World's Fastest Camera Captures 4.4 Trillion Frames Per Second
Diggester writes Japanese researchers have recently designed a motion picture camera which is capable of capturing 4.4 trillion frames per second, making it the fastest camera in the world. The technique that allows for such speed is called STAMP (sequentially timed all-optical mapping photography). The research paper, published in the journal Nature Photonics has the full details.
TFArticle doesn't explain the "pumping" very well at all but 4 times faster is 4 times better. So.. any ideas? Femtopr0n? What are we going to see that we couldn't before?
If it's possible to play this back at 24 FPS, we can shoot that 3 minute homemade porn we've always wanted!
Trolling is a art,
but does it go to 11 ?
'The unexamined life is not worth living' - Socrates
You remember that "We can recover audio from a video of a potato chip bag" article right? 4.4 Trillion FPS might be overkill for that though.
"File to fit, pound to insert, paint to match" - Aircraft Maintenance 101
This technology sounds totally cool. I'd like to see them use it to take pictures of somebody viewing the shitty Slashdot Beta site. They could capture the user's extreme boredom as this user waits for the shitty Beta site's page and all its shitty JavaScript and CSS crap to initially load. Then they could capture the trillionth of a second when the person notices that it's the shitty Beta site rather than the Classic site, and the person's anger starts to grow. The photos would progressively show the anger turning into madness, and then finally utter and complete disappointment and despair once the shitty Beta site has finally loaded. The photos could also capture the formation and flow of the very first of many teardrops to cascade down this poor victim's cheeks as the user struggles in vain to read the stories' small text with poor contrast. These trillions upon trillions of frames of total anguish could be examined in excruciating detail, so the awful nature of the Slashdot Beta site could be truly comprehended.
I guess it's just as well... my monitor's refresh rate doesn't go that high.
That's if you want to watch it in realtime. Things, such as bullet dynamics, railguns, physics labs, so on so forth, would have great use for such a camera.
FOR SCIENCE!!!
Any information on how they deal with the captured frame data? Is it stored optically or digitally? If digitally then how are they managing to provide the bandwidth necessary?
At 4.4 trillion frames a second, playing back one second of footage at 24fps would take over 5,580 years.
I guess if you're targeting a 320x240 device, that counts... otherwise, not so much.
( 450x450 is still pretty impressive at that frame rate. )
Picosecond resolution... ....only 30 or so more zeros until we hit one frame per plank time.
First FTA: There's a mention of a previous camera...
"Back in 2011, researchers from MIT created a high-speed camera that captured light passing through an empty bottle in slow motion by acquiring visual data at one trillion frames a second – to the STAMP cam, more than four times faster than this, even the speed of light could be as stimulating as watching paint dry."
That's misleading. The camera in 2011 didn't do amazingly high FPS capture. What it did have was very short capture with precise timing. That video of a laser moving through a bottle was actually thousands of successive laser shots. More like stop-motion than video.
Now this camera I see fewer details on. I do see that one thing it seems to do is to divide a laser with a prism and use the separation to make virtual frames by using different receptors.
Let me make an analogy. If you took a normal RGB color sensor from a camera, and exposed it, and during that exposure you fired a red flash, then a green flash than a blue flash one after the other. Take your resulting picture and break it into three by color and you have 3 "frames". They appear to be doing this with a large number of wavelengths.
To sell you bigger hard drives.
It seems to me a camera ilke would be useful for viewing things that happen very quickly, for instance, particle collisions in an atom smasher.
Fifty years of Yippie! 1968-2018
Exactly. But until they capture and show something better than this I say Meh.
I bet that if movies and video games were running at 4.3 trillion frames per second already, all those frame rate whores would be having a tantrum right now because it's just not smooth enough.
People crave bigger (better) shit. Anything that exceed what they (but mostly others) currently have, even if they it's to the point of being silly.
Captcha: porches
Obama made it to the golf course just 7 minutes after finishing his statement today.
Priorities.
Still not enough for the Mythbusters.
(On a more serious note though, how on Earth do they manage to store even a few microseconds of the footage from this beast?)
"Nine times out of ten, starting a fire is not the best way to solve the problem." - my wife
I mean, the speed of light is 299,792,458,000 Millimeters per second. Maybe I miscalculated something (I always get confused with the way the US names its powers of 10), but doesn't that mean that in 15 frames of this movie, light only moves for about a millimeter? Someone with more background in physics may shed some light onto this (no pun intended), but when you're dealing with stuff SO fast that it approaches the speed of light, isn't measuring and recording subject to the problem that you cannot transport information (and thus also the result of your experiment to the observing camera) faster than said speed of light?
