Ing. Jan Knobloch, Ph.D.

Department of Power Electrical and Electronic Engineering (UVEE)

Student which passes the course is able
- explain microprocessor principles at the level necessary for programing in assembler
- explain related terms: register, memory, program, CPU, program counter, linker, compiler, debugger, interrupt, interrupt service, interrupt vector, interrupt flag, periphery, stack, stack pointer, status register, conditional jump
- explain principles of peripheries for electric drives control (GPIO, PWM, ADC, Timer, SPI, SCI)
- use C language in microprocessors
- use assembler in microprocessors
- use development tools for application creation and debugging
- use and set peripheries for analogue measurement, pulse frequency measurement, generating PWM, data transfer using serial lines

Student which entre the course should be able - explain logic circuits principles - design algorithms and realize them in arbitrary programing language - read English texts for development tools user’s manuals study Regarding course orientation on electric drives control student should be able describe principle and mathematical model of DC motor - explain principle of transistor 4Q DC/DC innverer - Explain operation of DC drive in individual operating quadrants - Explain cascade control of DC drive

Not applicable.

Not applicable.

Klíma B., Stupka R.;Mikroprocesorová technika v elektrických pohonech; Elektronický text FEKT VUT v Brně (CS)
Freescale; 56F802x and 56F803x Peripheral Reference Manual (EN)
Freescale Semiconductor; DSP56800E 16-Bit DSP Core Reference Manual, www.freescale.com (EN)
Freescale Semiconductor; 56F8000 16-bit Digital Signal Controllers Data Sheet, www.freescale.com (EN)
Freescale Semiconductor; DSP56800E_Quick_Start_Users_Manual, www.freescale.com (EN)

Techning methods include lectures and computer laboratories. Students do individual projects in computer laboratories

Requirements for completion of a course are specified by a regulation issued by the lecturer responsible for the course and updated for every. Evaluated are particular projects in laboratories and writen test as exam.

Czech

Not applicable.

Lectures:
1. Introduction, basic terms, microprocesor principle
2. C program in sigle chip microprocesor, compiler, linker.
3. Number systems, data types, bitwise logic operations, logic operation on expresions.
4. Stack, subroutine calling, local variables vs. globale variables.
5. Control structures in C, its relation to assembler, status register
6. Interrupts, interrupt vector, interrupt sources, interrupt service routine
7. Fractional arithmetics, programing functions for fractional arithmetics
8. Peripherials - GPIO, Timer
9. Introduction into microprocessor control of electric drives. Peripherial - PWM
10. Peripherial A/D converter
11. A/D converter - PWM synchronization. Electric quantities sensing.
12. Speed and position sensors in electric drives. Processing of position sensors signals
13. Serial interfaces SPI, SCI. Simple Huma Machine Interfaces - keypads, character LCD displays

Laboratory exercises:
1. Laboratory workplace, development tools, measuremet instrumentation. Simple C program
2. Development environment, debugging, simple expample with GPIO, peripherial drivers usage.
3. Data in memory, data types, bit operations, data fields, structures, constant variables in FLASH - examples.
4. Subroutine calling, writing of assembler function
5. Control structures in assembler function
6. Timer, its interrupt, LED blinking
7. Subroutine in fractional arithmetics
8. GPIO input, output mode, interrupt
9. PWM generator settings, PWM output signal analysis
10. A/D converter, conversion of signal from a generator
11. PWM, Timer, and A/D converter in synchronization mode
12. Pulse signal processring by counter
13. Simple SPI, SCI two node communication

Basic principles of digital control by microcontrollers, basic knowledges of programming.

The content and forms of instruction in the evaluated course are specified by a regulation issued by the lecturer responsible for the course and updated for every academic year. Laboratories are compulsory.

• Programme BPC-AUD Bachelor's

  specialization AUDB-TECH , any year of study, summer semester, 6 credits, optional
  

• Programme BPC-AMT Bachelor's, any year of study, summer semester, 6 credits, optional
  
• Programme BPC-EKT Bachelor's, any year of study, summer semester, 6 credits, optional
  
• Programme BPC-SEE Bachelor's, any year of study, summer semester, 6 credits, optional
  
• Programme BPC-TLI Bachelor's, any year of study, summer semester, 6 credits, optional
  
• Programme BPC-SEE Bachelor's, 3. year of study, summer semester, 6 credits, compulsory-optional
  

39 hours, compulsory

Ing. Jan Knobloch, Ph.D.

eLearning: currently opened course