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1992 Plymouth Laser/Eagle Talon Big Turbo Project Car BEST OFFER


 


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Valve Cover Modification and Polishing
Crankcase ventilation in a nutshell: High cylinder pressures are achieved both on the compression and combustion strokes. As gasses are compressed and exploded, the rings do the best they can with extremely close tolerances (and oil) to hold all that pressure in... but some still makes it past the rings. That's called blow-by. Blow-by is why all combustion engines are inefficient by design, and why they have crankcase breather systems. Blow-by contains air, water (humidity), fuel, carbon and nitrogen. You don't really want all that stuff in your oil, as they all contribute to oil viscosity breakdown. A breather system works to extract those gasses from the crankcase so they don't condensate into the oil. It does this by connecting the car's air intake system to the crankcase so that blow-by can be re-burnt and transformed into oxides that the catalytic converter can easily break down. As an engine gets worn, the physical capability of the rings to hold that pressure in is reduced. This results in more blow-by and higher crankcase pressure. High crankcase pressure is bad because it prevents the rings from sealing properly, and can also blow oil seals like valve cover gaskets, front case and rear main seals, etc... as that air tries to escape. This is a fire hazard. Oil burns and it's hard to put out. One of the most common tell-tale signs of high crankcase pressure on a DSM is having to zip-tie your dipstick down. If it's getting blown out, then there's excess pressure pushing it out because it has nowhere to go. Also, on an engine that's holding higher crankcase pressure, that pressure works against your oil pressure, and reduces oil flow to all points in the oil system. The factory DSM crankcase has 2 ventilation systems. Two. One is a PCV system (Positive Crankcase Ventilation), and the other one is just a simple breather. The PCV system is connected to the intake manifold, and the breather is connected to the air intake in front of the turbo (or anywhere on the intake in front of the throttle plate on non-turbo cars). The PCV valve is designed to CLOSE OFF the port between the crankcase and the intake manifold when the engine is under load (Boost). When higher pressure is in the intake than the crankcase, a valve snaps shut preventing you from Boosting your crankcase. When you are at idle/cruise (vacuum), it pops open letting those gasses get vacuumed out of the crankcase. Vacuum. The breather always vents back into the intake pre-turbo or pre-throttle plate. That airway is always open. Neither port on either the PCV or the breather are bigger than 1/4", so as much air as you can fit through a single 1/4" hole when you're under Boost... that's all the blow-by it can extract from the crankcase. That might be fine for an 11 PSI factory car, but when some tweaker wants to flow 30, 40, 50+ pounds of Boost, this is a system which is frequently overlooked and in desperate need of attention. You might as well look at your Boost controller as a blow-by increaser if that makes any sense. You gotta get those gasses out of the crankcase. Crankcase pressure is bad. I'm not going to cover vacuum pumps, venturis or other methods of creating vacuum pressure in the crank case because these advanced techniques are for racing applications with dry-sump oil systems which DSMs do not have from the factory, and few people need. Aside from the rings, only worn valve seals can contribute to high crankcase pressure, and that usually causes increased oil consumption that's visible (oil smoke) on cold starts and as the car rolls into high Boost after long periods of vacuum. Some people have tools that can allow them to change the valve seals without removing the cylinder head (if the rings are known to be good), but that's far more time consuming and less complete of a fix than removing and rebuilding the cylinder head. If the rings and cylinder bores are in bad shape, then it's a waste of money. Someone who's performed compression and leak-down tests has determined which parts are bad already. As far as the rest goes, I bypassed my PCV system entirely. There is no vacuum scavenging of gasses from the crankcase on my car. It eliminates the chance of a PCV valve failing and Boosting my crankcase, and since I have a catch can, excessive blow-by is still being captured through condensation. I installed two 3/8" breather ports which flows more than 8 times the air that the original ones could flow. That should prevent pressure from ever building up. The -8AN fittings are compression fittings that don't require gaskets and are extremely easy to work with. They create an airtight seal to my Greddy catch can which I had modified to accept 2 extra fittings. One is plugged. The other has a 5/8" line to the turbine intake to extract gasses back to the engine like it was originally designed to do.





