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Engine Overhaul - The break down

25th July 2008
Readers of this blog are aware that I had a catastrophe that was caused by a small piece of bakerlite that sat under the fuel pump. Whilst servicing a crack in this item I managed to shear of the Bakelite and drop a small piece of it into the crankcase. This was disastrous as my engine had done less than 250 miles since its last rebuild and there was no way of retrieving it other than dismantling the engine. Firstly I must say a thanks to the informed members of VZI who stated not only where the parts would end up but where they would get mashed and what they would destroy if left in situe. To be quite frank they stated the exact position. The yellow arrow points to where the bits ended up. This is just under the timing gear on the camshaft. The green arrow shows the oil feed to the crankshaft. The red arrow shows the lower pump ring that the Bakelite pump bush fits into.

To be honest I am glad VZI exists. First drain the engine oil.

I stripped the engine down in a day removing the cylinder heads by removing the rocker covers , then the rocker shafts and then the eight nuts that hold each of the heads in place. With the heads removed the barrels could be removed taking special care to get them out so far that the gudgeon pins could be removed and the pistons removed still attached to the barrels. This is a little tricky but with a pair of long nose pliers to remove the circlips the pistons can be removed by sliding out the gudgeon pins. These can sometimes be a little stiff and a warm air blower like a paint stripper is enough to gently warm the piston to make the pin slide out again. With the pistons and barrels removed the main pulley can be undone at the front of the engine. If this is tight then the flywheel will need to be locked in position. Personally I tried to use a bar between two bolts and still resorted to buying the correct tool from eBay. This fits into the top engine bolt and securely holds the flywheel so that the front pulley and then flywheel nut can be undone. The short block is then able to be split. I removed the cylinder studs and the oil pump and the oil strainer first to allow better access to the case. There are eight large 17mm bolts and a large number of 13mm bolts around the case that all need to be undone. Make sure that you have got to all the 13mm bolts as there are some that are hidden tight against the back of the fly wheel and also in other hard to get to areas. With all the engine nuts undone . The case will still be stuck together. You will need a rubber mallet or a piece of wood and a hammer to carefully knock the case apart generally speaking its easier to lay the engine on a block of wood on its left hand side so the eight large studs are facing you. There are several good places around the case that you can hit , which will break the case seal. Once you have the case halves separated you can draw the top half on the engine case of the bottom. This will expose all of the internal workings of the engine so make sure you have a large quantity of rags or cloths that you can mop up the oil slick that comes out. Before going further you need to retrieve the cam followers that have fallen into the bottom case. You also need to check that you have two dots on the crankshaft camshaft timing gear and one on the camshaft gear. these are vital to lining up the engine timing, when the hole engine is put back together. Once this has been determined remove the camshaft and cam bearings and place them in a box. Carefully lift out the crankshaft with the con rods and put this in another box with some rags to soak up the oil. You need to ensure that you have all of the bearing halves out of the engine.

With the cases bare you can start to mop out the engine oil. It is generally better to get your case professionally cleaned if you can locate someone who will do it for you.

I have purchased a new Bugpac camshaft and a barrel and piston Marle forged set-up that will bring the engine CC to 1914cc when they are fitted. I will need to acquire a new set of heads before I can have the case altered to fit them. These are very expensive and I will have to work out which ones re the best to use for their respective cost.

Next I will remove the oil plugs and re-thread them to allow for any eventuality that the engine needs in the future. I ordered the brass screw caps 3 x 3/8 NPT , 2 x 1/4NPT , 5 x 1/8th online from http://www.airlink-compressors.co.uk/Fittings/plugs.htm, unfortunatly thier website ordering was down and I had to telephone the order through. In the mean time I had to find a 9/16 drill bit and a 1/32 or American R size drill. I choose the 11/32 as I already had one. The next challange was to locate the taps. My tap set came with a 1/8NPT trap but finding a 1/4NPT or never mind a 3/8" NPT tap was going to be a challange. I posted a wanted advert on VZI to see if anyone had any.

