Like everybody else's. Subject to entropy, decay and eventual death.

跟通没什么两样 经历着万物的成长 衰败和最终的死亡。

That says that any isolated system will tend towards increasing entropy, or disorder.

该定律认为，任何一个孤立系统的熵将趋向于增加或无。

We call this principle " entropy, " and it's a fundamental rule of our universe.

我们称此原理为“熵”，这是我们宇宙的基本规则。

And land artists embrace entropy, the idea of decay, or even the complete disintegration of their work.

土地艺术家们接受“熵”，也就是衰变的概念，甚至是作品的完全解体。

Well, how about negative 273 degrees, 'cause that's the temperature at which entropy reaches its minimum value.

大概有零下273度（绝对零度）热力学函数因为那是熵达到其最值时的温度。

The breaking down of these arrangements when the entire cell succumbs to entropy is what eventually results in death.

当细胞屈服于‘熵’，这些机制开始瓦解最后导致生物体死亡。

Smoothness, in the face of such tendencies, is not equilibrium, but is actually a very delicately-balanced, low entropy state.

在这样的情况下，平滑度是不均衡的，但确实是处在一个很微妙平衡且低熵状态。

Greene takes one of his most powerful whacks at entropy, attacking the nettlesome business of the second law of thermodynamics

格林对熵，对这个令的热力学第二定律发起了他最猛烈的攻击。

To stay alive and exciting, it has to constantly work to keep itself from achieving entropy and becoming boring and dead.

为了保持活着和兴奋，它必须不断地努力以防止自身陷入熵，变得无聊并死亡。

No, there isn't. Only loop quantum gravity calculates the entropy of black holes.

不是这样的，只有环量子引力能算出黑洞的熵值。

This may be trickier to understand, but take the time to internalize it and you'll have a much better understanding of entropy.

这个方法或许更难理解， 但一旦消化这个概念，你就会对熵有一个更深刻的理解。

In physics, this is described by the Second Law of Thermodynamics, which says that systems will gain disorder, or entropy, over time.

每个系统会随时间失去秩，或者说，系统的熵会增加。

Everything that followed -- from the formation of stars and galaxies to the origin of life -- has been a story of increasing entropy.

接下来的一切—从恒星和星系的形成到生命的起源—都是一个熵增加的故事。

Once a system gets to its fully-disordered state -- its equilibrium -- there's no more direction of increasing entropy to determine the arrow of time.

一旦一个系统达到完全无的状态—平衡态—再也没有更多增加熵的方向来决定时间的箭了。

Again, we see that because there are more ways to have dispersed energy and high entropy than concentrated energy, the energy tends to spread out.

别忘了，我们看到这种现象 是因为分散能量的分布方式更多，所以我们更有可能观察到高熵值， 而不是能量集中的低熵值状态，能量更倾向于分散。

What we see is that the energy configuration in which the energy is most spread out between the solids has the highest entropy.

我们所观察到的是，能量在固体间最分散，熵值就最高。

We feel cold because the universe is on a long slow mission to even everything out, increasing entropy, lowering energy, until the whole universe is at equilibrium.

我们之所以会感到冷是因为宇宙在进行着一项漫长的任务，最终要让万物平和，增加熵，降低能量，直到整个宇宙达到平衡。

To see why entropy is useful for explaining spontaneous processes, like hot objects cooling down, we need to look at a dynamic system where the energy moves.

为了理解为什么熵的概念 可以解释自然发生的过程，比如说热的物体会冷却，我们需要理解能量流动的动态系统。

This prevents what I like to call “entropy” which is a term in thermodynamics that generally refers to how everything in the universe tends to move toward disorder and chaos.

这就避免了我所说的“熵（entropy）”，这是一个热力学术语，通常指的是宇宙中的一切是如何趋向于无和混乱的。

Technology that can invert an object's entropy.

有一种技术可以逆转物体的熵。