EUT101 Motor Vehicle Mechanics
Motor Vehicle Mechanics lesson makes the program students know about vehicles and also collects the data required for the solution of a problem in vehicles, also provides theoretical and practical knowledge to solve the problem with the help of scientific methods.
Name of Course |
Code of Course |
Term |
Time |
Theoretical |
Practice |
Credit |
ECTS |
|
Motor Vehicle Mechanics |
EUT101 |
1 |
3 |
3 |
0 |
3 |
4 |
|
Weekly Subjects |
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Week |
Subject |
|||||||
1 |
Information about motor vehicles |
|||||||
2 |
Wheel mechanics |
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3 |
Road resistors |
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4 |
Rolling, Air and Wind resistors |
|||||||
5 |
Slope and Acceleration resistance |
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6 |
Wheel holding and sliding calculation |
|||||||
7 |
midterm exam |
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8 |
Static load distribution on the linear road vehicle |
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9 |
Static load distribution on vehicle on inclined road |
|||||||
10 |
Maximum holding and braking forces |
|||||||
11 |
Bend attitude and sliding |
|||||||
12 |
Finding the center of gravity of the systems |
|||||||
13 |
Rolling axis |
|||||||
14 |
Finding the rolling radius of the wheel |
|||||||
15 |
Braking account |
|||||||
16 |
General (Final) Exam |
EUT103 Hybrid and Electric Vehicle Techonology
Hybrid and electric vehicle technology course provides students to the knowledge of hybrid and electric vehicles, and also teaches the principles of operation of vehicles.
Name of Course |
Code of Course |
Term |
Time |
Theoretical |
Practice |
Credit |
ECTS |
|
Hybrid and Electric Vehicle Techonology |
EUT103 |
1 |
3 |
3 |
0 |
3 |
4 |
|
Weekly Subjects |
||||||||
Week |
Subject |
|||||||
1 |
Introduction to hybrid and electric vehicle technology |
|||||||
2 |
Hybrid vehicle types, operating principles |
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3 |
Electric vehicle types, operating principles |
|||||||
4 |
Components of hybrid and electric vehicles |
|||||||
5 |
Performance analysis of hybrid vehicles |
|||||||
6 |
Braking basics |
|||||||
7 |
Midterm |
|||||||
8 |
Battery technology |
|||||||
9 |
Modeling of hybrid vehicles |
|||||||
10 |
Modeling of hybrid vehicles |
|||||||
11 |
Modeling of electric vehicles |
|||||||
12 |
Modeling of electric vehicles |
|||||||
13 |
Alternative fuel hybrid vehicles |
|||||||
14 |
Emission control in hybrid vehicles |
|||||||
15 |
Controller design for hybrid and electric vehicles |
|||||||
16 |
General (Final) Exam |
EUT102 Computer Aided Drawing And Design
In this course, students learn technical drawing and design program.
Name of Course |
Code of Course |
Term |
Time |
Theoretical |
Practice |
Credit |
ECTS |
|
Computer Aided Drawing And Design |
EUT102 |
2 |
3 |
2 |
1 |
3 |
4 |
|
Weekly Subjects |
||||||||
Week |
Subject |
|||||||
1 |
Introduction to technical drawing |
|||||||
2 |
Measuring instruments and dimensioning |
|||||||
3 |
Projection principles and views |
|||||||
4 |
Profile views |
|||||||
5 |
Surface roughness and surface treatment symbols |
|||||||
6 |
Welding symbols and tolerances |
|||||||
7 |
Midterm |
|||||||
8 |
Introduction to computer aided solid modeling course |
|||||||
9 |
Learning planes, introduction to drawing and learning drawing commands |
|||||||
10 |
Introduction to solid modeling and learning of solid modeling commands |
|||||||
11 |
Learning solid modeling commands |
|||||||
12 |
Learning the introduction to assembly and assembly commands |
|||||||
13 |
Learning assembly commands |
|||||||
14 |
Drawing of machine elements |
|||||||
15 |
Assembly and motion study |
|||||||
16 |
General (final) exam |
EUT104 Internal Combustion Engines
In this course, students of the department will know internal combustion engines and their usage areas
Name of Course |
Code of Course |
Term |
Time |
Theoretical |
Practice |
Credit |
ECTS |
|
Internal Combustion Engines |
EUT104 |
2 |
3 |
2 |
1 |
3 |
3 |
|
Weekly Subjects |
||||||||
Week |
Subject |
|||||||
1 |
Introduction to internal combustion engines |
|||||||
2 |
Define of engine parts |
|||||||
3 |
Working principle of internal combustion engines |
|||||||
4 |
Theoretical engine cycles (otto, diesel, mixed cycles) |
|||||||
5 |
Practical engine cycles (otto, diesel, mixed cycles) |
|||||||
6 |
Basic kinematic calculations |
|||||||
7 |
Basic kinematic calculations |
|||||||
8 |
Midterm |
|||||||
9 |
Fuels and combustion chemistry |
|||||||
10 |
Fuels and combustion chemistry |
|||||||
11 |
Combustion system in spark ignition engines |
|||||||
12 |
Combustion system in ignition engines with compression |
|||||||
13 |
Engine maintenance tests |
|||||||
14 |
Brake systems |
|||||||
15 |
Lubrication and cooling systems |
|||||||
16 |
General (Final) Exam |
The aim of this course is to introduce students to power train. They learn the functions of parts and sensors used in power train and can easily maintain and repair.
