
Learn how i2c uses two wires to connect a master microcontroller with multiple slave devices, each with a unique address, enabling efficient inter integrated circuits communication.
Explore I2C advantages: two-wire bus supporting up to 112 slaves, speeds from 100 kbps to 3.4 Mbps, multi-master operation, and slave acknowledgement for reliable communication.
Explain the i2c operation: master sends the slave address, then memory location inside the slave, and finally the data, in a three-step sequence for write or read.
Explore the Arduino i2c communication using the Wire library, mastering begin, write, read, end transmission, and request patterns to connect master and slave devices with seven-bit addresses.
Code a simple I2C data write by initializing the I2C library, starting the I2C core, selecting a slave address, and sending the address and data for a write.
SPI is a master-slave protocol using four wires: clock, master out slave in, master in slave out, and a per-slave select line, enabling one master to communicate with multiple slaves.
Explore the SPI library in MikroC Pro IDE, learning API initialize and advance, read and write operations, and activating multiple SPI modules in master mode with configurable clock and edge.
Learn to use the Arduino SPI library to initialize the API bus, set the SBI clock divider, attach an interrupt handler, and perform data transfers between master and slave.
Demonstrates a circuit design for Arduino to Arduino spi communication, using a master and a slave, leds and a push button, with pins 10–13 on a breadboard.
Set up and run a master SBI SPI communication using the SBI library, configuring pins, clock divider, and data transfer to send the button state and receive the slave's response.
Code a slave device in a master–slave serial setup, configure the SBI control register, handle interrupts, and exchange data to drive a slave LED and report the master button state.
Explore USB communication advantages: high speed serial interface with power delivery, plug-and-play, up to 127 devices on a bus via hubs, and speeds from 1.5 Mbps to 5 Gbps.
learn the usb pin-out and how to wire power and data lines, including red plus five volts, black ground, green data plus, white data minus, and pins 1 to 4.
Explore USB device classes, focusing on HID class 0x03 for human interface devices like keyboards and mice, and learn how the host recognizes devices without drivers.
Understand how a USB host uses descriptors to identify and assign addresses to new USB devices, with device, configuration, interface, and endpoint descriptors conveying manufacturer, version, and power requirements.
Create a descriptor file in MikroC pro by configuring vendor id, product id, and buffer size. Import the descriptor into your project and save for development.
Explore USB function basics for microcontroller communication: read and write data with buffers and lengths, handle success or failure, disable transfer, and service USB bus events via interrupts.
Design the first example circuit using Proteus, inserting a PIC18F4550 microcontroller, crystal oscillator, capacitors, a reset button, and proper five-volt power and ground connections.
Build an ISP interfacing circuit around a PIC18F microcontroller with a crystal, capacitors, power, ground, LEDs, and a reset button, then program in C to control LEDs via USP interfacing.
In this Forth example, interface Port B switches to turn on LEDs, read button states, and print sentences like 'first button pressed' to the terminal, with a visual interface option.
Install USB device drivers for interfacing with a PIC microcontroller, download and install the Microchip framework, and prepare the circuit for boot load mode to enable ISP interfacing.
Explore graphical user interfaces as intuitive controls for microcontrollers, using buttons and visual elements with a mouse or keyboard, and learn the design and coding of user interface elements.
Explore different communication methods for microcontrollers, including rs232 serial, usb, and ethernet, with notes on cables and adapters and when to use each method.
Learn the basics of serial communication and RS-232, contrasting it with parallel transmission, and understand how two-line transmitter and receiver setups enable data exchange in microcontroller projects.
Create your first C# GUI project in Microsoft Visual Studio by choosing a Windows Forms app, dragging controls from the toolbox, and saving and organizing form1 with proper naming.
Design an rs232 serial interfacing circuit board to connect a microcontroller with a computer using a max232, polarized capacitors, and a 9-pin connector, including pcb layout and wiring steps.
Program a PIC16F877A microcontroller to send and receive serial data via UART, initialize at 9600 baud, and control LEDs from host input through a simulated circuit and example code.
Learn to control a PIC microcontroller via a GUI using serial RS-232 with 9600 baud, bridging Proteus simulation and Visual Studio through a serial splitter.