I started cutting the threads for the 1/8NPT this seemed fairly straight forward. I had to shorten the tap I was using to allow me to get the thread further into the crank case. I fitted the brass plugs into the threads as I went. I then retrurned to them to remove them finding one had stuck tight. Foolishly I tried to remove the plug after the allen key slot rounded in the plug. I used a screw puller and to my horror cracked the crankcase around the gantry
Was this the end for the crankcase would I need to buy a new engine?

VW Beetle rear brake conversion with Mk 4 Audi/Golf calipers

23rd July 2008.

With the IRS conversion finished and looking fantastic I decided that it would be a shame to fit the rear drums back onto the buggy. Even though I had fitted Bus slave cylinders to the drums they would not still perform as well as a disk set-up. I had always wanted to see if it was possible to convert the rear end. I new that it was possible to cut the rear drums down to make them into rotors but information was very vague at best on which disk or where it could be got from that would allow the rear cut down drum hubs to take a disk rotor. I new that the old porshe 914 had a four stud solid disk with the same PCD130/4 but as the car was now very old sourcing these disks would need a great deal of effort. Luckily some friends on VZi had been discussing their rear disk conversions with me and one member of VZI was kind enough to mail me a picture with the disk sizes on it. I was then able to they to contact disk vendors with the correct sizes. My search took me to a German company CSP at first they where unwilling to help with the sizes stating that the disks they sold where for their own disk calliper set ups. I eventually took the plunge and ordered a pair of the disks from their online web site only to find that the disks where not in stock and that they had had them on back order for at least 6 months. I cancelled the order and was beginning to think that the disks where no longer available. I started looking online on Porshe web sites and eventually came up with a company called Berlyn Services: http://www.partsforporsche.co.uk/ . I managed to find the rotors on their website and telephoned them to see if this was another lead to a company that had no stock. To my astonishment the gentleman said that they had some arriving in the next week. I placed an order and was surprised to see the disk turn up very next week.

With the disks in my possession I was able to mount them onto my cut down rotors. I had previously cut down my drums to 210mm or 6" this was a good fit although in retrospect I would have made them slightly larger. This would better facilitate the rotor screws that hold the rotor onto the hub. Mine where very close to the edge and I would probably re-visit this at a later date. Unfortunately I made the decision to cut them without having access to the disks.

My contact at VZI had come up trumps again saying that he had a pair of calliper brackets for Golf callipers. I persuaded him to let me have them and they arrived by post freshly painted thanks 914Baja.

My callipers came from Ebay and were Mk4 Audi callipers from an A3-A6, 2003 although similar to the Golf Mk4 Callipers there are still a few differences like the 12mm inlet feed , bigger pistons and a bigger brake carriers. It was soon apparent that the brake carriers that I had where the wrong size for the brackets. I purchased another set of brake carriers and found these where different size brake carriers too. It was obvious that these all where different sizes dependant on the vehicle manufacturer. I would have to re-work the disk calliper adapter bracket so that it would allow the Audi calliper to bolt on. I bolted the calliper bracket onto the rear axle so that I could scribe a line down the side of the bearing cover. This would be the closest that the new metal work could come to the axle and still allow the bracket to fit. With this information I was able to place the brake carrier of the calliper on the bracket leaving 2mm. This gave me a rough shape to cut the bracket down to. The 10mm steel cut very easily with one of these ultra thin 4 " angle grinder cutting disks. With this material cut of I could place a piece of paper around the calliper and draw around it to give me the shape of the metal that I was going to need to make so that it could be securely welded onto the first bracket. With the metal adaption cut out from 20mm steel I could trial fit it onto the existing bracket with the axle cover to check I had enough clearance I secured this with a clamp ready for grinding and welding. With a position established I could draw the position of the first axle part onto the new 20mm flange. This would allow me to grind off a diagonal onto all the surfaces that met. The idea of this was to ensure that the weld penetrated right into the metal join. The two parts where then re-clamped with the axle cover plate and welded with an arc welder. The brackets where ready for their first trial fitting. With the brackets bolted onto the car and the disks mounted onto the disk stubs it was apparent that the calliper brake carrier had a wedge profile that would mean the bracket would need to be made the same profile as this to allow the Calliper to fit. I decided that this was too complicated and cut the bracket down so that it stayed within the flat portion of the calliper but still gave some strength to the bracket. The caliper brake carrier now mounted squarely onto the bracket. I drilled and placed two high tensile bolts through the bracket to ensure it would not fail. I replaced the bracket onto the car to see if the brackets where now correct to align the brake carrier onto the disk. It soon was apparent that the brake carrier disk recess fouled the disk. I would need to have the face of the brackets milled to remove material from the face. To be honest getting the right amount of material to be milled of is quit difficult and it took me two trips to the milling company before I got the mounts to fit. Originally I took 3mm of the front face but when I tightened up the disk it still did bind on the brake carrier. Another 2mm took me to the right position and from the original 20mm It came down to 15mm with a 5mm step.

