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431 Sentences With "atoms"

How to use atoms in a sentence? Find typical usage patterns (collocations)/phrases/context for "atoms" and check conjugation/comparative form for "atoms". Mastering all the usages of "atoms" from sentence examples published by news publications.

Closest to the star are highly ionized atoms, with less-ionized atoms farther away and neutral atoms in the outermost part of the nebula.
These atoms, like all atoms, appear as central nuclei surrounded by electrons.
They are nearly one hundred atoms wide, not thousands of atoms wide.
"My atoms love your atoms, it's chemistry," Kloss wrote, quoting the poet Atticus.
Polymers can store data in the sequence of individual atoms or groups of atoms.
Bose-Einstein condensates are systems of atoms—in this case, rubidium atoms—near absolute zero.
Scientists have long been able to push around single atoms within clouds of many atoms.
Atoms people are people who think that, no, the world is fundamentally made of atoms.
This ability comes from their chemical makeup: long chains of carbon atoms bonded to fluorine atoms.
Bleeding Earth dry The sun survives by burning hydrogen atoms into helium atoms in its core.
So, we and everything else are made of atoms, and atoms are made of protons and neutrons.
In particular, artificial atoms should be able to combine with other artificial atoms into structures resembling molecules.
A superlattice is basically just a crystal where proper atoms have been swapped out for artificial atoms.
The new gold is 2D and only contains surface atoms without any bulk atoms in between them.
When there are enough fissile atoms close together — a quantity known as critical mass — the particles ejected by fission can strike other fissile atoms, triggering more atoms to split apart and so on.
WHAT if "we can arrange the atoms the way we want; the very atoms, all the way down"?
The four carbon atoms each sprout two little tufts of hydrogen fuzz, for a total of eight hydrogen atoms.
The tests North Korea conducted until now used fission weapons, which break large atoms like plutonium, into smaller atoms.
The tube of atoms has two regions: one where the atoms move slowly, and another where they move quickly.
Their new images show a razor-thin layer, just two atoms thick, of molybdenum and sulfur atoms bonded together.
Physicists at Cern are developing multiple experiments in which they drop antimatter atoms and compare them to regular atoms.
But in larger atoms, it loses its grip, and the atoms decay into more stable elements with fewer protons.
But in larger atoms it loses its grip, and the atoms decay into more stable elements with fewer protons.
From the physical sciences we know that people are made of atoms, and we know a lot about the properties of atoms, and in some theoretical sense we can predict what sets of atoms can do.
The former consisted of cytosine molecules where two hydrogen atoms had been replaced with deuterium atoms—hydrogen with a neutron.
The diamonds with nitrogen atoms swapped for carbon atoms have a leftover electron and a gap in the lattice structure.
A single instance as in, it's just two atoms making a single molecule, rather than many atoms making many molecules.
"We plan to explore atoms of other elements, clusters of atoms, and small molecules as candidate magnetic bits," Lutz wrote.
When this light encounters hydrogen atoms still lingering in the stellar nursery that produced the stars, the atoms become ionised.
But actually, you're not dying: you're just a collection of atoms, and every single one of those atoms will remain.
Among the atoms resulting from neutron bombardment were much smaller atoms like barium, which has an atomic number of 56.
The quantum systems the researchers used are much larger than atoms, consisting of wires made from a superconducting material—sometimes called "artificial atoms" because they have discrete quantum energy states analogous to the electron states in real atoms.
They'd prod the atoms with microwaves tuned to cesium's exact frequency to make the atoms change to their high energy form.
And they let us study a subatomic world, which is as small as compared to atoms, as atoms are to humans.
That allowed them to trap the atoms in a 3D grid while avoiding the deleterious effects of multiple atoms being close together, because at these near absolute zero temperatures, the atoms become aware of their neighbors and essentially synchronize.
Smaller atoms could deliver more collisions for various technical reasons, so scientists want to know if they can actually collide smaller atoms.
To do that, they embedded different noble gas atoms—including argon, krypton and xenon—into a molecular grid made of copper atoms.
As deep as it gets, really—hacking together atoms themselves and then making entirely new sorts of structures from those meta-atoms.
Thanks to the bonds between the atoms, the lattice proved to be much more stable than the lone atoms used by IBM.
Ms. Lagana was right — the graph indicated nothing other than simple bonds between carbon and carbon atoms, and carbon and hydrogen atoms.
It's made by replacing three hydrogen and oxygen atoms in sucrose with chlorine atoms, making it about 600 times sweeter than sugar.
You might remember the phrase "perchlorates" from past Mars water studies—these are molecules that contain chlorine atoms linked to four oxygen atoms.
Foods with fat contain some mixture of these three, and chemically they're all pretty similar (chains of carbon atoms attached with hydrogen atoms).
Radiation, of which space is full, slowly displaces atoms in solids, to the detriment of any electronic components those atoms are part of.
The oxygen atoms form a cubic lattice, but the hydrogen atoms spill free, flowing like a liquid through the rigid cage of oxygens.
And molecules with three atoms like water and carbon dioxide have more ways to vibrate, or "modes," than molecules with just two atoms.
