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Final Hook-Up and Mounting the Cooler
With the hard part out of the way, it was time for quick satisfaction. We moved on towards mounting our hard lines, attaching the hose, and securing the cooler to the front of our radiator.

 


These insulated 3/8" electrical clamps might not be designed for steel tubing but they work rather well. We picked these up at Home Depot.
 
After drilling a couple holes in our frame, we used a self-tapping screw to secure the lines to the frame. Since both lines were fairly short we only needed one clamp for each.
     

Doesn't look too bad and we are sure this set-up won't be the cause of a fire this time around.
 
We slipped a couple hose clamps over the steel lines, lubed up the ID of our rubber transmission cooler hose and slipped them over the hard lines. We needed two 6 foot segments of hose to get up to the front of the radiator.
     

Are those tie wraps securing our hoses? Yes they are. Just be sure to use nylon tie wraps rather than the plastic ones you find at the typical chain store. We got ours from Radio Shack. Next time we'll get black.
 
As we mentioned, the B&M cooler did not come with an installation kit. These are the 1/2" NPT to 3/8" hose barb fittings we needed to make the final connection.
     

We mounted the cooler gently in the vise and cautiously threaded our fittings in. Remember the cooler is aluminum so be careful not to overtighten the vise or the fittings.
 
The cooler was mounted with nylon tie wraps to the front of the radiator in a nice slip stream. We added some thin rubber grommets between the cooler and the radiator to prevent any damage to both.

After adding the fluid we lost in the fire, we went ahead and started the car. A small leak at the cooler proved we were a little too cautious tightening our fittings. We added a 1/2 turn to each and we were leak-free and confident about our set-up.

 
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B&M SuperCooler Part No. 70266 (11" x 8" x 1-1/2", does not include mounting kit)

B&M's SuperCooler low pressure drop coolers reduce the risk of lube system failure. A controlled amount of ATF is allowed to bypass the stacked plate core, passing through a self-regulating orifice which monitors resistance to flow.

Controlled by viscosity, the thicker ATF is returned directly to lube through two open bypass openings in the stacked plate core. As operating temperatures increase, more of the ATF flow is directed through the core. Resulting in a highly efficient cooling technology that combines improved protection against lube system failure with the required levels of optimal heat transfer.