DIY Database – Page 4

Is there an online Arduino IDE?

Since the inception of Arduino, the Arduino IDE has been a go-to tool for people learning to code and creating projects ranging from remote-controlled cars to soil moisture monitoring. No wonder it’s been downloaded over 24 million times this year, so far! Now if you’ve ever wondered whether you can use Arduino IDE online, you’re […]

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Now if you’ve ever wondered whether you can use Arduino IDE online, you’re not alone. Many Arduino enthusiasts, from hobbyists to professionals, have been asking the same question. The good news? Yes, there is an online Arduino IDE, and it’s called the Arduino Cloud Editor! Available through Arduino Cloud, the Cloud Editor (previously known as the Arduino Web Editor), offers a seamless, free way to code from anywhere without the hassle of traditional software. It gives you peace of mind knowing that there is no risk of losing your valuable sketches – or all the hours you spent developing them.

Both the traditional Arduino IDE and the Cloud Editor have their strengths, but choosing the right one depends on your specific needs and project requirements. So, in this post, we’ll dive into the details so you can make an informed choice and pick the editor that is most suitable for you.

Arduino IDE: greater control, offline use, and stability

^{Screenshot of the Arduino IDE 2.3.2}

The traditional Arduino IDE is installed on your computer, allowing you to write and upload code directly to your Arduino board via a USB cable. Once installed, the IDE can be used offline, making it a reliable choice for projects in areas with limited or no internet access, for example while camping or in remote work locations.

It gives you complete control over updates, letting you maintain a stable environment by choosing when (or if) to install the latest changes. Plus, it’s equipped with a robust debugger, a serial monitor, and access to thousands of libraries contributed by the Arduino community.

Key features of the desktop IDE include:

Serial Monitor & Serial Plotter: Essential tools for debugging and visualizing data.
Library Manager: Access to over 5,000 libraries created by the Arduino community.
Autocompletion: The easiest way to speed up your coding process.

In short, the traditional IDE offers more control, such as the option to manually update or freeze the version you’re using, and requires only occasional internet connection for updates.

Who can benefit from the Arduino IDE? Teachers and users who prefer a stable environment without frequent changes may find it particularly valuable.

Download the Arduino IDE now

Arduino Cloud Editor: a convenient Arduino IDE online experience

The Arduino Cloud Editor offers a similar experience to the traditional version but adds the convenience of cloud storage and extra features.

One of its most appealing benefits is accessibility: you can access your projects from any computer, whether you’re at school, at home, or at work. Actually, you can even have them in your backpocket on your smartphone when you’re on the go! Cloud auto saving also ensures you never lose progress due to technical issues, providing a safeguard for your projects.

The Cloud Editor automatically updates itself as well as pre-installed libraries, saving you from manual maintenance. Real-time collaborative coding is another standout feature, enabling teams and students to work together on sketches seamlessly.

The Cloud Editor is available through Arduino Cloud, a full integrated development experience. In other words, it’s part of a bigger ecosystem. You can build IoT projects faster with pre-built templates, customize dashboards to monitor and control your devices remotely, and even integrate voice commands via Alexa or Google Home without writing a single line of code.

^{Screenshot of the templates section in Arduino Cloud}

Who can benefit from the Cloud Editor? Anyone who needs real-time collaboration and easy access to their projects from anywhere.

Sign up for Arduino Cloud now

Which editor should you choose?

The traditional Arduino IDE is ideal for users who need offline access and greater control over updates. It’s faster when compiling and uploading code, and offers advanced debugging tools that the Cloud Editor lacks.

On the other hand, if you need flexibility to work from multiple locations or collaborate in real-time, the Arduino Cloud Editor’s seamless integration with cloud storage and automatic updates make it a more convenient option, especially for beginners. Features like OTA updates are particularly useful for projects requiring frequent, remote updates.

As a quick summary:

Choose the traditional Arduino IDE if:

You prefer working offline or in remote locations without internet access.
You want full control over when updates are installed.
You’re using non-Arduino hardware that requires specific libraries or configurations.

Choose the Arduino Cloud Editor if:

You want to access and edit your projects from anywhere, on any device.
You appreciate automatic updates and zero maintenance.
You’re working on collaborative projects or need to share your work easily.
You want to build your own IoT dashboards.
You want to explore over-the-air (OTA) updates.

