Embedded System with AVR Microcontroller

Course Objective:
 To understand the fundamental concepts of embedded systems and microcontrollers.
 To explore the architecture and features of the AVR microcontroller family.
 To understand the memory organization of AVR microcontroller.
 To gain proficiency in programming AVR microcontrollers using the C language.
 To understand and implement peripheral interfacing with real-world applications.
 To develop embedded solutions using timers, interrupts, serial communication, and
protocols like SPI and I2C.

1 STUDENTS ENROLLED

Course Objective:
 To understand the fundamental concepts of embedded systems and microcontrollers.
 To explore the architecture and features of the AVR microcontroller family.
 To understand the memory organization of AVR microcontroller.
 To gain proficiency in programming AVR microcontrollers using the C language.
 To understand and implement peripheral interfacing with real-world applications.
 To develop embedded solutions using timers, interrupts, serial communication, and
protocols like SPI and I2C.

FREE

Total Duration :

55 years, 6 months

, Students :

1

, by

Introduction to Embedded Systems: Embedded systems: introduction, characteristics, elements and  applications. Design metrics: NRE cost, unit cost, time to market, safety, maintenance, size, cost and  power dissipation. Software development tools: editor, assembler, linker, compiler, IDE, ICE,  programmer and simulator.  Microcontroller & Architectures: History, introduction, classification, applications. Differences  between microcontroller and microprocessor, criteria for choosing a microcontroller. Architectures -  Harvard and Von-Neumann architecture, RISC vs CISC. Concept of pipelining. AVR Architecture: Overview of AVR, classification of AVR family, AVR (ATmega16/32)  architecture, AVR processor memory map, CPU registers, ALU, I/O ports, peripherals in AVR.  Programming of AVR in C: basic structure, data types, operators, library files, delay functions  and bitwise operation syntax. Simple C programs: Data transfer operation, arithmetic operation,  decision making and code conversion. AVR Timer Programming: introduction, difference between timer and counter operation, Basic  SFR Registers used – Timer 0, 1 & 2, C programs for delay generation, counter Programming.  AVR Serial Port Programming: Basics of serial communication (serial vs parallel, simplex vs  duplex), difference between Asynchronous & synchronous communication, USART operation,  SFR used, C programs for data transmission and reception.  I2C and SPI: introduction, specifications, bus signals, master-slave configuration, error handling  and addressing. SFR used in AVR, C programs to transfer and receive information.  On-chip ADC: features, block diagram, operation, SFR used, C programs to convert the analog  signal to digital. I/O device interfacing: LED, push button, buzzer, seven segment display, Thumbwheel switch, DC  and stepper motor, relay interfacing, 16*2 LCD interfacing, DAC interfacing (waveform generation  using DAC).  Case studies: Traffic Light controller using AVR, Single digit event counter using opto-interrupter  and SSD, Real time clock using IC DS1307 chip, temperature monitoring system using LM35  sensor, smart phone controlled devices using Bluetooth module HC05.

  • INTRODUCTION TO ATMEL Unlimited
  • INTRODUCTION TO ATMEL Unlimited

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