Wednesday, October 24, 2012

AE86 Stock 4AGE Manifold Information and Specs


http://www.billzilla.org/4agstock2.htm

4AGE manifolds
INLET MANIFOLD - 16 Valve
The big port heads, apart from the supercharged 4AGZE's, all use the TVIS (Toyota Variable Induction System) to improve the low to mid range torque. What it does is shut down half of each inlet port with a set of small butterflys to make the airflow go into the inlet port itself a lot faster. Certainly, with a stock engine the low end performance is noticably decreased when it's disconnected.

Here's a diagram of the system

You can just see the small butterflys in every second port in the Air Control Valve plate
The TVIS is operated by a small vacuum powered device that sits under the inlet manfold, and the vacuum source for this is provided by a computer controlled air solenoid, that get's the vacuum source from the inlet manifold. When the engine isn't running, the TVIS isn't working, and so the butterflys are in the open position. When the engine starts, the computer sends a signal to the electrical solenoid, with then passes on the inlet vacuum to the TVIS vacuum solenoid, which then shuts the butterflys. So, if you want to try the engine to see what it's like without the TVIS, all you have to do is to pop the vacuum hose off (and block it) and the TVIS will stay open.
The computer signals for the TVIS to operate at 4,400rpm - above that rpm the butterflys are open, and vice-versa. At that rpm, the amount of power that the engine makes is the same with the TVIS open or closed, so you don't feel any increase in power when the system operates, though there is an increase in induction noise.
(Note that even with the TVIS completely removed, as with my current 4AGE, the 4AGE still changes note quite a lot at around those rpm's)

The small port inlet manifold has no TVIS, and so is a conventional plenum/runner type manifold, though it only comes in FWD configuration.
The RWD inlet manifolds all have the throttle body system at the front end of the engine, with the FWD's at the other end. There is basically no other differences with them.
For what it's worth, a reasonably common mod is to fit a small port engine to an AE-86, and to do this the FWD manifold is modified so that the throttle body is at the 'other' (front) end. This takes a fair bit of cutting & welding, but seems to be worth the cost and effort

Here's a friends 4AGE small port engine that has had the FWD inlet manifold converted to be a RWD manifold. You can see the extensive welding that's been done to make all that happen. There's a cap that's been welded onto the other end to block the hole up.
The inlet throttle butterfly is 55mm in diameter, and will flow more air than any amount of power that you can get out of the 4AGE with the factory inlet manifold, so there is no need whatsoever to fit a larger one, as some people do. I have seen a report on a dyno run that shows an engine with a 60mm throttle body fitted - ~20% more throttle area - making about 1 - 2hp more, which is more likely to be dyno error than anything else.
At the bottom of the throttle body is a wax pellet type of 'cold idle up', and it has engine water running through it so that when the water is cold the device lets an additional amount of air pass into the inlet manifold to keep the idle speed normal. As the water and wax warms up, the device passes less and less air, until the engine is fully warm. They tend to be a bit unreliable when they get old, and often need replacement.
The other occasional problem with the 16v throttle bodies is that people do not allow a little bit of slack in the throttle cable with the accelerator full-down, and this puts a strain on the cable and throttle body - I've seen a few break because of it so please mack sure that you're not loading up the throttle body like that.

INLET MANIFOLD - 20 Valve
Very good indeed - They have a single throttle butterfly for each cylinder, and so are about as good as a very good racing inlet system.
Hot property, they are!
One slight problem though, if you want to fit one to your 16v - They won't bolt on and so require an adaptor, and more importantly they have ZERO inlet manifold vacuum, so the computer won't work ...   An aftermarket add-on using TPS (Throttle Position Sensing Vs rpm) only for the 16v's.
(That being said, I've read a few reports from various people that say that they've gotten the stock 16v computer & 20v inlet manifold to work together okay)

EXHAUST
The factory exhaust manifold is very good with all types, both FWD & RWD, and up to about 200hp they are better than just about every aftermarket exhaust manifold available. They are a 4-2-1 design, and all types fit all the engines, with the exception of the 20v manifold, which has the two bolt holes on the extreme ends in a slightly different place to the 16v ones. But - by slotting the holes on the 16v manifolds, they can be made to fit quite easily on a 20v; usually this is done to convert a 20v to a RWD car. You'd be far better off getting things such as lightweight flywheels, etc, to improve performance, as the engine will definitely benefit from these, rather than one of dubious increase at best ...
   
4AGE Blocks
There are basically two types of 4AGE blocks; The ones that are just single cam blocks used for twin cam work and have three ribs on the side, and the small port, 4AGZE, and 20v blocks which have seven ribs. The three rib blocks can only been overbored a small amount, roughly 1mm or 0.040", (82mm total) and the seven rib blocks can sometimes (but not always) go a bit further to 2mm or 0.080". (83mm total) An important note though is that the bigger the bore and/or the more power the engine is making, the more blow-by you'll be getting. I doubt if it's worth boring the block out to try to get more capacity for that reason.
The 20v blocks have a slight bend in one side, along the section where the sump bolts on., so that a 16v sump won't bolt straight on. But with some small mods they can be made to fit, I've heard.
The seven rib blocks on the small port 4AGE's also have an oil return pipe on the right-rear from the back of the head. The 4AGZE's & 20v's have the 'bump' in the block for that hole, but it's solid cast metal there instead.
Another good feature of the seven rib blocks is that they have an oil-squirter system that pumps oil onto the bottom of the pistons, thus helping cool them.
There's no other significant differences between all the blocks.

 
4AGE block, crank, con-rods, and pistons
4AGE Cranks, con-rods, and pistons
There's two types of crankshafts available; They both have the same size main bearings, but the 'lightweight' or 'small' one has 40mm con-rod bearing sizes, with the other 'big' one having 42mm bearings. The 'small' crank only comes with the TVIS engines, and vice-versa - The 4AGZE and the 20v engines all have the 42mm crank.
Both cranks are extremely strong, and only break with quite a bit of mis-treatment. The 40mm crank weighs about 11kg and the 42mm crank about 11.7kg.

As there is two types of crankshaft, there are also two types of con-rods; One 'big', one 'small'. (42mm and 40mm)  Note that the 'big' con-rods are quite a bit heavier than the 'small' con-rods, and also have 20mm gudgeon pins Vs the 'small' con-rods 18mm gudgeon pins. Again, both types are very strong and give no trouble at all.
 
In this picture, you can see a 'small' con-rod, which has a small hole drilled in the side to lubricate and cool the piston, and on the left an AE-101/111 rod, which has a slot milled in the side, Cosworth style. If you look carefully, you can see the different sizes of the big-end and gudgeon pin bearings.

