One example of a boundary condition is solar radiation.

边界件的一个例子就是日射。

Most boundary conditions have well-defined values that change slowly, if at all.

大多数边界件都有明确定义的值，些值有化也非常缓慢。

And we're gonna solve it for the boundary conditions of a lattice and a particle in the box.

我们将要用它来计算一个晶格和一个粒子在盒子中的 边界件。

Even the slightest change in these boundary conditions represents a much larger shift for the chaotic weather system.

即使些边界件仅有细微的化，也会让混沌的天气系统产生大幅化。

These parameters are known as boundary conditions, and as their name suggests, they act as constraints on climate and weather.

些参数是所谓的边界件，同字面含义，它们扮演气候及气象的限制件。

What were the " boundary conditions" at the beginning of time?

时间之初的“边界件”是什么？

Further predictions of the no boundary condition are currently being worked out.

目前正在研究无边界件的进一步预测。

One such possibility is what are called chaotic boundary conditions.

一种样的可能性就是所谓的混沌边界件。

But fortunately, we can identify what human behaviors are impacting the climate most by tracking which boundary conditions are shifting.

幸运的是，我们可以找出什么样的人类行为对气候的影响最大，方法是追踪哪些边界件正在改。

One could say: " The boundary condition of the universe is that it has no boundary" .

可以说：“宇宙的边界件是它没有边界”。

As I said, I thought at first that the no boundary condition did indeed imply that disorder would decrease in the contracting phase.

正我所说，起初我认为无边界件确实意味着在收缩阶段无序会减少。

Rather, it is that the no boundary condition causes disorder to increase and the conditions to be suitable for intelligent life only in the expanding phase.

相反，无边界件导致无序增加，只有在扩张阶段才适合智能生命的件。

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.

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

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件和量子力学的不确定性原理来解释。