We’ve summarized the features available in the two editors in the detailed comparison table below, to help you decide which option best suits your project needs.

Ultimately, your choice should reflect your project’s complexity, collaboration needs, and hardware requirements.

How to get started with the IDE of your choice

Having decided which IDE is best for you, are you now ready to dive in?

To get started with the traditional Arduino IDE, download the software and check out the Arduino Docs guide that shows you how to program using the IDE.

For the Cloud Editor, simply create an Arduino account and explore the detailed Cloud documentation to help you bring your dream project ideas to life!

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Discover #Virgil: history comes to life with Arduino

We’re excited to introduce #Virgil, an innovative project that combines the power of Arduino technology with a passion for history, creating a groundbreaking interactive experience for museums. Using Arduino’s versatile and scalable ecosystem, #Virgil operates completely offline, allowing visitors to interact with 3D avatars in a seamless and immersive way. The project brings the past […]

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We’re excited to introduce #Virgil, an innovative project that combines the power of Arduino technology with a passion for history, creating a groundbreaking interactive experience for museums.

Using Arduino’s versatile and scalable ecosystem, #Virgil operates completely offline, allowing visitors to interact with 3D avatars in a seamless and immersive way. The project brings the past to life, offering dialogue-driven encounters with key historical figures thanks to voice recognition and edge AI – with the option to choose among many different languages.

“#Virgil is meant to celebrate the past and, more importantly, open new avenues for education and inspiration. We want to prove how technology, when guided by ethical values, can amplify and perpetuate our cultural heritage in ways that used to be unimaginable,” comments Enrico Benevenuta, coordinator of the Territori Svelati project and AI expert.

Matteo Olivetti, great-grandson of Olivetti’s founder Camillo, drew inspiration from the iconic Divisumma to design a dedicated hardware setup, Olivox.

Powered by the Portenta X8 and Max Carrier, the device connects via HDMI to any screen, engaging visitors in a rich, interactive experience without the need for smartphones or a stable internet connection. This approach allows the project to adapt easily to different exhibitions and contexts, while offering full control over the visitor experience.

Internationally renowned 3D artist Elvis Morelli was entrusted with creating the first avatar of the project – and it’s no coincidence that Camillo Olivetti was chosen.

The story of Olivetti resonates deeply with Arduino’s own mission of pushing the boundaries of technology, and #Virgil represents a continuation of that legacy by bridging the gap between the past and future through cutting-edge tools.

To find out more about the project and perhaps have a chat with your favorite pioneer of technology and innovation, visit #Virgil’s booth at the upcoming Maker Faire Rome 2024, booth E.09. Don’t forget to stop by Arduino’s booth N.07 to find out more about our products, and let us know what you asked Camillo!

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Technology meets creativity in two interactive art student projects

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Art and engineering are not separate concepts. There is a great deal of overlap between the two and many modern disciplines increasingly blur those lines. Mónica Riki is an “electronic artist and creative coder” who embodies that idea: you might remember her and her incredible Arduino UNO R4-powered installations from our blog post last year. In addition to her artistic practice, her technology-forward approach inspires her work as an educator, as she helps her master’s students develop hybrid concepts that use microcontrollers, sensors, lights and a variety of different technologies to create interactive art pieces. The level of creativity that technology is able to unleash is readily apparent in two of her students’ projects: Flora and Simbioceno.

Flora, created by College of Arts & Design of Barcelona students Judit Castells, Paula Jaime, Daniela Guevara, and Mariana Pachón, is a board game in the form of an interactive art installation. It was inspired by nature, with gameplay occurring throughout a simulated ecosystem. An Arduino UNO R4 WiFi board handles the interactive elements, with additional hardware including NFC readers, motors and accompanying drivers, sensors, pumps, LEDs, and more.

Simbioceno, by Ander Vallejo Larre, Andrea Galano Toro, Pierantonio Mangia, and Rocío Gomez, also uses an UNO R4 WiFi. It consists of two ecosystems: one aquatic and one aerial-terrestrial. They exist in symbiosis, communicating and sharing resources as necessary. Hardware includes LEDs, pumps, and biofeedback sensors. The students put particular thought into the construction materials, many of which are recycled or biomaterials.