There are bascially three types of pistons - One for the 16v naturally aspirated, 20v, and supercharged 4AGZE. The 16v ones come with 18mm and 20mm gudgeon pins, (18mm = TVIS only) the 20v are 20mm and have three flycuts for the three inlet valves, (all 4AGE pistons have flycuts for each valve though) and the 4AGZE shares the 20mm gudgeon pin diameter. The 4AGZE pistons have a lower deck height to give a lower compression, and are also ceramic coated on the tops to improve heat rejection.
All these pistons give no trouble in regular service, though they are of the slotted type with the oil return ring groove, thus are weaker than the 'drilled' type. They are also cast rather than forged, (though the 4AGZE's are forged) and so if you are planning on increasing the power of your 4AGE by more than, say, 30hp then you would do well to get a set of aftermarket, eg, Wisco, pistons to make sure that you don't have any trouble.
FWIW, I have run my dead stock 4AGE up to 8500rpm without any troubles from the internals.

AE86 Stock 4AGE Information and Specs

Borrowed From
http://www.billzilla.org/4agstock.htm


The Stock 4AGE Description Page
In this page I talk in some detail about the different types of 4AGE, and a little about which cars they come in.
The Toyota 4AGE engine started life in 1983 as a logical progression from the 2A and 3A single cam engines. There was also the single cam 4A-C engine, which initially shared an identical block & very similar internals as the twin cam version. The 4AGE soon progressed to having stronger internals, and so they diverged from there.
The twin cam 4AGE is basically a road going, mass produced version of the Ford Cosworth BDA twin cam racing engine. They share the same bore and stroke (81mm x 77mm), the same size valves (29.5mm & 25.5mm), and in some versions of the 4AGE very similar port shapes & sizes. When fully prepared for racing, they both produce similar hp figures at similar revs, so it would seem that Toyota has done an excellent job with them.


This is a 2 litre BDA ( B elt Driven, series A engine), which is basically identical to the 1.6 litre BDA.
The parallels continue - The 4AGE is the first twin cam that Toyota made with a rubber drive belt for the camshafts, as was the BDA. The 4AGE was a development of the single cam 2A, 3A. & 4A  engines, but I guess Toyota must have planned to make the 'A' series engine into a twin cam, perhaps again following the 'A' series Cosworth engines.
 
Quick link on this page to -
The first 4AGE, RWD & FWD
Brief summary of the different types
4AGE heads
Next page -
4AGE manifolds, 4AGE blocks, 4AGE cranks, con-rods, and pistons
On the last page -
4AGE oil system, 4AGE water system, 4AGE EFI, 4AGE other stuff
 
The total variants of the 4AGE are, to the best of my knowledge -
- Very early big port TVIS 16 valve, with black lettering & 6-bolts holding the flywheel on.
- Big port TVIS FWD/RWD 16 valve, usually with blue lettering on the cam cover and 'TVIS' on the inlet plenum.
- Big port TVIS FWD 16 valve, with red lettering. They have a seven-rib block with oil-squirters.
- Small port non-TVIS FWD valve.
- Silvertop 20 valve. Early & late type, minor variations in inlet system & VVT operation.
- Blacktop 20 valve.
- Early supercharged 4AGZE, low compression big port head, distributor.
- Mid-aged supercharged 4AGZE, higher compression big port head, crank angle sensor type ignition.
- Late supercharged 4AGZE, higher compression small port head, crank angle sensor type ignition.
More information on these engines below.


The first 4AGE, RWD & FWD
Anyway, the 4AGE started life as a twin cam head fitted to the single cam bottom end, though the crank was a bit stronger, the pistons also stronger, and a windage tray fitted between the sump and the block. The clutch and clutch plate are identical as the single cam 4A model.
The versions with MAP (Manifold Absolute Pressure) sensors make 127hp in standard trim, and red-line at 7700rpm. Some countries have the AFM (Air Flow Meter) sensor versions, which make 115hp. So how to tell the two apart? Well, the MAP sensor versions have a small black box that is attached to the inlet manifold by a rubber pipe. (This pipe lets the sensor sample the inlet manifold air pressure) The MAP sensor usually sits on the firewall, and looks like this -

And here's the AFM type, where the AFM sits between the throttle body and the air cleaner. The AFM is simply a sprung flap that swings back more and more as the engine sucks more air, thus making more power.

This is the Air F low Meter on an MR2


Brief summary of the different types
4AGE's come in both front and rear wheel drive form, and although they are very similar, there are a number of small differences that make swapping them over not quite as easy as it would first seem. I won't be getting into that area, as a good friend of mine, Phil Bradshaw, has already written an excellent pageon doing just that. Please note that the engine types described here in the next few page are of Japanese production, other countries may vary on these specs slightly.
With the RWD types, they came out in big port versions only - no small ports - in basically two types as mentioned in the previous paragraph. These can be found in the AE-86 Corolla and AA-63 Celica, with the AFM one having 115hp and the ones with MAP sensors having 127hp. The FWD ones are much the same, coming in the AE-82 Corolla, but with the AE-92 Corolla the small port 4AGE (non-TVIS) made its debut, with 100kw or 134hp.
Two odd types -
- I have also heard that there was a very early (1983) and now rare 4AGE TVIS FWD that had black lettering on the cam cover, but the main difference is that the crank only has six flywheel bolts verses all the other 4AGE's that have eight and so it looks like it has a 4A-C single-cam type crankshaft.
- Another odd 4AGE is one that has red lettering on the top, is fitted with TVIS & a big port head, but has a seven-rib block & a 42mm bearing crank. There are much easier to find around the world. They also appear to have no oil squirters on the inside of the block, unlike the regular small port types which do.

With the arrival of the AE-101, things changed a great deal; The naturally aspirated 16v 4AGE was no more - replaced by the new 20v 4AGE - and another newcomer was the supercharged 4AGZE. The 20v started with a claimed 165ps and the blown 16v 145hp, though the 'Z' had a great deal more torque, but was a lot less 'revvy'.
The AE-101 came with the slightly improved claimed 170ps 20v 4AGE, and there was also the options of two 4AGZE's, both with 165ps. (The later one having an integrated ignition coil pack system)

Many people seem to define the different types of 4AGE by the colour of the letters on the cam cover, but I think that this is not a reliable method, as from what I've seen different countries have different colours, cam covers have been repainted, and sometimes swapped. I only recognise the different types by them being a big or small port, RWD or FWD, AFM or MAP, and the number of valves.
 
 

4AGE Head Types
There are two types of 16 valve heads, and the one 20 valve - The majority of 16v 4AGE's have what's called the 'big port' head, and the remainder (only found on the AE-92 FWD Corolla) have the 'small port' head. The small port head is the prefered type for performance in a road car, as they are easier to get up to about 200hp out of. (More than about 200hp the big port is best)

Here's a pic of the big port head
 
And another of the small port
And to compare the two properly, here's both together. Note that these pictures where taken from slightly different angles, and so the port divider isn't the same position in the top & bottom of the picture, but the actual port faces relative to each other are pretty much correct
This is what the combustion chambers look like ...

... and they are quite efficient, able to make a good 100hp/litre with very few mods

Here is a cross-sectioned 16v head
The rest of the head is much advanced over the 'old' BDA, in that it is a single piece design and it also doesn't require to have the camshafts removed to get to the shim adjusters when working on the valve clearances. (The BDA's head comes in two large pieces, and it splits horizontally just below the cam bearings to make it possible to get to the shim adjusters. This makes the head castings a LOT more expensive, less accurate, and potentially unreliable)
The 4AGE's use a 'shim over bucket' system for valve clearances, and by doing this it allows you to alter the valve clearances without removing the cams, unlike just about every other twin cam engine. Note that Toyota want you to use a 'special tool' to get the shims in & out with, but it's easy enough to do it with a couple of small screwdrivers to push the bucket down with.

