Calling this thing a locker is just like calling the Eaton G80 (Gov-loc, POS) a locker... And yes, this is a trick question...
YouTube - How a Eaton G80 locker works
YouTube - How a Eaton G80 locker works
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But the rotation will only go so far back, and so far fwd... Not the blanket "faster/ slower than the carrier".
That's like saying "I make turns, but not sharp ones". The ammount of play, or stops will tell you how far it can go w/o hitting them and causing lockup.
When I first saw the exploded view I was thinking clutch bearing. It would be nice to see one up close and in person. It appears to me that this is something different than what people have seen.
To often when new products come to market people who don't understand them and quickly call BS. I for one welcome new products.
Which slots? There are two. One in the drive spiders/ gear whatever's... the parts that the axle shafts slide into...
And there are slots in the case...
ok, let me get this straight... Where would this thing go, if there were NO needle bearings in it?
And I do know where the needles are, and where they start. What's confusing me is the "moving up, and down" and "lift"
I assure you, they do not move up and down. They will move fwd and backward, allong the slots in the case... But only to the stops, or the slot runs out.
It's hard to say from the driver seat, but not when I jack one wheel up and turn a tire with it in and out of gear...
If I understand the diagrams correctly, I believe an individual axle can spin as much faster, and for as long as it wants, than the carrier and other axle.
Here are my illustration attempts (side views).
1) Normal drive
--\___/----\___/---- Outer ring (applies power)
------O--------O----- Pin bearings
-----\_/-------\_/--- Inner ring--hooked up to axels
In this case the outer ring "jams" the pin bearings into the inner rings divots, and the inner ring is forced to spin as fast as the outer ring (in my illustration the pin bearings are too small relative to the divots in the outer an inner gear)
2) One side starts spinning faster
--\___/----\___/---- Outer ring (applies power)
---------O---------O- Pin bearings
--\_/------\_/------\_ Inner ring--hooked up to the axels
In this case the forward motion of the inner ring moves the pin bearings into the divot area of the outer ring. This creates enough room between the pin bearings and the inner ring such that the inner ring can spin freely (i.e., the pin bearings are no longer sitting in the divots in the inner ring--rather they "bouncing" in and out of the inner ring divots as the inner ring continues to spin at a rate faster than driven by the input axels.)
That's how I visualized this, not sure if I'm right (hope my illustrations work...)
Sonk... Yeah, you're getting it and you're probably right...
But what most ppl are leaving out is... Drive around your block... Make 4 rights, or 4 lefts... There is NO WAY every time you come back to straight, the carrier returns to straight and the slots for the needles on BOTH SIDES line up exactly down the middle so, "every time it takes off, it's locked"
And even if they do in the carrier, since the wheel covered more distance on the outside of the turn than the inside, the wheel/ axle will not be exactly centered...
My point is; They are not always at the same positions, so the distances to reach the stops are not the same. A the vehicle WILL drive as long as the needles on ONE axle hit the end of the stops on ONE side of the carrier, and calling it locked from the driver seat is BS...
yes, I know that... And I see how in the event of an individual wheel spin-out, the "cage" is grooved so that it touches the other one it its groove and the other side is driven... (just like a limited slip)
And as always, yeah, I still could be missing so something, but I doubt it...
Most of our problem here is a communications breakdown... i.e you might have a name you call one part, and I, another...
So as we're going I'm describing one thing and calling it one thing, and you're describing another and calling it another... Just as if we're having a conversation in two different languages...
Thank you.. I will pickup the Kaiser Monday, and install it next weekend.. Thanks for the adivce..
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Can't wait to hear about your experiences. In your interactions with Kaiser, were there any indications as to whether or not this differential is available, or planned to be available, for the 100?
Got it yesterday.. Now for the install and write up.
I hope to find some time tothis week. I am still considering the install myself. looks like it shouldn't be too terribly hard.
Again if anyone in Phoenix wants to lend a hand
It would be greatly appreciated!
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It works. Honestly, it does......![]()
I'll give a good deal so I can see it.
I just want to know how it works...
Thank you.. I will pickup the Kaiser Monday, and install it next weekend.. Thanks for the adivce..