In this module, we will explore the basics of ATtiny microcontrollers, including their architecture, variants, and programming languages. We will also discuss how to flash ATtiny, analyze pinout configurations, and examine critical features like clock speed, power consumption, and brown-out detection.

In this module, we will walk through setting up the development environment for ATtiny programming. You will learn how to install ATtiny cores, configure different IDEs, and set up various upload devices to program the microcontroller efficiently.

In this module, we will write and upload our first ATtiny sketch using different upload techniques. You will learn how to program the microcontroller using Arduino IDE, VS Code PlatformIO, and Digispark ATtiny85 while experimenting with Arduino UNO and USB-ISP as programming interfaces.

In this module, we will create a project using PWM to control three LEDs. We will explore wiring, write the necessary source code for an RGB LED, and even incorporate 3D printing to enhance the final design.

In this module, we will develop a digital dice using LEDs and ATtiny. We will examine randomness in microcontrollers, refine button handling techniques, and improve the dice’s functionality by adding effects and a compact 3D-printed case.

In this module, we will build an advanced digital dice using WS2812b LEDs and FastLED. You will learn how to program custom lighting effects, manage button inputs efficiently, and complete the project with a 3D-printed case.

In this module, we will construct a binary clock keychain using an RTC module and a shift register. You will learn to read and display time in binary format while implementing LED control logic and 3D printing an enclosure.

In this module, we will build a plant monitor powered by a CR2032 battery. You will learn how to read soil moisture levels, optimize power consumption using deep sleep modes, and integrate a buzzer for alerts.

In this module, we will enhance the plant monitoring system with an OLED display. You will learn how to present real-time sensor readings, visualize data using graphics, and implement deep sleep functionality for prolonged battery life.

In this module, we will create a unique circuit board pendant that plays melodies. You will learn how to wire up sound and light components, program musical sequences, and enhance the project with interactive touch sensors.

In this module, we will experiment with transistor circuits, incorporating a reed switch and a clap detector. You will gain hands-on experience in creating interactive electronic projects that respond to sound and magnetic triggers.

In this module, we will build a mini weather station using a temperature sensor and an OLED display. You will learn to wire components, configure software settings, and display real-time temperature readings.

In this module, we will explore how to create a USB Rubber Ducky using Digispark ATtiny85. You will analyze the provided source code, understand how USB automation works, and discuss ethical considerations.

In this module, we will summarize the course’s key concepts and projects. You will revisit important takeaways, explore potential applications, and get recommendations for advancing your ATtiny and Arduino programming skills.