 
16v 4AGE head, completely dissasembled
16v 4AGE heads specifications -
- Valve included angle (angle between the inlet and exhaust valves) - 45°
- Minimum valve spring seat pressure to allow for 7,700rpm - 35lbs, or 16kgs
- Inlet valve diameter - 29.5mm
- Exhaust valve diameter - 25.5mm
- Both valves have 6mm diameter stems.
- Cam bucket diameter 28mm, shim diameter 25mm
Cam Timings - (Japanese spec)Inlet CamIVO  BTDCIVC  ABDCDurationLift (mm)
'Big port' 51°240°7.56
'Small port' 44°232°7.1
4AGZE 44°232°7.1
 Exhaust CamEVO BBDCEVC ATDC
 
'Big port' 51°9 °240°7.56
'Small port' 44°232°7.1
4AGZE 44°232°7.1

The 20v head is a very different beast indeed!
The obvious difference is that they have three small inlet valves instead of the more common two. This is intended to give the engine better breathing, and as the 20v is about 145hp it seems to work. For lots more pictures of the 20v head, please check out the second page of my 4AGE Mods page.
The other differences are that the inlet port has a much better angle onto the inlet valves, and that the valve included angle is a good 10° less than the 45° of a 16v head, which is a good thing for making power. The exhaust side of things are very similar.

20v 4AGE head specifications -
- Valve included angle (angle between the inlet and exhaust valves) - 35° (I think ...)
- Inlet valve diameter - 26.5mm
- Exhaust valve diameter - 26mm
- Both valves have 5mm diameter stems
- Cam bucket diameter 23mm, with very small shims between the valve stem top & bucket 
Cam Timings - (AE101) Inlet CamIVO  BTDCIVC  ABDCDurationLift (mm)
VVT <4400rpm & >~7000rpm 70° 250°7.97 
VVT >4400rpm 30°40° 
 
  Exhaust CamEVO BBDCEVC  ATDC250° 
  54°16°
7.6

 
Cam Timings - (AE111) Inlet CamIVO  BTDCIVC  ABDCDurationLift (mm)
VVT <4400rpm & > ~7000rpm 65° 250°8.2
VVT >4400rpm 35°35° 
 
  Exhaust CamEVO BBDCEVC  ATDC
 
  54°16° 250°7.6

Crank Case Ventilation Fully Explained with PICS - Naturally Aspirated Version

Borrowed from
http://www.sr20-forum.com/information-library/34413-crank-case-ventilation-fully-explained-naturally-aspirated-edition.html




Crank Case Ventilation fully explained. (Naturally aspirated edition.)

If you're reading this you've likely asked a question about crank case ventilation, catch can placement, correct PCV hose routing, or similar.
Grab yourself a beverage of your choice, sit back and relax. Keep reading to have all of your questions answered.

To understand what you're doing when you modify or repair the factory crank case ventilation system you should know how the factory systems works first before diving into modifying it or fixing it. It might also be nice to understand the history and evolution of the crank case ventilation system, so I'm going to start with the early SR20DE system and work up from there.

I know people like images so I won't hold off any longer.
Here's the factory system:

This image has been resized. Click this bar to view the full image. The original image is sized 852x693.


Now let me explain what's happening here. The piston rings don't seal perfectly, so there is some air that gets by them and we call that blow-by. This blow-by air is pressurized and will cause oil seals to fail and eventually will cause other major problems so it needs to be dealt with. Having a vacuum in the crank case is very good as it promotes ring seal and keeps windage losses (drag on the rotating crank caused by a cloud of oil in the crank case) to a minimum. Since having a vacuum in the crank case is good and having pressure there is bad, we must get rid of the pressure somehow.

The air comes in contact with a lot of oil in the crank case and basically turns into a mix of air and oil (along with a little bit of gasoline and water). This air/oil mix is represented by the red arrows in the crank case and as oil gets removed throughout the system I've made the color shift towards blue. I even showed little oil droplets condensing out of the air as it goes up through the "catch can" oil separator. I didn't show them everywhere in all the baffles, but you can imagine the same thing happening everywhere you see baffles.

The amount of air and oil can be quite significant, so Nissan put in two important pathways for the pressure to escape from the crank case because at times there can be a lot of air to evacuate.
On the left the air and oil can escape the crank case up along the timing chain portion of the block and into the valve cover. This is the usual pathway for the air to take.
On the right the oily air can escape the crank case (in times where there is excessive pressure to evacuate) through the provision in the side of the block, up through the oil separator (catch can) leaving the crank case.

So the goal is to have a vacuum in the crank case, and this is accomplished on some vehicles with a dry sump oil system, but on regular vehicles the intake manifold is used for the source of vacuum. Basically the engine is setup to consume it's own blow-by gasses. Not a super great idea because it coats the intake in oil residue and lowers the effective octane of your fuel, but it certainly is efficient, practical, and good for the environment.

How does blow-by lower your octane? Blow-by gasses with any amount of oil in them will lower the effective octane rating of your fuel because the vaporized oil will ignite at lower energy levels than 87 octane (R+M/2) gasoline. The more of it you allow to enter the cylinder, the more you will have to worry about detonation. This is usually not a big worry for naturally aspirated engines, but obviously forced induction is a different story.

All right if you've been paying attention we now have the blow-by gasses up and out of the crank case and in the valve cover now. The gasses are going to continue on through the small PCV (positive crank-case ventilation) port at the top-left corner of the valve cover which includes a one-way check valve so things can only flow out (and not in). The gasses flow out of the PCV port and into the intake manifold where they are sucked back into the engine to get consumed and pushed out of the exhaust. Simple enough.

Now the gasses have a bit of oil mixed in with it, so on it's way out of the valve cover it passes through a labyrinth of baffles designed to help condense the oil and collect the oil from the air. The more surface area the oil has to cling on to the more oil will separate from the air. The oil that is collected drains back down onto the valve train and eventually returns to the oil pan.

Here is another diagram showing the normal operation of the crank case ventilation system with half of the system greyed out:

This image has been resized. Click this bar to view the full image. The original image is sized 847x691.


That pathway is used around 90% of the time you drive the car. A little blow-by is pushed into the crank case but the intake manifold sucks it up and the oil separator in the valve cover keeps most of the oil from escaping the engine. The manifold keeps a good vacuum on the crank case during idle and partial throttle conditions which amount to most of your driving.



"Okay Ben, what happens when you're at WOT then?"

I'm glad you asked.

That's where the other half of the system comes into play. Now there are a couple things happening at WOT.
Firstly, there is no real vacuum to speak of in the intake manifold or plenum. With the throttle fully open, the entire intake track experiences atmospheric pressure and no longer produces any vacuum. This means there won't be any vacuum applied to the crank case and blow-by evacuation will be problematic.
Secondly, WOT produces the most blow-by because of the pressure in the cylinder and the lack of vacuum in the crank case (remember the vacuum promotes ring seal and without good ring seal there is more blow-by).

