Sentences with phrase «time by the atoms»

The complex pattern of memories, aspirations and actions which make up a character were carried for a time by the atoms of her body, but we believe they are also stored up in the Cloud of God's being.

Not exact matches

«Most of our companies are atoms leveraging bits» — lab science aided by computing power — «and they generally take more capital and a longer time horizon to hit those key milestones,» says Lindy Fishburne, executive director at Breakout Labs and managing director at Breakout Ventures.

Since no one has yet to SEE an atom, the idea of the structure of the atom can only be inferred by experimental evidence — yet I see no Republican trying to stop teaching the structure of the atom in school — oh that's right, its because major corporations and industries rely on this science (pharm, weapons manufacturers etc etc) whereas the theory of evolution is merely think piece of scientists on how life on Earth changes over time.

«The limitations of quantum thermal dynamics may only be attributed by the heated degradation effects in timed probabilities upon perpetual decaying ratios of certain atoms structuralized accolades of which quantum physics remains allegorically aloof upon and can not be soundly fathomed via any mathematical physics conveyances which by the way are fraught with faulty mathematical probabilities and unreasoned factual soundings.»

He goes on to comment: «if we wish to explain the observed world in terms of Matter without reference to Mind, then it must be explained by things material, ultimate and simple all at the same time — by indivisible, notional «atoms» and a chance «swerve» that sets them in random motion.

Diane, a senior at Brooklyn Tech and a member of the Atoms mile - relay team that until recently held the women's indoor world record, won the 400 in 53.67, the fastest time ever run by a schoolgirl.

For the first time, researchers have made a molecule simply by pressing two atoms together and making them bond on command.

For the first time, we've made a molecule by pressing two atoms together to make them bond on command.

Heinrich highlighted his breakthrough by configuring 96 iron atoms five times, with each configuration representing one byte of code, to spell IBM's motto: T - H - I - N - K.

The number of times per second that the atoms shift back and forth defines the wave's frequency, experienced by the human eardrum and brain as pitch.

The second is currently defined by caesium atomic clocks, but optical clocks promise higher precision because their atoms oscillate at the frequencies of light rather than in the microwave band, so they can slice time into smaller intervals.

If two neutron stars were to merge in a nearby galaxy, the resulting wave would squish and stretch the space - time near Earth by about a millionth of the diameter of an atom as it passed through us.

For the first time, they managed to control the shape of the laser pulse to keep an electron both free and bound to its nucleus, and were at the same time able to regulate the electronic structure of this atom dressed by the laser.

Photons that enter the crystal at one end bounce back and forth between these «mirrors» a few thousand times before they can escape, which increases their likelihood of getting absorbed by an atom along the way.

The catalytic action of individual Ni atoms at the edges of a growing graphene flake was directly captured by scanning tunneling microscopy imaging at the millisecond time scale, while force field molecular dynamics and density functional theory calculations rationalize the experimental observations.

Now a team led by physicist Andre Clairon of the Paris Observatory in France has stretched out the interaction time drastically by using a trick with two laser beams to launch a single «ball» of 600,000 cesium atoms into a vacuum.

By the time BBN ended, most neutrons were locked up in the nuclei of helium atoms.

Platzman's and Mills» gamma - ray laser proposal involves generating coherent emission of these 511 keV photons by persuading a large number of Ps atoms to commit suicide at the same time, thus generating an intense gamma - ray pulse.

That calculation requires measuring the x-rays» intensity and determining their phase, the relative timing — a harder problem traditionally solved by comparing the diffraction pattern from a pure crystal with one from a similar crystal in which heavy metal atoms substitute for some components of the crystal.

CLOUDS of trillions of atoms have for the first time been linked by quantum «entanglement» — that spooky, almost telepathic link between distant particles.

Mohideen has started by trying to measure gravity over distances of a few hundred nanometers, a thousand times the diameter of an atom.

Just as the quartz crystal in a Swiss watch keeps time by vibrating at a steady frequency (about 32,000 cycles per second), the maser coaxes a supply of specially selected hydrogen atoms to emit radio waves at an unwavering 1.42 billion cycles per second.

After decades of effort, physicists have probed the inner workings of atoms of antihydrogen — the antimatter version of hydrogen — by measuring for the first time a particular wavelength of light that they absorb.

After decades of effort, physicists have probed the inner working of atoms of antihydrogen — the antimatter version of hydrogen — by measuring for the first time a particular wavelength of light that they absorb.

Teeth and nails are good for measuring radiation because they pick up free radicals (atoms, or ions, with unpaired electrons) created by ionizing radiation and can retain them for long periods of time, says Harold Swartz, a Dartmouth Medical School professor of radiation oncology and director of the Dartmouth Biodosimetry Center for Medical Countermeasures against Radiation.

