Now that is some RGB action.

这就是 RGB 幻彩灯光了。

So especially with the LED underglow as well as every single key being fully RGB, that looks dope.

特别是这些 LED 底光还有每一个按键都透着 RGB 光，碉堡了。

RGB split, color bath, mesh, repeat.

RGB 拆分、颜色浴、网格、重复。

The next RGB value is 255,255,0 – yellow again.

下一个 RGB 值是 255,255,0——又是黄色。

Well, RGB just happens to represent red, green, and blue.

嗯，RGB恰好代表红，绿，蓝。

The next pixel has a Red-Green-Blue, or RGB value of 255, 255, 0.

下一个像素的红-绿-蓝或 RGB 值为 255、255、0。

Let's brighten the room again, and you  can see the RGB values increase for this pixel.

让我们再次让房间变亮，您会看到这个像素的 RGB 值增加了。

The pixel after that has a RGB value of 0,0,0 - that's zero intensity everything, which is black.

之后的像素的 RGB 值为 0,0,0 - 一切都为零强度，即黑色。

For that, we'll take the RGB value of the centermost pixel.

为此，我们将采用最中心像素的 RGB 值。

By combining different intensities of these three colors, what's called a RGB value, we can represent any color.

通过组合这三种颜色的不同强度，即所谓的 RGB 值，我们可以表示任何颜色。

I realize that might be hard, take a deep breath, hold it in, look at an RGB light, and we will talk about it, I promise.

我知道这可能很难，深呼吸，先 hold 住，看着 RGB 灯，我们会谈论它的，我保证。

These are different colour models, where RGB is “additive” meaning the mixing of different lights of colour create new colours-while the other two are “subtractive” models and absorb different wavelengths of light.

这些是不同的颜色模型，其中红绿蓝三原色是“相加模型”，它意味着不同颜色光的混合创造新颜色，而另外两个是“相减模型”并且吸收不同波长的光。

And then if you want to see the red, green and blue or RGB values, just use the eye dropper, click on a pixel, and then click on the edit color option.

然后，如果您想查看红色、绿色和蓝色或 RGB 值，只需使用滴管，单击一个像素，然后单击编辑颜色选项。

So if we pop this guy open, it's going to be the same size keyboard, and you still get all of your number row, but you've got your, you've got your full RGB wrist rest.

现在我们打开包装，可以看到同等尺寸的键盘，按键都是一样的，但还有一个，一个全 RGB 腕托。

All these factors are multiplied by  the Red, Blue, and Green or RGB values of the blue stripe, which in turn changes the shading or  brightness of the pixel that the primary ray went through.

所有这些因素都乘以蓝色条纹的红色、蓝色和绿色或 RGB 值，进而改变主射线穿过的像素的阴影或亮度。

Here, the input is a bunch of RGB-D images, which are photographs endowed with depth information, and the output can be a full 3D reconstruction of a scene, and much, much more, which we'll see in a moment.

这里输入的是一些 RGB-D 图片，即携带深度信息的照片，而我们得到的输出会是一个场景的全三维重建以及很多很多其他的东西，这些我们待会将看到。

Of course, due to variations in lighting, shadows, and other effects, the ball on the field is almost certainly not going to be the exact same RGB value as our target color, but merely the closest match.

当然，由于光照、阴影和其他效果的变化，场上的球几乎肯定不会与我们的目标颜色具有完全相同的 RGB 值，而只是最接近的匹配。