With the disk and callipers mounted and freely turning I was able to fit the brake pads to the callipers The beauty of the Golf/Audi callipers is that they are captive and the pads just fit alongside the brake carrier whilst the calliper is slipped over them and bolted up. There is a lot of procedures online for changing brake pads and I will not bore you with this detail.

Brake Callipers fitted but not plumbed in.

The next job was to fit the hard lines for the brakes and the handbrakes I ordered in some copper brake pipe long enough to connect up the calliper. I soon realized that this would not work as the calliper had a 12mm inlet thread. The main reason for this was that as the calliper was a floating type on calliper slides it needed to be able to freely move. A lot of other websites showing conversion make this same mistake and I would have to order in the correct Audi hoses.

The new hoses would require a new bracket to be welded or fixed onto the A-ARM that would capture the end of the hose. I would need to fabricate this from steel and mount it onto the A-Arm at the correct position. I planned to try an bolt it onto the A-Arm but thought that it would probably need to be welded. I still had not resolved the problem of welding in the garage and new removing the A-Arms was a lot of work.

I started the fabrication process by removing the cable from the bracket further up the A-Arm . With the bracket free of pipework I was able to offer up a piece of paper the would allow me to draw an outline around it. This gave me the rough shape of the bracket I needed. I decided to add a little material to the bottom so that I could bend it over and form a rail that could be screw. In the picture you can see the bracket shape stuck onto the steel plate. I made the brackets from an old piece of right angle peice of metal. This was roughly big enough to make the two brackets. I drilled four holes in the bar so that the bend would be on the diameter of half of one of the holes to make it easier to bend. I would need to determine the position of the brackets first by buying the hoses from GSF. With the hoses I was able to screw one end into the calliper and work out that the bracket would need to be placed 0" from the end of the A-Arm end. This was a good site as it was not goint to interfere with the axle. With the brackets cut out I decided that I would have enough room to screw them to the A-Arm.

Whilst I was making up the brackets I decided to check the clearence of the brake calliper with the wheel fitted. I was not sure how tight this would be against the rim. Although this was tight because of the weights that the balancing company had used there was enough clearence. With the wheel fitted you could also see that the angle that the wheel sat had changed due the the IRS conversion. This would present the wheel width in its entirity onto the road surfice improving grip and conering speed.

I was having trouble locating the rear hoses as they where 12mm inlet callipers instead of the normal 10mm. Whilst searching for the hoses I bought th4e GTI Golf Handbrake cables. These are much higher quality as they have an inside plastic tupe that the brake line runs inside. I had to take the plastic end of of the cable so that I could shorten the rigid part of the cable. I removed the cap with a small screwdriver slowly prising it off the rigid pipe. This allowed me to measure up the rigid part of the cable and strip the plastic off so that I could cut internal steel with a hacksaw. The cap could then be carefully put back on with some washing up liquid neat applied to the parts. Once I had the cables cut down to 640mm each side. I realised that the metal end of the conduit that the cable ran through would not fit into the calliper hole. I luckily bought a 9/16" drill to allow me to tap the case oil gantries. I used this to drill the calliper cable holder so that the metal end would fit snugly.



