
Kick off your Arduino journey in this 30 days challenge from zero to hero, learning basics, writing sketches with the Arduino IDE, and exploring open-source libraries for practical projects.
Learn C programming for beginners from scratch, covering basics, conditionals, loops, functions, arrays, pointers, and dynamic memory allocation, with real-time programming projects.
Meet the Educational Engineering Team, skilled engineers with over 12 years of teaching, sharing hands-on microcontroller and Arduino insights through step-by-step blueprints in bite-size videos.
Install and set up a C development environment by downloading Notepad++ and the GCC compiler (mingw-w64), configure environment variables, write simple C code, and compile with the command line.
Learn to write and compile C code directly in your browser using onlinegdb. Sign in with Google, create and save multi-file projects, and submit homework in a free classroom.
Install Visual Studio Code and enable C and C++ programming with the C/C++ extension. Set up mingw-w64 gcc, update environment paths, create test.c, compile, and run to see the output.
Learn the basics of C programming by building your first C program, understanding the main function, libraries, include statements, using printf to print text, and compiling with gcc.
Learn to document C code with single-line and multi-line comments, using // and /* */ syntax, and apply comments for debugging and clarifying program intent.
Explore strings in C, including string literals, escape characters, and printing techniques with printf, while learning how backslashes create new lines, tabs, and quoted text in C programs.
Declare variables in C by using primitive data types such as float, double, char, and int. Learn memory concepts like garbage values and proper initialization with correct syntax and semicolons.
Explore printing variables in C with printf using format specifiers, such as %d, %f, and %c, to replace with actual values like X=10 and Y=15 and print multiple variables.
Learn the rules for naming variables in this Arduino lesson: first character must be a letter or underscore, not a number; avoid blanks, commas, reserved words, and duplicates in scope.
Learn how to read a value from the user in C using scanf with a format specifier, store it with the ampersand, and display it with printf.
Explore arithmetic operators in C, including plus, minus, multiply, divide, and modulus, with examples using x and y. Learn to print results with printf.
Explore unary operators in C, focusing on increment and decrement, and the difference between prefix and postfix forms with and without assignment.
Learn how bitwise operators in C manipulate bits with and, or, xor, and not on binary values, and how bit width affects not results.
Learn how the right shift and left shift bitwise operators work in C, using an 8-bit binary example to show how shifting moves bits and affects decimal results.
Explore assignment operators in C, including plus-equals, minus-equals, multiply-equals, divide-equals, modulo, bitwise and, or, xor, and left/right shift with practical examples using X.
Learn conditional statements in C, focusing on the if statement, its syntax, and how to execute code when the condition is true, with an X >= 50 example.
Harness conditional flow in C with if, else if, and else to test multiple conditions, where else provides a default case and stops further checks.
Master the general rules of if statements in Arduino, including optional braces, proper nesting, and avoiding syntax errors when checking multiple conditions.
Master the switch statement by comparing a variable to multiple cases, using breaks and a default when no match. See practical examples with prints for cases one through three.
Master switch statement general rules in C by learning unique case constants, the optional single default, placing it anywhere, and using a break to prevent logical errors.
Master the for loop in C to repeat code for a defined number of iterations, using initialization, condition, and increment; observe i from 0 to 4 executing before exit.
Learn how the while loop in C repeats code while a condition is true, using examples like x not equal ten and user input to exit the loop.
Master the do while loop in c, its syntax and the at least once execution, then compare to while and see a practical input-driven example.
Master break and continue in C to control loops, exit infinite loops, and skip specific iterations, with practical examples of user input and for loops.
Learn how functions in C organize code into reusable blocks with prototypes, implementations, and calls that take inputs and return values, including main, print, and scan.
Explain the void keyword in C by showing functions that take no arguments and return nothing, with prototypes, implementations, and examples of calling void functions.
Define a local variable inside a function and demonstrate its limited scope to that function. Show a global variable defined outside all functions accessible across multiple functions.
Divide a C project into multiple files to improve modularity and organization. Learn prototypes, separating implementation from main, and how to compile and link the components.
Learn to build a C library by splitting prototypes in calculator.h and implementations in calculator.c, then include the header in main to access add, subtract, multiply, and divide functions.
Learn how arrays in C work, including zero-based indexing, fixed size, initialization with values, accessing elements, and printing with loops to manage multiple integers efficiently.