1990 Mitsubishi Eclipse / Plymouth Laser | Frontal Crash Test | CrashNet1
1990 Mitsubishi Eclipse Plymouth Laser / Eagle Talon Impact speed: 35mph or 56kmh Driver: Head Injury Criteria (HIC): 772 Chest G: 44 Femur Load: R-1030 lb, L-1152 lb Passenger: Head Injury Criteria (HIC): 612 Chest G: 40 Femur Load: R-413 lb, L-499 lb Thumbs up for the crash test dummies! New crash test videos every week. Favorite this video and subscribe to CrashNet1! Subscribe: https://www.youtube.com/user/ikea55 fb: http://www.facebook.com/CrashNet1 g+: http://google.com/+Crashnet1 twitter http://twitter.com/CrashNet1 On the web: http://www.CrashNet1.com





Force Drifting A Plymouth Laser
My buddy Kevin getting bored one day. trying to drift the Laser in fashion.





10 Second Plymouth Laser Turbo on Hoosiers! Kyle Cimbron 10.60 @ 132mph
1g awd DSM Drag Race Kyle Cimbron running a new best 10.60 @ 132mph on DOT Street Legal Hoosiers in his mint condition 1g Plymouth Laser RS. After running some high 10's on pump gas he dumped in a few gallons of C16 and made some more power. Took 2nd place in the Pro Shootout class at New England Dragway's Import Wars. Car info:turbo is a FP3565 (old school Non HTA 35R in FP's bolt on housing) Quartermaster Twin Disc, FIC 950's. 37psi Boost, 1/4 tank pump gas with 2 gallons of C16. www.uRaceIfilm.com - Drag Race Videos New England DSM New England Dragway Epping, NH 9/8/13





It's Got Frickin LASER Beams! 10 Second Plymouth Laser Turbo - Kyle Cimbron 10.36 @ 134mph
1g awd DSM Drag Race Kyle Cimbron running a new best 10.367 @ 134.14 MPH on DOT Street Legal Hoosiers in his mint condition 1g Plymouth Laser RS. Won the Forced Induction Sport Class at Import Face Off at New England Dragway. Car info:turbo is a FP3565 (old school Non HTA 35R in FP's bolt on housing) Quartermaster Twin Disc, FIC 950's, C16 fuel. www.uRaceIfilm.com - Drag Race Videos www.Facebook.com/Professional Spectator Drag Race Videos, Import Drag racing, Muscle car drag racing, street racing, how to's, parts reviews, turbo, all motor, Nitrous, supercharged. New England DSM New England Dragway Epping, NH 10/13/13





1G Eagle Talon, Plymouth Laser & Mitsubishi Eclipse Compilation
A compilation of EPIC movies showing why I love 1G Talons, Eclipses & Lasers. I got the movies online & put together this little movie with music by Clockwork beats. R.I.P Ray Klyne AKA Clockwork





1990 Plymouth Laser Turbo
Startup and idle.





DSCF5484.AVI
Big triple turbo setup spool up testing





1991 Plymouth Laser 2.0 engine problem
Short video of the problem with my 1991 Plymouth Laser RS 2.0's engine.





700HP+ 1992 EAGLE TALON TSI AWD WALKAROUND!
The current listing on Ebay for the car is here http://cgi.ebay.com/ebaymotors/TALON-ECLIPSE-LASER-AWD-700HP-STREET-STRIP-B EAST-26k-BUILD-NEAR-COMPLETION-/130852262660?pt=US_Cars_Trucks&hash=item1e7 7671304





1992 Plymouth Laser AWD Turbo
The video is for my brother... Here is your babe... ENJOY!!!





Trans & Clutch 1 - Remove Transmission
This is the first in a multi-video series regarding clutch tech. The clutch itself is a simple mechanism, but it's buried deep in the engine, so you can't just cover the clutch. First, you have to cover how to remove the transmission to get to it. This project started off strange, got kind-of not-good, and then took a turn for the worst. The typical clutch job is not as difficult as the next video will display, but it's good this happened to me because I film this kind of crap. If for some asinine reason you encounter the kind of failure I experienced, you'll know what to do after the next video. Clutch assembly will be covered in a third video. About the car: You saw the other assembly video. You know when I put this thing together. You know it doesn't come out to play when it's cloudy. I've had it on the road less than an earl change. Freshly rebuilt TRE Stage 2.5 trans with a brand new ACT 2600 and a sprung 6-puck (MB1-XTG6) on a stock flywheel. This is Transmission #4.