They covered a sheet of copper with chlorine atoms, a process in which the chlorine atoms naturally form a lattice above the copper.
Rather than arranging atoms in various ways, their storage grid is based on atomic vacancies—spaces within a layer where atoms should be.
Describing the behavior of atoms is more complex than describing the collective behavior of the many atoms that make up a human being.
The cold temperature keeps the atoms from moving, and scientists are then able to study aspects of atoms that wouldn't be possible otherwise.
If WIMPs are light, DAMA should see them colliding with light sodium atoms at low energies much more often than with heavy iodine atoms.
A final enzyme, called PsiM, works to replace two hydrogen atoms on the tail with methyl groups, or carbon atoms with three hydrogens attached.
Hydrogen bombs work by harnessing energy created by fusing hydrogen atoms together, unlike atomic bombs, which work by tearing apart atoms through atomic fission.
Practical memories will need to increase this barrier by use of several atoms coupled together, or by exploring more innovative use of individual atoms.
A big 'if' In the past, North Korea has tested fission weapons, which break large atoms like plutonium, into smaller atoms, creating considerable energy.
Then, the electromagnetic knife will scrape off the hottest atoms in the box, and the rest of the atoms will cool down even further.
Researchers want to use atoms that oscillate at a higher frequency to improve accuracy and more atoms to make timekeeping more precise and stable.
Hydrogen bombs differ from other nuclear weapons by harnessing energy created by fusing hydrogen atoms together rather than by tearing atoms apart (atomic fission).
"When the charged particles from the sun strike atoms and molecules in Earth's atmosphere, they excite those atoms, causing them to light up," explains EarthSky .
The team theorized that under high pressure, some of the hydrogen sulfide atoms had taken on extra hydrogen atoms, bestowing them the higher transition temperature.
Due to the relatively low gravity on Mars, the planet couldn't hold on to the lighter hydrogen atoms, but the heavier oxygen atoms stayed put.
It's impossible to make proteins and DNA without nitrogen atoms, and every one of those atoms must be "fixed" before any biology can use them.
Very big atoms are highly unstable, so they almost immediately break apart and decay into smaller atoms — stuff like platinum, gold, silver, and even iodine.
For each round of the experiment, ALPHA scientists shot 500 antihydrogen atoms with laser pulses, causing the atoms' electrons to jump into a higher energy state.
When the particles in cosmic rays collide with the atoms in at the top of the atmosphere, they burst, tearing apart atoms in a violent collision.
A Skylake transistor is around 100 atoms across, and the fewer atoms you have, the harder it becomes to store and manipulate electronic 103s and 0s.
The real advance, says Ye, is the method they used for cooling the atoms to create a gas in which quantum interactions between the atoms dominate.
Most stick with the intuitive description of matter being made of atoms, and atoms being made of elementary particles, with those particles being composed of quarks.
The surface of Jupiter, a planet which might have helium compoundsHere's a popular high school chemistry fact: Helium atoms don't interact with other atoms to create compounds.
All carbon atoms, for instance, have six protons in their nucleus (that is what makes them atoms of carbon, instead of, say, nitrogen, which has seven protons).
This is done by replacing the normal carbon atoms of the diamond with silicon, which has the effect of repelling or crowding out other nearby carbon atoms.
They're not the first to force an object into the motional ground state; in the past, physicists have achieved this in single atoms and clouds of atoms.
Instead, all that energy is created through a nuclear reaction, which slams hydrogen atoms together to create larger helium atoms and some extra energy on the side.
The first team of researchers analyzed Martian meteorites for zircons, special crystals that form out of melting magma and can selectively trap uranium atoms—but not lead atoms.
He and his team are studying universal scaling in a hot gas of potassium-39 atoms by suddenly dialing up the atoms' interaction strength, then letting them evolve.
Using the sharp needle of a scanning tunneling microscope, the researchers were able to probe the atoms one by one, and even drag individual atoms towards a hole.
Created by chemistry set maker Thames & Kosmos along with Pittsburgh-based Schell Games, Happy Atoms teaches kids about building molecules using magnetic atoms that connect in "happy" ways.
Here's how Atoms is modernizing the footwear experience: Image via Jeff Macke Image via Jeff Macke At $179, Atoms are pricier than $100 lifestyle Nikes or $79 Allbirds.
Since all the atoms have the same energy levels at that point, these effectively motionless atoms condense into a state of quantum matter called a Bose-Einstein condensate.
Fission generates energy by splitting atoms apart, whereas fusion — the target of most recent VC investment — creates energy by fusing atoms together, which experts say is less dangerous.
They describe the structure of nickel and iron atoms at high temperatures, how electrons interact in collections of these atoms, and how these elements' behaviors change at high pressures.
ALPHA, for example, will soon be upgraded with equipment that will allow it to drop antihydrogen atoms to see whether they interact with gravity differently than hydrogen atoms do.
Rather than dealing with the nucleus of a single atom, we're cooling many whole atoms together, which means restricting the innate motions—read: quantum fluctuations—of many atoms together.
The two-point correlation function gives you the likelihood that any two atoms will be aligned, the three-point correlation function encodes correlations between any three atoms, and so on.
