arduino

Arduino is an open-source electronics platform based on easy-to-use hardware and software. Arduino boards are able to read inputs - light on a sensor, a finger on a button, or a Twitter message - and turn it into an output - activating a motor, turning on an LED, publishing something online. You can tell your board what to do by sending a set of instructions to the microcontroller on the board. To do so you use the Arduino programming language and the Arduino Software (IDE).

Having outlined the concept of automated watering and successfully assembled the physical components, our attention now turns to the real wizardry - the code. This article explores the intricate lines of Arduino code that transform theory into reality, breathing life into our DIY plant care project. As we step into the heart of our automated watering system, let's unravel the details that make our green vision a reality.

As we transition into the practical implementation of our Arduino-powered automatic watering system, the focus shifts from theory to the tangible. This section of the guide will meticulously guide you through the steps of physically mounting the components, integrating sensors, and establishing the necessary connections between modules. It's an opportunity to transform conceptual understanding into hands-on reality. Prepare to immerse yourself in the practical aspects of this project, where we navigate through the nuances of placing each module and executing the precise wiring required to bring your plants care system to life.

In the world of DIY electronics, Arduino stands as a go-to tool for creators and hobbyists. Today, we're exploring the integration of a 4x4 membrane keypad module with an Arduino, a combination that introduces an interactive layer to your electronic projects.

Arduino microcontrollers are the heart of countless DIY projects, from robots to automated systems. To bring these projects to life, you often need to interface them with motors. In this guide, we'll walk you through the essential steps of connecting a motor to an Arduino using a separate power supply while ensuring control with precision using an NPN transistor. This approach allows you to harness the full potential of your motorized creations without overloading your Arduino.

In the world of do-it-yourself (DIY) projects, few activities match the practicality of constructing your own Arduino-powered automatic watering system. Imagine a setup where technology integrates effortlessly with nature, allowing you to take control of your plant care routine. We'll break down the fundamental components of this project, highlighting the vital role of the DS1302 timekeeping module and Arduino-compatible pumps. Get ready for a hands-on approach that not only enhances your technical skills but also transforms the way you care for your plants, whether they are in the corners of your home or under the open sky.

The physical part of the controller is finished but what about the brain? Once more, our decision falls on Arduino Nano. It perfectly fits by size providing all the necessary functionality. For programming a Nano board we need a USB to serial interface which can be hooked up to the programing header located on the top side of our controller.

Let's speak now about switch buttons, the wiring and how to implement the code for this circuit elements in Arduino. Switch buttons connect two points in a circuit when you press them and maintain the state without the need to keep the button pressed. That means that logic state of the circuit change every time you press the button.

The Simpsons, that legendary animated series we all know and love, has become a cultural phenomenon. With its hilarious take on family life in Springfield, it's an absolute classic. We decided to have a bit of fun and recreate the show's iconic theme song using a piezo buzzer.

Buzzer is used to generate sound, beep or even melody of a song. It can be found in alarm devices, computers, timers and confirmation of user input such as a mouse click or keystroke. A piezo buzzer is not like a regular speaker that you might think of. It uses a material that actually changes shape when you apply electricity to it which in turn creates noise. The faster you bend the material, the higher the pitch of the noise that is produced.

Touch sensor (also known as touch button) is widely used to control devices. It detects touch, force or pressure on its surface changing the logic state of the circuit. Actually, it works in very similar way as to buttons. Checkout the wiring and Arduino code implementation to track the current state and the state changes.