Learn how to use arrays in C to store five marks, input values with a for loop, print the marks, and compute the average using a running sum.
Learn how to download and install Proteus professional design suite, explore its library and microcontroller variants, and run a demo version with license key activation and updates.
Learn to locate and install the Arduino library in Proteus, set up a new Arduino project, add a resistor and LED, and run a basic simulation.
download and install the Arduino coding software, select your operating system, and write your first Arduino code; then open the coding interface to explore the simulation environment.
Write your first Arduino program using void setup and void loop, configure a digital pin as output, and blink an LED with delay, then verify and upload.
Modify Arduino code to set pin 13 as an output and drive it high to turn on, verify compilation, and locate the hex file in the hidden update folder.
Load the hex file, run the Arduino simulation to see LEDs blink on and off, and learn to add libraries, adjust delays, and compare boards like Mega, Mini, and Nano.
Explore what Arduino is, an open source microcontroller board that lets you write code and control compatible hardware.
Explore the holes on the Arduino board, identify the left USB port for computer connection and the right power port for external power, and learn how it controls hardware.
Explore what an Arduino is and how it works, guided by the thriving community, code, and project diagrams. Learn to read and understand code later in this course.
Demonstrate how a breadboard arranges four areas to control power flow, reveal which blocks are connected within each area, and show how to bridge gaps with wires for testing.
Learn how Arduino thinks by exploring simple C++ programs that declare an integer, configure pin 13 as an output in setup, and loop with delays to blink an LED.
Connect an Arduino board to a breadboard, place a resistor and LED, and upload code to make the LED blink.
Install the Arduino software, connect the board via USB, and paste a simple LED blink sketch. Upload it and modify pin numbers to control multiple LEDs.
Learn to read circuit diagrams, identify symbols like resistors and LED connections, understand grounding, and use online resources to build and troubleshoot Arduino projects.
Wire a push-button with an Arduino to control an LED using digital input and output. Learn to read the button state with digitalRead and drive the LED with digitalWrite.
connect a potentiometer to an Arduino's analog input, perform analog to digital conversion with analogRead, map 0-5 V to 0-1023, and view readings via serial monitor.
Learn to connect an infrared distance sensor to an Arduino, read analog values from A0 (0–1023), and display results on the serial monitor.
Introduces Arduino, Raspberry Pi, and big microcontrollers, detailing Arduino's arm-based hardware and C-like language, Raspberry Pi as a low-cost card-sized Linux computer, and Microchip PIC microcontrollers with flash memory.
Compare the main differences between the big microcontroller, Arduino, and Raspberry Pi, highlighting Arduino's on-board microcontroller design for sensors and motors, prototyping, and Raspberry Pi as a mini computer server.
Compare the hardware differences between the Arduino and Raspberry Pi, highlighting power supply, shutdown needs, and connectivity options, from built-in internet to add-on modules.
Explore input/output, storage, and USB in hardware design for Arduino and microcontrollers. Compare onboard 32 kilobytes with expandable storage and USB connectivity to drive leds, motors, alarms, and timing differences.
Compare software options for Arduino boards and how the Arduino IDE runs code. Explore languages from the native Arduino language to C, C++, Java, Ruby, and Python.
Expand Arduino and big microcontroller capabilities with shields and hats that add ethernet, Wi-Fi, motor control, audio, touch screens, cameras, radios, and graphics processing.
Decide between Arduino, Raspberry Pi, and a big microcontroller by comparing cost, processing power, memory, input/output, operating systems, and suitable projects, including using them together for sensors and servers.
Learn to build a low-cost Arduino compatible board at home using a breakout board, a 5-volt regulator, wires, resistors, a reset button, capacitors, and a crystal.
Learn how to wire a regulated 5-volt power supply for an Arduino board using a 7805 regulator, capacitors, and proper ground and input connections, with guidance on safe input voltages.
Explore the ATmega microcontroller used in Arduino boards, learning pin mappings for digital pins, analog inputs, ADC channels, and serial communication basics.
Connect the ATmega microcontroller to five volts and ground, add a 10k pull-down and a reset switch, wire a 16 megahertz crystal with capacitors, and test with a blink LED.
Connect the breakout board to the Arduino via USB serial, wiring 5-volt supply and TX/RX lines. Learn bootloading and how to load a bootloader for programming.