These are the smallest forces ever detected between individual atoms, and the team will be able to use the results to understand the physical behavior of atoms better than ever.
During photosynthesis they harness the sun's energy to make sugars by combining hydrogen atoms (acquired from water molecules) with carbon atoms (from carbon dioxide), while emitting oxygen as a byproduct.
That involved cooling two types of atoms and then finding a way to bring them close enough to bond, without the atoms heating up from the energy of the collision.
Zoom in or out on, say, iron at its critical point, and you always see the same pattern: Patches of atoms oriented with north pointing up are surrounded by patches of atoms pointing downward; these in turn are inside larger patches of up-facing atoms, and so on at all scales of magnification.
The green of emeralds and the red of rubies, for instance, are both caused by chromium atoms, but the atoms in question are bonded into their respective lattices in different ways.
But, with only a few atoms of it to play with at a time, and with those atoms having lifetimes measured in milliseconds, it seems improbable anyone will ever know for sure.
Atoms in the water had rearranged into the long-predicted but never-before-seen architecture, ice XVIII: a cubic lattice with oxygen atoms at every corner and the center of each face.
Since coal is composed primarily of carbon atoms, each of which combines with two oxygen atoms to form carbon dioxide, burning coal generates about 1.87 times its own weight in carbon dioxide.
The more atoms they use, the more accurate a clock they can build in theory, but more atoms also introduces the chance for inter-atomic interactions that can undo those accuracy gains.
Under even higher pressures, the molecules break apart into individual atoms, and the electrons in the atoms are then able to flow freely and readily conduct electricity — the definition of a metal.
Unlike existing fission reactors, which produce energy by splitting atoms, ITER would generate power by combining atoms in a process similar to the nuclear fusion that produces the energy of the sun.
Another production method is called chemical vapor deposition, or CVD, and that's where scientists take a gas of hydrocarbons along with a metal catalyst and are able to remove the hydrogen atoms from the hydrocarbon, then keep only the carbon atoms and then hopefully these carbon atoms kind of arrange themselves side by side into this graphene lattice form.
Unlike the nuclear fission that powers conventional reactors today, in which atoms are split apart, fusion power is generated when you smoosh two smaller atoms into a larger one inside a containment device.
Compounds are created either by unpaired electrons from different atoms forming joint orbitals called covalent bonds, or by the complete transfer of unpaired electrons between atoms, to create paired orbitals in the recipients.
High in the Martian atmosphere, ultraviolet light breaks apart carbon dioxide into carbon monoxide and oxygen atoms and then closer to the ground, interactions with water shepherd the oxygen atoms into molecular pairs.
The researchers then overlap the beams to trap both atoms.
They entangle these atoms' states using a series of lasers.
Atoms, in turn, are made of protons, neutrons, and electrons.
They obey the same cosmic laws as Einstein's entangled atoms.
The neutrons smash into other atoms, causing them to split.
With these atoms spread around, there's no longer this asymmetry.
Image: Smalyukh labThe problem with atoms is that they're small.
How does matter behave (atoms, molecules and more fundamental particles)?
We can smell particles that are just two atoms large.
For this reason, quantum dots are sometimes called artificial atoms.
Apparently, we can arrange the atoms the way we want.
Additionally, the signal from the vibrating atoms can get fuzzy.
I've spent the last two months wearing Atoms every day.
The entire loop is tiny, the length of 192 atoms.
When you zoom in, it's just atoms just like us.
The company is in the business of atoms, not bits.
Atoms are just getting moved from one place to another.
Unlike existing fission reactors, which produce energy by splitting atoms, ITER would generate power by combining atoms, but it remains unclear whether the technology will work and whether it will eventually be commercially viable.
"If you have a classical supercomputer that can simulate a molecule with at most 10 atoms, then you would have to double the size of that supercomputer just to simulate 11 atoms," said Coles.
Their paper even proposes a simple diffraction experiment to find them, since it would reveal not just how the atoms are arranged in space within a crystal, but how those atoms move over time.
In the hot medium often found between galaxies of the same cluster it's common to find ionized atomsatoms that have been stripped of their electrons such that they're just naked, positively-charged nuclei.
The charged particles excite atoms and molecules in the atmosphere, and when these atoms and molecules return from their excited state, they emit a photon: a small burst of energy in the form of light.
The catch is that for photons to escape these galaxies and go on to ionize atoms, they needed to avoid all of the neutral hydrogen atoms likely to be calling a star-forming galaxy home.
Under the Chomskyan paradigm, we are to assume that human language is built up from what we will call little widgets, just as bodies are built from cells, cells from atoms, and atoms from particles.
Then there's the weak nuclear force, which also occurs within atoms.
This is the ease with which its atoms can shed electrons.
This split the atoms back up once again, "re-ionizing" them.
Yet when the water crystallizes, the atoms form rigid, set arrangements.
Atoms typically have electrons orbiting their nuclei in specific energy levels.
"(That's) more than there are atoms in the universe," Bowling said.
That's where these clocks get their names: they're dealing with atoms.
It is thus more likely to get hit than lighter atoms.