This means there is a lot more blow-by to deal with at WOT and there's no vacuum to suck the blow-by up. In the past, OEMs just vented the crank case to atmosphere and called it a day. In these times of pollution consciousnesses, spouting air with oil and gasoline vapors into the atmosphere untreated is a big no-no. So in an effort to control those emissions Nissan routed the gasses back into the intake to take advantage of the slight vacuum present in the intake (very slight) and also route the pollutants back into the engine to be consumed and eventually treated by the catalytic converter.

Because there is not really any vacuum present, the blow-by gasses build up pressure and relatively slowly move up to the valve cover via both the left and right pathways. These pathways are also larger than the regular PCV hose because flow is important now that the vacuum is gone.

Let's follow the path of the blow-bay gasses at WOT.
They start out at the bottom just as before and this time they go up the timing chain section and the catch can section on the right. The pressure in the crank case is now going to be about equal to that in the intake manifold, so not much of anything will flow through the PCV hose. The blow-by gasses will have to continue on through the valve cover where there is even more built-in oil separation labyrinth. Eventually the gasses leave the valve cover and meet up with the gasses that took the other route through the catch can. By now both routes have gone through an oil separator so the air is going to be relatively oil free.

Here is another diagram showing this part of the system with the regular section greyed out:

This image has been resized. Click this bar to view the full image. The original image is sized 845x690.



Those are the basics of the 1991-1999 SR20DE crank case ventilation system.
Continue reading for a thorough explanation of the roller rocker (years 2000+) SR20DE and SR20VE (including N1 and 20V) crank case ventilation system.


Okay now that we have the basics down the rest should be a lot easier to get through.
Nissan basically upgraded the crank case ventilation system when they moved on to the roller rocker head and have kept it generally the same from then on all the way to the SR20VE engines including the N1 and the 20V varieties.

They basically did two things when they upgraded the system. They got rid of the stand-alone oil separator (catch can) and built it into the valve cover. They also moved the "PCV" port from the top-left of the valve cover way over to the right side. This simplified and cleaned up the engine bay by including the oil separator for the right pathway into the valve cover. It also increased the ability for the system to remove oil from the blow-by because of a minor but significant rerouting of the right pathway. I've tried to describe this visually by changing the colors of the arrows as they flow through the system. You should be able to notice that the arrows are more blue in these diagrams than in the ones from the old system.

Here's a diagram of the system:

This image has been resized. Click this bar to view the full image. The original image is sized 841x720.


You should notice immediately that the stand-alone catch can is gone now, and that tube connects directly to the forward portion of the valve cover. The new valve cover has an additional oil separation pathway that it didn't have before which serves the purpose of the old stand-alone catch can. You'll also notice right away that the PCV hose has moved way over to the right and blow-by gasses have much farther to travel (through more oil separation labyrinth) before leaving the valve cover.

Here is what things look like at idle or partial throttle with the inactive sections greyed out:

This image has been resized. Click this bar to view the full image. The original image is sized 849x720.


Hopefully these diagrams are making sense and looking familiar to you by now. As you can see, the blow-bay gasses are still forced to go through all of the oil separators even though we're at idle or partial throttle. This is not the case in the old system.

Now for a look at what happens during WOT:

This image has been resized. Click this bar to view the full image. The original image is sized 848x719.


As before, the PCV hose is taken out of the equation because nothing is going to flow to the manifold now that the pressure in the intake manifold and the valve cover is about the same. Even if some blow-by gasses do go through the PCV hose, there is lots of it left and the other pathway to the intake track is vital to providing a wide enough pipe for the gasses to escape through.

That's about all there is to the newer system. It's a step above the old system in many ways that hopefully now you understand quite well.


So now that you know the basics, I'm sure you're wondering what (if anything) can be done to improve the system.
Well you certainly won't be alone. Plenty of people want to reduce blow-by, clean up the engine bay, simplify the crank case ventilation system, and prevent every last bit of oil from being sucked into the intake and gumming things up. However the system is a little more complicated than most people think and it's actually well designed from the beginning so it's hard to improve on.

As history has shown, this is a hot topic. About two years ago Vadim got bit by the bug and started messing around with his system and eventually after talking some sense into him he decided to mostly abandon his attempts as he was not getting great results. If you want to read about it, here's the thread: Finding a way to Reduce Oily Blow By Gases
Love you Vadim! 

Just recently s132nr started another thread about upgrading the system and it was made clear to me that I had to make a comprehensive thread where people could learn the right way to go about working with the crank case ventilation system on our engines. Want to read how that thread went? Check it out here: oil catch can pcv 20v valve cover question

One more link before I get into the nitty gritty details of upgrading the system. Fred Cooke is my Australian brother-from-another-mother and he has his own crank case ventilation (not SR20 specific) explanation thread on his own forum. It is very easy to read and extremely thorough. It's where I finally got a handle on the situation and really helped me a lot in figuring out how it all works. It might be a bit late to link to it now, but here it is anyway: http://www.diyefi.org/forum/viewtopic.php?f=24&t=357
Fred really emphasizes the importance of making sure the system has enough flow. Tube diameter is important and 99% of catch cans on the market actually introduce a huge restriction to the system so you'll want to make sure you keep an eye on that. Really I should make that thread a mandatory read, but oh well.

More crank case ventilation question threads (will update as I find them):
removing black canister on front of valve cover
Oil separator box
Can I move/remove this?


Okay on to the different methods of improving, or completely messing up the factory crank case ventilation system. These methods will cover a huge mix of things I've seen done on people's cars, or that I thought up in my head. Some will be great ideas, some will be good ideas, some will be bad ideas, and some will be awful ideas. I'm going to keep things simple by rating each method on the important points so you can just give it a quick look and see immediately if it's a good idea or not.


WOT "catch can" elimination on 1991-1999 engines via cap method:
This image has been resized. Click this bar to view the full image. The original image is sized 846x691.


Effect on the following characteristics:
  • De-clutters the engine bay - Yes
  • Simplifies crank case ventilation system - Yes
  • Helps remove more oil from the air - No
  • Help evacuate the crank case - No
  • Maintains or improves the stock flow capacity - No
  • Helps promote ring seal and prevent blow-by - No
  • Helps prevent oil smoke in exhaust - No
  • Helps prevent dip stick from popping out - No
  • Helps prevent oil leaks due to pressure - No
  • Helps keep intake track clean including throttle body - No
  • Helps keep intake manifold/plenum clean - No
  • Maintains or reduces amount of pollutants - Maybe
  • Maintains prevention of un-metered air from entering the intake - Yes
Consensus: BAD IDEA




WOT "catch can" elimination on 1991-1999 engines via bypass method:
This image has been resized. Click this bar to view the full image. The original image is sized 846x691.


