Sentences with phrase «subatomic particles such»

Conservation of the number of leptons — subatomic particles such as electrons, muons, or neutrinos that do not take part in strong interactions — was written into the Standard Model of particle physics.

The new research analyzes the plasma surrounding the pulsar by coupling Einstein's theory of relativity with quantum mechanics, which describes the motion of subatomic particles such as the atomic nuclei — or ions — and electrons in plasma.

These are subatomic particles such as protons, neutrons, and electrons that have half - integer spins (1/2, 3/2, etc) and atoms comprised of odd numbers of the particles.

With great precision, it describes all known matter — all the subatomic particles such as quarks and leptons — as well as the forces by which those particles interact with one another.

And yet, many decades later, quaternions were put to use to describe properties of subatomic particles such as the spin of electrons as well as the relation between neutrons and protons.

Not exact matches

think of god as an elusive subatomic particle they you have to look for... THEY NEVER STOP LOOKING FOR SUBATOMIC PARTICLES AND SUCH BUT THEY SURE WILL DISMISS GOD QUITE QUICKLY WITH NO SEARCHING Wsubatomic particle they you have to look for... THEY NEVER STOP LOOKING FOR SUBATOMIC PARTICLES AND SUCH BUT THEY SURE WILL DISMISS GOD QUITE QUICKLY WITH NO SEARCHING WSUBATOMIC PARTICLES AND SUCH BUT THEY SURE WILL DISMISS GOD QUITE QUICKLY WITH NO SEARCHING WONT THEY?

Such entities are not identifiable among subatomic particles, among human persons, or elsewhere.

According to the orthodox interpretation of quantum mechanics (although «orthodox» seems an odd description for such a radical world view), subatomic entities such as electrons or photons are either waves or particles — depending on how the physicist chooses to observe them.

«The frontiers of fundamental physics have traditionally been studied with particle colliders, such as the Large Hadron Collider at CERN, by smashing together subatomic particles at great energies,» says UCSD physicist George Fuller, who collaborated with Paris and other staff scientists at Los Alamos to develop the novel theoretical model.

Devised by Austrian physicist Erwin Schrödinger in 1925, it describes subatomic particles and how they may display wavelike properties such as interference.

These machines accelerate subatomic particles, such as protons, to velocities exceedingly close to the speed of light.

String theory predicts that all subatomic particles have such partners.

This revolution began when physicists realised that the subatomic particles found in nature, such as electrons and quarks, may not be particles at all, but tiny vibrating strings.

Such particles come about due to the properties of the materials but can not exist outside the crystal the way other subatomic particles do.

But the most pragmatic application could be quantum computing, so - called because such computers would operate according to the physics of subatomic particles, known as quantum mechanics.

The first step in understanding a material's crystallographic structure is bombarding a sample of the material with electrons, photons or other subatomic particles, using technology such as the Spallation Neutron Source at ORNL or the Advanced Photon Source at Argonne National Laboratory.

The conditions of those collapses bestow each universe with its own set of fundamental parameters, such as the masses of its various subatomic particles.

They really have a strong reluctance to mingle with other particles, which makes them antisocial and difficult to pin down, but they are connected to such a wide range of phenomenon from the subatomic to the cosmic that they could tell us a lot about many different things, many different mysteries about the nature of matter, about what triggers exploding stars, to what's going on in the heart of the sun, to what the universe might have been like, the conditions within seconds after the big bang.

It states that certain properties of subatomic particles are linked such that the more precisely you know one, the less precisely you can know the other.

While the charge and spin properties of electrons are widely utilized in modern day technologies such as transistors and memories, another aspect of the subatomic particle has long remained uncharted.

Such fuzziness brings us back to Heisenberg's uncertainty principle, which describes how measuring the location of a subatomic particle inherently blurs its momentum and vice versa.

A neutrino walks into a bar...» As reports spread of subatomic particles moving faster than light and potentially travelling through time, such gags were born.

While high - energy particle physics often focuses on detection of subatomic particles, such as the recently discovered Higgs Boson, the new quark - gluon - plasma research instead examines behavior of a volume of such particles.

One of the potentially lethal menaces of space travel comes from being bombarded with energized subatomic particles, expelled from solar flares and events such as supernovas.

Astronomers classify all of this stuff as baryonic matter, and they (and we) know its most fundamental unit as the atom, which itself is composed of even smaller subatomic particles, such as protons, neutrons and electrons.

Currently, the universe we live in obeys two seemingly incompatible laws — quantum mechanics, which governs the behavior of subatomic particles; and relativity, which describes how clumps of atoms, such as humans, stars and galaxies, behave.