs) published by the European Commission are used when

    developing the Part-FCL theoretical knowledge elements of the course.

    The course is aimed to contribute to the achievement of safe flight during their

    proposed pilot career. It is crucial that a pilot could be able to recognize the hazard and

    apply for the well-known procedures in this matter during a flight.

    Literature:

    CAE OXFORD AVIATION ACADEMY (UK), Meteorology, 2015, ISBN 978 1

    90620 272 9

  • 56

    Sndor Valria-Wantuch Ferenc, Replsmeteorolgia, 2005, ISBN 963 7702 91 1

    Responsible for the subject: Ferenc Wantuch, PhD

    Lecturer/instructor involved in the training: -

  • 57

    Course: Meteorology II. ATPL Credits: 2

    Lecture, hours/week: 1 Practice, hours/week: 2

    Assessment: mid-semester grade

    Actual semester: 4.

    Compulsory prerequisite: Meteorology I. ATPL

    Course description:

    The course (Part I and II together) teaches the basic knowledge of Meteorology to

    demonstrate a level that grants a successful authority exam according to FCL.515

    ATPL Training course and theoretical knowledge examinations.

    Part II of the course covers the following main areas and give thorough information

    on:

    Visibility, icing, air masses and fronts, documentation, weather and wind charts, area

    route climatology, flight hazards, meteorological information, meters, tafs, warning

    messages

    By conducting both Part of the course the student will have the knowledge

    recommended by the EU legislation (AMC1 FCL.310; FCL.515 (b); FCL.615 (b) and

    will understand the complex knowledge of meteorological conditions, different

    atmospheric structure and activities.

    Learning Objectives (LOs) published by the European Commission are used when

    developing the Part-FCL theoretical knowledge elements of the course.

    The course is aimed to contribute to the achievement of safe flight during their

    proposed pilot career. It is crucial that a pilot could be able to recognize the hazard and

    apply for the well-known procedures in this matter during a flight.

    Literature:

    CAE OXFORD AVIATION ACADEMY (UK), Meteorology, 2015, ISBN 978 1

    90620 272 9

    Sndor Valria-Wantuch Ferenc, Replsmeteorolgia, 2005, ISBN 963 7702 91 1

    Responsible for the subject: Ferenc Wantuch, PhD

  • 58

    Course: Air Law Credits: 2

    Lecture, hours/week: 4 Practice, hours/week: 0

    Assessment: exam

    Actual semester: 6.

    Compulsory prerequisite: -

    Course description:

    The course teaches the comprehensive knowledge of Air Law to demonstrate a level

    that grants a successful authority exam according to FCL.515 ATPL Training course

    and theoretical knowledge examinations.

    The course covers the following main areas and give thorough information on:

    Rules of the air, procedures for air navigation services: aircraft operations, air traffic

    services and air traffic management, aeronautical information service, aerodromes or

    heliports, facilitation, search and rescue, security, aircraft accident and incident

    investigation, international law: conventions, agreements and organisations,

    airworthiness of aircraft, aircraft nationality and registration marks, personnel licensing

    By conducting the course the student will have the knowledge recommended by the

    EU legislation (AMC1 FCL.310; FCL.515 (b); FCL.615 (b) and will understand the

    legal background and basis of aviation, learn the structure and sources of the rules.

    Learning Objectives (LOs) published by the European Commission are used when

    developing the Part-FCL theoretical knowledge elements of the course.

    The course is aimed to contribute to the achievement of safe flight during their

    proposed pilot career. It is crucial that a pilot could be able to recognize the hazard and

    apply for the well-known procedures in this matter during a flight.

    Schedule:

    1. week: Preparation, choosing courses, statement of requirements of the subject,

    description of schedule of the subject, statement of the literature of the subject,

    literature list of the subject, enrolment week

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    2. week: Concept, function of law. Characteristics of the content and architecture of

    legal norms. Rule of law and source of law. Architecture and effects of the rules of law.

    Characteristics of legal entities (persons). Types of legal relationships. Conception,

    classification of matters, their role in legal relationships. Legal facts.

    3. week: Characteristics of legal entities (persons). Types of legal relationships.

    Conception, classification of matters, their names and role in legal relationships.