Later, these would break apart into hydrogen molecules and helium atoms.
The secret is in the van der Waals forces between atoms.
These in turn strike other energized atoms, releasing even more photons.
Most carbon atoms have six neutrons, making 12 particles in total.
Physics holds that atoms can behave like both particles and waves.
Two of them are active inside of atoms, the nuclear forces.
Matter is made of many atoms, around which there are electrons.
Meanwhile, nitrogen gas is made from two nitrogen atoms stuck together.
The LHC works by smashing together atoms at incredibly high velocities.
Collectively, the atoms weigh about a thousandth of a single bacterium.
Naturally, this effect was exacerbated when they introduced more misaligned atoms.
The individual atoms melded together, acting as a single coherent particle.
On read, the STM tip does not actually touch the atoms.
This energy field is important because, without it, atoms couldn't exist.
She spent playtime smashing up rocks, looking for the atoms inside.
The spark comes when hydrogen nuclei fuse to become heavier atoms.
Electrons, excited by the extra energy, get separated from their atoms.
Many of the Atoms' victories could not be clocked by stopwatches.
If we didn't have atoms, how could we have atomic bombs?
Chemical and biological weapons could also wreak havoc without splitting atoms.
It gets its energy from splitting heavy atoms in chain reactions.
The gas is made of carbon and nitrogen atoms bonded together.
The fast-moving ionised particles blasted copper atoms off the target.
For example, instead of looking at the behavior of individual atoms that make up matter, we can take little cubes, say 10 atoms wide on each side, and take these cubes as our new building blocks.
The atoms inside the box will be cooled to the point where the atoms change their behavior in ways that could give scientists an even finer understanding of matter, gravity, even dark matter and dark energy.
Firstly, it contains a crapload of xenon atoms—3.2 tons worth of liquid xenon (though, as a note, the xenon isotope used for this measurement makes up only a small fraction of the total xenon atoms).
"You could imagine a metallic spring between every two atoms and the spring elongating when you stretch the two atoms apart," says Erkka Frankberg, a research fellow at Tampere University who studies unconventional forms of glass.
The researchers then excited the atoms with the energy from the laser and measured a "single instance of the chemical reaction" of the two atoms bonding to become NaCs, according to the paper published yesterday in Science.
Dr Bombelli and Dr Howe pointed out that, like beeswax, many plastics are held together by methylene bridges (structures that consist of one carbon and two hydrogen atoms, with the carbon also linked to two other atoms).
These huge atoms might no longer have those well-defined energy levels.
They consist of a densely packed plasma of atoms and their electrons.
Oscillating magnetic fields strip many of the electrons from the lead atoms.
In time crystals, atoms prefer to exist in certain intervals of time.
You might remember that atoms consist of a nucleus orbited by electrons.
Cosmic rays hit the Earth's upper atmosphere and collide with neutral atoms.
These two new teams instead trap atoms with a system of lasers.
That lets these atoms "store" a field orientation for a long time.
Essentially, the atoms themselves become a unit of data, called a bit.
The rays would knock such molecules apart, liberating electrons from their atoms.
When frozen, those atoms are arranged in a highly ordered crystal lattice.
This isn't the first time scientists have positioned individual atoms at will.
One such mystery is cosmic rays, made of tiny bits of atoms.
Negative effective mass is not an innate property of the atoms themselves.
In the tiny, subatomic world, atoms obey the laws of quantum physics.
The microscope images can teach them how and why atoms lock together.
Water (H2O) is made from two hydrogen atoms and an oxygen atom.
In a nuclear power plant, heat is created when uranium atoms split.
Put 8 chlorine atoms in a row and they form a byte.
Anything past that and heat will disrupt the organization of the atoms.
The atoms are really limiting us, whether that's electronic or mechanical components.
Sex is a theological crisis; death is just atoms; God has vanished.
The tip can also add, remove and arrange atoms on a surface.
Nuclear weapons today involve fusing two atoms together in an uncontrolled explosion.
Could the same thing be happening now—to the world of atoms?
Apple, too, is going through a splitting-atoms phase with the iPhone.
If baryons are everything made of atoms, which baryons were they eliminating?
It's no different than a flower when you look at its atoms.
But Atoms is determined to avoid being labeled a Silicon Valley shoe.
Two months of tough wear later, my Atoms are holding up great.
One day, Atoms hopes to create a completely personalized shoe shopping experience.
Different types of atoms are able to absorb energy at different wavelengths.
The heat melts the chemical bonds between the hydrogen and oxygen atoms.
We could be rearranging the atoms in cars to make more food.
Any good stable molecule ought to have two strong atoms to it.
Each water molecule consists of two hydrogen atoms and one oxygen atom.
Atoms with that many protons are too unstable to exist in nature.
But in the case of a black hole, those parts aren't atoms.
And aside from basic science, Killian pointed out that other systems relying on these Rydberg atoms, like some quantum computer architectures we've written about, might need to consider whether the atoms will form Rydberg polarons in the future.
"We have a completely new kind of atom where one electron runs around many atoms—within the orbit of one nucleus there are hundreds of other atoms," study author Joachim Burgdörfer from TU Wien in Austria told Gizmodo.
