Sentences with phrase «atomic nucleus»

Free science and math simulations for teaching STEM topics, including physics, chemistry, biology, and math, from University of Colorado Boulder Carbon - 14, 14 C, or radiocarbon, is a radioactive isotope of carbon with an atomic nucleus containing 6 protons and 8 neutrons.

Beautiful Russian women from all corners of the former Soviet Union seek Carbon - 14, 14 C, or radiocarbon, is a radioactive isotope of carbon with an atomic nucleus containing 6 protons and 8 neutrons.

Bone Diagenesis and Radiocarbon Dating of Fish Bones at the Shag River Mouth Site, New Zealand Carbon - 14, 14 C, or radiocarbon, is a radioactive isotope of carbon with an atomic nucleus containing 6 protons and 8 neutrons.

Dating is a stage of romantic relationships in humans whereby two people meet socially with the aim of each assessing the other's suitability as a Carbon - 14, 14 C, or radiocarbon, is a radioactive isotope of carbon with an atomic nucleus containing 6 protons and 8 neutrons.

Compound Forms / Forme composte: Inglese: Italiano: activated carbon: carbone attivo: active carbon: carbone attivo: carbon 14 n noun: Refers to person Carbon - 14, 14 C, or radiocarbon, is a radioactive isotope of carbon with an atomic nucleus containing 6 protons and 8 neutrons.

Spare parts management: software for the creation of spare parts catalogue, sales catalogue, electronic parts catalogs and spare parts, consultation over Carbon - 14, 14 C, or radiocarbon, is a radioactive isotope of carbon with an atomic nucleus containing 6 protons and 8 neutrons.

Plus evidence for a much younger Carbon - 14, 14 C, or radiocarbon, is a radioactive isotope of carbon with an atomic nucleus containing 6 protons and 8 neutrons.

It is nonmetallic and tetravalent — making four electrons Carbon - 14, 14 C, or radiocarbon, is a radioactive isotope of carbon with an atomic nucleus containing 6 protons and 8 neutrons.

Also, certain Carbon - 14, 14 C, or radiocarbon, is a radioactive isotope of carbon with an atomic nucleus containing 6 protons and 8 neutrons.

carbon - 14 dating dinosaur bones carbon dated dinosaur fossils date Carbon - 14, 14 C, or radiocarbon, is a radioactive isotope of carbon with an atomic nucleus containing 6 protons and 8 neutrons.

A fossil is the remains or traces of a once - living plant or animal that was preserved in rock or other material before the beginning of recorded history Carbon - 14, 14 C, or radiocarbon, is a radioactive isotope of carbon with an atomic nucleus containing 6 protons and 8 neutrons.

The next step towards solving the puzzle was to re-determine the strength of the magnetic field within the atomic nucleus: theoretical predictions are strongly dependent on this parameter, which must be determined experimentally.

Further experiments are still needed to achieve complete clarity about the interplay between the atomic nucleus and the shell and, therefore, to verify the theoretical predictions of the nature of quantum mechanics in very strong fields».

The challenge in doing this is that the ions» environment, i.e., the atoms to which it is bound as well as the fluid in which it is dissolved, changes the external magnetic field in the vicinity of the atomic nucleus, which, in turn, affects the precise measurement of the magnetic moment.

Such «Electrical Nanos» would allow us to do all that mechanosynthesis promises, and, alot more, such as reaching down into the atomic nucleus and engineering it: aka Pico and Femto Technology.

Just like chemists want to understand the electronic structure of a molecule, nuclear physicists want to unravel the structure of the atomic nucleus.

From Isidor Rabi «s research on the magnetic properties of the atomic nucleus to Richard Ernst «s and Kurt Wüthrich «s works and MRI, the topic cluster provides essential information on Nuclear Magnetic Resonance.

Unfortunately, because the waves are expected to originate from very far away, their distortions will be extraordinarily small once they reach Earth - LIGO's dimensions being changed by about a thousandth of the width of an atomic nucleus.

Neutron stars are formed in a fraction of a second as a massive star collapses onto itself, compressing its matter to the density of an atomic nucleus.

Below the crust, the density is similar to that of an atomic nucleus, so the residual atomic cores lose their individuality as their nuclei are jammed together to form a nuclear fluid.

Found inside every atomic nucleus, they may seem downright mundane — but they have long confounded physicists who try to measure how long these particles can live outside of atoms.

The atomic nucleus is highly complex.