We used to have a Bill of Rights. Now, with the rights gone, all we have left is the bill.
and awesome youtube videos
Stretch those femtoseconds into hours, nice...
high pixel resolution (450×450 pixels).
http://www.nature.com/nphoton/...
Will I need to update my TV to 4K to play it? Enough said.
Is this camera actually capturing 4 trillion distinct images per second, like a traditional camera, just much faster? Because the mentioned '1 trillion fps' camera that filmed light passing through a coke bottle wasn't doing anything like that, it was using multiple 'exposures' and precise timing of when each pixel in the sensor recieved light.
1 second / 4.4 trillion * 3E8 m/s = 68 microns.
That's the distance light covers between frames. Wow.
Pity this didn't exist during the days of atmospheric nuclear testing.
Oolite: Elite-like game. For Mac, Linux and Windows
Finally something that can show us your mom falling on her ass in slow motion!
Will cream his pants, it can't be long before he will be using this to film the first 12 movies in the long overdue LOTR reboot.
i'm pretty bummed out. i mean starting many years ago /. became an advertising platform (as are many popular websites), but after the dice acquisition it got soo much worse.
and yeah, the beta design is awful. the original site had the amazing minimalist yet graceful charm going on with it. i think i still have a few ancient archives of slashcode, maybe ill make a site using it that grabs all /. as well as other tech news and drops it there, with no ridiculous flash ads and *free* resume and job postings.
cheers,
sgt burrito
It will take a long time to see that second!
Not everyone working on such cameras is doing so for just for the sake of developing new methods, and instead are trying to use it for some specific measurement. Some people on a project I work on wanted to try borrowing some streak cameras to make similar images, half for fun and half for PR, but no one wanted to take the work to keep resetting it up for the actual experiment it was intended to be used for.
Red light is 430 trillion hertz. So about 100 red light waves per frame.
no, its no use for most high-speed stuff.
why?
because its ONLY a still image camera. it takes ONE picture
the interesting stuff here is that you have picosecond precision in exactly WHEN the image is taken
now, to get that 10 s movie of a light flash moving through a bottle, you take 300 pictures (running the experiment 300 times - i'd like to see that with, say, a railgun where you change the bore every few shots....), each picture taken with a slightly longer delay.
it's completely useless for recording things like bullets
The camera that made the image/video of a light pulse going through a coke bottle could only take a single line image at a time. This camera is different, it takes up to six images on that time scale, and can be scaled to more (although not cheaply). So it would allow for observation of high speed dynamics in a single event.
That's easy. Just ask for a BJ.
John McAfee 'It was like that time I hired that Bangkok prostitute; to do my taxes, while I fucked my accountant'
There's a very simple test of the general relativity law about the speed of gravity - and it has already failed it spectacularly.. Put simply if gravity moved at the speed of light then the gravitational fields of black holes should collapse in on themselves leaving them externally massless. If you take the simplest classical model of black hole with a central singularity then the inner event horizons require higher and higher escape velocities towards the centre and gravity must jump over the whole lot to escape from the edge. This requires A - an absolute frame for space ruling out a curved space time, and B sets a minimum speed for gravity which is close to FTL Simultaneous - ie nearly 'infinitely' fast.
This model is not accepted in modern physics - but it is powerful and simple (orders of magnitude simpler than most others), and has no obvious point where it fails. (KISS - Keep It Simple Stupid - Occam's Razor) The real problem of course is that physicists are very stubborn and don't like their favoured solutions being contradicted - even in the face of direct evidence...
Below the speed of light Special Relativity is one of the most accurate theories in physics - above the speed of light..
Put simply if gravity moved at the speed of light then the gravitational fields of black holes should collapse in on themselves leaving them externally massless.
GR doesn't fail such a test, because it says no such thing. All the external solutions for black holes care about is that the mass is within the event horizon or really close to the event horizon. To any external viewer, the in falling material will quickly appear to approach very close to the event horizon but not be seen to fall through the event horizon. The matter distribution as seen will generate the same external solutions to the field equation as there being a singularity and is completely consistent with there being a speed of light limit to gravity. You can even take this a step further and workout what happens if you drop two dense bodies into the black hole such that they will radiate gravity waves. Once they pass the event horizon, the gravity waves will no longer be emitted outside the black hole. GR neither allows nor requires for gravity to "escape" a black hole, and gives a consistent picture for observers in different frames.