Learn how to boot load an atmega chip using an Arduino board, with simple and advanced options, including USB power considerations, ISP connections, and breadboard setups.
Wire the programmer to the mega chip, set up the board and programmer in the Arduino IDE, and burn the bootloader to enable programming via ISP.
Learn how to connect an Arduino to a Raspberry Pi via USB, wire a LED to pin 11 with ground on a breadboard, and design the circuit in Fritzing.
Configure a Raspberry Pi with Arduino serial communication, using 9600 baud and an LED on pin 11, while reading serial input and blinking in response.
Install and configure the Arduino IDE, create a new project with setup and loop, and use serial communication at 9600 baud to send hello data and upload.
Configure Raspberry Pi and complete Python setup by installing python3-pip and pyserial, connect Arduino via USB, and run Python and Arduino code to blink a led based on serial data.
Complete the final step by running your Arduino project in Python on a Raspberry Pi and watch the led blink, tying together bathymetry work with this section.
Arduino is revolutionizing the world of electronics, robotics, and cybersecurity. This single-board micro-controller allows anyone to bring their ideas from concept to prototype without prior knowledge in electronics or coding. This course offers a structured challenge: Master Arduino in just 30 days.
Why choose this course?
Structured Learning: Step-by-step practical approach.
Hands-on Experience: Engage in real-world projects.
From Basics to Advanced: Covering fundamental principles to advanced techniques.
Quality Content: Avoid the usual distractions and unnecessary information found in many online courses.
Course Highlights:
Simulate Arduino Boards: Begin without any hardware.
Arduino vs Other Tools: Learn how Arduino stands out.
DIY Arduino Board: Create your very own Arduino at home.
Integrate with Raspberry Pi: Merge the capabilities of Raspberry Pi and Arduino.
Arduino Web and Bluetooth Control: Dive deep into remote controlling techniques.
Specialized Projects: Radar, motion detectors, weather stations, irrigation systems, alarm clocks, wireless power, and an RGB LED lamp with Bluetooth control.
Instructor Background: The instructor is an experienced hardware developer with a rich background in Arduino development. Having taught programming since 2010, he brings both expertise and clarity to his teaching methods.
For some, making things is second nature. However, for the more introverted among us, this motivation to make can be difficult to come by. Arduino makes it easy to get started with simple tools like an Arduino starter kit. As the computer revolutionized the world of electronics, robotics, and cyber security, it is no surprise that Arduino boards are quickly becoming an integral part of the maker world. This single-board micro-controller has made it possible for any person to take their ideas from concept to prototype without knowing anything about electronics or coding. The possibilities only seem to be limited by your imagination.
So, ARE YOU READY? To learn the basics of Arduino programming quickly with this Challenge! Teach you how to create Arduino sketches for real-world projects. Outlines the hardware that's needed, and shows you how to use it. Provides lessons for wiring your circuits, coding your sketches, and more. Shows you how to write your own library.
Arduino Programming Courses online contains lots of unnecessary information that will surely distract beginners and make them feel odd when they first come to the Arduino World. but this is not the case with this challenge.
Why you should take this course?
You will learn Arduino in a Step By Step Manner
It will challenge you to finish the learning journey in 30 Days and become a professional Arduino Programmer
You will be able to do practical Projects
Learn skills like basic engineering, programming, electronics, and IoT
It is an online course with videos and downloadable information
You will develop an understanding of the fundamental principles behind Arduino
What you will learn by day!
Day 1 +2 Simulate Arduino Boards and Test Your Code +Start Testing
Day 3+4 Arduino vs PIC microcontrollers vs Raspberry Pi
Day 5+6 Make Your Own Arduino Board at Home
Day 7+8 Connect and Interface Raspberry Pi with Arduino
Day 9+10 Arduino Web Control: Step By Step Guide
Day 11+12 Arduino Bluetooth
Day 13+14 Arduino Radar
Day 15+16 Arduino + Processing Code Version
Day 17+18 Practical Assembly
Day 19+20 Arduino Motion Detector: Step By Step Guide
Day 21 +22 Arduino Weather Station
Day 23 +24 Automatic Irrigation System with Arduino
Day 25 +26 Arduino Alarm Clock Using a Real-Time Clock and LCD Screen
Day 27 +28 Arduino Wireless Power Transmission
Day 29 +30 Arduino Multicolor RGB LED Lamp Controlled Using Bluetooth
The instructor is a very high experienced hardware developer who has a strong background in Arduino development and made this course to help newcomers to the Arduino world.