Both projects are interactive art and expressions of creativity. While they do integrate technology, that technology isn’t the focal point. Instead, the technology helps to bring the two experiences to life.Feeling inspired by this creative use of the Arduino platform? We hope you’ll develop your own projects and share them with us and the entire community: contact [email protected] or upload directly to Project Hub! You could be our next Arduino Star.

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Use sound to trigger your camera’s flash with this DIY device

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In the world of photography, the exposure triangle is immutable. To get a properly exposed photo (not too bright or too dark), you need a balance of aperture size (how much light gets in), shutter speed (how long the light gets in), and ISO (sensitivity to light at the expense of noise). But the shooting situation often limits how the photographer can adjust each parameter. To freeze action, for example, you need a very fast shutter — reducing the light you let in and therefore exposure. To compensate, you might need to use a flash and this DIY device can help with the timing.

There is a reason that photography flash units only come on for a split second (about 1/10,000th of second is normal): they’re incredibly bright and would burn out if left on for any length of time. To freeze action, such as a balloon popping, you need a fast shutter speed. Too slow and the photo will be all blurry. Exact numbers vary, but 1/8,000th of a second isn’t unusual for the mechanical shutter on a modern mirrorless camera. To get proper exposure, you need to time the shutter to open at the exact same time that the flash is illuminating your subject and that is something you could never achieve through manual control.

That’s hardly a new problem and so cameras are capable of releasing the shutter at the proper time in relation to the flash, but how do you sync those two events with whatever action you want to freeze? If that action happens to make a noise, this device is the solution.

This device, based on an Arduino UNO Rev3 board, uses a microphone to listen for loud noises. If a noise exceeds a set threshold, the Arduino triggers the flash. An isolation circuit made with a Reed switch protects the Arduino from the high voltage of the flash. Reed switches are relatively slow, but they’re affordable. For better performance, an opto-isolator could be used instead.

To demonstrate this, students at Rochester Institute of Technology froze the action on some ballon pops and the results look great.

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Get notified of impending floods with this Arduino Nano 33 IoT-based display

As climate change continues to worsen, events such as heavy rains, hurricanes, and atmospheric rivers have only intensified, and with them, large amounts of flooding that pose serious risks to life and property. Jude Pullen and Pete Milne, therefore, have responded by creating a “physical app” that can show the potential for flood dangers in real-time with […]

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The Arduino Nano 33 IoT powering the Flood Alert device sources its data from the UK Environmental Agency’s API to get statistics on an area’s latest risk level along with an extended description of what to expect. Initially, the electronics were mounted to a breadboard and housed within a cardboard enclosure, but a later revision moved everything to soldered protoboard, a 3D-printed case, and even added a piezoelectric buzzer to generate audible alerts.

For now, the Flood Alert’s sole source of data is the aforementioned API, but Pullen hopes to expand his potential data sources to include “hyper-local” sensors that can all be aggregated and analyzed to give a much more precise view of flooding in a smaller area.

To learn more about Flood Alert and its myriad applications to local communities and beyond, check out Pullen and Milne’s well-detailed Instructables tutorial.

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7 powerful ways to integrate Collaborative Coding into education with the Arduino Cloud

Collaborative coding in education can be a game-changer for students, providing them with real-world skills in communication, teamwork, and problem-solving. With the new collaborating coding feature of the Arduino Cloud, students can collaborate in real time on coding projects, making it easier to test, integrate, and refine their work in the classroom or remotely. If […]

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Collaborative coding in education can be a game-changer for students, providing them with real-world skills in communication, teamwork, and problem-solving.

With the new collaborating coding feature of the Arduino Cloud, students can collaborate in real time on coding projects, making it easier to test, integrate, and refine their work in the classroom or remotely.

If you are on a paid Cloud School or Business plan and you have created a Shared Space, Collaborative Coding will already be enabled for you. Just open a sketch file from your organization space and start editing.

You can purchase an Arduino Cloud School or Business plan on this page.

How does Collaborative Coding work?

