HEI on Ford
Note the 221 V8 timing cover with oil fill and the Chevrolet HEI distributor
upper mated to the Ford shaft. The HEI is easily adjustable; just remove the
cap. The Ford distributor must be disassembled to do anything.
Cranks in process
"Stuff" in the workshop, late 1997. Left to right: 3.075"
stroked 302 crank, lightened 302 crank with Chevy rod journal
size, 351 Cleveland crank cut down to fit in a 302, 351
Cleveland crank stroked to 3.65", 400 crank stroked to 4.187
with Chrysler rod journals. The apparent size difference of
the 400 is true; the counterweights are enormous.
Crossdrilling Ford cams
Cross-drilling Ford cams. One cam had a very deep spot drill
in the end, requiring installation of a brass tube. Small
block Fords try to oil the cam at the bottom, at the point of
highest pressure. Judging from the way I often see massive
cam bearing wear in core motors, it doesn't work too well.
I've started crossdrilling the cams so oil goes *through*
the cam to the low pressure area at the top, hopefully to
be carried around the journal as it rotates.
Windsor oiling mod
Windsor distributor gear oiling mod. There's an oil gallery that
runs from the cam bearing to the lower distributor shaft.
This hole intersects that gallery and squirts oil directly
onto the distributor gear teeth. A large bit is used until
it gets close to breaking through, then a .025" drill is used
to make the final step.
Windsor-pattern 400
This is a 400 (Cleveland) Ford block. These blocks normally have the 429/460
big block bellhousing bolt pattern. This one has the Windsor/351C small block
pattern. Notice the skeletal outline of the old big block pattern was left.
These blocks have the same deck height as a 460 and weigh over 200 pounds, but
they'll let you build a 400 to 450 cubic inch motor that will drop right in to
a Pantera, at least once you drill the blank motor mount bosses out to accept
standard Cleveland mounts. Why stroke a 351C when you can just bolt in 400 or
more inches?
narrowing rod bearings
A somewhat low resolution photo of how I narrow rod bearings after
narrowing rods for stroker motors. I have a selection of spuds that
I put in the lathe chuck. The bearings go on the outside with a plain
old hose clamp. I can narrow and chamfer the bearings in one pass. You
still have to break the edges and deburr, but it only takes a few minutes.
main bearing mod
These are main bearings for a 302 Ford with the main bearing oiling mod.
A 1/8x1/8" groove is cut in the main bearing bore in the block, intersecting
the oil feed hole. Extra holes are drilled in the main bearing shells to line
up with the groove. These are upper bearings with a groove in the bearing
already, though it doesn't show well in this picture. The extra groove behind
the bearing feeds more oil to the journal. The main purpose is to ensure full
oil flow available for the rod bearings, which pick up oil from this groove.
valve crusties
These are two of the eight intake valves from a 351 Cleveland. Notice the
carbon buildup. This is pretty common on Clevelands; the umbrella valve stem
seals tended to disintegrate and let oil by, which got carbonized onto the
valves. I imagine air flow wasn't so hot by the time these valves were
retired. The stuff is so hard even a hammer won't remove it.
why 5.0 pumps suck
The pump on the left is the early 302-type cast iron model.
The one on the right is the aluminum "5.0" style. Both are
standard rotation. Note the early pump has a larger, better
shaped impeller, fitting closely against a machined surface
in the housing, which is also scrolled to direct water out
to the ports in the block. The late model pump sort of has
this sheet metal fan thing, flapping around in a big cavity.
No wonder the car overheated with the new water pump!
Believe it or not, both pumps fit up to an ordinary Ford
timing cover, which has lots of unused mounting holes.
Note the air bleed added to the late pump on the right; it is
from my V8 RX-7.
water pump air bleed
This photo is kind of blurry, but it's an Edelbrock pump for a 5.0 Ford. I'm
drilling a hole to add an air bleed from the top of the pump to the remote
coolant reservoir. Due to the way the Edelbrock pump is made, the hole has to
slant in at an angle, and there's no flat surface to start the drill from.
Stock pumps are easy. Trying to fixture the Edelbrock pump in the milling
machine turned into a hassle, so I did it freehand. I drilled the hole with
an ordinary hand drill. Unfortunately, I needed a flat surface to start the
NPT tap. In a "try anything" mood, I put a 5/8" spade drill in my low-speed
Makita battery operated drill and tried that. The spade drill was intended
for wood, but the long nose piloted in the hole I'd already drilled and the
wings peeled off beautiful shavings of cast aluminum. It looked great when
done, no sign of the low-tech operation visible.
air pocket
The left is the first pump that was on the 302 in the RX. Note "ring around
the toilet bowl" corrosion from before I added the air bleed. New '80s 302
aluminum pump on the right.
302 water pumps
Assorted 302 pumps, found by digging through parts boxes at an agreeable
store, circa 1985 or so. Unfortunately I lost my notes for which pumps fit
what. [sigh] The picture at least shows there were left and right hand
outlets available for both iron and aluminum pumps. Given the time when the
picture was taken, these are likely all standard-rotation V-belt pumps.
Windsor timing covers
Early V-belt standard rotation (left) and late serpentine reverse rotation
(right).