He has also been teaching programming since 2010 and has mastered art delivery.
This course is designed to introduce the Arduino hardware and programming environment to get you started on building projects as soon as possible.
The Arduino is an open-source electronics platform based on easy-to-use hardware and software. Sensing the environment by receiving inputs from many sensors the Arduino affects its surroundings by controlling lights, motors, and a number of other accessories. It's intended for anyone making interactive hardware projects.
A Platform for Creating any project that comes to your mind.
No experience is required, and all you need is an Arduino
This course is designed for anyone interested in Arduino with zero background knowledge to become Pro.
Start working with different Arduino boards without buying them and start unleashing the power of code in Simulation
The Arduino is an open-source electronics platform based on easy-to-use hardware and software. Sensing the environment by receiving inputs from many sensors, Arduino affects its surroundings by controlling lights, motors, and a number of other accessories. It's intended for anyone making interactive hardware projects.
In this course, you will learn how to Simulate different Arduino Boards in A Professional Simulation Environment which will help you unleash your full coding potential without buying any of the Arduino boards.
This course will help you test your codes and schematics for Arduino without the risk of burning your board because of bad connections or wrong codes.
Contents and Overview This course is designed for anyone interested in learning electronic design. No experience is required, and all you need is a computer.
Boards that can be Simulated: Arduino Uno, Mega, Nano, zero, and others
You will no longer wonder what board should you start with, or what board should you learn or use, this is your way in
When it comes to choosing a single-board computer or Controller, PIC Microcontroller, Arduino, and Raspberry Pi are the big names that you’ll be considering. But which one should you choose? What is the Arduino best used for? What are the drawbacks of using a Raspberry Pi? Why use PIC Microcontroller? And how do you decide between the three options? It can be a tough decision, so we’ll break it down here for you.
For the purposes of this course, I’ll be discussing PIC Microcontroller PIC164550, Arduino Uno R3, and the Raspberry Pi 2 Model B. There are many versions of THESE boards, and there are plenty of alternatives to the PIC Microcontroller, The Pi, and the Arduino that provide different specs and capabilities, but these Three are the mainstays of each line at the moment.
While both the Arduino and the Raspberry Pi are very versatile little machines, they both have specific things that they’re good at.
This guild will help you know Arduino internal components and how to make your own board at home step by step
Make your own Arduino Web Control and start Controlling any device that you imagine using A Simple Webpage and Arduino
Control Your World and Surrounding using Your Own smartphone in this Step by Step Guide that Will Make Your Life Easier
This course will help you Control Your World using Tools that you already have which is Your Own smartphone to Make Your Life Easier, You can make any electronics device easily controlled by bringing it alive using Bluetooth Technology that you have in your phone.
You will get step-by-step lessons on what needs to be done to get full control over any home appliance, project, car or any device that comes to mind using Bluetooth.
This is a course on interfacing Bluetooth modules with Arduino. It will give you the ability to make higher-level Projects like Home automation using smartphones, Smartphone controlled robots,s and much more.
You will know how to use the technology embedded in your phone to make your everyday life away much easier.
Create your Own Radar using Arduino and get a Green Map Showing Objects on your own Screen in no time
This course will take you in a step-by-step guide on how to make your own Radar using Arduino Board.
You will get to know how to wire each of these elements, how it works, and why we are using it inside this Project, in no time you will find yourself making your own Radar that shows the different objects and the distance between you and each object.
A Radar station is a device that collects data related to objects in the surrounding environment using Ultrasonic sensors and a Servo motor to cover a wider area.
The aim is to make a portable Radar Device
Features it should have
Distance
Angle
A map that shows different objects
You will wire sensors and motor to Arduino UNO board and start testing the code yourself, every piece of code is well explained so that you can easily know what each segment does.
A lot of information is waiting for you inside this course, join now and start making your own.