    Types of legal facts. Statutes of limitations.

    4. week: The Constitution as fundamental law. General content elements of

    constitutions, separation of powers and the relevant state organs, fundamental rights

    and obligations of nationals.

    5. week: Basic knowledge of proprietary rights. Ownership forms. Owner rights and

    obligations. Forms of acquisition of property, and the different rules of acquisition of

    movables and real estates. Protection of possession and ownership in case of movables.

    6. week: Internationally accepted forms of responsibility: administrative, civil, criminal

    and labour law. Basic conceptions of civil law responsibility, tort law (injured party,

    wrongdoer, indemnification, compensation, settlement of damages, division of

    damages, forms of adjustment of claims). Special forms and rules of compensation.

    7. week: Legal concept of contracts. General characteristics of contracts. Phases of

    existence of contracts and their detailed characteristics. Validity and invalidity regarding

    the contracts.

    8. week: Ancillary obligations connecting to the contracts which strengthen the ability

    and ensure the competence of the parties (party entitled and obligee).

    The most important contract types of business life, with international ones also

    reviewed.

    9. week: Writing the 1st theoretical classroom test.

    10.week: Territory of a state, air-space, rivers, seas.

    Scope of power and jurisdiction.

    11. week: Pilot certification of the air traffic staff. The pilot certification, the rules of its

    issuance, withdrawal. Pilot certification issued by a foreign authority. Application for

    the pilot certification and the examination.

    12. week: Air space structure and classification. Application for and use of air spaces.

    Aerial routes.

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    13. week: Designing the routes, application for routes in accordance with the VFR and

    IFR rules. Formal and content obligations of submission of applications for licenses.

    Obligations of documenting the flights preformed.

    14. week: General documentation of flights. Documentations of the airline staff.

    Documents of the aircraft. The documents obligatory to keep in the aircraft during the

    performance of the flight task.

    15. week: Writing the 2nd theoretical classroom test.

    Methods of exam:

    Terminal examination credit offered if the two theoretical classroom tests are written

    with minimum fair grade or exam in writing written during the exam period.

    Literature:

    - CAE OXFORD AVIATION ACADEMY (UK), Air Law, 2015, ISBN 978 1 90620

    264 4

    - Br Gyrgy: Jogi ismeretek (Knowledge of the Law) Novotni Kiad Miskolc 2006.

    - Decree no 5/2001(II.6) of KViM (Ministry of Environmental Protection and Rural

    Development) on the pilot certification of the air traffic staff.

    Joint decree no 26/2007.(III.1.) of GKM-HM-KvVm on the assignment of the

    Hungarian airspace for the purpose of air traffic.

    Responsible for the subject: Erika Varga, PhD.

    Lecturer/instructor involved in the training: -

  • 61

    Course: Crew Management Credits: 2

    Lecture, hours/week: 0 Practice, hours/week: 2

    Assessment: mid-semester grade

    Actual semester: 6.

    Compulsory prerequisite: -

    Course description:

    The course teaches the basic knowledge of Multi-crew cooperation according to

    FCL.735.A; AMC1 FCL.930.MCCI

    The course covers the following main areas and give thorough information on:

    Displays, practical examples for software, hardware, environment, malfunctions in crew

    cooperation, leadership; tasks and privileges, cultural elements, pf and pm tasks,

    professional quality, responsible crew cooperation, personal characteristics, attitude and

    devotion: attention, conflict solving skill, intervention, effective and clear

    communication in flight, crew cooperation procedures, use of checklists

    By conducting the course the student will have the knowledge recommended by the

    EU legislation FCL.735.A and AMC1 FCL.930.MCCI will understand the complex

    requirements of multi crew cooperation with its compulsory set of operational and

    human skills.

    Literature:

    O'Connor, P., Hormann, H., Flin, R., Lodge, M. & Goeters, K. (2002). Developing a

    method for evaluating crew resource management: a European perspective. The

    International Journal of Aviation Psychology, 12, 263-285.

    Mearns, K., Flin, R. & O'Connor, P. (2001). Sharing worlds of risk; improving

    communication with crew resource management. Journal of Risk Research, 4, 377-392.