NOTHING to do with a Hollywood film - making process, technicolour takes us back to the beginning of the universe, when two of the fundamental forces of nature, electromagnetism and the weak force (which governs particle decay within the atomic nucleus), were united in a single force — the electroweak force.

He was awarded the Nobel Prize in Physics 1990 for investigations that found clear signs that there exists an inner structure in the protons and neutrons of the atomic nucleus.

For more than a decade, a cross-disciplinary team of chemists and physicists from Washington University in St. Louis has been chasing the atomic nucleus.

Measurements carried out using the AGATA spectrometer has unravelled the details of neutron oscillations in the atomic nucleus and determined how many neutrons on the surface, or «skin», of the nucleus participate in unique vibrations known as pygmy resonances.

Through their extremely accurate measurements this team has unravelled the details of neutron oscillations in the atomic nucleus and determined how many neutrons on the surface, or «skin», of the nucleus participate in unique vibrations known as pygmy resonances.

Charity said of the atomic nucleus.

These collisions produce conditions very similar to those that filled the universe microseconds after the Big Bang - with temperatures 250,000 times hotter than the center of the sun in a speck the size of a single atomic nucleus.

The aim is to use the detector to try to observe a theoretical atomic event called neutrinoless double - beta decay — a radioactive process whereby an atomic nucleus releases two electrons and no neutrinos.

Antineutrinos are a by - product of the fission in a nuclear reactor, in which an atomic nucleus of a radioactive element such as plutonium splits into lighter elements.

For example, an electron neutrino — more precisely, an electron antineutrino — emerges when an atomic nucleus such as tritium undergoes a type of radioactive decay called «β decay» and turns into a slightly less massive helium - 3 nucleus while spitting out an electron and an antineutrino.

Therefore the electron does not only orbit its own atomic nucleus, numerous other atoms lie inside its orbit too.

These subatomic particles are bound together in the atomic nucleus by the strong force, one of the four fundamental forces of nature (along with gravity, electromagnetism and the weak force).

Then the mass of an atomic nucleus is less than that of the sum of the mass of its components.

When a neutrino collides with an atomic nucleus, a new particle called a muon is produced, which emits a faint blue glow in the transparent ice that the DOMs can detect.

Lovett and his colleagues have shown that quantum information can be transferred from an electron's spin to the spin of an atomic nucleus, where it can be stored more effectively — creating a form of «quantum memory».

View of the experimental hall at the MAMI accelerator: The mass of a strange atomic nucleus was measured with the help of the magnetic spectrometer that can be seen in the photo.

An international team of physicists working at the Institute of Nuclear Physics at Johannes Gutenberg University Mainz (JGU) in Germany has measured the mass of a «strange» atomic nucleus with the aid of an innovative technique that is capable of significantly greater precision than that of previous methods.

An atomic nucleus in which they are present is thus called a strange atomic nucleus or hypernucleus.

«Picture a network with a number of small processors at each node made of an atomic nucleus interacting with two or three electrons,» says Lovett.

This artificially created strange atomic nucleus has a mass approximately twice that of deuterium, the heaviest stable form of natural hydrogen.

The most likely position of the electron is shown in the image as the brightest area around the atomic nucleus (which itself is not visible in the image).

To paraphrase Ernest Rutherford, discoverer of the atomic nucleus, physicists don't consider they have understood something unless they can explain it in plain language to a bartender.

Present in all atoms except the most common form of hydrogen, neutrons together with protons form the atomic nucleus.

Well you -LSB-'ve] got to have this design around it, what's the called blanket; and what the hope is, is that the neutron will go out and the blanket is made of some very thick steel - type material, and every so often, a neutron will just hit an atomic nucleus in the steel blanket and that hit will then make the steel hotter and that hot steel, and then you have, almost like in a car engine, you have some fluid, water could work, going through the steel, it takes the energy away, that water is hot, it goes and spins the turbine, okay that's great.

The resulting nuclear isomer, Th - 229m, possesses the lowest excitation state in any known atomic nucleus.

So it's, I think, it's 1039 or it is some other ungodly large number times more powerful than gravity, electromagnetism; and the strong force of the atomic nucleus is even stronger than electromagnetism.

«As you go into smaller structures of matter, inside the atomic nucleus, processes become even faster,» Krausz says.

By the time they travel enormous distances across space and reach Earth, however, the disturbances are only about one - thousandth the width of the smallest atomic nucleus, making them fiendishly difficult to detect.