Before, to edit a shared sketch, the user needed to make a copy to edit it, only the owner could edit the original sketch. Users could end up with many copies of the same sketch. Now, if you’re editing a shared sketch and another user tries to access it, they’ll get an instant notification in the lower corner of the Arduino Cloud Editor. Once you’re done or have uploaded the sketch, the other user can edit it.

Below are seven ways that showcase how collaborative coding can enhance learning experiences in educational settings.

1. Remote team projects

In today’s increasingly connected world, remote collaboration has become a critical skill. By assigning students to a remote team project, such as building a smart greenhouse, educators can simulate real-world tasks. In this scenario, each student tackles a different component of the project: one works on coding for temperature sensors, another handles humidity control, while another focuses on pressure regulation.

Through real-time collaboration tools, students can test and integrate their code seamlessly, making it easier to identify and resolve issues as they arise. This approach doesn’t just encourage communication and teamwork; it also gives students valuable exposure to the challenges of coordinating efforts across distances – a skill essential in modern engineering and tech careers.

2. Peer learning and mentorship

As the students code, mentors can provide immediate feedback, guide them through debugging, and teach best practices. This instant interaction accelerates learning by allowing students to correct mistakes as they occur and learn more efficiently. Mentors can also demonstrate advanced coding techniques, improving the overall skill set of junior students while fostering a supportive learning environment.

3. Interdisciplinary projects

A great way to incorporate collaborative coding is through interdisciplinary projects, which bring together students from diverse fields like computer science, physics, and environmental science. Take a weather station project, for example. Each student can code different elements, and with the Collaborative Coding feature, they can seamlessly integrate their work into a unified system in real time. This setup not only helps students share their domain-specific knowledge but also prepares them for real-world scenarios where interdisciplinary collaboration is crucial.

4. Classroom code review sessions

Arduino Cloud simplifies live code review sessions. Teachers can use the platform to host collaborative peer reviews, where students suggest improvements and optimizations on each other’s code. The Collaborative Coding feature allows these suggestions to be implemented and tested instantly, creating an interactive learning experience. This real-time feedback helps students improve their coding skills by learning to write cleaner, more efficient code. It also exposes them to different problem-solving approaches.

5. Hackathons and coding competitions

Hackathons are a great way to encourage teamwork and creative problem-solving, with students having to work closely together under time constraints. The Collaborative Coding feature enables real-time teamwork, allowing students to brainstorm, write, and debug code simultaneously. This setup encourages effective communication and quick decision-making, which are crucial skills in high-pressure environments like coding competitions. Students also learn how to divide tasks, manage time, and integrate different components swiftly.

6. Cross-school collaborative projects

Collaborative coding doesn’t have to be limited to one classroom. By connecting students from different schools, you can promote collaboration on larger, more ambitious projects. For example, students from various schools could work on a shared environmental monitoring system, with each school responsible for different parts such as data collection, interface design, and system integration.

Using the Collaborative Coding feature, they can integrate their code into a unified system in real time, learning from each other’s approaches and gaining exposure to different coding styles and experiences.

7. Pair programming exercises

In pair programming exercises, two students work together on a single coding task – whether that’s in the classroom or remotely. One student writes the code while the other reviews it in real time, and they switch roles regularly so both get hands-on experience with every part of the project.

This technique encourages close collaboration and helps students develop their communication skills and systematic debugging techniques. It also gives them the opportunity to learn from each other’s strengths and weaknesses, improving their overall coding abilities.

Conclusion

Integrating collaborative coding into the classroom can dramatically enhance the learning experience for students, giving them the skills they need to thrive in the modern workforce. From remote team projects and interdisciplinary work to peer mentoring and hackathons, these use cases demonstrate how coding can be both a collaborative and creative activity. By fostering teamwork, communication, and technical expertise, educators can prepare students for success in coding and beyond.

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Slot machine game harnesses the beauty of Nixie tubes

Everyone loves the look of Nixie tubes, with their glowing orange characters made of curvy filament. But we usually only see makers using Nixie tubes for one purpose: clocks. That’s unfortunate, because they have a lot more potential, as illustrated by Bob Cascisa’s Nixie tube slot machine game. This is a really delightful device that […]

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This is a really delightful device that puts the slot machine experience into a handheld form factor, with a beautiful Nixie tube display. It has a single button to spin the “wheels,” and seven Nixie tubes to show the action. The top three Nixie tubes represent the wheels and they cycle through distinct symbols. The bottom four Nixie tubes show the player’s balance to keep track of payouts.