    Crew Resource Management: A Literature Review Robert W. Kaps Ran Keren-Zvi Jose

    R. Ruiz. Volume 8 Number 3 JAAER Spring 1999. Journal of Aviation/Aerospace

    Education & Research.

    Responsible for the subject: Edit Szcs, PhD, college professor

  • 62

    Course: Rules of Aerodromes Credits: 2

    Lecture, hours/week: 0 Practice, hours/week: 2

    Assessment: mid-semester grade

    Actual semester: 6.

    Compulsory prerequisite: -

    Course description:

    One of the key element of the aviation system is the infrastructure where all ground

    movements and handling activities take place: the airport.

    The airport is a very complex sub-system of the aviation, where the crucial part of the

    flight procedure happens.

    Aerodrome design, operation and maintenance are regulated both by ICAO Annexes

    and Docs and EU Regulation (Part-ADR )

    The aerodrome operator shall establish and maintain an aerodrome manual which shall

    reflect the certification basis and the requirements set out in the regulations. The

    aerodrome manual shall contain or refer to all necessary information for the safe use,

    operation and maintenance of the aerodrome, its equipment, as well as its obstacle

    limitation and protection surfaces and other areas associated with the aerodrome.

    The content of the course is based and follows the structure of the aerodrome manual:

    Aerodrome management system: qualification and training requirements, emergency

    response planning, safety risk management process, organisation, particulars of the

    aerodrome site: aerodrome facilities and equipment, types of operations, the physical

    characteristics of the aerodrome, particulars of the aerodrome required to be reported

    to the aeronautical information service: aerodrome dimensions and related information,

    particulars of the operating procedures of the aerodrome, its equipment and safety

    measures: apron management, wildlife hazard management, rescue and fire fighting,

    low visibility operations, winter and night operation

    By conducting the course the student will have the knowledge about the airport system,

    which will make the pilot more confident to deal with all the actions that are compulsory

    and part of the airport operation.

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    The course is not an obligation by the Part-FCL regulation nevertheless it is prepared

    to give a more comprehensive view for the pilot of the future to understand more

    deeply the correlations in aviation.

    It is aimed to contribute to the achievement of safe flight during their proposed pilot

    career. It is crucial that a pilot could be able to recognize the hazard and apply for the

    well-known procedures in this matter during a flight.

    Literature:

    International Standards and Recommended Practices, Annex 14 to the Convention on

    International Civil Aviation, Aerodromes, Volume I Aerodrome Design and

    Operations

    ICAO DOC 9137-AN1898 Part 1-9

    ICAO DOC 9157-AN901 Part 1-7

    Responsible for the subject: Ferenc Varga, PhD, senior lecturer

    Lecturer/instructor involved in the training: Andrs Farkas

  • 64

    Course: Radiotelephony Credits: 3

    Lecture, hours/week: 2 Practice, hours/week: 1

    Assessment: mid-semester grade

    Actual semester: 7.

    Compulsory prerequisite: -

    Course description:

    Radiotelephony subject contains supplementary information in addition to VFR and

    IFR communication ATPL subjects that fills the gap between theoretical knowledge

    and practical use of radiotelephony during actual flight operation.

    The course covers the following main areas and give thorough information on:

    Differences between certain countries, continents (content of atis, atc clearance,

    communication with ground staff and atc), types of operation (business jet, passenger

    flight, cargo flight, etops).

    The course is not an obligation by the Part-FCL regulation nevertheless it is prepared

    to give a more comprehensive view for the pilot of the future to understand more

    deeply the correlations in aviation.

    It is aimed to contribute to the achievement of safe flight during their proposed pilot

    career. It is crucial that a pilot could be able to recognize the hazard and apply for the

    well-known procedures in this matter during a flight.

    Literature:

    CAE OXFORD AVIATION ACADEMY (UK), Communications, 2015, ISBN 978

    1 90620 277 4

    Responsible for the subject: Sndor Piros, PhD, college associate professor

    Lecturer/instructor involved in the training: Zoltn Veres

  • 65

    Course: Mass and Balance Credits: 3

    Lecture, hours/week: 1 Practice, hours/week: 2

    Assessment: exam

    Actual semester: 4.