FORD LASER BP TURBO ENGINE STARTUP
Start and run on adaptronic ecu





K20 vs Eagle Talon turbo
One of the best race in Summer 2007.





DSM Big Turbo Talon GT42R Startup
She's Alive!!




Which car is faster? Which Car is Faster?





Similar 1/4 mile timeslips to browse:

1992 Eagle Talon Tsi: 7.961 @ 171.100
Kevin Jewer, Engine: 2.0 4G63, Turbos: Forced Performance 99HTZ Tires: MT 29.5 x 10.5


1990 Eagle Talon tsi: 7.976 @ 179.060
john shepherd, Engine: 2.2L, Turbos: T4 Garret turbo built by Forced Performance Tires: Hoosier DOT 26X8X16


1991 Eagle Talon : 8.802 @ 155.900
Kevin Jewer, Engine: 4g63, Turbos: Borg Warner S475 & Garrett T3 50 Trim


1991 Eagle Talon Talon Tsi RWD: 8.960 @ 149.910
Scott Glassbrook, Engine: 2.3 liter 4g63, Turbos: GT4202 Tires: M/T


1991 Plymouth Laser RS Turbo: 9.612 @ 141.960
kiggly, Turbos: PT74GTS Tires: Slicks


1990 Plymouth Laser RS Turbo: 9.975 @ 141.350
Joe P Bucci, Engine: 4G63, Supercharger: N/A Turbos: 16g Tires: M/T


1991 Eagle Talon TSi Awd: 10.460 @ 137.800
Susio Ranna, Engine: 2.0L Mitsubishi 4g63, Turbos: ported/clipped 20g


91 Eagle Talon : 10.720 @ 131.020
John Shepherd, Turbos: 20g Tires: nitto


1991 Eagle Talon TSI AWD: 10.721 @ 138.080
Mike, Engine: 2.0L 4G63, Supercharger: N/A Turbos: Precision GT3582R Tires: 215-45-17 Goodyear Eagle F1 GS D3


1990 Eagle Talon TSi FWD: 10.727 @ 142.120
Rob McKellar, Engine: 4G63, Turbos: Precision 56


1991 Eagle Talon TSI AWD: 10.806 @ 133.150
Nate Burgess, Engine: 2.0, Turbos: T-3 61mm


1992 Eagle Talon TSI AWD: 10.846 @ 127.850
Loren Hill, Engine: 2.3l, Turbos: FP3065 Tires: 235/45-17


1995 Eagle Talon Tsi Awd: 10.970 @ 132.990
Philippe Sauve, Engine: 1g 6 bolt, Turbos: Borg Warner s362et Tires: MT Et Street Drag Radial 26in


1991 Eagle Talon TSI: 11.160 @ 129.000
Jacob Chamberlain, Engine: 2.4, Turbos: GTK 1000 Tires: 225/45/17 conti


1996 Eagle Talon tsi fwd: 11.171 @ 129.720
Eric Cavalieri, Engine: 2.0, Turbos: fp red


1992 Plymouth Laser RS AWD: 11.194 @ 126.840
Frankie Bones, Engine: 2.0L 4G63, Turbos: SCM61 Tires: Nitto NT555R 225-50-16


1992 Eagle Talon : 11.467 @ 121.460
Greg Clayton, Engine: 2.0, Turbos: 20G


1995 Eagle Talon TSi AWD: 11.554 @ 129.630
PrimedTsi, Engine: Magnus 2.4l, Turbos: T67/T3 Tires: Street Radials


1992 Eagle Talon AWD: 11.582 @ 116.990
Chris Tichy, Engine: 2.0, Turbos: Mitsubishi 16g Tires: Retreaded Race Compo


1991 Eagle Talon : 11.700 @ 123.300
mohamed taheri(driver) sean robb(new owner), Engine: 2 liter w/ slight over bore, Turbos: 20g ported Tires: crappy ass


 


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