A team of European physicists trapped atoms of the element rubidium with sets of lasers in two dimensions—the experiment setup was kind of like an egg crate with atoms in it whose boundaries are governed by lasers.
Water molecules look like oxygen atoms each connected to two hydrogen atoms in a wide V. When they freeze into ice, they can arrange into lots of different crystal structures, based on the temperature and pressure during freezing.
In using CAL to study the atoms&apos quantum activity, physicists will be able to better understand how atoms behave at these extreme temperatures, a main thread in physics for over a century,  according to a NASA overview .
Salts heat up and expand, pushing uranium atoms apart and slowing down the reaction (the farther apart the uranium atoms, the less likely a flying neutron will split them apart, triggering the next link in the chain reaction).
The record for stringing together carbon atoms like this in the past had been 100 in a row; now, the team can put 6,400 atoms together, and have them remain in a chain for as long as they want.
But after years of work, Ni's team has figured out how to Parent Trap this union: stick the two atoms in a vacuum chamber with as few other atoms as possible, and steer them with lasers into forced proximity.
It can take a hundred to a thousand times more energy to stretch and break the fibers than it would take to simply break the individual bonds between the tape's atoms and the atoms of the surface, said Ciccotti.
The concept of a half-life essentially says that if you have a batch of atoms, the half-life is the amount of time it will take for half of the atoms to undergo the nuclear decay you're studying.
Since neutrons traveling through heavy water split atoms more efficiently, less uranium should be needed to achieve a critical mass; that's the minimum amount of uranium required to start a spontaneous chain reaction of atoms splitting in rapid succession.
Known as ionizing radiation, it is powerful enough to remove electrons from atoms.
Water, if you remember, has two hydrogen atoms attached to an oxygen atom.
The experiment's results confirmed that each of the buckyball's carbon atoms was indistinguishable.
Gold and lead atoms are relatively pretty big, while protons are very small.
There is a theory that atoms behave differently if they are being watched.
And usually, atoms spit out their light pretty quickly after they've been excited.
Recently, scientists put atoms containing electrons into the machine for the first time.
Diamonds are lattices of carbon atoms where each carbon connects to four others.
This can be done with atoms trapped by lasers, photons, and other systems.
This method makes it much more stable than methods that use loose atoms.
But in all the cases, it's super difficult to spot individual hydrogen atoms.
Nitrates are simple molecules that combine three oxygen atoms with one nitrogen atom.
So, chemistry lesson: Atoms are positively charged nuclei surrounded by negatively charged electrons.
If you take those helium atoms away, the structure will not be stable.
This is the result of the hydrogen atoms "tunneling" between different possible configurations.
Electrons can only exist in certain locations around those atoms, called energy levels.
In nanotubes, carbon atoms are organized in a helix made of hexagonal arrays.
It would help if the atoms could be made stable at room temperature.
They found that the wavelength agreed with what was seen in hydrogen atoms.
They form when heat and pressure restructure the carbon atoms in this region.
This makes it so the rubidium atoms in the cloud are hardly moving.
Can we consider ourselves cannibals because we may eat the atoms of humans?
Check out the short below: Atoms of Uncontrollable Silence from Convolv on Vimeo.
The atoms of my body have rearranged themselves into something still and quiet.
As dictated by quantum mechanics, the atoms behave both like particles and waves.
The tip of a scanning tunneling microscope is just a few atoms wide.
Atoms of a single element but of different masses are known as isotopes.
The molecule, H₃⁺, is made up of three hydrogen atoms (minus an electron).
Molecules typically join together through covalent bonds, with their atoms sharing electron pairs.
Weird science What do leafy greens, atoms and fire all have in common?
Atoms then split apart in furious chain reactions, releasing huge bursts of energy.
It is not made up of atoms and doesn't carry an electric charge.
The second is defined by characteristics of the atoms in the element cesium.
Isotopes of atoms that can split apart (undergo fission) are described as fissile.
Nuclear fission, the splitting of atoms to release neutrons, is unpredictable and volatile.
The quality and number of the bonds that carbon atoms can form with each other and with atoms of other elements provide a unique versatility when it comes to the creation of large and complex molecules; no other element comes close.
Using their computer, the researchers modeled the behavior of a few simple molecules with two hydrogen atoms, a lithium atom bonded to a hydrogen atom, and beryllium hydride, a beryllium atom bonded to two hydrogen atoms, according to the paper.
The velocity of the atoms in the fast-moving region is greater than the speed of sound in those atoms, and the transition point between these two regions is analogous to water going over a waterfall: a very sudden acceleration.
It's where the the atoms are fused using an electric field to heat them.
Its dense mix of hydrogen molecules and helium atoms constantly produce stars and planets.
These neutral atoms then absorbed the bright ultraviolet light coming from the first stars.
The radiation ionizes, or knocks the electrons off of, the atoms in the gas.
Adding an oscillating magnetic field allowed the atoms to switch between these two states.
To perform this function, the atoms must be arranged in a highly unusual form.
Zoom all the way in and you'll find that matter is made of atoms.
