It is not worth it. The problem is the weight. For all of the good features it has, it's so heavy that you can't use it very long.

It is the greatest piece of technology I have ever owned, and I have a very hard time recommending it anyone.

It's clear that it is the future. But there's still some steps between where Apple is at with it today, and where it needs to be in order to be a mainstream product. I would look and see if you can find one used either in the local market, or via a short trip if possible.

Im waiting for v2/smart glasses by now , weight seems to be the most sticky issue to daily usage

It’s a cool use case, the same thing is achievable with other VR headsets of course. I imagine you can buy a second hand Quest 2 headset for under 100 euros

Favorite tech product I have ever purchased. I use it as my main MacBook display for often 8+ hours per day. As long as you are willing to bump up the font size a bit, the programming experience is fantastic. I use it as a 21:9 display, but it can go up to 32:9. My wife and I watch movies together in the theater environment, and the in-room sharing experience is great. My face and neck were prepared from numerous past headsets, but my wife really hasn't had any comfort issues. Since this is her first headset, I think that just varies by person.

Not worth it. Get a Meta Quest 3 and can vibe code something similar in a few hours. I recommend WebXR that comes with the built-in browser. Easier to distribute, share, collect feedback and iterate than native. And can use A-Frame: open source framework, very accesible and that I help maintain :)

Wow that is dark. Personal experience?

Do not tell people what to do with their land

You’re missing the difference between a feature and an application of that feature.

"Ah yes, how hard could it be?", he confidently asks.

> What am I missing?

So much.

> This is an absolutely standard feature of any VR headset that has ever been released in the history of VR headsets

The article is describing "room scale positioning". The first consumer available headset to offer this was released in 2016.

It may feel like it's been around forever if you're not familiar with the space except as a consoomer, but exploring a 3d space at room scale has only recently come into the realm of possibility for consumer grade headsets. For much of the 80s and 90s (and 00s), it was head tracking only. Real time positioning and moving around required positioning hardware that was a magnitude more expensive. Sure, it existed to some degree, but it was such inexpensive addition that using an expensive and complicated treadmill was often considered the economical choice.

In fact, I don't think there was even a "professional" solution that offered room scale positioning before the vive. Previously, they all had specific limitations like a 4 x 4 foot area or were massive tech demos that existed in a quantity of one in a university basement somewhere, running a very tailored demo.

> Make a 3D world, walk through it.

First of all, how do you map the room? Do you set up lighthouses? Low latency positioning? To do what is in the article, you need a large space and the ability to map into it. Only recently, has "inside out" tracking become feasible. Previous generations didn't have it, and it's almost a guaranteed requirement for any large scale deployment of VR - for example, exploring multiple rooms.

Second, how do you create the room? It may seem simple, but VR headsets require more than double the computation, and that means that any geometry and graphics you inert of the world needs to be within the compute budget of the headset solution. The fact that the person in the article was able to just export a USDC directly out of fusion and have it render without hitting the compute budget limit is amazing and really speaks to the graphical power of the AVP.

Lastly, stitching, the 3-D solution and compositing, and the real world is a very difficult problem. Again, it may feel like we've had the technology, but really we haven't had the high speed camera solutions in small packages, and the compute power to process all of that in anything approaching a consumer solution. To do what AVP is doing with the USDC files, composing them into the real world, and even applying lighting information, previously would have required a fleet of large and expensive machines. And that doesn't even include transparency and applying real-world attributes of lighting and reflection onto the USDZ file, a a task that's hard to parallelize.