«By changing one carbon atom in the backbone of an alkane molecule, we can make it flow 30 times faster.»

Critically, the confinement times achieved by ALPHA imply that the antihydrogen atoms have had time to decay into their lowest - energy, or ground, state.

Although entropy must increase over time in an isolated or «closed» system, an «open» system can keep its entropy low — that is, divide energy unevenly among its atoms — by greatly increasing the entropy of its surroundings.

Similarly, other physicists showed in 1997 that if the Higgs boson were five times heavier than it is, this would suppress the formation of atoms other than hydrogen, resulting, by yet another means, in a lifeless universe.

«This means clumps of atoms surrounded by a bath at some temperature, like the atmosphere or the ocean, should tend over time to arrange themselves to resonate better and better with the sources of mechanical, electromagnetic or chemical work in their environments,» England explained.

Although neon is a relatively simple atom with a total of ten electrons, the experiment required both extremely careful timing, with a level of accuracy within one billionth of a billionth of a second (known as an attosecond), and extremely sensitive electron detection that could distinguish between electrons whose speed differed only by around one thousandth of an attojoule (a millionth of an electron's stationary energy).

By coaxing two puffed - up atoms into a delicate do - si - do, Heiner Saßmannshausen and Johannes Deiglmayr, both at the Swiss Federal Institute of Technology in Zurich, have made a two - atom molecule that is 1000 times bigger than normal.

At present, the world time standard is defined by the energy difference between two particular energy levels in ground states of the cesium atom.

Publishing in Science, researchers led by EPFL combine various experimental and computational methods to measure for the first time the energy needed to change the magnetic anisotropy of a single Cobalt atom.

Researchers have known for some time that atoms can perform a bizarre trick called a spin wave — the quantum equivalent of a sports audience's «wave» — by varying the directions in which their magnetic fields rotate.

Laser physicists at LMU Munich and the Max Planck Institute of Quantum Optics (MPQ) have now measured the duration of such a phenomenon — namely that of photoionization, in which an electron exits a helium atom after excitation by light — for the first time with zeptosecond precision.

That's why we can tell the age of rocks, fossils and prehistoric artefacts by the activity of radioactive atoms within them, and why nuclear waste becomes less toxic over time.

The international standard for time is set by atomic clocks — room - sized apparatuses that keep time by measuring the natural vibration of atoms in a vacuum.

By using what is known as an ion microscope to detect these ions, the scientists were able, for the first time, to observe the interaction of two photons confined in an attosecond pulse with electrons in the inner orbital shells of an atom.

The clusters of lead atoms formed 1 billion years after crystallization of the zircon, by which time the radioactive decay of uranium had formed the lead atoms that then diffused into clusters during reheating.

Benoit and her team were able to manipulate the time it took for hydrogels to dissolve by modifying groups of atoms — called degradable groups — within the polymer molecules.

At that time, an obscuring fog of neutral hydrogen atoms was being burned off by radiation from the first stars and galaxies, and possibly also from the annihilation of dark matter particles.

Weizmann Institute scientists have demonstrated for the first time a photonic router — a quantum device based on a single atom that enables routing of single photons by single photons.

They keep time by tracking the hyper - regular movements of a group of atoms between two energy levels.

The logic clock is based on a single aluminum ion (electrically charged atom) trapped by electric fields and vibrating at ultraviolet light frequencies, which are 100,000 times higher than microwave frequencies used in NIST - F1 and other similar time standards around the world.

By extending the coherence time of electron states to over half a second, a team of scientists from Berkeley Lab, UC Berkeley, and Harvard University has vastly improved the performance of one of the most potent possible sensors of magnetic fields on the nanoscale — a diamond defect no bigger than a pair of atoms, called a nitrogen vacancy (NV) center.

Nitrogen, in the form of nitric oxide (one nitrogen atom and one oxygen atom), has been detected for the first time on the surface of Mars by a team of researchers using the Sample Analysis at Mars (SAM) instrument suite aboard NASA's Curiosity rover, adding to the growing speculation that life could have once flourished on ancient Mars.

«Our approach provides atom - by - atom control of the size and electron - by - electron control of the charge state of metal clusters on surfaces,» said Dr. Grant Johnson, a physical chemist involved in the study and former Linus Pauling Fellow who recently joined the Laboratory as a full - time scientist.

Nanotechnology refers to manipulating the structure of matter on a length scale of some small number of nanometers, interpreted by different people at different times as meaning anything from 0.1 nm (controlling the arrangement of individual atoms) to 100 nm or more (anything smaller than microtechnology).

However, about six anti-neutrinos are released every time a uranium atom is split to release energy, so the number coming from a nuclear reactor is so large that a cubic - meter scale detector can record them by the hundreds or thousands per day.