You've got to rescale the graph to look at the trillion-dollar industry emerging.

须重新调整图表才能看到价值数万亿美元的新兴产业。

But what if we could actually rescale ourselves and find the impossible in the simple?

但如果我们能够重新调整自己，在简单中找到不可能的东西呢？

As with last video, it's helpful to rescale the coordinates.

和上个视频一样，重新缩放标是有帮助的。

So all that work we did rescaling coordinates and futzing through the momentum equation was certainly necessary.

所我们将标重新缩放并通过动量方程进行计算这些工作肯是要的。

Alright, that's cool, with these rescaled coordinates our little point always moves with a constant speed.

好的，这样挺酷的，通过这些重新缩放的标，我们的小点总是的速度移动。

Which basically just rescales the units so that the standard  deviation of our expression will equal one.

这基本上只是重新调整了单位，使得我们的表达式的标准差等于一。

The zeroth order beam, for example, at all of these points is essentially a rescaled version of what the reference wave would look like if the film weren't there.

零级光束在所有这些点上基本上是参考波的一种重新缩放版本，就好像胶片不存在一样。

The kind of looked like light bouncing off two mirrors, but to make the analogy work properly, we needed to rescale the coordinates by the square roots of the masses.

这有点像光线从两面镜子上弹开，但为了让类比成立，我们需要将标按质量的平方根进行缩放。

Note that when reassembling the picture, the blue and red prominence images are rescaled to match the size of the luminance component, with the RGB values being recalculated from luminance, blue prominence, and red prominence.

请注意，在重新组装图片时，蓝色和红色突出显示图像会被重新调整大小匹配亮度组件的尺寸，并且RGB值会根据亮度、蓝色突出显示和红色突出显示重新计算。