More than 8 hours of Full HD Content | All In One Bundle to Master Communication Protocols in the Microcontroller World
What You Will Learn In This Bundle:
Creating a GUI to control Arduino and PIC Microcontroller
USB Interfacing for Different Microcontrollers
Arduino Communication with I2C Bus
Arduino Communication with SPI Bus
PIC Microcontroller Communication with I2C Bus
PIC Microcontroller Communication with SPI Bus
Detailed Description of Each Topic:
Arduino Communication with I2C Bus:
A step by step guide to Master I2C Protocol and Start using it in your Arduino projects.
I²C (pronounced I-squared-C) allows communication of data between I2C devices over two wires, making it easier to exchange information without too much wiring.
Why You Should Take This Course:
This course will teach you how to effectively communicate with any microcontroller.
Perfect for professionals looking to understand the underlying principles of microcontroller communication.
You can learn on your own time at your own pace, and this course is accessible for beginners.
You will gain a practical understanding of the basics of communicating with microcontrollers.
You will learn about serial communication protocols.
You will understand what takes place in a packet when it comes in and out of a microcontroller.
You will become fluent in TCP/IP networking protocols, which are used to send data over the internet.
You will become fluent in Bluetooth protocols, which are used.
What You Will Learn in This Course:
What is I²C and how it works
How to implement I²C in your project
The difference between I²C and other communication methods
Why using I²C will make your life easier
The advantages and disadvantages of using I²C
How to code I²C the right way and how to talk to multiple devices easily
A practical example of I²C enabled DS1307 Data and Time IC and how to read data from it using I²C
PIC Microcontroller Communication with I2C Bus:
A step by step guide to Master I2C Protocol and Start using it in your projects.
PIC Microcontroller Communication with SPI Bus:
A step by step guide to Master SPI Protocol and Start using it in your projects.
SPI allows communication of data between SPI devices over four wires, making it easier to exchange information without too much wiring.
Arduino Communication with SPI Bus:
A step by step guide to Master SPI Protocol and Start using it in your projects.
User Testimonials: "This bundle provided me with a comprehensive understanding of microcontroller communication protocols. It's very practical and easy to follow." - Alex J.
"An excellent course bundle for anyone wanting to master communication protocols with Arduino and PIC microcontrollers!" - Maria S.
Author Bio: Ashraf is an educator, Mechatronics engineer, electronics and programming hobbyist, and Maker. As a Chief Educational Engineer since 2007 at Educational Engineering Team, the company he founded, Ashraf’s mission is to explore new trends and technology and help educate the world. With over 250,000 students from around the world, Ashraf’s online courses have helped many to kick-start their careers in the industry.
Call to Action: Enroll now to master microcontroller communication protocols and elevate your electronics projects!
FAQ: Q: Do I need prior experience in electronics or programming to take this course? A: No, this course is designed for all levels.
Q: Will I need to buy additional equipment? A: The course provides a list of necessary hardware, all of which are affordable and easily accessible.
What You Will Learn
Understand and implement I²C and SPI communication protocols
Develop practical skills for microcontroller communication
Create a GUI to control Arduino and PIC microcontrollers
Interface USB with different microcontrollers
Who Is This Course For
Electronics enthusiasts
Hobbyists interested in microcontroller communication
Beginners looking to understand communication protocols
Professionals wanting to deepen their knowledge
Requirements
An Arduino board, PIC microcontroller, and basic electronic components
Basic understanding of using a computer
No prior programming or electronics experience needed
About the Instructor
Educational Engineering Team
Team of skilled Engineers Sharing Knowledge with the World
Educational Engineering Team is a leading team in the Microcontroller Industry, with over 13 Years of Experience in teaching and doing practical projects. They strive to provide deep, hands-on experience in their courses, offering step-by-step blueprints on various topics.
Ashraf is an educator, Mechatronics engineer, electronics and programming hobbyist, and maker. He has been the Chief Educational Engineer at Educational Engineering Team since 2007, and his mission is to explore new trends and technology to help educate the world. His online courses have helped over 250,000 people worldwide to build successful careers.
Educational Engineering Team offers courses on:
Circuit Design, Simulation, and PCB Fabrication
Arduino, PIC Microcontroller, and Raspberry Pi
Programming in C, Python, and other programming languages
PLC Industrial Programming and Automation
3D Design and Simulation
ESP and IoT World