Arduino microcontroller processing for everyone! /

Bibliographic Details
Main Author:	Barrett, Steven F. (Steven Frank), 1957- (Author)
Format:	eBook
Language:	English
Published:	San Rafael, California (1537 Fourth Street, San Rafael, CA 94901 USA) : Morgan & Claypool, 2013.
Edition:	Third edition.
Series:	Synthesis digital library of engineering and computer science. Synthesis lectures on digital circuits and systems ; # 43.
Subjects:	Arduino (Programmable controller) Atmel AVR microcontroller. Microcontrollers > Programming. TECHNOLOGY & ENGINEERING / Engineering (General) ATmega2560 ATmega328 Arduino Mega 2560 Arduino UNO R3 Arduino microcontroller Atmel AVR Atmel microcontroller embedded systems design microcontroller interfacing Electronic books.
Online Access:	Connect to the full text of this electronic book Connect to the full text of this electronic book

Table of Contents:

1. Getting started
1.1 Overview
1.2 Getting started
1.3 Arduino UNO R3 processing board
1.3.1 Arduino UNO R3 host processor-the ATmega328
1.3.2 Arduino UNO R3/ATmega328 hardware features
1.3.3 ATmega328 Memory
1.3.4 ATmega328 Port System
1.3.5 ATmega328 Internal Systems
1.3.6 Arduino UNO R3 open source schematic
1.4 Arduino Mega 2560 processing board
1.4.1 Arduino Mega 2560 host processor- the ATmega2560
1.4.2 Arduino Mega 2560 /ATmega2560 hardware features
1.4.3 ATmega2560 Memory
1.4.4 ATmega2560 Port System
1.4.5 ATmega2560 Internal Systems
1.5 Arduino Mega 2560 open source schematic
1.6 Example: Autonomous Maze Navigating Robot
1.6.1 Structure chart
1.6.2 UML activity diagrams
1.6.3 Arduino UNO R3 Systems
1.7 Other Arduino-based platforms
1.8 Extending the hardware features of the Arduino platforms
1.9 Application: Arduino Hardware Studio
1.10 Summary
1.11 References
1.12 Chapter problems
2. Programming
2.1 Overview
2.2 The big picture
2.3 Arduino development environment
2.3.1 Background
2.3.2 Quick start guide
2.3.3 Arduino development environment overview
2.3.4 Sketchbook concept
2.3.5 Arduino software, libraries, and language references
2.3.6 Writing an Arduino sketch
2.4 Anatomy of a program
2.4.1 Comments
2.4.2 Include files
2.4.3 Functions
2.4.4 Program constants
2.4.5 Interrupt handler definitions
2.4.6 Variables
2.4.7 Main program
2.5 Fundamental programming concepts
2.5.1 Operators
2.5.2 Programming constructs
2.5.3 Decision processing
2.6 Application 1: Robot IR sensor
2.7 Application 2: Art piece illumination system
2.8 Application 3: Friend or foe signal
2.9 Summary
2.10 References
2.11 Chapter problems
3. Embedded systems design
3.1 What is an embedded system?
3.2 Embedded system design process
3.2.1 Project description
3.2.2 Background research
3.2.3 Pre-design
3.2.4 Design
3.2.5 Implement prototype
3.2.6 Preliminary testing
3.2.7 Complete and accurate documentation
3.3 Example: Blinky 602A autonomous maze navigating robot system design
3.4 Application: Control algorithm for the Blinky 602A Robot
3.5 Summary
3.6 References
3.7 Chapter problems
4. Atmel AVR operating parameters and interfacing
4.1 Overview
4.2 Operating parameters
4.3 Battery operation
4.3.1 Embedded system voltage and current drain specifications
4.3.2 Battery characteristics
4.4 Input devices
4.4.1 Switches
4.4.2 Pullup resistors in switch interface circuitry
4.4.3 Switch debouncing
4.4.4 Keypads
4.4.5 Sensors
4.5 Output devices
4.5.1 Light emitting diodes (LEDs)
4.5.2 Seven segment LED displays
4.5.3 Code example
4.5.4 Tri-state LED indicator
4.5.5 Dot matrix display
4.5.6 Liquid crystal character display (LCD) in C
4.5.7 Programming a serial configured LCD
4.5.8 Liquid crystal character display (LCD) using the Arduino development environment
4.5.9 High power DC devices
4.6 DC solenoid control
4.7 DC motor speed and direction control
4.7.1 DC motor operating parameters
4.7.2 H-bridge direction control
4.7.3 Servo motor interface
4.7.4 Stepper motor control
4.7.5 AC devices
4.8 Interfacing to miscellaneous devices
4.8.1 Sonalerts, beepers, buzzers
4.8.2 Vibrating motor
4.9 Application: special effects LED cube
4.9.1 Construction hints
4.9.2 LED Cube Arduino sketch code
4.10 Summary
4.11 References
4.12 Chapter problems
5. Analog to digital conversion (ADC)
5.1 Overview
5.2 Sampling, quantization and encoding
5.2.1 Resolution and data rate
5.3 Analog-to-digital conversion (ADC) process
5.3.1 Transducer interface design (TID) circuit
5.3.2 Operational amplifiers
5.4 ADC conversion technologies
5.4.1 Successive-approximation
5.5 The Atmel ATmega328 and ATmega2560 ADC system
5.5.1 Block diagram
5.5.2 ATmega328 ADC registers
5.5.3 ATmega2560 ADC registers