Parts to build the Rear disks

Steel Sheet
  • 20mm x 180 £10.00
  • 10mm x 240 £10.00
A-ARM hoses GSF Car parts numbers
  • 2 x 65855 5.70 + vat ea
10mm Caliper hoses GSF Car parts numbers
  • 10mm banjo offside 657VG0620 £14.00 + Vat, or VAG 1J0611763L
  • 10mm banjo nearside 657VG0610 £14.00 + Vat or VAG 1jo611764L
or 12mm Caliper hoses LC Davis & Son Ltd part numbers
  • 12mm banjo hoses PHD350 £18.07ea
Hand Brake cables Golf GTI GSF Car parts numbers
(With the conduit cut down to 640mm)
  • 2 x 73136 £8.50 + vat
Disk Rotors Berlyn codes
  • 2 x 914.352.401.10 Porshe 914 130/4 10mm £49.00 + vat ea
Total Cost £ 201 + callipers and pads of your choice.

Audi A3-A6 Rear Callipers
  • 2 x From Ebay £50 ea
The installation cost me well under the normal kit costs available from most suppliers to convert my rear drums to a professional sliding calliper disk set-up. There are more expensive kits available from retailers that cost more than this and offer less in functionality. I managed to source the parts I needed at differant prices than the prices I have given, which are a guide should you buy your parts through regular channels.

I found out some time later that VW Type 3 rear disk rotor carriers are available. I bought a set of eBay for £30.00 and will intend to fit them in place of my custom turned down versions later 2009.

My Callipers
LUCAS REAR BRAKE CALIPERS AND MOUNTS CAME FROM A 02 REG PASSAT 130 SPORT TDI SHOULD FIT SIMILER AUDI A4 AND OTHER PASSATS ARE IN GOOD WORKING ORDER, VW PART NUMBERS ON THE CALIPERS ARE 8E0615424/8E0615423 THE PART NUMBER ON THE CARIERS ARE 8E0615425F ANY QUESTIONS PLEASE EMAIL ME OR CALL 07854 392717, THANKS FOR LOOKING

pr code 1kf
Hoses for calliper 4b0611775c
Hoses for calliper 4b0611775 as kindly provided by GSF

Torque Sizes

22th July 2008
I wrote this article on torque sizes using various manuals as reference to get the relevant torque settings that I was going to use in the engine re-build I was starting. The sizes are for my information purposes only as I needed a simple place of reference for all the torque sizes I have used. I recomend you check before using them.


lbs./ft

mkg

ENGINE
1. Spark Plugs
2. Fan Gland Nut
3. Generator Pulley Nut
4. Crank Pulley Nut
5. Oil Pump Nut
6. Oil Drain Plug
7. Oil Strainer Cover Nuts
8. Rocker Shaft Nuts
9. Cylinder Head Nuts, 8mm
10. Flywheel Gland Bolt
11. Crankcase Nuts & M8 Bolts
12. Crankcase Nuts & M12 or M10
13. Connecting Rod Nuts or Bolts
14. Clutch Bolts
15. Engine Mounting Nuts
16. Converter Bolts

