This is what Heisenberg's uncertainty principle is all about.

这就是海森堡测不准理的全部内容。

This fact is so important that it has a name: The Heisenberg uncertainty principle.

海森堡测不准理。

Mathematically, the uncertainty principle is represented like this, where 'x' is position and 'p' is momentum.

数学上，测不准理是这样表示的，x 表示位置，表示动量。

There's an axiom in physics called the uncertainty principle.

物理学中有一条公理叫做不确定性理。

A necessary first step, therefore, is to combine general relativity with the uncertainty principle.

因此，必要的第一步是将广义相对论与测不准理结合起来。

Werner Heisenberg, formulated his famous uncertainty principle.

维尔纳·海森堡 (Werner Heisenberg) 制定名的测不准理。

The uncertainty principle had profound implications for the way in which we view the world.

不确定性理对我们看待世界的方式有着深远的影响。

Thanks to the uncertainty principle, teleportation transfers the information about the baseball between the two cities and never duplicates it.

由于不确定性理，隐形传态在两个城市之间传递有关棒球的信息，并且永远不会复制它。

In a nutshell, the uncertainty principle states that you cannot accurately measure both the location and momentum of a particle at the same time.

简而言之，测不准理表明你不能同时精确测量粒子的位置和动量。

The discovery of atomic structure and the uncertainty principle put an emphatic end to that.

子结构和不确定性理的发现有力地结束这一点。

Yet it seems that the uncertainty principle is a fundamental feature of the universe we live in.

然而，不确定性理似乎是我们生活的宇宙的一个基本特征。

The uncertainty principle in quantum physics implies the position and momentum of a particle can't be measured at the same time.

量子物理学中的不确定性理意味着不能同时测量粒子的位置和动量。

Would you prefer a simpler application of Heisenberg's uncertainty principle, in which I could either know where you are or whether I like you, but not both.

你想要像海森堡不确定性理 一个粒子的位置和它的动量不可被同时确定 那样更简单的程序吗 我现在不能同时确定 你到底是哪方的或我是否喜欢你 不过现在两者都不确定。

Using the no boundary condition, we find that the universe must in fact have started off with just the minimum possible non-uniformity allowed by the uncertainty principle.

使用无边界条件，我们发现宇宙实际上一定是从不确定性理允许的最小可能非均匀性开始的。

That although it's a particle, because of the Heisenberg uncertainty principle, we can never tell exactly at a given moment where the particle is and what its momentum is.

尽管它是一个粒子，但由于海森堡不确定性理，我们永远无法在给定时刻准确地判断粒子在哪里以及它的动量是多少。

Thus all the complicated structures that we see in the universe might be explained by the no boundary condition for the universe together with the uncertainty principle of quantum mechanics.

因此，我们在宇宙中看到的所有复杂结构都可以用宇宙的无边界条件和量子力学的不确定性理来解释。

In effect, we have redefined the task of science to be the discovery of laws that will enable us to predict events up to the limits set by the uncertainty principle.

实际上，我们已经将科学的任务重新定义为发现规律，这些规律将使我们能够在不确定性理设定的限度内预测事件。