The remaining 10 bits of the address are sent to the column multiplexer.

地址的剩余 10 位被发送到列多路复用器。

Here's  the logic diagram for a simple multiplexer.

这一个简单多路复用器的逻辑图。

The second one is going to be terminal multiplexers.

第二个终端多路复用器。

Multiplexers come in all different sizes, but because we have 16 rows, we need a 1 to 16 multiplexer.

多路复用器有各种同的尺寸，但因为我们有 16 行，所以我们需一个 1 到 16 的多路复用器。

Any questions for terminal multiplexers, or like, tmux concretely?

对于终端多路复用器或具体的 tmux 有任何疑问吗？

But the fact is there are kind of more convenient solutions to this and this is what a terminal multiplexer does.

但事实上，有一些更方便的解决方案，这就终端多路复用器的作用。

Instead of 8 wires coming out of the multiplexer, we're going to have 128 wires that connect  to these 128-bit buffer locations.

我们将有 128 根线连接到这些 128 位缓冲区位置，只有 8 根线从多路复用器出来。

Next the 10-bit column address is broken into two  parts, 6 bits are used for the multiplexer, and 4 bits are for the burst buffer.

接下来， 10 位列地址被分成两部分，6 位用于多路复用器，4 位用于突发缓冲区。

However, if a row were already open, we  could read or write to any section of 8 memory cells using only the 10-bit  column address and the column select multiplexer.

但， 如果某一行已经打开，我们就可以仅使用 10 位列地址和列选择多路复用器读取或写入 8 个存储单元的任意部分。

This multiplexer  takes in the 8192 bitlines on the top, and, depending on the 10-bit address, connects a  specific group of 8 bitlines to the 8 input and output IO wires at the bottom.

该多路复用器接收顶部的 8192 条位线，并根据 10 位地址，将特定的一组 8 条位线连接到底部的 8 条输入和输出 IO 线。

Next, the column select multiplexer uses  the 10-bit column address to connect the corresponding 8 bitlines to the read  driver which then sends these 8 values and voltages over the 8 data wires to the CPU.

接下来，列选择多路复用器使用 10 位列地址将相应的 8 条位线连接到读取驱动器，然后读取驱动器通过 8 条数据线将这 8 个值和电压发送到 CPU。

To convert from an address into something that selects the right row or column, we need a special component called a multiplexer -- which is the computer component with a pretty cool name at least compared to the ALU.

将地址转换为选择正确行或列的内容，我们需一个称为多路复用器的特殊组件——至少与 ALU 相比，这一个非常酷的名称的计算机组件。