FRONT BEAM & STEERING
17. Front Beam to Frame Bolts
18. Body to Front Beam Bolts
19. Shock to Beam Side Plate Nuts M10
20. Shock to Beam Side Plate Nuts M12
21. Shock to Lower Torsion Arm
22. Steering Damper to Front Beam Bolt
23. Steering Damper to Tie-rod Nut
24. Tie-rod to Steering Knuckle Castle Nut
and Pitman Arm Castle Nut
25. Tie-rod Lock Nut
26. Clamp for Tie-rod Bolt
27. Set Screw for Torsion Bar
28. Lock Nut for Torsion Set Screw
29. Wheel Bearing Clamp Screw
30. Steering Ball Joint to Steering Knuckle
31. Steering Box to Front Beam Bolts
32. Steering Coupler to Worm Shaft Bolts
33. Pitman Arm to Roller Shaft Bolt
34. Lock Nut for Pitman Arm Shaft
Adjusting Screw
35. Lock Nut for Worm Spindle
Adjusting Screw
36. Sterring Box Housing Cover Bolts
37. Cancelling Ring to Steering
Wheel Screws
38. Steering Wheel Nut
39. Steering Column to Dash Bolts
40. Column Switch to Attaching Plate
41. Column Switch Clamp to Housing
42. Steering Coupling Flange to Disc.
43. Column to Coupling Flange Bolts

GEARBOX & REAR AXLE

44. Drive Pinion Round Nut
1. for double ball bearing
2. for double tapered roller bearing
45. Pinion Bearing Retainer Bolt
46. Pinion Nut
47. Drive Shaft Nut
48. Reverse Lever Guide Bolt
49. Selector Fork Bolt
50. Gearshift Housing Nuts
51. Ring Gear Bolt
52. Final Drive Cover Nuts
53. Axle Tube Retainer Nuts
54. Rear Wheel Bearing Retainer Nut
55. Oil Drain Plug
56. Oil Filler Plug
57. Rear Axle Shaft Nut
58. Transmission Carrier on Frame

GEARBOX AUTO-STICK SHIFT
59. Temp., Selector, & Starter Switch
60. Converter to Drive Plate Screws
61. Retainer Nut for Tapered Roller Bearing
62. Converter Housing Nut
63. One-way Clutch Support Bolt
64. Clutch Carrier Plate Bolt
65. Bearing Lock Bolt
66. Clutch Lever Clamp Bolt
67. Trans. Oil Pan and Lock Plate Screw
68. Oil Pressure Line Union
69. Oil Return Line Union
70. Drive Shaft Screw
71. Diagonal Arm Bolt

MASTER CYLINDER
72. Stop Screw in Housing Bolt
73. Residual Pressure Valve to Housing
74. Brake Light Switch
75. Master Cylinder to Frame Bolts
76. Brake Line to Master Cyl. Union Nuts

FRONT BRAKES
77. Splash Shield to Steering Knuckle Bolts
78. Cylinder to Backing Plate Bolts
79. Caliper Housing Screws
80. Brake Backing Plate Bolts
81. Caliper Mounting Bolts
82. Bleeder Valves (all)
83. Hose to Cylinder/Caliper
84. Clamp Nut Screw

REAR BRAKE DRUMS/DISKS
85. Cylinder to Backing Plate Bolts
86. Bearing Housing Cover Bolts
87. Brake Drum to Axle Shaft Castle Nut
88. M 14 Wheel Bolts (lugs)
89. M 12 Wheel Bolts (lugs)

PEDAL ASSEMBLY
90. Pedal Bracket to Frame Bolts
91. Pedal Stop Plate to Frame Bolts