But atoms might not be the only things that participate in this explosive reaction.
It begins with a lasing medium—a synthetic sapphire crystal with added titanium atoms.
Padraig Reidy is the editor of Little Atoms and the editorial director of 89up.
Cluster A of atoms repeats at one frequency and Cluster B at another frequency.
If axions are flying through the xenon, they should set its atoms' nuclei wobbling.
While precise, these eventually stop being accurate, as their atoms get lost over time.
I don't think there's any secret sauce that absolutely requires carbon atoms or blood.
These atoms tend to move, and all these studies are done at low temperature.
Uber has broken up with the bits and atoms logo it unveiled in 2016.
The search led physicists to atoms, which "tick" naturally thanks to their physical properties.
Strontium 87's atoms tick at femtoseconds—that's 1 million billion times per second.
Now, for the first time, those tiny forces have been measured between two atoms.
Typically, scientists create quark matter in colliders by slamming atoms together at high energies.
It's as if your upbringing as a bastard child has split you into atoms.
PTFE is a polymer—a long chainlike molecule—made of carbon and fluorine atoms.
Jun Ye makes the world's most precise clocks using lasers and oscillating strontium atoms.
When sunlight hits these airborne chemicals, it unleashes chlorine atoms which destroy ozone molecules.
This manipulation would mean that information, like text, could be written using atoms themselves.
But the Starshot design calls for lightsail material only a few hundred atoms thick.
One method is to look at the light emitted or absorbed from hydrogen atoms.
Essentially Optane memory uses material that stores information based on the state of atoms.
Atoms, the smallest building blocks in nature, have their appeal as a storage medium.
Otte explained that the chlorine atoms bond to the copper via an ionic bond.
In a quasicrystal, imagine atoms are at the points of the objects you're using.
When I hire an Uber car, I am not thinking of bits and atoms.
The second is affixed to the motion of the atoms of the element cesium.
"I wanna introduce to an amazing pile of atoms," says bandmate Claypool, also enamoured.
Radiation broke apart the water molecules, and the lighter hydrogen atoms escaped to space.
Fish, trucks, atoms, bears, whiskey, grass, rocks, lacrosse, weird prehistoric oysters, grandchildren and Pangea.
CLEMENT And I answered by describing the atoms in the air refracting different colors.
Space becomes a bath of radiation; atoms dissolve into a fog of subatomic particles.
If the fissioning atoms released more neutrons, those "secondary" neutrons would irradiate the manganese.
The energy comes from breaking apart high-mass atoms like uranium into smaller pieces.
Everybody believes in atoms, even people who don't believe in evolution or climate change.
The most well-known of the leptons is the familiar electron, found around atoms.
Even the microscopic movements of atoms in the mirrors can create a false alarm. 
We're supposed to be thinking about actual physical matter, so the answer is ATOMS.
President Eisenhower's "atoms for peace" program was a spinoff from the nuclear weapons industry.
For reference, one sheet of paper is hundreds of thousands of atoms in thickness.
In fact, it comes from one of the universe's simplest components: neutral hydrogen atoms.
Accumulating the particles over two hours, they managed to collect about 500 anti-atoms.
These nuclei like to steal electrons from other particles, including co-mingling hydrogen atoms.
The electrons then knocked other electrons out of the sulphur atoms, leaving charged ions.
But not all uranium atoms can easily split apart and trigger a chain reaction.
We have carbon atoms bonded together the same way they are in diamond, but in a very thin thread capped off with hydrogen atoms, and many of these threads, parallel to each other, may be one day woven together into a fabric.
That gives us the number of carbon atoms (n) per tree: Then, since everybody plants a tree, and assuming they're all the same, the total amount of captured carbon atoms (N) would just be that number times 7.5 billion, the population of Earth.
Even today, when many people have at least a rudimentary understanding of atomic bombs and know that the source of their vast energy is the splitting of atoms, few have any idea what heavy water is or its role in splitting those atoms.
It purports to pick up on rare interactions between the hypothesized particles and ordinary atoms.
The radiation can also be used to study individual atoms or molecules under extreme conditions.
These plasmas become photoionized, meaning light particles give atoms an electric charge via various processes.
The universe's speed of light is represented as the speed of sound through the atoms.
The physicists hope to one day use these accelerated atoms in a next-generation experiment.
Physicists use lasers to trap and cool atoms to temperatures extremely close to absolute zero.
It demonstrates that scientists may soon be able to laser-cool antimatter atoms as well.
Because when the atoms within get close enough together, they push back against each other.
Each sensor contains a gas of rubidium atoms with properties aligned by a laser beam.
It takes images in single wavelengths, which represent light emissions from different species of atoms.
On a microscopic level, heat is simply atoms vibrating off one another, in constant motion.
Auroras form when high energy particles around magnetic poles collide with gas atoms, NASA explains.
Conventional molecules are held together by bonds in which electrons from neighbouring atoms pair up.
In other words, we kept finding ways to use fewer atoms by using more bits.
But with transistors now the size of dozens of atoms, improvements have become less predictable.
As collections of atoms ourselves, we are admittedly reflective, though it's hard to say why.
