Apple fans are starting to return their Vision Pros::The return window for the very first Apple Vision Pro buyers is fast approaching — and some have taken to social media to explain why they won’t be keeping their headsets.
Apple fans are starting to return their Vision Pros::The return window for the very first Apple Vision Pro buyers is fast approaching — and some have taken to social media to explain why they won’t be keeping their headsets.
I think foveated rendering also helps with immersion. Being able to blur things you are not specifically looking at and are farther away is a closer match to reality.
Reality doesn’t downsample when you’re not looking at it, your eye does that.
As far as I understand (and do correct me if I’ve got it wrong), your eyes still know they are looking at very small and very rapidly blinking lights in close proximity and in a flat array, which is why it mostly feels like uncanny valley in regards to that exact experience, and why software enhancement/approximation of the effect could be beneficial.
As far as you know. Maybe that’s the reasoning behind weird stuff in quantum mechanics. The cat is both alive and dead until you open the box and look at it.
The whole point of the cat thing was to point out the absurdity of the claim that reality isn’t real until you know about it. The cat is already in whatever state you observe when you open the box. It’s not both alive and dead, it’s either alive or dead. The thought experiment isn’t serious, and it’s not supporting the idea that the cat is somehow magically in both states just because you haven’t yet manipulated the lid of a wooden cube.
When we talk about the cat being both alive and dead, it’s a simplification to help visualize a quantum phenomenon where particles exist in multiple states simultaneously until measured or observed.
Schrodinger came up with the cat to represent the absurdity of quantum mechanics because he thought it was absurd - but that doesn’t mean his metaphor isn’t a useful one. Particles like electrons or photons can exist in a state of superposition, where they hold multiple potential states (e.g., spin up and spin down) at the same time. This isn’t just a theoretical curiosity; it’s been experimentally verified in numerous quantum experiments, such as the double-slit experiment.
The act of measurement in quantum mechanics forces a system to ‘choose’ a definite state from among its superposed states, a process known as wave function collapse. Before measurement, the system genuinely exists in all its possible states simultaneously, not in one state or the other. This is a fundamental aspect of the quantum world