Name of Course |
Code of Course |
Term |
Time |
Theoretical |
Practice |
Credit |
ECTS |
|
Power Train |
EUT201 |
3 |
2 |
2 |
0 |
2 |
2 |
|
Weekly Subjects |
||||||||
Week |
Subject |
|||||||
1 |
Identification of powertrain |
|||||||
2 |
Coupling, working principles |
|||||||
3 |
Hydraulic clutch centers |
|||||||
4 |
Front-wheel drive gearboxes |
|||||||
5 |
Mechanical gearboxes |
|||||||
6 |
Mechanical gearboxes |
|||||||
7 |
Hydraulic power transmission, Torque Converter systems |
|||||||
8 |
Midterm |
|||||||
9 |
Automatic Transmission Planetary Gear Systems |
|||||||
10 |
Automatic Transmission Hydraulic System |
|||||||
11 |
Roller, Belt Chain System of Variable Geometry Gearbox |
|||||||
12 |
Roller, Belt Chain System of Variable Geometry Gearbox |
|||||||
13 |
Robot gearboxes |
|||||||
14 |
Shafts |
|||||||
15 |
Axles |
|||||||
16 |
General (final) exam |
EUT105 Basic Electric and Electronics
Circuit elements: sources, resistors, capacitors, coils. Basic laws of electrical circuits. Electric energy sources, conductors, insulators and semiconductors. Kirchoff's currents and voltages law. Voltage and current sources. Circuit solution methods used in the analysis of electrical circuits. Introduction to semiconductor devices, diode and simple diode circuits.
Name of Course |
Code of Course |
Term |
Time |
Theoretical |
Practice |
Credit |
AKTS |
||
Basic Electric and Electronics |
EUT105 |
1 |
3 |
3 |
0 |
3 |
4 |
||
Weekly Subjects |
|||||||||
Week |
Subject |
||||||||
1 |
International system of unit |
||||||||
2 |
Basic elements used in electrical systems |
||||||||
3 |
Electric energy sources, conductors, insulators and semiconductors |
||||||||
4 |
Concepts such as current, voltage, energy, power and electric charge |
||||||||
5 |
Ohm's Law, Resistance element and application areas |
||||||||
6 |
Kirchoff's currents and voltages law. Analysis of DC circuits |
||||||||
7 |
AC signals, alternating current, period, frequency, amplitude, RMS concepts |
||||||||
8 |
Midterm |
||||||||
9 |
Capacity and capacitors. Inductance and coils |
||||||||
10 |
Voltage and current sources, connections and transformations |
||||||||
11 |
Delta-Star connected circuits |
||||||||
12 |
Environmental currents method and application steps |
||||||||
13 |
Node voltage method and application steps |
||||||||
14 |
Other theorems used in the analysis of electrical circuits |
||||||||
15 |
Introduction to semiconductor devices, diode and simple diode circuits |
||||||||
16 |
General (Final) Exam |
EUT106 Analog Electronics
Electrical properties and classification of solids. Intrinsic and doped semiconductors and dopping. PN junction, diode types and characteristics. Ideal diode, zener diode and diode circuit applications. Structure, working regions and polarization of transistors (BJT, FET). Power control elements and other circuit elements.
