The basis of all quantum physics.

一切量子物理学的基础。

The third hypothesis is about improving our knowledge in the field of quantum physics.

第三个假设是关于提高我们在量子物理领域的知识。

But this is the strange realm called the quantum world, ruled by quantum physics.

但这是一个奇怪的领域，被称为量子世界，由量子物理统治。

Quantum computing uses elements of quantum physics to complete operations too complex for traditional computers.

量子计算使用量子物理学的元素来完成对传统计算机而言过于复杂的操作。

And this provides one of the key philosophical lessons of this episode in quantum physics.

这提供了量子物理学这一集的关键哲学课程之一。

You know? Wh-Who's looking out for Joe Six-Pack and all his quantum physics concerns?

知道吗? 谁会关心六肌青年和他对于量子物理的关切?

General relativity describes the behavior of very large things, while quantum physics explains the very small.

广义相对论形容的是巨大物体的行为，量子物理学解释的是微小物体的行为。

It spanned everything from chaos math and quantum physics to fantasy role-playing and the Gaia hypothesis, right?

它涵盖了从混沌数学、量子物理到幻想角色扮演和盖亚假说的所有领域，对吧？

First, let's understand the quantum physics on which it is based.

首先，让我们了解它所基于的量子物理。

We don't understand quantum physics enough to know if these closed timelike curves could or couldn't exist.

我们对量子物理学的了解还不够，不知道这些封闭的时间型曲线是否存在。

Many suspect black holes hold the answer, because they are sites where continuous relativity meets chunky quantum physics.

他们中的许多人猜测，黑洞就是答案，因为黑洞是连续性相对论与厚实量子物理学都无法研究出真相的地方。

In quantum physics, we could say that before our observation the cat was in a superposition state.

在量子物理中，我们可以说在观测之前，那只猫处于叠加态。

To the viewer, the levitating object may seem to defy gravity, but there's a simple explanation — quantum physics.

在观众看来，这个悬浮的物体似乎是在对抗重力，但这个现象有着简单的原理——量子力学。

You probably think of quantum physics as a white-knuckle rush of adrenaline, like the Peter Pan ride at Disneyland.

你可能会觉得量子物理学惊险刺激、令人血脉喷张，就像去坐迪士尼乐园里的小飞侠天空奇遇。

There is heavy focus on building a better communication system using quantum physics for better safety and privacy.

他们将重点放在利用量子物理学建立一个更好的通信系统，以提高安全性和隐私性。

If we could marry gravity to quantum physics and the standard model, we would have the theory of everything.

这是个相当重要的问题，如果我们可以结合重力与标准模型，我们可以得到一切的万有理论。

You know, ultimately, there are different competing interpretations of quantum physics, which is our best theory of basically everything.

你知道，最终，量子物理学有不同的相互竞争的解释，这是我们基本上所有事情的最好的理论。

His insights into the microscopic world revolutionized the budding field of quantum physics and seeded far-reaching implications for modern science.

他对微观世界的洞察彻底改变了量子物理学的萌芽领域，并对现代科学产生了深远的影响。

In 1913, Bohr presented his eponymous model of the atom, which laid the groundwork for the future of quantum physics.

1913 年，玻尔提出了他的同名原子模型，为量子物理学的未来奠定了基础。

So why not simulate quantum physics with actual quantum physics?

利用量子计算机模拟量子现象就显得理所当然了？