Now solving the two by two by four is actually pretty easy .
You know , it's just like you only have to learn one algorithm and you have it down .
So after it's properly mixed up in this fashion , you just solve this whole thing like a two by two until you get it back into the rectangular prism form .
So you just solve it basically like a two by two only with two white sides on it .
And the rest are blank .
So that shouldn't be too hard for you .
Anyone should be able to figure it out .
Alright .
And then after you get to this point , then we need to pair up each corner with the edge piece .
So to do that , we just turn one of the layers until you get one that matches up , here's one .
And if you don't get any on the top by turning this layer , try on the bottom or if you can't get any there , then try rotating it over .
But you know , that'll be pretty rare .
I almost always get a paired up edge piece after turning it for the first time .
So after you get one matched up , go to the other side and do the same thing .
Yep .
Here's one and then we wanna match that up onto the top layer .
We don't want to do it cross ways like this because that will make it difficult to pair up the other two .
So what you wanna do is bring it over here and then you can rotate it up .
So that's pretty easy to do .
So we keep matching up edges or pieces , whatever they're called .
OK ?
It doesn't look like I'm getting any .
Oh , there we are , we did got one .
So I'm gonna bring this up here .
So we have just one more to match up .
Let's see if I can get any more down here .
Yep .
There we are .
So to bring this down here , we oh it looks like I got a lot of them matched up .
So we wanna bring this down to snatch one up .
You want to pair it up like this and then rotate it in position and bring it back up .
It shouldn't be too hard to pair up .
The first four .
It's these last ones where it takes an algorithm to do it .
Now , what you wanna do here is rotate the top layer until you get two sets of matched pieces .
So let's rotate .
This looks like we have one there , but that's not enough .
So keep turning .
And yep , here we are , we have two sets of matched pieces up and they are adjacent to each other , I'll tell you what to do when they're across from each other in a moment .
So to set this algorithm up , you want to position the cube so that your two mass matched pieces are on the left .
Then do a double U move A two L A double D move another two L , then rotate the cube to the left , then do a two double D move A two R double D move another two R and then one U move .
And there we are that will match it all up for you .
Now , if you have this case where the two match pieces are across from each other , then you want to position it .
So one is here in the bottom , right ?
And then one is up here in the top left .
Then you do a very similar algorithm except you just start off with a U prime .
Then the two L , the double D move two L again , rotate over double D move , then a two R , another double D move , then A two R again and then you end off with a U two .
There you are , you now have all of the pieces matched up at this point .
You pretty much have it solved .
All you have to do is solve it like a two by two and you're done .
So let's see .
Yeah .
OK .
I'm using Friedrich algorithms here for the three by three .
OK .
Oops the dry one there , there we are So that's the tutorial on how to solve the two by two by four .
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Thanks for watching everyone .