Name of Course |
Code of Course |
Term |
Time |
Theoretical |
Practice |
Credit |
AKTS |
|
Analog Electronics |
EUT106 |
2 |
3 |
3 |
0 |
3 |
3 |
|
Weekly Subjects |
||||||||
Week |
Subject |
|||||||
1 |
Electrical properties of solids, ohms law and ohmic conductors, resistance and resistivity, conduction and conductivity |
|||||||
2 |
Classification of solids according to their electrical conductivity |
|||||||
3 |
Intrinsic and doped semiconductors, n- and p- type semiconductors and dopping |
|||||||
4 |
PN junction and semiconductor diode, diode types, i-v characteristic, physical structure |
|||||||
5 |
Ideal diode definition, diode circuit applications I |
|||||||
6 |
Diode circuit applications II, Zener diode i-v characteristic |
|||||||
7 |
Circuit applications with Zener diodes, other diodes |
|||||||
8 |
Midterm |
|||||||
9 |
BJT physical structure, BJT end characteristics, working regions, polarization |
|||||||
10 |
Low frequency small signal model |
|||||||
11 |
Basic BJT Amplifiers |
|||||||
12 |
Field Effect Transistors (FETs) |
|||||||
13 |
Polarization Connections in FETs |
|||||||
14 |
FET Applications |
|||||||
15 |
Power Control Elements and Other Circuit Elements |
|||||||
16 |
General (Final) Exam |
EUT203 Electric Machinery
Magnetic field, magnetic circuit and losses. Transformer, equivalent circuit and impedance conversion. Transformer efficiency, three-phase transformers and star-star, star-delta, delta-star, delta-delta connections. Alternating current machines. General principles of synchronous machines, measurement of machine model parameters. Synchronous generators and parallel operation. Asynchronous motors, speed-moment characteristic, speed control and frequency change. Fundamentals of DC machines, starting and braking.
Name of Course |
Code of Course |
Term |
Time |
Theoretical |
Practice |
Credit |
AKTS |
|
Electric Machinery |
EUT203 |
3 |
3 |
3 |
0 |
3 |
3 |
|
Weekly Subjects |
||||||||
Week |
Subject |
|||||||
1 |
Magnetic field, magnetic circuit, Ampere's Law, reluctance, flux, flux density, magnetic behavior of materials, energy losses in magnetic materials: hysteresis and eddy current losses, Faraday's law, Lenz's law. |
|||||||
2 |
Transformer, construction and types, ideal transformer, impedance conversion, true single phase transformer, voltage ratio, magnetization current, current ratio, equivalent circuit. |
|||||||
3 |
Measurement of equivalent circuit parameters: open circuit and short circuit tests, per-unit system, phasor diagram. |
|||||||
4 |
Transformer efficiency, tuning transformers, voltage adjustment, autotransformer, three-phase transformers, star-star, star-delta, delta-star, delta-delta connections. |
|||||||
5 |
AA Makina foundations. Rotating field concept, aa machine windings, magneto motor force distribution, induced moment, losses, power flow and efficiency. |
|||||||
6 |
General principles of synchronous machines. Equivalent circuit, phasor diagrams, measurement of machine model parameters. |
|||||||
7 |
Synchronous generator. Operation of the stand-alone synchronous generator. Synchronous generator working parallel to other generators. Parallel working conditions of synchronous generators. |
|||||||
8 |
Midterm |
|||||||
9 |
Basic principles of synchronous motor operation. Continuous state operation of the synchronous motor. Starting synchronous motors. Rated values of synchronous motors. |
|||||||
10 |
Construction and types of asynchronous motors. Rotating magnetic field, the speed of the rotating magnetic field. Basic asynchronous motor concepts, formation of induced moment, concept of slip in rotor, electrical frequency in rotor, equivalent circuit in asynchronous motor. |
|||||||
11 |
Power and moment in asynchronous motors. Losses, efficiency, speed-momnet characteristic. Subtraction of induced voltage equation, overturning moment equation, equivalent circuit model parameters. |
|||||||
12 |
Change of speed-moment characteristic, control of motor characteristics with lattice asynchronous motor rotor designs: deep groove and double cage, different types of design classes, starting asynchronous motors: starting with low voltage, current limiting with series resistors, delta-star starting. Speed control in Asenron motors: pole number change, line frequency change (V / f control). |
|||||||
13 |
DA Machine foundations. Rotating frame, commutation, armature coils. |
|||||||
14 |
DA engines and generators. Equivalent circuits of DC motors, magnetization curves. Free excitation and shunt DC motors. DA motors with permanent magnets, series motors. Kompund engines. |
|||||||
15 |
Starting and braking motors. Speed regulation methods of DC motors. |
|||||||
16 |
General (Final) Exam |
EUT205 Power Electronics
Content of Power Electronics and Industrial Applications; Structure of Control and Protection System and Linear Power Supplies; Definition of Signal and Signal Generators; Working Principle and Properties of Diode and SCR Power Elements; Working Principles and Properties of BJT and MOSFET Power Elements; Working Principles and Properties of Triac, GTO, MCT and IGBT Power Elements; AC-DC Converters (Rectifiers); Inspection of Uncontrolled AC-DC Converters; Examination of Controlled AC-DC Converters; Generalized Analysis of AC-DC Converters and Its Effect on AC Network; Introduction to AC-AC Converters (AC Choppers) and Single Phase AC-AC Converters; Three Phase AC-AC Converters; Generalized Analysis of AC-AC Converters and Effect on AC Network.
