Examples of using Phase transition in English and their translations into Hebrew
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Phase transition coils to maximum.
Space-time underwent a phase transition.
His theory of phase transitions in random fields with K.S.
We're talking about phase transition.
During this phase transition, empty space became filled with a substance that we now call Higgs field.
I will increase power to the phase transition coils.
He also studied phase transition processes, and how they are affected by changes in size.
So, we're really in the business of phases of matter and phase transitions.
And eventually, the Higgs field will undergo a phase transition and matter will collapse into itself.
This spontaneous symmetry breakingis also referred to as the Higgs field's phase transition;
It was something very similar to the phase transition that occurs when water turns into ice below zero degrees.
These bubbles then expand andcollider until the old phase disappears completely and the phase transition is complete.
In order for the phase transition to occur, four particles were required but only one, the Higgs particle, survived.
In each of which he has made major advances,most particularly in the field of phase transitions where his work has revolutionized the subject.
But in our case, the phase transition is not a change in the way the molecules are arranged inside the material, but is about a change of the very fabric of space-time.
This is similar to the slow heating of water in this test tube reaching the boiling point,where the instability of the water occurs and you have the phase transition to vapor.
So, I wonder, is it possible that in the future,the Higgs field will undergo a phase transition and, through quantum tunneling, will be transformed into this nasty, ultra-dense state?
Such‘phase transitions'(i.e. from liquid to solid or from liquid to gas) can appear abrupt in these large systems, because so many particles are involved that they all appear to act at once.
They demonstrated thatsuperconductivity could occur at low temperatures and also explained the mechanism, phase transition, that makes superconductivity disappear at higher temperatures.
During a phase transition of a given medium certain properties of the medium change, often discontinuously, as a consequence of the change associated with some external ailment, such as temperature, pressure, or others.
They showed that superconductivity could, in fact,take place at low temperatures and also explained the mechanism- phase transition- that makes superconductivity disappear at higher temperatures.
Wherever we look, it's observable: in the biosphere, in the atmosphere, in the ocean,showing these super-exponential trajectories characterizing an unsustainable path and announcing a phase transition.
Assuming that the quantity of gas stays constant, e.g., there is no phase transition during a chemical reaction. According to the equipartition theorem,[2] the change in internal energy is related to the temperature of the system by.
For the replicating polymers to hypercycle transition, the probability may well be 1.0 if Kauffmanis right about catalytic closure and his phase transition models, but this requires real chemistry and more detailed modelling to confirm.
Approximately 10- 37 seconds into the expansion, a phase transition caused a cosmic inflation, during which the universe grew exponentially during which time density fluctuations that occurred because of the uncertainty principle were amplified into the seeds that would later form the large-scale structure of the universe.
We proudly announce that Professor Aharon Kapitulnik of Stanford University, a Tel Aviv University Sackler Professor by special appointment and alumnus, is the recipient of the 2015 Oliver E. Buckley Prize for discoveries and pioneering investigations of the superconductor-insulator transition, a paradigm for quantum phase transitions.
In our laboratory we study the electronic structure and the nature of the phase transitions of such materials by tuning control parameters such as chemical doping, epitaxial strain, pressure, external electric or magnetic fields etc.
When the temperature rises beyond a certain point, called the Curie temperature,there is a second-order phase transition and the system can no longer maintain a spontaneous magnetization, although it still responds paramagnetically to an external field.
When the temperature rises beyond a certain point, called the Curie temperature,there is a second-order phase transition and the system can no longer maintain a spontaneous magnetization, so its ability to be magnetized or attracted to a magnet disappears, although it still responds paramagnetically to an external field.
The XY model is a two-dimensional vector spin model that possesses U(1) or circular symmetry.This system is not expected to possess a normal second-order phase transition. This is because the expected ordered phase of the system is destroyed by transverse fluctuations, i.e. the Goldstone modes(see Goldstone boson) associated with this broken continuous symmetry, which logarithmically diverge with system size.