Every Lagrange point in our solar system has its quirks.

太阳系中的每个拉格朗日点都有其特点。

I'm looking for Trojan asteroids at Earth's LFive Lagrange point.

在地球的L5拉格朗日点寻找特洛伊小行星。

Consider the five Lagrange points generated by the Sun and the Earth.

以太阳和地球产生的五个拉格朗日点为例。

In every set of five, the first three Lagrange points are slightly unstable.

在每五个点中，前三个拉格朗日点略微不稳定。

However, Lagrange points are places where all these forces balance out.

但是，拉格朗日点是所有这些力平衡的地方。

Pairs of massive bodies in our solar system generate sets of five Lagrange points.

太阳系中每对大型天体会产生五个拉格朗日点。

The James Webb space telescope has arrived at its final destination, a region of space called the second Lagrange point.

詹姆斯·韦伯太空望远镜已经抵达它的最终目的地，一个被称为第二个拉格朗日点的空间区域。

Named after the 18th century mathematician who deduced their positions, Lagrange points are rare places of equilibrium in our constantly shifting universe.

拉格朗日点是以推导出其位置的 18 世纪数学家拉格朗日的名字命名的，拉格朗日点是我们不断变化的宇宙中罕见的平衡点。

Essentially, Lagrange points are celestial parking spaces — once an object is there, it requires little to no energy to stay put.

从本质上讲，拉格朗日点像天体停车位——一旦物体在那里，它几乎不需要任何能量便可留在原地。

Adding these up, there are over 1,000 Lagrange points in our solar system — but only a few are useful for human purposes.

加起来我们太阳系中的拉格朗日点超过 1，000 个，但只有少数对人类有用。

Each of these dots is a Lagrange point, and as far as human space exploration is concerned, they may be the most important places in our solar system.

这其中每一个点都是拉格朗日点，而对人类太空探索而言，它们可能是我们太阳系中最重要的地点。

So whenever humans want to keep an object in one place for a long time without using tons of fuel, it needs to be orbiting a Lagrange point.

因此，当人类希望不消耗大量燃料将物体长时间保留在一个地方时，它得绕着拉格朗日点运行。

Hours later, it was expected to burn its engines to set it on course toward its ultimate destination, a position in space known as the second Lagrange point, or L2 (see 'Webb's journey').

几小时后，预计它会燃烧引擎， 使其驶向最终目的地，即太空中被称为第二拉格朗日点或 L2 的位置（参见“韦伯的旅程” ）。