Name of Course |
Code of Course |
Term |
Time |
Theoretical |
Practice |
Credit |
AKTS |
|
Power Electronics |
EUT205 |
3 |
3 |
3 |
0 |
3 |
3 |
|
Weekly Subjects |
||||||||
Week |
Subject |
|||||||
1 |
Introduction to Power Electronics and Historical Development |
|||||||
2 |
Content of Power Electronics and Industrial Applications |
|||||||
3 |
Structure of the Control and Protection System and Linear Power Supplies: Liner Power Supplies with Zener Diodes and Regulators |
|||||||
4 |
Definition of Signal and Signal Generators |
|||||||
5 |
Working Principle and Properties of Diode and SCR Power Elements |
|||||||
6 |
Working Principle and Properties of BJT and MOSFET Power Elements |
|||||||
7 |
Working Principle and Properties of Triac, GTO, MCT and IGBT Power Elements |
|||||||
8 |
Midterm |
|||||||
9 |
Introduction to AC-DC Converters: Phase Control Method, Two Phase and Half and Full Wave Definition, Positive and Negative Sequence or Element Definition, Application Block Diagrams, Single and Three Phase Voltage Concept |
|||||||
10 |
Inspection of Uncontrolled AC-DC Converters: Half Wave and Full Wave Uncontrolled Rectifiers |
|||||||
11 |
Examination of Controlled AC-DC Converters: Two Phase Half Wave and Full Wave Controlled Rectifiers |
|||||||
12 |
Generalized Analysis of AC-DC Converters and Its Effect on AC Mains: Control Pattern, Output Voltage and Working Zones and Definitions of Voltage and Current of a Power Element, Current Components and Total Harmonic Distortion, Deflection and Power Factor Definitions Based on Basic Current, Power Expressions, Power Circle diagram |
|||||||
13 |
Introduction to AC-AC Converters and Single Phase AC-AC Converters: Single Phase Basic and Other AC Choppers |
|||||||
14 |
Review of Three Phase AC-AC Converters |
|||||||
15 |
Generalized Analysis of AC-AC Converters and Its Effect on AC Mains: Control Pattern, Output Voltage and Working Zones and Voltage and Current of a Power Element |
|||||||
16 |
General (Final) Exam |
EUT207 Battery Management Systems
Overview of battery management systems and terminology. The structure of the electrochemical cell, the storage and release of energy. Creation of equivalent circuit models. BMS serial communication link. Simulating battery packs, health estimation algorithms and cell balancing. Fault detection.