Effect on the following characteristics:
  • De-clutters the engine bay - Yes
  • Simplifies crank case ventilation system - Yes
  • Helps remove more oil from the air - No
  • Help evacuate the crank case - No change
  • Maintains or improves the stock flow capacity - No change
  • Helps promote ring seal and prevent blow-by - No change
  • Helps prevent oil smoke in exhaust - No change
  • Helps prevent dip stick from popping out - No change
  • Helps prevent oil leaks due to pressure - No change
  • Helps keep intake track clean including throttle body - No
  • Helps keep intake manifold/plenum clean - No
  • Maintains or reduces amount of pollutants - No
  • Maintains prevention of un-metered air from entering the intake - Yes
Consensus: BAD IDEA





Venting WOT section to atmosphere on 1991-1999 engines with "breather" filter:
This image has been resized. Click this bar to view the full image. The original image is sized 852x693.


Effect on the following characteristics:
  • De-clutters the engine bay - Maybe
  • Simplifies crank case ventilation system - Maybe
  • Helps remove more oil from the air - No change
  • Help evacuate the crank case - No
  • Maintains or improves the stock flow capacity - Yes
  • Helps promote ring seal and prevent blow-by - No
  • Helps prevent oil smoke in exhaust - No
  • Helps prevent dip stick from popping out - No
  • Helps prevent oil leaks due to pressure - No
  • Helps keep intake track clean including throttle body - Yes
  • Helps keep intake manifold/plenum clean - Yes
  • Maintains or reduces amount of pollutants - No
  • Maintains prevention of un-metered air from entering the intake - No
Consensus: BAD IDEA





Adding a "catch can" to the WOT section on 1991-1999 engines:
This image has been resized. Click this bar to view the full image. The original image is sized 902x693.


Effect on the following characteristics:
  • De-clutters the engine bay - No
  • Simplifies crank case ventilation system - No
  • Helps remove more oil from the air - Yes
  • Help evacuate the crank case - No change
  • Maintains or improves the stock flow capacity - No change
  • Helps promote ring seal and prevent blow-by - No change
  • Helps prevent oil smoke in exhaust - No change
  • Helps prevent dip stick from popping out - No change
  • Helps prevent oil leaks due to pressure - No change
  • Helps keep intake track clean including throttle body - Yes
  • Helps keep intake manifold/plenum clean - Yes
  • Maintains or reduces amount of pollutants - Yes
  • Maintains prevention of un-metered air from entering the intake - Yes
Consensus: GOOD IDEA





Adding a "catch can" to the PCV section on 1991-1999 engines:
This image has been resized. Click this bar to view the full image. The original image is sized 882x693.


Effect on the following characteristics:
  • De-clutters the engine bay - No
  • Simplifies crank case ventilation system - No
  • Helps remove more oil from the air - Yes
  • Help evacuate the crank case - No change
  • Maintains or improves the stock flow capacity - No change
  • Helps promote ring seal and prevent blow-by - No change
  • Helps prevent oil smoke in exhaust - No change
  • Helps prevent dip stick from popping out - No change
  • Helps prevent oil leaks due to pressure - No change
  • Helps keep intake track clean including throttle body - No change
  • Helps keep intake manifold/plenum clean - Yes
  • Maintains or reduces amount of pollutants - Yes
  • Maintains prevention of un-metered air from entering the intake - Yes
Consensus: GOOD IDEA





Using the exhaust to create suction (via a venturi) to ventilate the crank case on 1991-1999 engines:
This image has been resized. Click this bar to view the full image. The original image is sized 852x693.


Effect on the following characteristics:
  • De-clutters the engine bay - No
  • Simplifies crank case ventilation system - No
  • Helps remove more oil from the air - No
  • Help evacuate the crank case - Yes
  • Maintains or improves the stock flow capacity - Yes
  • Helps promote ring seal and prevent blow-by - Yes
  • Helps prevent oil smoke in exhaust - Yes
  • Helps prevent dip stick from popping out - Yes
  • Helps prevent oil leaks due to pressure - Yes
  • Helps keep intake track clean including throttle body - Yes
  • Helps keep intake manifold/plenum clean - Yes
  • Maintains or reduces amount of pollutants - No
  • Maintains prevention of un-metered air from entering the intake - Yes
Consensus: GOOD IDEA




Using an air pump (electric or mechanical) to ventilate the crank case on 1991-1999 engines:
This image has been resized. Click this bar to view the full image. The original image is sized 902x693.


Effect on the following characteristics:
  • De-clutters the engine bay - No
  • Simplifies crank case ventilation system - No
  • Helps remove more oil from the air - Yes
  • Help evacuate the crank case - Yes
  • Maintains or improves the stock flow capacity - Yes
  • Helps promote ring seal and prevent blow-by - Yes
  • Helps prevent oil smoke in exhaust - Yes
  • Helps prevent dip stick from popping out - Yes
  • Helps prevent oil leaks due to pressure - Yes
  • Helps keep intake track clean including throttle body - Yes
  • Helps keep intake manifold/plenum clean - Yes
  • Maintains or reduces amount of pollutants - Yes
  • Maintains prevention of un-metered air from entering the intake - Yes
Consensus: GREAT IDEA!




Using a dry sump oiling system to ventilate the crank case on 1991-1999 engines:
This image has been resized. Click this bar to view the full image. The original image is sized 865x835.


Effect on the following characteristics:
  • De-clutters the engine bay - Maybe
  • Simplifies crank case ventilation system - Yes
  • Helps remove more oil from the air - Yes
  • Help evacuate the crank case - Yes
  • Maintains or improves the stock flow capacity - Yes
  • Helps promote ring seal and prevent blow-by - Yes
  • Helps prevent oil smoke in exhaust - Yes
  • Helps prevent dip stick from popping out - Yes
  • Helps prevent oil leaks due to pressure - Yes
  • Helps keep intake track clean including throttle body - Yes
  • Helps keep intake manifold/plenum clean - Yes
  • Maintains or reduces amount of pollutants - Yes
  • Maintains prevention of un-metered air from entering the intake - Yes
Consensus: BEST IDEA!!!

Friday, October 12, 2012

Are your Toyota AE86 Belts Sagging? Try this simple trick!

http://www.4x4wire.com/toyota/minutemods/seatbelt/

http://forums.club4ag.com/zerothread?id=41464



By: Josh Carlson- 1/2004
Do you have a seatbelt that doesn't retract all the way when you take it off? Tired of slamming the door on it? Sick of having to untangle the mess each time you need to put on your belt? Josh Carlson illustrates how to fix that pesky seatbelt in 10 easy steps. Tools needed include:
  • Small Flathead Screwdriver
  • Ratchet and 14mm Socket


The loop that must be loosened.
Step 1: Start off by getting any kinks or binds out of the seat belt.
Step 2: Remove the 14mm bolt from under the retractor.
Step 3: Remove the plastic cover.
Step4: Pull the seatbelt out until it ends. The retractor has a mechanism that keeps the belt from moving when the ball is anywhere but level in the bottom. It is necessary to hold the retractor straight up and down to move the belt out.

Removing the plastic bar.
Step5: Push the seatbelt so some it sticks out the other side. That way you can use the screwdriver to pull the loop out.
Step6: Remove the plastic bar and then remove the seatbelt from the retractor. Note how the belt came out so you can put it back together. Always keep pressure on the spool. Do not let go or else it will completely unwind.
Step7: Turn the spool until the metal spring on the side is completely wound up. This may take awhile. This spring was tight out of the factory, but after time the spring will stretch out.

