It is possible to get sub-30 or even lower with a beginner's method. It's not necessary to learn Fridrich for sub-50. But if you choose to learn, I recommend learning about F2L before LL.

But since you asked specifically for tips on memorization, it's important to know that you should learn them by muscle memory over any other method of memorization. You can do that just by repeating the algorithm enough times and recognizing which algorithm goes with which case.
 
Watch all of badmephisto's LL videos, and come with any questions you still have.

Start with 2-Look OLL and 2-Look PLL, and then watch the full OLL and full PLL videos, and then any other tips/trick/memorization/advice.

I, contradictory to the above post, think that F2L should be the last step to learn in Fridrich. Using OLL and PLL (even 2-Looks of both) shouldn't ever be slower than a beginner's LL (the booklet/Dan Brown method, badmpehisto's beginner's method, which is an even further simplified Fridrich, LBL style); however, Fridrich F2L will very likely slow down your first two layers for awhile. Practice your basic Fridrich F2L for now, but don't use it in speed solves until your do the LL. Then proceed to learn your F2L, and then improve your cross.
 
I only started learning the 2-look OLL and PLLs yesterday, but it doesn't look so hard. I consider myself to have a very poor memory, but I enjoy learning languages and have picked up some handy memory tricks and techniques over time. Because I have only started learning the algorithms, I'm not sure how much some of these will apply, but these are the areas which I am exploring.

1. Learn to group common elements.
Look for sequences of moves that appear in multiple algorithms. For instance if there is a sequence of four moves that appears in 4 algorithms, then you can either learn all 4 moves 4 times... or you can learn the sequence one time and then apply the whole sequence for the other algorithms. By looking at a sequence of moves as a single group rather than individual moves, it makes things much easier on you when you come across that same sequence again. I managed to memorize how to write 2000 Japanese kanji in only 3 months using similar techniques.

2. Develop visual mnemonics to help memorize some moves.
For instance, one of the algorithms I use starts out with "R2, D2..."
Hey, R2D2 is that robot from star wars! I can think of that when I do this move to help me remember. You can get creative.

3. For similar moves, develop mnemonics to help you keep them distinct.
For instance when doing PLL, I use the algorithm F2 U R' L F2 R L' U F2 to cycle 3 pieces clockwise, and F2 U' R' L F2 R L' U' F2 to cycle them counter clockwise. How do I keep it straight as to which is which? Well notice that the only difference in the two algorithms is that one contains U and the other contains U'. It just so happens that when I want to do the move which cycles the pieces clockwise, then I simply have to turn the U face clockwise! This makes it extremely easy for me to keep those two algorithms separate.

4. Spaced Repetition
Spaced repetition is an incredible technique that has been the number one most effective thing for helping me to learn and retain information. I'll spare you the gory details, but it basically goes that if you learn a new piece of information today, whether you study it 1 time or 100 times, you are still likely to forget it a week from now. However, if you can study it today, then tomorrow, and then 3 days after that, and then a week after that... you can retain the information with minimal time spent studying. Using spaced repetition software such as Anki, we can make this process very simple. It works essentially like flash cards. You put a question on one side and an answer on the back. For the question side, you can put an image showing a certain situation, and the answer would be the algorithm that should be used to solve it. Or perhaps the question side can be an algorithm which will set up the situation for you to solve, and then you can physically solve it on your cube.
Spaced repetition is a technique for remembering large amounts of information over a long period of time (ultimately, forever). Some algorithms are pretty common and you may not need to do this with them. However some algorithms apply to situations that might only come up under very rare circumstances. Are you going to simply remember those cases when they happen to come up without refreshing it regularly?

5. Initial Memorization
While spaced repetition is useful for memorizing data over a longer period of time, the software isn't so good for initially learning. However the same techniques can be applied by yourself. When learning an algorithm, do it a few times while reading the algorithm to get a feel for it. When try to perform it from memory. If you cant get the whole thing, try to get as many as you can, and keep trying until you have the whole thing. Then wait a minute and try it again. Wait 5 minutes and try it again. Wait an hour and try it again. Wait until tomorrow and try it again.

6. Muscle memory vs regular memory
Your ultimate goal is to get the moves into muscle memory. This requires doing the moves hundreds of times. This is a slow and boring process so I do not recommend trying to learn algorithms this way. If you commit the algorithms to your normal memory, then over time, as you perform them while solving the cube, they will eventually move to your muscle memory without any additional effort on your part.