Name of Course |
Code of Course |
Term |
Time |
Theoretical |
Practice |
Credit |
AKTS |
|
Battery Management Systems |
EUT207 |
3 |
2 |
2 |
0 |
2 |
2 |
|
Weekly Subjects |
||||||||
Week |
Subject |
|||||||
1 |
Introduction to battery management systems and terminology |
|||||||
2 |
Structure of electrochemical cell, storage and release of energy, electrochemical cells (PbA and NiMH) |
|||||||
3 |
Negative and positive electrodes for lithium-ion cells. Electrolytes and separators for lithium-ion cells. All cell voltages and battery current in BMS |
|||||||
4 |
Equivalent circuit models |
|||||||
5 |
Micro Scale Cell Models |
|||||||
6 |
Lithium movement between solid and electrolyte phases |
|||||||
7 |
State-Space models and discrete time realization algorithm |
|||||||
8 |
Midterm |
|||||||
9 |
Serial communication in battery management systems |
|||||||
10 |
Simulating battery packs |
|||||||
11 |
Charge Status Forecast Algorithms |
|||||||
12 |
Battery health forecast algorithms |
|||||||
13 |
Battery cell balancing |
|||||||
14 |
Voltage-based power limit estimation |
|||||||
15 |
Fault detection |
|||||||
16 |
General (Final) Exam |
EUT107 Introduction to Programming and Algorithms
Introduction, Criteria, Resources, Content, Basic concepts (binary, decimal and hex number systems, logical expressions, arithmetic operations), Introduction to Algorithms, Developing algorithms, line, code, counter, flag, condition, decision, Flow diagram, Multiple Conditions, Pseudo code, line algorithm, pseudo code via flow diagram, Basic algorithms, applications, Transition to coding, C # programming Language Introduction, Program development with C #, Data I / O operations, One dimensional arrays, Multiple dimensional arrays, Sorting algorithms, Search algorithms Decision making algorithms, advanced programming examples with C #
Name of Course |
Code of Course |
Term |
Hour |
Theoretical |
Practice |
Credit |
ECTS |
|
Introduction to Programming and Algorithms |
EUT107 |
1 |
3 |
1 |
2 |
2 |
4 |
|
Weekly Subjects |
||||||||
Week |
Subjects |
|||||||
1 |
Introduction, Criteria, Resources, Content |
|||||||
2 |
Basics (Binary, decimal and hex numbers, logical expressions, arithmetic operations), Introduction to Algorithms |
|||||||
3 |
Developing Algorithms, Lines, Codes, Counters, Flags, statements, decision making |
|||||||
4 |
Flow Charts, Multiple Conditions |
|||||||
5 |
Pseudo codes, Line algorithms, pseudo codes over flow charts |
|||||||
6 |
Basic Algorithms and Applications |
|||||||
7 |
Introduction to Coding, Introduction to C# programming language |
|||||||
8 |
Midterm |
|||||||
9 |
Developing C# programs, Data I/O Processes |
|||||||
10 |
One-Dimension Arrays |
|||||||
11 |
Multiple Dimension Arrays |
|||||||
12 |
Sorting Algorithms |
|||||||
13 |
Searching Algorithms |
|||||||
14 |
Decision Making Algorithms |
|||||||
15 |
Examples of advanced programming in C# |
|||||||
16 |
Final Exam |
EUT108 Processor Architecture
Pipeline, I/O Organization, Interrupts, Memory Access, Memory Organization, Disk Arrays, Multiprocessor and Multi-Core Systems, Floating Point Numbers, Assembly programming examples
Name of Course |
Code of Course |
Term |
Hour |
Theoretical |
Practice |
Credit |
ECTS |
|
Processor Architecture |
EUT108 |
2 |
3 |
3 |
0 |
3 |
3 |
|
Weekly Subjects |
||||||||
Week |
Subjects |
|||||||
1 |
Pipeline |
|||||||
2 |
Assembly Code Examples for Pipeline |
|||||||
3 |
I/O Organization |
|||||||
4 |
Assembly Code Examples for I/O Organization |
|||||||
5 |
Interrupts |
|||||||
6 |
Assembly Code Examples for Interrupts |
|||||||
7 |
Direct Memory Access and Assembly Code Examples |
|||||||
8 |
Midterm |
|||||||
9 |
Memory Organization |
|||||||
10 |
Assembly Code Examples for Memory Organization |
|||||||
11 |
RAID |
|||||||
12 |
Assembly Code Examples for RAID |
|||||||
13 |
Multiprocessor and Multicore Systems |
|||||||
14 |
Assembly Code Examples for Multiprocessor and Multicore Systems |
|||||||
15 |
Floating Point Numbers and Assembly Code Examples |
|||||||
16 |
Final Exam |
EUT209 Microcontrollers
