Sentences with phrase «very tiny objects»

But now they are becoming a reality — at least for moving very tiny objects.

To date, theoretical physicists have developed theories that explain how parts of the universe work: classical mechanics for objects at everyday sizes and speeds, quantum mechanics for very tiny objects at everyday speeds, special relativity for things that approach the speed of light.

Not exact matches

As a matter of fact, the very tiniest region deep inside the structure is actually outside the structure in the same way that any object in the hole of a donut is outside the donut.

In a few thousand years of recorded history, we went from dwelling in caves and mud huts and tee - pees, not understanding the natural world around us, or the broader universe, to being able to travel through space, using reason to ferret out the hidden secrets of how the world works, from physics to chemistry to biology, we worked out the tools and rules underpinning it all, mathematics, and now we can see objects that are almost impossibly small, the very tiniest building blocks of matter, (or at least we can examine them, even if you can't «see» them because you're using something other than your eyes and photons to view them) to the very farthest objects, the planets circling other, distant stars, that are in their own way, too small to see from here, like the atoms and parts of atoms themselves, detected indirectly, but indisputably THERE.

Tiny and very faint, this fast moving object (centre) was captured by astronomers as it passed through our Solar system.

Objects are made up of very tiny molecules.

In addition to cruising, he may be using his hands for some very important tasks, including holding his cup, picking up tiny objects, playing patty - cake, and waving bye - bye.

«Traditionally people make this kind of material very tiny, fingernail - sized, and it would take maybe a week to coat a small object like this,» says Sun.

Capturing clear images of objects as tiny as a single virus or a nanoparticle is difficult because the optical signal strength and contrast are very low for objects that are smaller than the wavelength of light.

Tiny and very faint, this fast moving object (centre) was captured by astronomers as it passed through our Solar system.

Other useful properties of synchrotron light are: - high energy beams to penetrate deeper into matter - small wavelengths permit the studying of tiny features, e.g. bonds in molecules; nanoscale objects - synchrotron beams can be coherent and / or polarised, permitting specific experiments - the synchrotron beam can be made to flash at a very high frequency, giving the light a time structure.

If this appears ghoulish, consider the work of Charles LeDray, who makes exquisite — and very tiny — versions of everyday objects (a chair, a ladder, a shaft of wheat) out of hand - carved human bone.

If the location L is embedded in a continuous temperature distribution with a continuous CSD distribution, the same will happen for intensities in opposite directions when CSD is large enough, so that the net intensity goes to zero; unless CSD is purely scattering near TOA, this won't happen at TOA because of the lack of radiation from space (except for solar radiation, or for very tiny solid angles directed at specific objects, which can be ignored for our purposes here)

These tiny blocks are very important because any massive changes in color are not apt in such a small quantity if scanned data, and the reflection of any foreign object will be apparent all over the edges