Viewing the spring through the plastic.
Step8: Back the spool off until you can line up the belt and the part it goes into. It is easier to back it off a little farther and thread the belt in to reach the spot on the spool. Then thread the belt into the spool.
Step 9: Reinsert the plastic bar and test the belt to see whether the belt is correctly inserted.
Step 10: Retract the belt. Reinstall the cover. Reinstall the 14mm bolt.
It also helps to clean the belt itself. To clean the belt, remove the belt completely and wash it in a washing machine. Simply remove the belt from the retractor and then remove the other 2 14mm bolts that anchor the belt down. It is possible to insert a screwdriver into the retractor to keep it from moving.

Wednesday, October 3, 2012

Part Numbers: AE86 JDM Part Numbers

Borrowed from - http://www.dorikaze.ca


Part Numbers: AE86 JDM Part Numbers
JDM PART NUMBERS for AE86

NOTE: USE WITH CAUTION!
Some of these part numbers are incomplete and subject to change at anytime by Toyota.


SPRINTER TRUENO PARTS
KOUKI Front Bumper 52119-12092
KOUKI Front Bumper Bracket R 52011-12221
KOUKI Front Bumper Bracket L 52012-12221
KOUKI Front Turn Signal Lamp Assy R 81510-80038
KOUKI Front Turn Signal Lamp Assy L 81520-80038
KOUKI Front Grill 53100-12232
KOUKI Front Grill Emblem 75314-12021
KOUKI Rear Bumper 52159-12062
KOUKI Rear Bumper Bracket R 52015-12111
KOUKI Rear Bumper Bracket L 52016-12111
KOUKI Smoked Turn Signals 81731-12173 & 81741-12163
KOUKI Redline Tail Light Right 81550-1A291
KOUKI Redline Tail Light Left 81560-1A291
KOUKI Redline Tail Light Center Piece 52012-1222

ZENKI Front Bumper 52119-12140
ZENKI Front Bumper Bracket Right 52011-12230
ZENKI Front Bumper Bracket Left 52012-12230
ZENKI Front Lip 76081-12010
ZENKI Trueno Grill 53100-12231

LEVIN
ZENKI Levin Front bumper 52119-12090
ZENKI Levin Hood 53301-12340
ZENKI Levin Right Fender 53801-1A860
ZENKI Levin Left Fender 53802-1A560

KOUKI Levin Right Fender 53801-1A770,1E370,1A861
KOUKI Levin Left Fender 53802-1A750,1A760,1A661
KOUKI Levin Front Bumper 52119-12142
KOUKI Levin Front Right Bumper Bracket 52011-12231
KOUKI Levin Front Left Bumper Bracket 52012-12231
KOUKI Levin Hood 53301-12340

PARTS
Sprinter TRUENO Decal Coupe - 75441-12320-03
Sprinter TRUENO Decal Hatch - 75441-12321-03
APEX TWIN CAM 16 Decal 75443-12550-03
APEX TWIN CAM 16 Decal 75443-12551-03
GTV Hatchback Stickers 75985-12380
TRUENO Mudflaps - 76608-19265 & 76607-19265
OEM Sideskirts 76901-12010 (left)
OEM Sideskirts 76902-12010 (right)
TRD Rear Hatch 67005-AE801-60
TRD Rear Hatch Wing 64440-AE801
TRD Carbon Fiber Hood 53311-AE820
TRD 2Way LSD - 41301-AE804
TRD 1.5Way LSD - 41301-AE805
TRD Trueno/Levin Bible 00602-05100-550
TRD Strut Uppermounts: 48603-AE851 & 48609-AE851
TRD Rear Springs Blue/Orange dot: 48231-AE801-60
TRD Front Springs Light blue/Red dot: 48131-AE801-80
TRD Front (6kg/mm): 48131-AE801-60
TRD Rear (6kg/mm): 48231-AE801-60

CAMSHAFTS: PART NO. TYPE ANGLE
13501-AE851 IN 304
13501-AE861 IN 288
13501-AE871 IN 272
13502-AE851 EX 304
13502-AE861 EX 288
13502-AE871 EX 272

KOUKI TRUENO
Front Bumper
52119-12092????
Front Bumper Bracket Right
52011-12221????
Front Bumper Bracket Left
52012-12221????
Bumper/Clearance/Turn Signal Right
81510-80038????
Bumper/Clearance/Turn Signal Left
81520-80038????
Front Grill
53100-12232
Grill Emblem
75314-12021
Rear Bumper
52159-12062????
Rear Bumper Bracket Right
52015-12111????
Rear Bumper Bracket Left
52016-12111
Redline Tail Light Right
81550-1A291
Redline Tail Light Left
81560-1A291
Redline Tail Light Center Piece
75803-12070
Black Limited Trueno Emblem
75314-12030

ZENKI TRUENO
Front Bumper
52119-12140????
Front Bumper Bracket Right
52011-12230 DISCONTINUED
Front Bumper Bracket Left
52012-12230 DISCONTINUED ??
Zenki Trueno Front Lip
76081-12020
Zenki Grille Emblem
75314-19015
Rear Bumper Bracket Right
52015-12110
Rear Bumper Bracket Left
52016-12110
Rear Bumper
52159-12091-08 (only part number available right now, "-08" prefix signifies a color, so this could be a white painted bumper!)
Rear Bumper Seal, left?
52591-12010


SHARED PARTS
APEX Twin Cam 16 Decal
75443-12550-03????
GTV Decals
75985-12380????
Smoked Turn Signals
81731-12173 DISCONTINUED
81741-12163 DISCONTINUED
Sprinter Trueno Decal Coupe
75441-12320-03????
Sprinter Trueno Decal Hatchback
75441-12321-03
TRUENO Decal (black)
75442-12790-03
Trueno Mudflaps
76608-19265
76607-19265
OEM Sideskirts
76901-12010 (left) DISCONTINUED
76902-12010 (right) DISCONTINUED


TRD JAPAN
Rear Hatch
67005-AE801-60????
Rear Hatch Wing
64440-AE801????
Carbo Fiber Hood
53311-AE820
Thermostat 71'C, 160'F
90916-03046


TRD USA
Quickshift Kit
00602-30301-002
Front Sway Bar
00602-48810-001
Lowering Springs
00602-48130-001
Oil Filler Cap-Kanji screw-on
00602-12108-001
Oil Filler Cap-Japan screw-on
00602-12108-002
Radiator Cap 18.5 psi
00642-16401-001
Radiator Cap 21.3 psi
00642-16401-002
Plug Wires (race)
00642-90919-000
Headers - new revision - (race)
00642-17141-012
Valve Springs (race)
00643-90501-000
Cam Gear 4AG (adjustable)
00642-13523-001
Fuel Pressure Riser (adjustable)
00643-23280-000
Metal Head Gasket
00643-11115-000
Clutch Kit (street)
00642-31200-020
Clutch Kit (race)
00643-31200-021
Oil Filter (race)
00642-90915-002
Front Shocks (pair)
00602-48511-031