25
43
43
33
14
33
5
18
23
217
14
25
24
18
22
22


36
14
14
25
25
29 to 32
18
22

18
18
11
36
36
10
51
22
18
51

18

42
18

3.5
36
7
7
7
11


11
87
144
36
43
43
14
18
11
43
22
14
43
14
14
217



166
18
18
115
14
11
11
7
18
7
25
25
25 3


87
7
14
14
18


14
7
18
18
36
29
3.5
14

9
22
43
253
94
72


32
18


3.5
6.0
6.0
4.5
2.0
4.5
0.7
2.5
3.2
30.0
2.0
3.5
3.3
2.5
3.0
3.2


5.0
2.0
2.0
3.5
3.5
2 4.5
2.5
3.0

2.5
2.5
1.5
5.0
5.0
1.3
7.0
3.0
2.5
7.0

2.5

6.0
2.5

0.5
5.0
1.0
1.0
1.0
1.5


1.5
12.0
20.0
5.0
6.0
6.0
2.0
2.5
1.5
6.0
3.0
2.0
6.0
2.0
2.0
30.0



23.0
2.5
2.5
15.0
2.0
1.5
1.5
1.0
2.5
1.0
3.5
3.5
3.5


12.0
1.0
2.0
2.0
2.5


2.0
1.0
2.5
2.5
5.0
4.0
.05
2.0

1.3
3.0
6.0
35.0
13.0
10.0


4.5
2.5

Assembling CV joints and drive shafts

1st June 2008

I bought some second hand drive shafts with the intention of repairing them. I decided that i would need to read up on the dismantling procedure : http://www.bajaclub.co.uk/PDF_Documents/CV%20Joint%20Maintainance.pdf and found some useful advice that was very useful for removing the CV joints checking for problems and refitting the joints to the shaft.

I had saved all the half moon washers and special bolts from the old drive shafts and cleaned them up ready for the new installation. I decided that I would not commission fitting new parts for old were the parts where the main Assembly parts that wear or take a lot of abuse. Therefore I decided to buy four new Lobro CV joint kits from my retailer GSF.

The kits came with the special LM grease the new CV joint and a new rubber cover washers and bolts. (Note the kit does not include the half moon washers.)

Assembly of the joints onto the drive shafts is a very messy one and to be honest should not be done in your house and preferably be done on an outside table with plenty of newspaper surrounding the area. The LM grease comes in four sachets 1 for each of the CV joints. The joints must be heavily greased with this LM grease otherwise it will allow them to fail . The LM grease can be pushed into the CV joints from each side by your fingers. The CV joint can then be turned over and the grease pressed in from the other side. Don't stop until you can get no more in. The next job is to push the CV joint cap onto the Drive shaft Start with one at a time assembling 1 joint first. Once you have the CV cover fitted the next item to go on is the concave washer. There has been a lot of questions about this washer on VZI to many to count and I am getting RSI typing the same answers . The washer must go in so the concave side faces the joint that you are building. Once you have the washer on the CV joint it can be placed onto the drive shaft. Make sure the groove in the joint faces the boot. If your lucky the joint will slide on if your unlucky as I was you need to use a piece of wood and a hammer to knock it on. Be careful to remove the wood debris from the joint once its driven home. There are now three more items left in the kit. One i a washer that is supposed to go on next the second a circlip that locks the whole joint on and the theirs the screws. The washer will give you a lot of hassle if you use it. I have read a lot of articles where it is presumed safe to omit it Personally I left it out but I think its up to the person fitting the joint to make this decision. The circlip can be prized over the end of the drive shaft I then used a suitable size socket to drive the circlip into its groove. I tried several times to get the circlip on with the washer but the washer took up to much space and would not fit securely into its groove.

With the first joint made up I found some small plastic bags and covered it to keep the grease contained the last thing was to repeat the process for the other three joints.

Once I had the drive shafts made up it is a simple job to place them into the car. One important thing though is to ensure that the bolt holes line up, This can be achieved by starting one of the threads in its thread. The rest of the bolts can then be put round the perimeter remembering to use the half moon washers. The bolts have a head which is a 8mm 12 point socket. It is important to use the correct tool to tighten up these as they need to be tightened to 25 ft lbs The 8mm 12 point drive socket can be purchased from GSF.

Assembly or the A-Arms and spring plates

30th May 2008

I had already cleaned up my A-arms and spring plates by sending them away to be media blasted and then zinc plated and rebuilt them with their respective bearings and axles. With the A-Arm mounts welded in place and the gearbox made to fit the frame horns I was ready to re-build the read suspension. I decided after a great deal of debate that I would refit all the bearings with the Urethane type. Popular research at the time indicated that the Urethane substance was good as a bearing surface and stronger than the rubber alternatives. I ordered two A-Arm Urethane bushes and new spring plate bushes in Urethane and two new cover plates. The all arrived from SSP quite promptly.

