Translation of "Heisenberg uncertainty principle" in German

This is sometimes called the "Heisenberg uncertainty principle".

That's the Heisenberg Uncertainty Principle, first stated by German physicist Werner Heisenberg back in 1927.

He realised that Heisenberg 's uncertainty principle was a statement of the noncommutativity of the quantum mechanical observables.

The Heisenberg uncertainty principle states that the intensity and colour of a laser beam cannot simultaneously be defined with arbitrary accuracy.

The Heisenberg Uncertainty Principle is one of a handful of ideas from quantum physics to expand into general pop culture.

Residencies are the somewhat artistic counterpart to the Heisenberg uncertainty principle: focus on the commodification, you will lose sight of the utopian potential that residencies harbour.

In the past, it has been suggested that QM in abstract (like for example, the Heisenberg "Uncertainty principle") could be fruitful in describing (and possibly explaining) subjects seemingly far removed from Physics, as for example specific topics in the Social Sciences having to do with population counts and dynamics.

And since 1927, when Heisenberg discovered the uncertainty principle, the majority of physicists are still on the side of Einstein and against Heisenberg and Bohr.

In real life, for instance, due to the Heisenberg uncertainty principle it is impossible to determine an object´s position and momentum at the same time.

The novel measurement concept circumvents the Heisenberg uncertainty principle and could enhance the precision of gravitational-wave detectors like GEO600 or the closely cooperating Advanced LIGO (aLIGO) detectors in the USA.

The appellant claimed to have discovered a magnetic force that was hitherto unknown, and as a consequence thereof, established that theories such as the Heisenberg uncertainty principle as well as Einstein's theory of relativity were wrong.

A result of the Heisenberg Uncertainty principle is that these high-mass particles may come into being if they are incredibly short-lived.

The reason for the behaviour of the Bose - Einstein condensate is essentially due to the Heisenberg Uncertainty Principle for at such low temperatures the momentum of the atoms is known accurately so their positions cannot be accurately known so, in some sense, spread out.

These quantum correlations seem to contradict the Heisenberg uncertainty principle, which states that two properties of an object, such as position and speed, can never be precisely determined at the same time.

That year in Copenhagen, the scientist Heisenberg introduced the "uncertainty principle" and according to this it is not possible to exactly determine at the same Time the Space and Movement of a particle.

Mathematical logic, such as the incompleteness theorems by Kurt Gödel is very interesting and has much stronger consequences than the Heisenberg uncertainty principle.

The problem is best described in the Heisenberg uncertainty principle; in addition with our need for causality it becomes obvious.

In an interview with Jeremy Bernstein, given towards the end of his life and quoted in Bernstein's book, Bell reported being perplexed by the usual statement of the Heisenberg uncertainty or indeterminacy principle (x p, where x and p are the uncertainties or indeterminacies, depending on one's philosophical position, in position and momentum respectively, and is the (reduced) Planck 's constant).

The event as a physical entity is defined mathematically in such a way that the entities of space, time, matter and interactions can be derived from it. The resulting comprehensive theory can explain physical phenomena uniformly, those which have been known of, but not been explainable up until now: The physical constants, the shortening of standard lengths and the slowing down of clocks in the vicinity of large masses or at high velocities, the Heisenberg uncertainty principle, the four kinds of physical interactions, the characteristics of the elementary particles from the neutrinos to the electrons and quarks up to the protons, or black holes and the Big Bang. Even if the new theory is not completely formulated yet, it is nevertheless understandable and gives cause for hope that the long-sought "Theory of Everything" can soon be found.

This fact is reflected in the famous Heisenberg uncertainty principle: some properties, in the example above the hardness and color of the electron, are incompatible witch each other – they can't be determined exactly at the same time.

Werner Heisenberg formulates the uncertainty principle: the more you know about a particle's energy, the less you know about the time of the energy (and vice versa.)

The elementary particles of the Standard Model of Physics form a more or less orderly set based on observed characteristics, but its cause is not very well understood; because of this, it is necessary to resort to axiomatic principles such as the Pauli Exclusion Principle, or the Heisenberg Uncertainty Principle – just to quote the most well-known ones.