Nothingness flows within all materialized things from the biggest of stars to
the very smallest atom.
Not exact matches
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.
«Everything happens in a
small vacuum chamber where we have a
very dilute vapor of
atoms which are cooled close to absolute zero,» Lukin said.
An answer may come from the attempts the people are making to try to develop a theory of quantum gravity because under one of the models for this called up loop quantum gravity spacetime itself almost consists of, like, you can think of it is like a little a
atom of spacetime; and one possibility is that when you start to cram everything
very close together when space itself is packed down into a
small enough point that it can't keep shrinking it, it can't keep compacting it.
«Incredibly
small groups of
atoms, much too
small to display exact statistical laws... play a dominating role in the
very orderly and lawful events within a living organism.
The challenge was to explain how genes act lawfully, and cause organisms to behave lawfully, while being composed of a
very small number of
atoms, a significant proportion of which may be behaving unlawfully.
Ye is most excited about the future possibility of using the
atoms in the clock as a gravity sensor, to see how quantum mechanics, which operates on
very small spatial scales, interacts with general relativity, the theory of gravity, a macroscopic force.
However, the distance between
atoms is
very small, at about 100 picometer, and the bonding is completed
very quickly, taking less than one picosecond (ps).
It describes, with incredible precision, the bizarre and counterintuitive behavior of the
very small:
atoms and electrons and other wee beasties of the submicroscopic world.
Small - scale objects like
atoms and electrons, on the other hand, seem to follow the
very different laws of quantum mechanics.
Exposing a
small cluster of neon
atoms to a
very short and intense burst of extreme ultraviolet light initiates a novel mechanism that produces a large number of electrons and ions.
But the
small telescope may be better at looking even farther into the past than the larger arrays, allowing it to look at hydrogen
atoms heated by the
very first stars, Bowman says.
«Typically quantum properties show up on
very small scales — an electron or an
atom.
Indeed, under these conditions an
atom belonging to a given sublattice has only a
very small number of neighbors (one or two) in each of the other sublattices, and the molecular field method, which consists in replacing the instantaneous action of an
atom by that of an average
atom, will be more likely to yield a correct result, the larger the number of
atoms to which it is applied.
The latter explains the world of the
very small, the microscopic realm of
atoms and subatomic particles.
«The ability to use surface - science methods to understand how a single
atom of gas behaves when it is confined in a
very small space opens up lots of interesting questions for researchers to answer.»
It can not be seen, but if it exists it means that the ordinary matter made of
atoms that scientists have been studying for three hundred years is only a
very small, unimportant constituent of the Universe.
Since the binding energies of the electrons are
very small, the DC detector electric field used in the experiment was strong enough to ionize these Rydberg
atoms, leading to the emission of low energy electrons.
String theory has emerged as the most promising approach to unifying quantum mechanics — the laws governing
very,
very small things such as
atoms, nuclei and quarks — with general relativity, which describes the world on a scale as large as that of stars and galaxies.
At this
very small scale (less than 10
atoms), the silver clusters act
very differently and can even emit light.
But to a
very small degree, the electron still feels the presence of the neutral
atoms along its path.
Electrons race through the metal with a speed of several million meters per second, and the distance they have to cover between two adjacent
atoms is
very small.
(Either way, the chance is
very small that a carbon
atom in the ocean will be incorporated into organic matter or chemically combined with a carbonate cation to form calcium carbonate that will end up sequestered in sediments, where it might remain for hundreds of millions of years.)
The researchers also hope to gain insight into the make - up of the
very early universe, by studying the hydrogen and helium
atoms that are being illuminated by the
small number of
very bright stars within the Little Cub — which also has the less romantic name SDSS J1044 +6306.
An international team of astronomers has looked at something
very big — a distant galaxy — to study the behavior of things
very small —
atoms and molecules — to gain vital clues about the fundamental nature of our entire Universe.
The plasma science frontier is often, but not limited to, the extremes of the plasma state, ranging from the
very small (several
atom systems) to the extremely large (plasma structure spanning light years in length), from the
very fast (attosecond processes) to the
very slow (hours), from the diffuse (interstellar medium) to the extremely dense (diamond compressed to tens of gigabar pressures), and from the ultracold (tens of micro kelvin) to the extremely hot (stellar core).
This ratio is changing over time (
very slowly), as the nuclear reactions continue, converting
smaller atoms into more massive ones.
In the world of the
very small, where particle and wave aspects of reality are equally significant, things do not behave in any way that we can understand from our experience of the everyday world... all pictures are false, and there is no physical analogy we can make to understand what goes on inside
atoms.
The
very smallest PCs might be termed the «stick class,» vanguarded by the
Atom - CPU - powered Intel Compute Stick we first reviewed in early 2015 (and again in its refreshed, Cherry Trail
Atom and Core m3 forms in 2016), followed by similar sticks from Lenovo and Asus.
The large
atoms Kr and Xe do not appear to be fractionated by this process, despite the large size difference between the two gases, suggesting a threshold atomic diameter of 3.6 Å above which the probability becomes
very small that the gas will escape from the bubble».