I started with the Urethane A-Arm Bushes These are quite easy to install and can be pressed into the arms with a reasonable sized vice or cramp. SSP does not sell its bushes with Urethane grease and It is fairly common knowledge that normal motor grease will slowly wear the Urethane bushes faster.

Once I had the bushes in place I was able to put them aside and make a start on putting in the spring plates. The inner bushes where pressed onto the inner side of the spring plate and then the knobbly outer was placed on and driven onto the spring plate with a wooden mallet. I had previously bought a digital level and had used this to set up some angles on the A-Arm brackets. This had proved to be a good method and as I new that the spring plates should be set at 20 degrees I found them fairly easy to get set up in the right position. I set up both sides so that they spring plates where pushed in tight . They needed lifting over the bottom of the block on the torsion bar end. This should really be done with a special tool to lift the spring plates. I used small luggage straps around the suspension arm and the spring plate. These are the ratchet type that can allow you to ratchet up the spring plate to maneuver it over the bottom hump so that it can be driven in with a mallet further into the torsion tube. Once the spring plate had been hit into position so that it fits into the shell at the end of the torsion tube. You can fit the spring plate cover with the four bolts before releasing the straps. This can be repeated on the other spring plate . The shorter spring plate design makes the force needed to pull up the spring plate more than the amount usually used.

With the spring plates fitted the A-Arms can be pushed into their brackets with the bolt pin securing them. This allows the washers to be placed in situe. i placed a washer ether side of the bush. Some people seem to place the washers on the same side but I figured the washers should be placed on either side.

With the bolts pin loosely done up I was able hoist the A-Arm up so that it was at the same height as the spring plate. This allowed the three bolts to be placed in the holes and tightened up to 11kg m or 80 lbs ft. With the spring plate bolts torqued up you can use an Allen key 87 lb ft 12 kgm.

Next I would have to install and make up the drive shafts.

IRS Conversion - Part three

28th April 2008
Even though I had the jigs fitted onto the car and the brackets looked good I decided that I would like to check the measurements that the brackets where angled up towards and compare them with each side.

First I had to level the car up as the axle stands that I had at the rear of the car where positioning the front of the car lower than absolute horizontal. I used a 2 ton car jack under the front beam to raise the car up to level as indicated on my digital level.

After taking readings on each bracket I found that they where nearly the same 0.02 degrees out. I hit the lower on with a sledge hammer and it came back to the 5.10 degrees on the other side.


After some research into pricing the cost of hiring a generator welder that would be cost efficient to to hire for two days . It was soon apparent that the cost of doing so was going to cost more than it was to hire a qualified welder with a generator welder!

Several phone calls later after scouring the Yellow Pages I found a man that had a portable generator welder that was used to welding farm, equipment. he quoted me no more than £100.00 to do the welding.

He turned up and soon began welding. It was soon apparent that his welding skills with his equipment where far more superior than his.

The brackets welded on easily the work I had done ensuring a good fit had made it a quick job to weld up. My welder used wire rod to weld in the holes under the brackets where I had cut out to much. I have read several articles regarding the installation of these brackets and it seems that this is quite a routine problem experienced by people attempting this conversion.

I trial fitted the gearbox an soon found that I would have to remove material from the frame horns where it interfered with the IRS joint. I measured the distance from the ground to the frame horns and braced the frame horns with timber between the horn and the axle stands. I would use this measurement later to ensure that the frame horns had not moved position.

I bought a 2000 degree blow torch powered from a propane tank. I used this to heat up the frame horns so that thy could be hit and reshaped with an assortment of different weight hammers. (Note here ensure that your propane regulator is correct . Do not let anyone sell you a regulator without trying the torch out on it.)

The metal was very malleable when heated and I found it easy to reshape it. I retried the gearbox and decided that I would need little more room between the IRS joints. I removed the gearbox and started at the frame horns again. This time I got them to the same profile and painted them up with red oxide and then primer and paint.

The assembly of the gearbox A-Arms and spring plates was next.