Examples of using This theorem in English and their translations into Vietnamese
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That is, this theorem is best possible.
How can we efficiently use this theorem?
This theorem is still taught in schools today.
The transcendence of e and π are direct corollaries of this theorem.
One direction of this theorem was proved by I. A. Lexell in 1786.
Translational symmetry and the conservation of momentum are related through this theorem.
MIS has taken the data based on this theorem and computerized them.
This theorem represents the strong and semi-strong forms of market efficiencies.
Real wages have risen, however, making this theorem undecisive to the real case.
This theorem is so well known that at times, it is referred to as the definition of span of a set.
In fact, Cantor's method of proof of this theorem implies the existence of an"infinity of infinities".
This theorem is similar to the strong and semi strong forms of market efficiency.
It is named for Hans Hahn andStefan Banach who proved this theorem independently in the 1920's.
This theorem is related to the strong and partially strong types of market efficiency.
Swiss mathematician Jakob Steiner proved this theorem in 1833, leading to the name of the theorem. .
This theorem is due to William Thurston and fundamental to the theory of hyperbolic 3-manifolds.
As well as answering a conundrum in general relativity, this theorem became a guiding principle for the discovery of new physical laws.
This theorem is really fundamental to physics and the role of symmetry," Cranmer said.
Hawking's singularity theorem is for the whole universe, and works backwards in time: it guarantees that the(classical)Big Bang has infinite density.[1] This theorem is more restricted and only holds when matter obeys a stronger energy condition, called the dominant energy condition, in which the energy is larger than the pressure.
This theorem forms the basis for the Lucas- Lehmer test, an important primality test.
Ernst Schröder had stated this theorem a bit earlier, but his proof, as well as Cantor's, was flawed.
This theorem is exemplified in real life by truisms like"in any group of three gloves there must be at least two left gloves or at least two right gloves".
Whether Pythagoras himself proved this theorem is not known, as it was common in the ancient world to credit a famous teacher with the discoveries of his students.
This theorem showed that if voters have to rank candidates- to say, in other words, who comes first, second and so forth- there will inevitably be one of two major potential failures.
Interestingly, Fermat actually didn't prove this theorem himself. The proof actually waited until Euler, who proved that almost 100 years later. And in fact, he proved a much more general version of this theorem. .
This theorem is, as its name implies, the foundation of higher arithmetic; but the proof, although not‘difficult', requires a certain amount of preface and might be found tedious by an unmathematical reader.
This theorem establishes that in certain zero sum games with perfect information(i.e., in which players know at each time all moves that have taken place so far), there exists a strategy for each player which allows both players to minimize their maximum losses(hence the name minimax).
This theorem establishes that in certain zero sum games involving perfect information(in which players know a priori the strategies of their opponents as well as their consequences), there exists one strategy which allows both players to minimize their maximum losses(hence the name minimax).