TRD JAPAN AE86 Lowering Springs
NOTE: Each part # represents ONE spring, not a pair or set!!!
Front Springs2.0kg/mm (rally)
48131-AE851
Front 2.4kg/mm (rally)
48131-AE861
Front 6.0kg/mm (race)
48131-AE801-60
Front 8.0kg/mm (race)
48131-AE801-80
Rear 2.3 kg/mm (rally)
48231-AE861
Rear 3.9 kg/mm (race)
48231-AE801-39
Rear 4.3 kg/mm (race)
48231-AE801-43
Rear 4.7 kg/mm (race)
48231-AE801-47
Rear 5.1 kg/mm (race)
48231-AE801-51
Rear 5.5 kg/mm (race)
48231-AE801-55
Rear 6.0 kg/mm (race)
48231-AE801-60
Rear 6.5kg/mm (race)
48231-AE801-65
Rear 7.0kg/mm (race)
48231-AE801-70
Rear 8.0kg/mm (race)
48231-AE801-80
Rear 9.0kg/mm (race)
48231-AE801-90

New TRD JAPAN
TRD GAUGES
Control Unit
83291-SP000
Tachometer
83270-SP030
Boost Gauge
83550-SP000
Oil Pressure Gauge
83510-SP020
Oil Temp Gauge
83580-SP020
Water Temp Gauge
08580-SP020

ZENKI LEVIN
Zenki Levin Bumper
52119-12090
Zenki Levin Front Left Bumper Bracket
52011-12220
Zenki Levin Front Right Bumper Bracket
52012-12220
Levin hood
53301-12340 #UPDATED, please use 53301-12442
Grill
53100-12220
Zenki Levin Right Fender
53801-1A860
Zenki Levin Left fender
53802-1A560
Zenki Levin Front Lip
76081-12010

KOUKI LEVIN
Kouki Levin Right Fender
53801-1A770
Kouki Levin Left Fender
53802-1A760 or 1A661 ?
Kouki Levin bumperbr> 52119-12142
Kouki Levin Front Right Bumper Bracket
52011-12231
Kouki Levin Front Left Bumper Bracket
52012-12231
Levin hood
53301-12340 #UPDATED, please use 53301-12442
Bumper Support (you need 2)
52115-12240
Bumper Turn Signal (left)
81520-80024
Corner Light (left)
81620-12290
Corner Light (right)
81621-12290 DISCONTINUED
Door Molding
75732-12251-08
Headlight (left)
81150-1A021
Headlight (right)
81110-1A261

FORMULA ATLANTIC 4AG
CYLINDER HEADS
Cylinder Head Sub Assembly 11101-16030
Cylinder Head Gasket, Metal, .8 11115-AE814
Cylinder Head Gasket, Carbon, 1.2 11115-AE802
Intake Valve Guide 11121-FT001
Exhaust Valve Guide 11125-FT001
Valve Guide Ring 90520-10004
Intake Valve Seat 33.12mmOD 11131-AE801
Intake Valve Seat (+.005) 33.28mmOD 11131-FT001
Exhaust Valve Seat 29.62mmOD 11135-AE801
Exhaust Valve Seat (+.005) 29.77mmOD 11135-FT001
Exhaust Valve Seat (+.014) 29.97mmOD 11135-FT002
Head Bolt, Intake (Short) 90109-10058
Head Bolt, Exhaust (Long) 90109-10059
Head Bolt Washer 90201-10344
Intake Manifold Stud 90116-08212
Bushing, Rubber Manifold Soft Mount 20103-SP001
Plate, Rubber Bushing Retainer 20104-SP001
Nut, Jetnut, Carb Mounting 94300-FT001
Intake Manifold Gasket 17177-AE801
Exhaust Manifold Stud 90116-10037
Exhaust Stud Washer 90201-10089
Exhaust Stud Nut 94181-11000
Exhaust Manifold Gasket 17173-FT002
Plug, Fuel Injector 20301-AE801
Gasket, Water Outlet 16341-16020

CAMSHAFTS/VALVES
Intake Camshaft 13501-AE881-D
Exhaust Camshaft 13502-AE881-D
Camshaft Timing Pulley, Stock 13523-16010
Camshaft Timing Pulley 13523-AE801
Camshaft Pulley Drive Bolt 91111-71020
Camshaft Pulley Washer 90201-10019
Dowel, Cam Drive Pulley 90250-05121
Camshaft Oil Seal 90311-35012
Intake Valve 13711-AE802
Exhaust Valve 13715-AE802
Valve Spring Seat Platform 13735-FT001
Valve Stem Seal 90913-FT001
Inner Valve Spring 26945-FT003
Outer Valve Spring 26946-FT003
Valve Spring Retainer (steel) uses 14mm shim 13741-FT002
Valve Spring Retainer (TI) uses 14mm shim 13741-FT003
Valve Spring Retainer (TI) uses 9.5mm shim 13741-FT004
Valve Lock (Keepers) 90913-03021
Valve Adjust Shim (order size required) 14mm 90072-00000
Valve Adjust Shim (order size required) 9.5mm 90072-FT000
Valve Lifter (Bucket) (Standard) 13751-FT003
Valve Lifter (Oversize) 13751-FT004

PISTON/CONNECTING ROD
TAC Piston W/Pin, Clips, Rings STD. 13101-FT031
TAC Piston W/Pin, Clips, Rings + .005" 13101-FT032
TAC Piston W/Pin, Clips, Rings + .008" 13101-FT033
Ring Set, TAC Piston, STD. 13031-FT001
Ring Set, TAC Piston, +.005" 13031-FT005
Ring Set, TAC Piston, +.008" 13031-FT008
Clip, Wrist Pin Retainer (Replacement) 13252-FT001
Connecting Rod TAC - 5/16 Bolt 13201-FT002
Connecting Rod TAC - 3/8 Bolt 13201-FT003
Bolt, Con Rod Replacement 13265-FT001
Pin, Wristpin Replacement 13251-FT003

CRANKSHAFT/BEARINGS
Crankshaft (Atlantic Series Special) 13401-FT001-A
Flywheel Bolt 90105-FT040
Crank Key 95161-10519
Crank Oil Plug 90344-FT008
Front Crank Pulley 13521-16010
Main Bearings Sold As Qty 1 = 2Shells Color
Crankshaft Main Bearings 1.980-1.984mm 11701-AE803-01 brown
Crankshaft Main Bearings 1.984-1.988mm 11701-AE803-02 green
Crankshaft Main Bearings 1.988-1.992mm 11701-AE803-03 yellow
Crankshaft Main Bearings 1.992-1.996mm 11701-AE803-04 blue
Crankshaft Main Bearings 1.996-2.000mm 11701-AE803-05 pink
Crankshaft Main Bearings 2.000-2.004mm 11701-AE803-06 purple
Crankshaft Main Bearings 2.004-2.008mm 11701-AE803-07 black
(-.010) Main Bearing 2.119-2.133mm 11701-FT001-14 blue
(-.010) Main Bearing 2.123-2.127mm 11701-FT001-15 pink
(-.010) Main Bearing 2.127-2.131mm 11701-FT001-16 purple
Crank Thrust Washer 11011-15010
Rod Bearings Sold As Qty 1=1 Shell Color
Connecting Rod Bearing 1.478-1.482mm 13281-FT004-01 brown
Connecting Rod Bearing 1.482-1.486mm 13281-FT004-02 green
Connecting Rod Bearing 1.486-1.490mm 13281-FT004-03 yellow
Connecting Rod Bearing 1.490-1.494mm 13281-FT004-04 blue
Connecting Rod Bearing 1.494-1.498mm 13281-FT004-05 pink
Connecting Rod Bearing 1.498-1.502mm 13281-FT004-06 red
Connecting Rod Bearing 1.502-1.506mm 13281-FT004-07 black
(-.010) Main Bearing 1.617-1.621mm 13281-FT001-14 pink
(-.010) Main Bearing 1.621-1.625mm 13281-FT001-15 red
(-.010) Main Bearing 1.625-1.629mm 13281-FT001-16 black