Make your own Arduino Motion Detector and start Catching Intruders, Control devices, and lots more Cool Application
This course will show you how to build an Arduino Motion Detector Device that will Fire an Alarm once an Intruder is detected in a range of 6 to 7 meters, it will take you in a step by step manner to know what each component inside the device circuit is, and what it does and how to wire it up
You will know what is the actual working principle of Motion detectors that you see in banks and indoor opening and closing mechanisms and what you can do with it and how to interface it with your own Arduino and make it execute and action using simple codes freely, you will no longer need to buy a motion detector or customize it since you can make the device yourself.
After this course, you will be able to make your own Motion detector and the choice is yours to use it in any application that comes to your mind and can make your life easier since all connections are explained in detail.
Goal From This Course:
- Connect a Motion Detector Sensor to Arduino Board with all necessary Components and make it work.
Required Materials
Hardware:
Arduino or an Arduino clone board (freeduino), or you can make your own custom Arduino board.
PIR Motion Sensor.
A piezo buzzer or an 8-ohm speaker.
9V Battery and connector.
Connecting wires.
Software:
Arduino IDE
Create your own weather station using Arduino and get Temperature, Humidity, and Time at your own home in no time
This course will take you in a step-by-step guide on how to make your own weather station that can get Temperature, Humidity, Time, and Date using an LCD Crystal display and Arduino Board.
You will get to know how to wire each of these elements, how it works, and why we are using it inside this weather station, in no time you will find yourself making your own station.
A weather station is a device that collects data related to the weather and environment using many different sensors
Sensors like
Wind
Humidity
Rain
Temperature
Pressure
Altitude
The aim is to make a portable weather station
Features it should have
Temperature
Humidity
Time and Date
You will wire sensors and LCD display to Arduino UNO board and start testing the code yourself, every piece of code is well explained so that you can easily know what each does.
A lot of information is waiting for you inside this course, join now and start making your own.
Make your own Automatic Irrigation System and stop wasting time on checking your Soil manually and Start Automating Life
This course will teach you how to Make an Automatic Irrigation System with Arduino, This Guide will take you in a step by step manner to know what each component inside the system is, what it does and how to wire it up, starting with the Soil Moisture Sensor, Nokia 5110 LCD Screen and ending with resistors.
You will know what is the actual working principle of the Soil Moisture Sensor and how to interface and configure it correctly so that you can get accurate data with this Arduino Powered device and automate the Irrigation system.
After this course you will be able to make your own Automatic Irrigation System device and the choice is yours to use it or sell it or start a business, or do anything that comes to your mind, this will make your life easier since all connections are explained in details.
Goal From This Course:
Connect Arduino Ethernet Shield to Arduino Board with all necessary Components and make it Internet Based.
What you will learn in this Course
How to connect Nokia 5110 LCD to Arduino.
How to connect FC-28 Soil Moisture Sensor to Arduino.
How to Detect Land condition Using Arduino.
How Irrigation Process Actually Works.
How to interface different type of electronic elements with Arduino.
How Arduino Can make your life Is Is easier.
How Program, burn a code, and wire Arduino and Soil Moisture Sensor.
What are the right tools that you need to start making amazing projects?
Why control with Arduino is better than traditional Control Methods.
In this Course, You will learn How to Interface Arduino With a Mobile App via Bluetooth and Control RGB Multicolor LEDs
In this Course you will be introduced to Mobile Apps, Bluetooth Control, RGB LEDs, and how to interface all of these Items to get an amazing output that you can show to your friends and brag about it, this will really help you add something cool to your collection of projects that you already made, or even to your office.
In this Course, You will learn How to Interface Arduino With a Mobile App via Bluetooth and Control RGB Multicolor Leds
Arduino Programming Courses online contains lots of unnecessary information that will surely distract beginners and make them feel odd when they first come to the Arduino World.
The instructor is a very high experienced hardware developer who has a strong background in Arduino development, and made this course to help newcomers to the Arduino world.
At first glance, RGB (Red, Green, Blue) LEDs look just like regular LEDs, however, inside the usual LED package, there are actually three LEDs, one red, one green, and yes, one blue. By controlling the brightness of each of the individual LEDs you can mix pretty much any color you want.
We mix colors just like you would mix audio with a 'mixing board' or paint on a palette - by adjusting the brightness of each of the three LEDs.
Get ready to see Colors that you have never seen below.
No experience is required, and all you need is an Arduino and a few simple electronic components
This course is designed for anyone interested in Arduino with zero background knowledge.