The bottom Nixie tubes are IN-12 models, which are Soviet NOS (New Old Stock) models capable of displaying numeric digits. The top Nixie tubes are rarer IN-7 models that can display a handful of symbols that would be useful for lab instruments, such as ?. Cascisa chose those IN-7 tubes because their symbols have a more iconographic appearance than standard alphanumeric characters, which English-speakers would try to read.

An Arduino Nano board controls the gameplay. It plugs into a custom PCB that Cascisa designed to house all of the components necessary to drive the Nixie tubes — a difficult job compared to modern LED and LCD displays. It requires a power supply that can provide high voltage to the Nixie tubes. Power comes from an 18650 battery pack inside the simple enclosure, with a charging port on the side.

By Vegas slot machine standards, the gameplay is pretty simple. But this unit’s Nixie tube display certainly looks much nicer than the retina-scarring graphics on those machines.

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This device prevents garage door security breaches

Your automatic garage door is almost certainly the most vulnerable access point in your house. Traditional systems are notorious for their susceptibility to replay attacks, but even more sophisticated modern garage door openers and those that lack remote functionality entirely are still prone to human error — you may simply forget to close the door. […]

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At its heart, this setup’s purpose is to close a garage door that a homeowner mistakenly left open. That’s a common problem, as you can see for yourself if you drive around a suburban residential neighborhood at night. If a homeowner forgets to close their garage door, SébastienL42’s device will sound a notification through an indoor dashboard. If enough time passes, it will go ahead and close the door itself.

That functionality requires two Arduino Nano Every boards. The first goes in the garage and connects to the garage door opener so it can close to the door. It detects a closed door using a pair of microswitches. The second Arduino is for the indoor dashboard, which provides notifications and control buttons. SébastienL42 designed that dashboard to fit into a picture frame and it looks really nice.

The two Arduino boards communicate with each other via nRF24L01 radio transceiver modules, which could potentially create a new vulnerability. But SébastienL42 put serious thought into that possibility and eliminated exposure by simply making the system incapable of opening the garage door — it can only close it. If a bad actor somehow gained access, they wouldn’t be able to do anything more nefarious than close the door for the homeowner. And the garage door opener’s standard safety features remain in place, so there shouldn’t be any danger.

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Make your scary Halloween pumpkin smart with the Plug and Make Kit!

With Halloween just around the corner, we’ve got the perfect project to make your decorations more fun and interactive. All you have to do is take the Arduino UNO R4 WiFi and Modulino nodes included in your Plug and Make Kit to create an awesome jack-o’-lantern that will light up and cackle with evil laughter […]

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With Halloween just around the corner, we’ve got the perfect project to make your decorations more fun and interactive. All you have to do is take the Arduino UNO R4 WiFi and Modulino nodes included in your Plug and Make Kit to create an awesome jack-o’-lantern that will light up and cackle with evil laughter when someone walks by!

Connect it to Arduino Cloud and you’ll be able to check on it and even remotely trigger some spooky surprises.

This is an easy project that anyone can do, and we’ll walk you through the steps to make it happen.

A step-by-step guide to make spooky super simple

This project is a great introduction to making interactive things. You won’t just be setting up some store-bought props, you’ll be creating technology and bringing your pumpkin to life!

To get started, you’ll need:

Plug and Make Kit (including UNO R4 WiFi, Modulino Pixels for the glowing eyes, and Modulino Distance to trigger the action when someone approaches)
An MP3 module and a small speaker for the creepy sounds
A microSD card to store your sounds (feel free to use the ones we provide, or record your own!)
A powerbank to keep everything running
A pumpkin (you can carve out a real one, or you can 3D print one like we did – using this model by Damien Dozias)

The Modulino Distance sensor detects when someone approaches your jack-o’-lantern, and that’s when the magic begins. The Modulino Pixels light up the eyes, syncing with the spooky sounds played from the MP3 module. Everything is controlled with an UNO R4, and thanks to Arduino Cloud, you can even control the pumpkin remotely, change the sounds, and keep track of how many people you’ve scared.