5.6 Programming the ADC using the Arduino development environment
5.7 ATmega328: Programming the ADC in C
5.8 ATmega2560: Programming the ADC in C
5.9 Example: ADC rain gage indicator with the Arduino UNO R3
5.9.1 ADC rain gage indicator using the Arduino development environment
5.9.2 ADC rain gage indicator in C
5.9.3 ADC rain gage using the Arduino development environment, revisited
5.10 One-bit ADC, threshold detector
5.11 Digital-to-analog conversion (DAC)
5.11.1 DAC with the Arduino development environment
5.11.2 DAC with external converters
5.11.3 Octal channel, 8-bit DAC via the SPI
5.12 Application: Art piece illumination system, revisited
5.13 Arduino Mega 2560 example: Kinesiology and Health Laboratory instrumentation
5.14 Summary
5.15 References
5.16 Chapter problems
6. Interrupt subsystem
6.1 Overview
6.1.1 ATmega328 interrupt system
6.1.2 ATmega2560 interrupt system
6.1.3 General interrupt response
6.2 Interrupt programming overview
6.3 Programming ATmega328 interrupts in C and the Arduino development environment
6.3.1 External interrupt programming-Atmega328
6.3.2 ATmega328 internal interrupt programming
6.4 Programming ATmega2560 interrupts in C and the Arduino development environment
6.4.1 External interrupt programming-Atmega2560
6.4.2 ATmega2560 internal interrupt programming
6.5 Foreground and background processing
6.6 Interrupt examples
6.6.1 Application 1: Real time clock in C
6.6.2 Application 2: Real time clock using the Arduino development environment
6.6.3 Application 3: Interrupt driven USART in C
6.7 Summary
6.8 References
6.9 Chapter problems
7. Timing subsystem
7.1 Overview
7.2 Timing related terminology
7.2.1 Frequency
7.2.2 Period
7.2.3 Duty cycle
7.3 Timing system Overview
7.4 Timer system applications
7.4.1 Input capture, measuring external timing event
7.4.2 Counting events
7.4.3 Output compare, generating timing signals to interface external devices
7.4.4 Industrial implementation case study (PWM)
7.5 Overview of the Atmel ATmega328 and ATmega2560 timer systems
7.6 Timer 0 system
7.6.1 Modes of operation
7.6.2 Timer 0 registers
7.7 Timer 1
7.7.1 Timer 1 registers
7.8 Timer 2
7.9 Programming the Arduino UNO R3 and Mega 2560 using the built-in Arduino development environment timing features
7.10 Programming the timer system in C
7.10.1 Precision delay in C
7.10.2 Pulse width modulation in C
7.10.3 Input capture mode in C
7.11 Application 1: Servo motor control with the PWM system in C
7.12 Application 2: Inexpensive laser light show
7.13 Summary
7.14 References
7.15 Chapter problems
8. Serial communication subsystem
8.1 Overview
8.2 Serial communications
8.3 Serial communication terminology
8.4 Serial USART
8.4.1 System overview
8.5 System operation and programming using Arduino development environment features
8.6 System operation and programming in C
8.6.1 Serial peripheral interface-SPI
8.7 SPI programming in the Arduino development environment
8.8 SPI programming in C
8.9 Two-wire serial interface, TWI
8.9.1 Arduino development environment
8.10 Application 1: USART communication with LCD
8.11 Application 2: SD/MMC card module extension via the USART
8.12 Application 3: Equipping an Arduino processor with a voice chip
8.13 Application 4: Programming the Arduino UNO R3 ATmega328 via the ISP
8.13.1 Programming procedure
8.14 Application 5: TMS1803 3-bit LED drive controller
8.15 Summary
8.16 References
8.17 Chapter problems
9. Extended examples
9.1 Overview
9.2 Extended example 1: Automated fan cooling system
9.3 Extended example 2: Fine art lighting system
9.4 Extended example 3: Flight simulator panel
9.5 Extended example 4: Submersible robot
9.5.1 Requirements
9.5.2 Structure chart
9.5.3 Circuit diagram
9.5.4 UML activity diagram
9.5.5 Microcontroller code
9.5.6 Project extensions
9.6 Extended example 5: Weather station
9.6.1 Requirements
9.6.2 Structure chart
9.6.3 Circuit diagram
9.6.4 UML activity diagrams
9.6.5 Microcontroller code
9.7 Autonomous maze navigating robots
9.8 Extended example 6: Blinky 602A robot, revisited
9.8.1 Requirements
9.8.2 Circuit diagram
9.8.3 Structure chart
9.8.4 UML activity diagrams
9.8.5 Microcontroller code
9.9 Extended example 7: Mountain maze navigating robot
9.9.1 Description
9.9.2 Requirements
9.9.3 Circuit diagram
9.9.4 Structure chart
9.9.5 UML activity diagrams
9.9.6 Microcontroller code
9.9.7 Mountain maze
9.9.8 Project extensions
9.10 Extended example 8: Robot wheel odometry
9.11 Summary
9.12 References
9.13 Chapter problems
A. ATmega328 register set
B. ATmega328 header file
C. ATmega2560 register set
D. ATmega2560 header file
Author's biography.