u just need to make a bracket, for the bracket. to clock the housing, first u need to specify which housing. then u need to loosen that housing from the centersection and spin it. it looks like a clamp in your case.
well, its not only extra piping, but an extra bend the air has to travel around. the less bends the air has to make, the more efficient the system will be. clock it and fab up a little bracket for the actuator.
ok, so fabing up the bends in that tight of a space would have taken WAY too much time, so i ditched that idea and went ahead and clocked it. now i will only need one small 180* section, yay.
now the way it is setup is that the oil feed is on the bottom and the drain is on the top. is that gonna cause a problem that the drain is pointing up??
I’m going to hope you’re kidding… But somehow I have this feeling you’re not.
IF you aren’t… It’s commonly called a drain and not a return for a reason… the oil exits there via gravity… it needs to be exactly at the bottom or I’d say max 15 degrees from centerline (center being the drain pointed straight down). IF you don’t have the drain at the bottom and pointed straight down, it will destroy your turbo in short order. If you don’t understand why, you really need to do more research and reading about how turbos work and especially their lubrication systems, before you consider doing anything further on whatever project you are doing, or you are going to end up with a bunch of metal in your oil pan. The long and short is this: Oil leaving the turbo occupies a far larger volume of space, compared to oil entering the turbo. IT is whipped up and frothy and hot as hell due to the violent nature of the shaft movement in the center catridge. Because of this, the drain on the turbo is far larger then the feed, to allow for the oil to drain out via gravity, at low pressure, into the pan. The pressure of the oil in the catridge is virtually non existent after the oil leaves the shaft area, because of the sudden increase in size of the drain line. But the flow demands are high due to the increase in volume of the oil. The drain needs to be as vertical as possible, and as large as possible, all the way to the pan, and enter the oil pan or engine block at a level above the oil, to ensure that oil cannot backup into the line.
Off topic kinda, but for the same reasons the pressure in the crankcase also needs to be as low as possible (or ideally, a vacuum) to allow the oil to readily enter the pan without opposition. The pressure problem is why a badly designed/malfunctioning/boost pressurized - crankcase evacuation system (PCV) will cause you to burn oil in your turbo ie get blue smoke out the tailpipe, and is why it’s critical to make sure your PCV valve can seal against boost in the opposite direction to normal flow (IE boost blocking in the direction coming from the intake manifold/tb)