All the code and details are ready for you to download from Arduino’s Project Hub. We’ve also created a template that will help you set everything up quickly. This template automatically uploads the code to your UNO board and creates a custom dashboard so you can monitor and control your creation. Just follow the link to get started!

Unleash your creativity!

Sure to make a lasting impression on your trick-or-treating visitors, this project offers you the chance to have fun while actually learning a lot about electronics, coding, and the Internet of Things (IoT).

Why just buy interactive objects when making your own is so rewarding? So grab your tools, start building, and give your Halloween the high-tech twist it deserves!

As always, we highly encourage you to customize the project with your own ideas: with the UNO R4 WiFi and Modulino nodes included in the Plug and Make Kit, you have all the tools you need.

For example, you could use Modulino Buttons to change scary sounds locally, or make your scary jack-o’-lantern even smarter. It can check the weather from an online forecast and change the LEDs’ color to let you know if it’s going to rain, help you use your smartphone to monitor the temperature outside in real time via Arduino Cloud… and much more!

Be sure to share your scary creations with us: upload them to Project Hub or email [email protected] to get in touch.

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How to customize your Arduino Cloud IoT dashboards on the go

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The Arduino Cloud has long been a trusted platform for makers, engineers, and developers to manage their IoT projects with ease. From tracking sensor data to automating smart devices, the cloud enables seamless connectivity. Complementing this, the Arduino IoT Remote mobile app gives users the power to monitor and interact with their dashboards from anywhere. Now, we’re excited to announce a new feature that enhances your experience even further: the ability to change dashboard layouts directly through the mobile app!

Let’s dive into this exciting new update, along with some other minor features recently added to improve your experience.

Change your dashboard layouts from the IoT Remote app

Previously, modifying or rearranging the layout of your IoT dashboards was only possible through the browser on a PC. While this worked well for desktop users, it wasn’t convenient for those who needed to make changes on the go. With the latest update, you can now modify the “mobile view” of your dashboard directly through the Arduino IoT Remote app.

It’s important to note that Arduino Cloud dashboards have two distinct views: mobile and desktop. This new feature allows you to customize the layout specifically for your mobile devices, without affecting the desktop version. So whether you’re monitoring your projects on your phone or tablet, you can now optimize the layout for a mobile-friendly experience.

By customizing the mobile view, you gain more control over how your data is displayed and interacted with on your phone—perfect for users who need a quick overview and control of their IoT systems while away from their desktops.

How to use the new layout feature

Using this new feature is simple. Here’s how you can rearrange your dashboard layout in the IoT Remote mobile app:

1. Open the Arduino IoT Remote app and log into your account.
2. Navigate to the dashboard you want to modify.
3. On the Settings menu of the dashboard, tap the Rearrange button.
4. Select a widget by clicking on it, and move it around the dashboard to the new location or change its size.
5. Click on CANCEL to discard your changes or on SAVE to save your changes, and your updated layout will be visible across all your mobile devices.

What else is new on the IoT Remote app?

In addition to the layout customization feature, during the past months we’ve introduced several minor updates to make your app experience even smoother:

Sync dashboard cover image: Now, you can set a cover image for your dashboard, and it will automatically sync across all your devices. Whether for branding, personalization, or easy recognition, this feature ensures visual consistency on every device you use.
Disable trigger from Notification Detail: You can now enable or disable a trigger directly from the Notification Detail screen. This feature provides quick control over automated actions, helping you fine-tune your project with minimal hassle.
Clear notifications via the Activity Manage Panel: Keep your notifications organized by clearing them all from the new Activity Manage Panel. This helps you stay focused by removing unnecessary clutter from your feed.

Install the Arduino IoT Remote on your mobile phone

These new features make it easier than ever to stay on top of your IoT projects from anywhere with your mobile phone. Whether you’re monitoring, controlling, or tweaking your dashboard, the Arduino IoT Remote app is the perfect tool for the job, and it’s free!Ready to experience these new updates? Download the Arduino IoT Remote app today from the App Store or Google Play and take full control of your IoT projects from the convenience of your mobile device.

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