BLOCK/SEALS/WATER PUMP
Engine Block 11401-19386
Front Cover Assy 15120-16010
Front Crankshaft Oil Seal 90311-32001
Front Cover Gasket (Paper) 15197-FT001
Front Cover Gasket (Metal) 15197-15030

Rear Crank Oil Seal Housing 11381-15010
Rear Crank Main Seal 90311-70004
Rear Housing Gasket (Paper) 11383-FT001
Rear Housing Gasket (Metal) 11383-15010

Water Pump Assy 16100-19095
O-Ring Water Pump Mounting 96711-24035
Housing, Pump Inlet, Swift 16100-FT001
Gasket, Water Pump Housing 16124-15010
O-Ring Water Pump Housing Inlet 26967-FT010
Block Water Drain @#%$ 90910-09088
Oil Pressure Union 26975-09000

TIMING BELT/OIL SUMP/CAM COVER
Timing Belt 13568-FT001
Timing Belt Guide 13566-15010
Timing Belt Idler 13505-16021
Bolt, Idler Pulley 90109-10096
Pulley, Crankshaft Belt Drive 13521-16010

Cam Cover, Swift 008a 11201-FT001
Insert (TRD/Toyota), Cam Cover 90918-FT001

Dry Sump Oil Pan, Version I 12101-FT004
Windage Tray 12121-FT004
Dry Sump Oil Pan, Version II 12101-FT005

FUEL INJECTION
Fuel Pressure Regulator (008a) 23280-FT003
Fuel Pressure Regulator (014a) 23280-FT005

Injector Insulator (Rubber) 23295-FT001
Injector Hold Down Clamp 23297-FT001
M6x1.0x12 Allen Cap Screw 91300-FT024
M6 Flat Washer 90201-FT006

Fuel Rail 23807-FT001D
Fuel Rail Bushing 26942-FT005
M8 Fuel Rail Screw, Drilled 90105-FT035
Fiber Washer 26942-FT006
-6 Fuel Rail Fitting 96452-FT001
-6 O-Ring (Fuel Rail Fitting) 26967-FT009

Throttle Body (Cyl 1&2) (Bottom Injector) 22210-FT005
Throttle Body (Cyl 3&4) (Bottom Injector) 22210-FT008
Throttle Shaft 22211-FT002
Throttle Shaft Bearing 90363-FT003
Sync Fix Throttle Arm 21453-FT004
Sync Advance Throttle Arm 21453-FT005
Sync Advance Screw 90105-FT036
Sync Advance Screw Spring 26941-FT001
Sync Advance Screw O-Ring 26967-FT008
Sync Advance Screw Seat 13734-FT007
Sync Advance Pin 26933-FT002
Sync Advance Pin Spring 26941-FT002
Sync Advance Cotter Pin 90521-FT004
Throttle Shaft Nut 94181-FT011
Shaft Lock Washer 90201-FT013
Shaft Washer 90201-FT014
Butterfly 22209-FT001
Butterfly Screw 93219-FT002
M5x.8x20 Set Screw 90344-FT011
M5x.8 Nut 94181-FT010
Rubber Balance Tube 90447-FT001
Drive, TPS 22219-FT001D
M4x.7x16 Allen Cap Screw, Drilled (TPS) 90105-FT033
M4 Flat Washer (TPS) 90201-FT011
Velocity Stacks 1&3 22212-FT001A
Velocity Stacks 2&4 22212-FT001B
M6x1.0x20 Stud 91300-FT025
M6 Flat Washer 90201-FT006
M6 Nylock Nut 94181-FT001

IGNITION PICK-UP ASSEMBLY
Magnetic Pick-Up Assembly 89711-FT003
Magnetic Pick-Up Bracket 15671-FT009
magnetic Pick-Up Spacer 90252-FT002
Shim Kit 15671-FT008
Screws, Magnetic Pick-Up 91300-FT027
Ignition Pick-Up Bracket Mount 15671-FT005
Trigger Wheel Adapter 13497-FT004
Trigger Wheel (36 Tooth) 13497-FT006
Trigger Wheel Screws 93219-FT004
M5x.8x16 Allen Head Screw (Bracket Mount) 90105-FT034
M5 Flat Washer (Bracket Mount) 90201-FT005
M8x1.25x55 Allen Head (Bracket Mount) 90105-FT009
M8 Flat Washer (Bracket Mount) 90201-FT007
M6x1.0x25 CSK Cap Screw (Bracket Mount) 93219-FT003

HARNERSS & ELECTRICAL
Chassis Harness Swift 008a 82112-FT005
Chassis Harness Swift 014a 82112-FT012
Fuel Tank Harness Swift 008a / 014a 82112-FT006
Gearbox Harness Swift 008a / 014a 82112-FT007
NLS Dash Control Switch & Harness
ECU Assembly Sequential / Dataloger - Bertils 19190-FT003-B
ECU Assembly Sequential / Dataloger - Comptech 19190-FT003-C
ECU Assembly Sequential / Dataloger - Hasselgren 19190-FT003-H
ECU Assembly Sequential / Dataloger - Loynings 19190-FT003-L
Cam Location Sensor 19300-FT002
O-Ring, Cam Location Sensor 26967-FT011
Coil Harness (Coil Over Plug) 82110-FT001
Ignition Coil (Coil Over Plug) 90919-02205
Engine Harness Swift 008a / 014a 82112-FT016
Water /Oil Temp Sensor 89422-FT001
Air Temp Sensor 89422-FT002
Ambient Air Pressure Sensor 89712-FT001
Throttle Position Sensor (TPS) 89452-FT001
Lambda Sensor 98400-FT001
Lambda Sensor Weldment 98400-FT002
PC Comm Link 82130-FT004
High Volume Fuel Pump Kit 23220-FT003
Fuel Injector (Hi-Flow, Green) 23209-FT002
Relay, Fuel Pump & Ign 85915-FT001
Relay, Fuel & Ignition 2002 spec. (Swift 014a) 85915-FT003
Gearshift Cut Switch, Tac 84110-FT001
Gearshift Cable & Mounting Kit, Tac 85000-FT001