The first product will probably be a DSLR-sized sensor with mobile phone-type image sensor density. They are trading in a lot of pixels for this feature. You'll need 100 megapixel sensors to end up with usable image sizes as one microlens covers many sensor cells. It will be interesting to see how low light noise artifacts will look as there is bound to be a lot of them with such high sensor density.

HDR photos you find on the web are actually tone mapped photos. They were HDR when they were captured, or when different exposures were combined into a single image, but after that stage they were tone mapped in order to make all the details visible on a conventional display.

Tone mapping is something we may stop doing when we have proper HDR displays like in this article. A display like that will more closely resemble the real world, and tone mapping will be unnecessary because our eyes can handle high dynamic range images just fine.

The perfect HDR video system would be one where you could film inside of a dark cave and you would see everything on the screen after your eyes had adjusted to the dark, and when the camera moved outside into the sun the intense brightness of the screen would make you squint.

Cheesy tone mapped HDR photos make your eyes hurt for totally different reasons.

But kinetics are still off when motion capture isn't being used. We need tools that limit the animator to work within the acceleration limitations of what's being animated. Too fast acceleration is usually what gives a CGI shot away. It robs objects of their weight.

We should procure another planet.

Lenticular lens 3D is pretty awful to look at, with artefacts galore. I'd wanna see this TV before I buy.

So if I want wireless in my whole apartment I guess rice paper partitions is the way to go.

I suspect it will be too easy to create effective countermeasures to make military robots a real threat. After all since the robots are identical the same countermeasure will be effective for all of them. They will also have simple sensors which are easier to trick than human soldiers.

Sometimes they are false colors, often they are not. However, a telescope is vastly larger than your eyes. They gather a lot more light, even considering how much the image has been magnified.

I've watched the ring nebula through a 11 inch only to see it in black and white, yet fixed a camera to the very same telescope and gotten color pictures. There simply isn't enough light for my eyes to detect the color. Perhaps with an even larger telescope I could have.

So no, the spectacular nebula might not even be visible to the human eye in your parked space ship, but you certainly could take a long exposure with a very sensitive camera and get awesome colors.

The Orion nebula is large/close enough to be seen without any telescope, but too faint to see without.

Babies don't do a whole lot after they are born. Perhaps they can model an adult brain from the start, but I doubt it will act very human without years of experiencing the sensory
input of a human body. The way the human senses are wired to the brain I suspect has a lot to do with how the brain is segmented into areas with specific tasks. What a human brain-like lump of simulated neurons will be able to do is anyones guess. I'm sure looking forward to any experiments, even though this opens up a pandora's box of ethical dilemmas.
Will the simulated brain feel pain? Have fears?

Henry Markram seems too optimistic, but if he's right then this might be the starting shot for the singularity.

http://www.bioeddie.co.uk/Spectrum/Images/HoraceGoesSkiing.jpg

If the LHC creates a black hole that swallows the earth, at least we will have solved Fermi's Paradox.