7. Consistency
When learning any large amount of material, the best way to make it all the way through is to develop good habits. Try to learn at least 1 new algorithm every day. If you can't learn one, try to at least review your old ones. Don't get into a situation where you do nothing. Once you go one day without doing something, its very easy to skip it the next day as well. Before you know it, you haven't reviewed or learned anything in a month, and you forgot everything. If you have trouble with this, it is useful to set aside a specific time each day, such as right after you wake up, or before you go to sleep. This helps you to develop a routine.
 
Right now im trying to memorize each and every of the OLL and PLL, but suddenly I saw the 2 LOOK OLL & PLL. So I think its better to go with that first. I know many people said it need a lot of practice to master the method.

Secondly I want to know how fast can I acctually do with the Fridrich method with solving the cross then F2L, but using 2 LOOK OLL & PLL. Can I actually get under 50 sec? Right know Im still using the layer by layer method with 1:13:32 average.

I also want to know what is cutting corners and edges is? I think it some sort of fingertricks.

First off, right now I use 2-look PLL and 2-look OLL, and I am HORRIBLE (sub-50, though), but I still get times in the low 30s (sometimes) and sometimes 40s... You just have to work at it.

Also, instead of JUST using the 2-look PLL algs, I think you should also learn the T and J perms because they were relatively easy to pick up, and because I always seem to hit a spot where I'm able to use it (I know 11/21 PLLs now, can't get Gs, Ns, Rs or E...) The Y-perm is also interesting, but only learn it after you learn the other two (It took me ~20 min to learn all 3, but I'm a slow and beginner cuber, so I'm sure you can do it).

Take a look at a vid of my 2-look OLL / PLL solves (Intuitive F2L... etc)...

38.15 average (i think)!
Sorry for my crappy comments; it was more for a friend of mine than for random people to see.

So sub-50 guaranteed possible. Just keep at it.

I am learning One-Look PLL and know all but the Gs and the E perm. I need some tips for those

G perm is insanely wicked -- Look at badmephistos video for recognition, it helped me a lot for RECOGNIZING (so I know what perm it is, I just don't knwo the alg yet :\\).

It is probably a good idea to learn 2 look OLL and 2 look PLL first. Then learn full PLL and later OLL.

Wow, fail at life, please.
 
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I watched all the OLL & PLL badmephisto video. Right now I thing is the time I need to memorize these algorithm. Im still trying to go my friend house to learn the method from him. I dont know what method he uses but he actually can get fastest 3x3 single: 28.63 sec with average of 33.xx. Thanks to all
 
OLL help

does anyone know the most common for OLL? im trying to learn the algs. right now,but 57 is a lot... Also, do you have any tips for memorizing? thanks.
 
badmephisto.com has good ones that are easy to memorize. Don't memorize them too quickly, do maybe one a day, learn them over a long period of time. You should definitely already know 1-Look PLL before attempting all 57 OLLs though.
 
1) This post is a request for help on OLL, not a helpful post on OLL. A title like "Need help on OLL" is slightly better.
2) This should definitely go in the beginner's forum.
3) I recommend learning PLL and compound OLL, then start learning the remaining OLL cases one-by-one. (Start getting used to F2L slowly.)
 
Wow thanks Lucas for the Compound OLL link. How'd you come up with that? I think I'll learn this instead of all 57 at first, which I now know only about 15 of.
 
oll help

almost all the algorithms have the same but with the other hand so you can only learn about 20 of them and you will know almost all the ones. just tranfer the algorithm from the right hand to the left hand. do the right hand so much that it will become muscle memory then try the left hand.
 
Help with Oll And Plls

Which PLL and OLLs should I learn now?

I know 4-look

Can someone give me a good list of what I should learn starting from easiest/chances of it appear.
 
I wouldn't bother with OLL now until you've learned PLL, which is more important. Besides, each PLL case (with the exception of a few) will occur more than each OLL case, so one PLL alg will be more useful than one OLL case. Macky's site gives the probability for each OLL/PLL case. But I would search around on many sites to get the actual algorithm you want to learn/use.

I was beaten to it long ago.
Edit: nm, badmephisto doesn't give OLL probability :D
 
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which ones should i learn first.

boy... these diagrams are mindf**ks

The ones with the highest probability I'd say. And they aren't that bad. You already know all the OLL's you need to get decent times, so its really just like 16 more PLL's or so.
 
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