Possibly Purple?




Camaro Wheels
Maybe? Not…


Wheel Adapters
Ghia 4×130 to Chevy 5 x 4.75 (F-body/Vette)
http://www.mooreparts.com/1461-AC601200/?gclid=CPThq5GI2LwCFczm7AodhG4ARg
Porsche Red?
I like…

My Dream One Day…
Kaddie Shack’s 1968cc Street/Strip Motor
Interesting write up…
1968cc Turn-Key Street/Strip Motor – Dyno-tested, Track-proven
Looking for a super reliable street/strip motor for your Bug or Ghia? Compare this build to a 1914cc/1915cc but with better torque due to the larger 74mm crank, thicker cylinders than the 94’s, and custom Kaddies that have had all the machine-work and match-porting done. This motor is super fast!
This is our “Signature” build.
We took Jason Torchinski from Jalopnik for a ride in our car with a nearly identical build in it and here’s what he wrote for the publication:
“It sounded like a dragon was gargling a dozen chainsaws behind me, and the Beetle lurched forward with an impossible burst of speed. Seriously, I haven’t felt anything like that outside of the Panamera and GT-R press cars I’ve driven. It was terrifying and exhilarating.”
Read the complete article here:
http://jalopnik.com/project-beetle-rebirth-picking-an-engine-511263588
We spent three days dyno-tuning and dialing in this engine before taking it to Sacramento Speedway to race at Bugorama #72. We made it all the way to the finals and lost by 1/100th of a second. It did 13.84 seconds at 93 MPH in the 1/4 mile, which is pretty darned impressive for less than a 2 liter motor.
Here are the engine specs:
– Aluminum Case: Bored for 94’s, full-flowed, 8mm chromoly studs – Thick-wall 92mm pistons/cylinders kit (thicker than 90.5’s in your 1776cc) – Forged chromoly 74mm crank – Forged chromoly H-beam rods – Forged chromoly flywheel – Kennedy Stage 1 Pressure plate with HD clutch disc – All rotating parts dynamically balanced – KSR-4000 Racing heads with competition valve job, “Gator-port” intakes, polished chambers, ported/polished exhaust ports, shortened guides, back-cut seats and valves, dual springs, etc. – 75A chrome alternator conversion kit – Kaddie Shack 44mm Kadron carbs with machined 34mm venturis, heim joint linkage, ported Treuhaft manifolds, old school style air cleaners, Hi-Flo kits, etc. – AA 1-5/8″ Sidewinder exhaust – Straight-cut gears – Dynamically balanced cooling fan – Pertronix Ignitor II Billet distributor, coil, and 8mm ignition wires. Distributor curved specifically for this motor. – All new engine tins with chrome accents – Kaddie Shack stainless steel hard-line fuel kit – Scat 1.4:1 forged racing rockers – Norris 336S cam – Norris chromoly pushrods – Full VDO sending unit package – Laser-engraved crank pulley (balanced with rotating components) – Scat low-profile oil sump – Deck set at .040″, 10:1 compression ratio.
Dyno-tuned at 122HP/123 ft/lbs torque
This is a serious motor. We recommend a trans strap kit be installed when installing it in the car, as well as gauges. We have low-profile Ghia manifolds already ported to match if installing in a Ghia, but it made slightly less HP with the short manifolds. Can email those dyno sheets, as well.
The nice thing about this motor is that it has been made to drive around town like grandma’s Eldorado, but when you push the pedal to the metal THIS THING MOVES. It also does not have the headaches associated with Weber idle jet and linkage constant adjustment. It’s a matter of “Set it and forget it”.
It simply runs.
Great for a show car or street/strip weekender.
If you’re looking for a super-torquer for your bus, or a motor with a powerband more suited for your off-road car, or something with a little less “bells and whistles”, or simply a daily driver… we can build a custom-tailored engine specifically to suit your needs. We simply built this one because we like the combo for what we do, and it works well! Give us a call or drop us an email. We’re here to help.
Cool looking Enkei Wheel
ADVENTURES IN ADJUSTABLE SPRING PLATES
Sorry… the pictures were linked from the original post. Sadly, these are the best I can save.
This topic can be found at: https://shoptalkforums.com/viewtopic.php?f=51&t=137122Read the original post. It seems there are some issues with these.




You might think the torsion bar is the only “spring” controlling its half of the rear suspension, but the VW spring plate is just that, a spring. It is attached to the torsion bar at one end (which only allows it to pivot vertically) and to the swing axle at the other end, which forces it to flex horizontally as the axle moves up or down.
We expect an increase in overall rear suspension stiffness and predictability from the heavier, thicker adjustable plates.

Our plates came from Jeff Lain’s Kaddy Shack, home of street and strip Kadron carburetors.
The adjustables impressed me with their 5mm thickness and apparently different material. No flexible stock 4mm spring steel plates here. Maybe “spring plate” for the adjustable is a misnomer. “Anti-spring plate” seems to describe it better. Space and time might bend before these do.

For adjustable plates like ours you need a special inner urethane bushing with a larger hole in the middle to fit over the inner long plate’s guide hub. The outer bushings are standard size.

These are going to make very precision-acting pivot control devices.

If you’re feeling lucky and have a few fingers to spare, you can use chains or big C-clamps to try and control the spring plate as you unbolt it. There is a point in this operation that the brutally strong torsion bar takes over if it can, and shoots the spring plate downward like a rocket-propelled hatchet, only faster.
Your first line of defense is this special compression tool (carried by most VW parts houses), and if you want to make it easy on yourself, you’ll modify it as shown with a couple of big washers and a (5/8″ thread) nut to let you control it with a 1 1/8″ wrench rather than the tool’s wing-nut style arms.
Remove the brake drum and unhook the hand brake cable from the brake shoe lever, and remove the 13mm bolt and hand brake cable retainer from the backing plate. Pull the cable itself out of the drum and out of the way. The reason for all this is the spring plate can/will get caught in the cable as you wrestle the axle and spring plate around.
Last, take a look at your alignment notches on the axle housing and spring plate. Your new plates will not have markings, but it’s a good idea to look at your original markings in case you ever need to put it all back together as stock.

Now, fit the spring plate compression tool slot SECURELY to the bottom of the plate and locating body-bolt head atop the suspension arm. Tighten the tool to take out all the slack. Remove the four bolts from the torsion bar cover, and pop it and the old outer bushing off with a screwdriver.
Notice how the spring plate rests on a ledge on the suspension support. You’ve got to bend the plate outward enough to allow it to lower past the ledge.
You’re not trying to fully pull the plate off the torsion bar splines here, just move it out enough to clear the ledge.

Because the plate is adjustable, as long as we start from the factory setting, we don’t need the protractor or inner spline vs outer spline calculation approach. This is cheating at its best.
Clean out the bushing recesses on both the torsion bar cover and torsion bar housing. Test fit your new inner and outer urethane bushings into them. If they do not fit flush (and they won’t) cut or grind away at the knobby bushing locators until they do fit flush.


Place your (flush-fitting) inner bushing on the adjustable plate inside-facing boss and insert the bushing into the torsion bar housing recess over the torsion bar.
The long inner plate covers the ledge at full rest, and is going to have to be bent outwards to clear the ledge when we raise the plate assembly, so we don’t want to slide or hammer-tap the outer plate all the way down over the torsion bar splines just yet.


Manhandle and shift the axle back into place, so that the axle flange and the spring plate can be bolted together.