Memory systems, Simplified PIC18 microcontroller block diagram, Using MPLAB and ICD2 programmer/debugger, Interfacing LEDs and 7-segment displays, Program counters, Interfacing switches and touchpads, Discrete I/O ports, Building a 2-digit adder-subtractor, Introduction to programming of 18F series with CCS C, PWM, ADC, Interrupts and examples, Experiments with thermometer sensor and tachometer with encoders, Serial communication circuit example, Introduction to Arduino, ADC, PWM examples with Arduino, Serial communication examples with Arduino, Serial sensor communication, Driving servo and DC motor with Arduino and motor drivers, Coding Arduino serial port PC interface, Introduction to Raspberry PI, Introduciton to Image Processing with Raspberry PI
Name of Course |
Code of Course |
Term |
Hour |
Theoretical |
Practice |
Credit |
ECTS |
|
Microcontrollers |
EUT209 |
3 |
3 |
1 |
2 |
2 |
3 |
|
Weekly Subjects |
||||||||
Week |
Subjects |
|||||||
1 |
Memory systems, Simplified PIC18 microcontroller block diagram, Using MPLAB and ICD2 programmer/debugger, Interfacing LEDs and 7-segment displays |
|||||||
2 |
Program counters, Interfacing switches and touchpads |
|||||||
3 |
Discrete I/O ports, Building a 2-digit adder-subtractor |
|||||||
4 |
Introduction to programming of 18F series with CCS C |
|||||||
5 |
PWM, ADC, Interrupts and examples |
|||||||
6 |
Experiments with thermometer sensor and tachometer with encoders |
|||||||
7 |
Serial communication circuit example |
|||||||
8 |
Midterm |
|||||||
9 |
Introduction to Arduino |
|||||||
10 |
ADC, PWM examples with Arduino |
|||||||
11 |
Serial communication examples with Arduino, Serial sensor communication |
|||||||
12 |
Driving servo and DC motor with Arduino and motor drivers |
|||||||
13 |
Coding Arduino serial port PC interface |
|||||||
14 |
Introduction to Raspberry PI |
|||||||
15 |
Introduciton to Image Processing with Raspberry PI |
|||||||
16 |
Final Exam |
EUT211 Communication Network in Vehicles
Communication network requirements of vehicles, Communication network structure of vehicles, Serial communication, SPI Communication, I2C Communication, CAN Communication, FlexRay communication protocols
Name of Course |
Code of Course |
Term |
Hour |
Theoretical |
Practice |
Credit |
ECTS |
|
Communication Network in Vehicles |
EUT211 |
3 |
2 |
2 |
0 |
2 |
2 |
|
Weekly Subjects |
||||||||
Week |
Subjects |
|||||||
1 |
Requirements of vehicle communication networks |
|||||||
2 |
Communication network structure of vehicles |
|||||||
3 |
Communication network structure of vehicles |
|||||||
4 |
Serial Communication Structure |
|||||||
5 |
Examples of Serial Communication |
|||||||
6 |
SPI Structure |
|||||||
7 |
Examples of SPI Structure |
|||||||
8 |
Midterm |
|||||||
9 |
I2C Structure |
|||||||
10 |
Examples of I2C Structure |
|||||||
11 |
CAN Structure |
|||||||
12 |
Examples of CAN Structure |
|||||||
13 |
Examination of CAN Communication Applications |
|||||||
14 |
FlexRay Structure |
|||||||
15 |
Examples of FlexRay Structure |
|||||||
16 |
Final Exam |
EUT213 Numerical Analysis And Control
Introduction to MATLAB, MATLAB derivative Octave, Syntaxes, Variables, File Creation, Conditions, Loops, Vectors, Encryption and Authentication Algorithms, Communication, Controllers and Data Filtering, Image Processing, Video Processing, Object Recognition, Numerical Methods, Prediction Algorithms Development
Name of Course |
Code of Course |
Term |
Hour |
Theoretical |
Practice |
Credit |
ECTS |
|
Numerical Analysis And Control |
EUT213 |
3 |
3 |
2 |
1 |
3 |
3 |
|
Weekly Subjects |
||||||||
Week |
Subjects |
|||||||
1 |
Introduction to MATLAB, Octave as a MATLAB derivative |
|||||||
2 |
Syntax |
|||||||
3 |
Variables |
|||||||
4 |
Creating Files |
|||||||
5 |
Statements |
|||||||
6 |
Loops |
|||||||
7 |
Vectors |
|||||||
8 |
Midterm |
|||||||
9 |
Communication with Encryption and Authentication Algorithms |
|||||||
10 |
Controllers and Data Filtering |
|||||||
11 |
Image processing |
|||||||
12 |
Video Processing |
|||||||
13 |
Object Recognition |
|||||||
14 |
Numerical Methods |
|||||||
15 |
Developing Forecast Algorithms |
|||||||
16 |
Final Exam |