That question became: Do certain periodic behaviors of a collection of atoms have preferred tempos?
Electrons had yet to be discovered and Mendeleev himself was sceptical that atoms really existed.
Now, because the atoms are all charged, they also exert a force on each other.
It's not comprehensive—a child at least needs to know what atoms are going in.
As the atoms get excited or return to their normal state, they emit visible energy.
Most carbon atoms have 12 neutrons in their nuclei, but about 1% sport a thirteenth.
Quantum theory works extremely well at the scale of photons, electrons, atoms, molecules, even macromolecules.
But hydrogen bombs use fusion, which take small atoms -- such as hydrogen -- and combine them.
A fusion bomb achieves a much more powerful effect by combining atoms — often from hydrogen.
This method can image materials normally transparent to electrons, such as lightweight atoms like lithium.
It won its inventors a Nobel prize, allowing scientists to see and manipulate individual atoms.
The $359 educator's bundle comes with 250 atoms, while a 50-atom set costs $129.
Having these loose hydrogen atoms gushing around would also boost the ice's disorder, or entropy.
To Golden it seemed awfully similar to the arrangement of atoms in a magnetic material.
When the atoms get whipped into a frenzy, they emit photons that shine like stars.
That sends acoustic waves up vertically, which then vibrate the atoms in the upper atmosphere.
This form of photosynthesis is known as C3, because these intermediates contain three carbon atoms.
That frequency puts the caesium atoms' oscillations within the microwave band of the electromagnetic spectrum.
The DNA woven through our bodies contains about as many atoms as galaxies have stars.
Silicon atoms embedded into a diamond lattice are able to emit much narrower wavelength bands.
Nor will Saturn, now forever polluted by a few stray atoms from the blue planet.
Ice phases are differentiated according to the shape of the atoms in the ice crystals.
The right quarter-size Atoms for each foot makes them feel molded to your body.
Now Atoms is trying to build more commerce innovation to turn buyers into lifetime wearers.
But if you want understated, durable shoes you don't have to think about, Atoms excel.
When three atoms interact, their behavior appears erratic because it is governed by quantum mechanics.
In these conditions, carbon atoms build on a tiny man-made or natural diamond seed.
The device launches the atoms inside a cylindrical column and times how quickly they fall.
Heat makes atoms move around randomly, and the higher the temperature, the more they move.
One such mystery is cosmic rays, radiation from space made of tiny bits of atoms.
"The Atoms doesn't really stand for track," he told The New York Times in 1978.
The object helped redefine a kilogram in terms of the number of atoms it contains.
Then, they pumped and trapped a pulse of cold rubidium atoms, then released the trap.
The difference is that current gold nanoparticles are 3D and the atoms comprise the bulk.
These rays break down atoms in the grain into fragments, such as carbon into helium.
Instead, Dr. Urban is embedding hydrogen atoms in solids, which are much denser than gases.
This leads atoms inside a painting to ionize and emit electromagnetic waves of their own.
Its structure was sturdy enough so that its peripheral atoms wouldn't fall off during launch.
One telescope will observe green emissions from ionized iron atoms in the sun's outer atmosphere.
Inside the plant, atoms are split, generating enough emissions-free power for a million homes.
Those particles go on and hit other atoms in the atmosphere, making even more particles.
Our sun survives by burning hydrogen atoms and converting them into helium at its core.
The science of atoms and molecules was not yet available to aid in the explanation.
Before this, researchers had to search for emitter atoms among about 1,000 randomly occurring defects—that is, non-carbon atoms—in a diamond substrate of a few microns to find even one that emitted strongly enough to be useful at the single photon level.
The nuclei of some atoms absorb and re-emit radio waves in a strong magnetic field.
Scientifically, I always knew that things are always moving: atoms, molecules, things are always interacting, transforming.
When they are forced together, some of the hydrogen atoms fuse to one another, creating helium.
Xenon atoms are right in the middle—meaning this work can help fill in the holes.
The scientists manipulated single atoms from a cloud of many using lasers to create a molecule.
According to TechCrunch, Atoms co-founders Waqas and Sidra Ali have obtained $560,000 in seed funding.
The electrons then drop back down, and the antihydrogen atoms release photons with a characteristic wavelength.
You mix some chemicals with some other chemicals, and you get molecules—multiple atoms bonded together.
They have an arrangement of atoms and molecules that were deemed impossible, and yet they exist.
Only the strongest could manage that clinamen, that Lucretian swerve of the atoms which achieved change.
But then they started to slow, which enabled them to help corral atoms, stars and galaxies.
Eating it spreads the radioactive atoms throughout the body, which can up your risk for cancers.
The atoms were discovered in the Martian mesosphere, the upper layers of the red planet's atmosphere.
Space is filled with cosmic rays — tiny fragments of atoms — all with varying amounts of energies.
So if you warm the surface up to room temoperature then the atoms start to diffuse.
If you remember back to high school chemistry, electrons arrange themselves inside specific shells around atoms.
After the Big Bang, HeH+ formed in a molecular bond when helium atoms and protons combined.
They all join the hot potato fun, shifting into relationships as easy as atoms sharing electrons.