    Compulsory prerequisite:

    Course description:

    The course teaches the basic knowledge of Mass and Balance to demonstrate a level

    that grants a successful authority exam according to FCL.515 ATPL Training course

    and theoretical knowledge examinations.

    The course covers the following main areas and give thorough information on:

    Purpose of mass and balance considerations, loading, fundamentals of cg calculations,

    mass and balance details of aircraft, determination of cg position, general principles

    take off, climb and descent, general principles landing, single engine, multi-engined class

    b take off, climb, cruise, landing, class a aircraft take off, additional take off procedures,

    take off climb, en route, landing, cargo handling

    By conducting the course the student will have the knowledge recommended by the

    EU legislation (AMC1 FCL.310; FCL.515 (b); FCL.615 (b) and will understand the

    legal background and basis of aviation, learn the structure and sources of the rules.

    Literature:

    CAE OXFORD AVIATION ACADEMY (UK),Mass and Balance - Performance,

    2015, ISBN 978 1 90620 269 9

    Responsible for the subject: Tams Mankovits, PhD, associate professor

    Lecturer/instructor involved in the training: Pter Marczy

  • 66

    Course: Performance ATPL Credits: 3

    Lecture, hours/week: 1 Practice, hours/week: 2

    Assessment: exam

    Actual semester:4.

    Compulsory prerequisite: -

    Course description:

    The course teaches the basic knowledge of Performance to demonstrate a level that

    grants a successful authority exam according to FCL.515 ATPL Training course and

    theoretical knowledge examinations.

    The course covers the following main areas and give thorough information on:

    Performance class b: SE aeroplanes, performance class b: ME aeroplanes, performance

    class a : aeroplanes certificated under CS-25 only

    By conducting the course the student will have the knowledge recommended by the

    EU legislation (AMC1 FCL.310; FCL.515 (b); FCL.615 (b) and will understand the

    legal background and basis of aviation, learn the structure and sources of the rules.

    Literature:

    CAE OXFORD AVIATION ACADEMY (UK),Mass and Balance - Performance,

    2015, ISBN 978 1 90620 269 9

    Responsible for the subject: Sndor Piros, PhD, college associate professor

    Lecturer/instructor involved in the training: Jnos Szerecz

  • 67

    Course: Flight Planning and Monitoring Credits: 2

    Lecture, hours/week: 2 Practice, hours/week: 1

    Assessment: exam

    Actual semester: 5.

    Compulsory prerequisite: -

    Course description:

    The course teaches the basic knowledge of Flight Planning and Monitoring to

    demonstrate a level that grants a succesfull authority exam according to FCL.515 ATPL

    Training course and theoretical knowledge examinations.

    The course covers the following main areas and give thorough information on:

    Air information publications, topographical chart, weather charts flight, planning for

    VFR flights, flight planning for IFR flights, fuel planning, pre-flight preparation, ATS

    flight plan, flight monitoring and in-flight re-planning, point of no safe return, critical

    point gp-equal time point

    By conducting the course the student will have the knowledge recommended by the

    EU legislation (AMC1 FCL.310; FCL.515 (b); FCL.615 (b) and will understand the

    legal background and basis of aviation, learn the structure and sources of the rules.

    Literature:

    CAE OXFORD AVIATION ACADEMY (UK), Flight Planning and Monitoring,

    2015, ISBN 978 1 90620 270 5

    Responsible for the subject: Gyrgy Csoms, PhD, habil, college professor

    Lecturer/instructor involved in the training: Pter Marczy

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    Course: General Navigation ATPL Credits: 6

    Lecture, hours/week: 4 Practice, hours/week: 6

    Assessment: exam

    Actual semester: 5.

    Compulsory prerequisite: -

    Course description:

    The course teaches the basic knowledge of General Navigation to demonstrate a level

    that grants a successful authority exam according to FCL.515 ATPL Training course

    and theoretical knowledge examinations.

    The course covers the following main areas and give thorough information on:

    Basics of navigation, magnetism and compasses, charts, dead reckoning navigation, in-

    flight navigation, direction latitude and longitude, great circles rhumb lines, the vector

    triangle, topographical maps, pilot navigation, wind components, convergency and

    conversion angle, departure, scale, charts, general navigation problems, gyroscopes, the

    direct indicating compass, remote indicating compass, flight management systems, area