Ray-Ban's partnership with Meta keeps getting smarter — literally. The latest Ray-Ban Meta smart glasses aren't just about looking cool — they're packing upgraded tech, including the Meta glasses v12 update, faster performance, and surprisingly solid battery life. But do these smart Wayfarers live up to the hype, or are they just another overpriced gadget?
The Chromecast TV streaming lineup from Google is one of the more popular products in the category, primarily due to its low price tag and broad app support.
Gotta catch 'em all, right? That's easier said than done, considering that Pokémon GO has region-specific characters that you may never get a chance to see. Sure, you can spoof your GPS location to make the augmented reality game think you're at a different spot on the map, but Niantic Labs seems to be catching on to this method, and some users have been soft-banned for a few hours after trying it.
Every industry has its own jargon, acronyms, initializations, and terminology that serve as shorthand to make communication more efficient among veteran members of that particular space. But while handy for insiders, those same terms can often create a learning curve for novices entering a particular field. The same holds true for the augmented reality (also known as "AR") business.
In a previous tutorial, we were able to place the Mona Lisa on vertical surfaces such as walls, books, and monitors using ARKit 1.5. By combining the power of Scene Kit and Sprite Kit (Apple's 2D graphics engine), we can play a video on a flat surface in ARKit.
In a previous tutorial, we were able to measure vertical surfaces such as walls, books, and monitors using ARKit 1.5. With the advent of vertical plane anchors, we can now also attach objects onto these vertical walls.
In a previous tutorial, we were able to measure horizontal surfaces such as the ground, tables, etc., all using ARKit. With ARKit 1.5, we're now able to measure vertical surfaces like walls!
Have you ever seen pictures or videos of balloons being let go into the sky and randomly floating away in all directions? It's something you often see in classic posters or movies. Well, guess what? Now you'll be able to do that without having to buy hundreds of balloons, all you'll need is ARKit!
In our last ARKit tutorial, we learned how to measure the sizes of horizontal planes. It was a helpful entryway into the arena of determining spatial relationships with real world spaces versus virtual objects and experiences.
Have you noticed the many utility ARKit apps on the App Store that allow you to measure the sizes of horizontal planes in the world? Guess what? After this tutorial, you'll be able to do this yourself!
Have you been noticing SpaceX and its launches lately? Ever imagined how it would feel to launch your own rocket into the sky? Well, imagine no longer!
Hello, budding augmented reality developers! My name is Ambuj, and I'll be introducing all of you Next Reality readers to the world ARKit, as I'm developing an ARKit 101 series on using ARKit to create augmented reality apps for iPad and iPhone. My background is in software engineering, and I've been working on iOS apps for the past three years.
Ever notice how some augmented reality apps can pin specific 3D objects on the ground? Many AR games and apps can accurately plant various 3D characters and objects on the ground in such a way that, when we look down upon them, the objects appear to be entirely pinned to the ground in the real world. If we move our smartphone around and come back to those spots, they're still there.
If you've contemplated what's possible with augmented reality on mobile devices, and your interest has been piqued enough to start building your own Android-based AR app, then this is a great place to to acquire the basic beginner skills to complete it. Once we get everything installed, we'll create a simple project that allows us to detect surfaces and place custom objects on those surfaces.
Now that ARCore is out of its developer preview, it's time to get cracking on building augmented reality apps for the supported selection of Android phones available. Since Google's ARCore 1.0 is fairly new, there's not a lot of information out there for developers yet — but we're about to alleviate that.
There are hundreds, if not thousands, of programming languages and variations of those languages that exist. Currently, in the augmented reality space, it seems the Microsoft-created C# has won out as the overall top language of choice. While there are other options like JavaScript and C++, to name a few, C# seems to be the most worthwhile place to invest one's time and effort.
One of the primary factors that separates an augmented reality device from a standard heads-up display such as Google Glass is dimensional depth perception. This can be created by either RGB cameras, infrared depth cameras, or both, depending on the level of accuracy you're aiming for.
With the software installation out of the way, it's time to build the framework within which to work when building an augmented reality app for Android devices.
As we aim for a wireless world, technology's reliance on cloud computing services is becoming more apparent every day. As 5G begins rolling out later this year and network communications become even faster and more reliable, so grows our dependency on the services offered in the cloud.
In this series, we are going to get you to the edge of building your own cloud-based, cross-platform augmented reality app for iPhone, Android, HoloLens, and Meta 2, among other devices. Once we get the necessary software installed, we will walk through the process of setting up an Azure account and creating blob storage.
In this first part of my series on getting started with Windows Holographic, we are going to cover everything you need to get set up for developing HoloLens apps. There are many pieces coming together to make one single application, but once you get used to them all, you won't even notice. Now there are different approaches you can take to make applications for HoloLens, but this way is simply the fastest.
Continuing our series on building a dynamic user interface for the HoloLens, this guide will show how to rotate the objects that we already created and moved and scaled in previous lessons.
An incorrectly scaled object in your HoloLens app can make or break your project, so it's important to get scaling in Unity down, such as working with uniform and non-uniform factors, before moving onto to other aspects of your app.
So after setting everything up, creating the system, working with focus and gaze, creating our bounding box and UI elements, unlocking the menu movement, as well as jumping through hoops refactoring a few parts of the system itself, we have finally made it to the point in our series on dynamic user interfaces for HoloLens where we get some real interaction.