This is to employ hydrogen atoms pre-loaded with neutrons—either one (deuterium) or two (tritium).
Muon particles originate from interactions between cosmic rays from space and atoms of Earth's upper atmosphere.
If you want to know how atoms stick together, for instance, quantum mechanics has your back.
Most designs work by tapping into the energy levels of atoms that are prodded with microwaves.
Other experiments have produced this "quark-gluon plasma" before, by slamming together comparatively enormous lead atoms.
This caused the light to scatter in between atoms, which eventually formed the regular crystalline pattern.
Free-floating hydrogen atoms are compressed in an electromagnetic field until they create a fusion reaction.
It is about making creases in everything from steel to sheets of carbon mere atoms thick.
It relies on the fact that not all atoms of a given element are created equal.
But cooling clouds of atoms to ultra-low temperatures requires suspending them using magnets or lasers.
Under normal conditions, these gas atoms bounce off of one another in all sorts of directions.
Now, we store bits via transistors, the smallest of which approach the scale of single atoms.
"Once the atoms are going fast, sound waves can't go forward across the flow," said Steinhauer.
The world of these near-macroscopic atoms was like a warped version of our own reality.
In particular, Muller is studying thin materials, one to two atoms thick, that exhibit unusual properties.
He created an exotic fluid called a "Bose-Einstein condensate" out of super-cooled rubidium atoms.
But Happy Atoms solves a unique and pressing problem: how to teach chemistry in three dimensions.
The game of Go, notably, has more potential moves than there are atoms in the universe.
The domain walls made by the Queen's University team are almost only a few atoms thick.
Different kinds of knots would correlate to different kinds of atoms — hydrogen or oxygen, for example.
Chip scientists are nearly at the point where they are manipulating material as small as atoms.
Transistors will soon reach fundamental physical limits when they are made from just handfuls of atoms.
Atomic clocks are just atoms that vibrate in a very special way in response to light.
A 300-qubit computer would have more possible states than there are atoms in the universe.
Radioisotopes like nickel are unstable, meaning the atoms cannot hold themselves together and they break down.
How does one change the radio station when your radio receiver is only two atoms wide?
Much better, he said, would be to begin with physics, including a basic understanding of atoms.
The networked quantum emitters take the form of single silicon atoms embedded in a diamond matrix.
They are made up of repeating chemical units stitched together in long chains via carbon atoms.
Smaller than that, the design features on a chip become no bigger than 10 individual atoms.
When the electrons and ions in a plasma recombine, the atoms glow and emit visible light.
Carbon nanotubes are carbon atoms arranged in a single layer and rolled into a cylindrical form.
The gold is made up of two layers of atoms stacked on top of each other.
Those particles then move through the detector, banging into argon atoms and knocking their electrons off.
These pumps move positively charged sodium atoms out of cells, giving their interiors a negative charge.
Scientists believe the unique "dome" shape is caused by waves of oxygen atoms in the atmosphere.
But up in those heights, ultraviolet light from the sun separates the atoms in these molecules.
That stage is fusion: mashing hydrogen atoms together in the same process that fuels the sun.
When these relatively light atoms join together, they unleash neutrons in a wave of destructive energy.
These chemicals in the dye are simultaneously reduced — in other words, they lose some oxygen atoms.
Doser thinks that the anti-atoms will fall at exactly the same rates as regular matter.
Agency doesn't exist among the atoms, and so reductionism suggests agents don't exist at all: that Romeo's desires and psychological states are not the real causes of his actions, but merely approximate the unknowably complicated causes and effects between the atoms in his brain and surroundings.
Watch more from Motherboard in 360/VR: Next Door to a Nuclear Plant Unlike the nuclear fission that powers conventional reactors today, in which atoms are split apart, fusion power is generated when you smoosh two smaller atoms into a larger one inside a containment device.
The reasoning: If a well-accepted First Amendment protects bits in the form of speech and code, and a contested Second Amendment protects atoms in the form of guns, then by turning guns into code (ie, atoms into bits) we get First Amendment protection for guns too.
During the past two hundred years, we have burned immense quantities of coal and gas and oil—in car motors, basement furnaces, power plants, steel mills—and, as we have done so, carbon atoms have combined with oxygen atoms in the air to produce carbon dioxide.
As I stared out the window, looking down at the vast brown carpet of the Atacama below me, I considered my situation with strange clarity: I was a collection of bound-together atoms surrounded by other atoms hammered into the shape of a metal airplane tube.
And remember, the marbles in this analogy are atoms, the smallest unit of matter, so they're that much more difficult to manipulate, and it takes far longer to get the quantities you need when you're trying to go from atoms of uranium to tons of it.
After a few milliseconds, bursts of atoms fly out of the system in jets that resemble fireworks.
This clock consists of strontium atoms held in place by lasers, cooled to just above absolute zero.
At an even smaller scale than that, the strong nuclear force holds particles inside of atoms together.
The atoms won't blow apart until the force of the spin overcomes the force holding them together.
The new system looked the way many Bose-Einstein condensate experiments look, with lasers trapping rubidium atoms.

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