Hey Jim, as they say, a captain has to know his boat.
Are you sure you can rely on your engine compartment blower system?
Finished up the Ski shelves. It was a lot of fiddly work. Admittedly I'm anxious to complete the interior work and move on to the work I enjoy most, which is the mechanicals and electrical. Really looking forward to emptying my basement.
Pulled out scraps of vinyl flooring leftover from what I used to cover the floor and walls of the boat. I cut pieces to cover the portions of the ski shelf that's visible when sitting on the boat. Ordered a fresh gallon of HH-66 Vinyl Cement, set up my mini roller and had a chip brush nearby. I masked all recently attached Naugahyde with painter's tape and set off to work.
HH-66 works best as a contact cement, meaning you apply the glue to both surfaces, let the glue get tacky, then stick the surfaces together. I wrapped each shelf in two passes. First, I did the top side of each shelf and let it dry for an hour. I did so because the ski shelves taper as they make their way to the stern, which necessitated cutting reliefs in the vinyl on the underside which no one will see. This approach gave me a clean looking wrap when viewing the top side of the ski shelves.
View of the top side of one of the ski shelves.
Next, I sealed all edges of the Naugahyde and vinyl flooring with 3M 4200. This keeps the edges of the material securely attached and keeps moisture out.
I also applied 4200 to the relief seems I had to cut on the bottoms and ends of each piece. I used ample painter's tape to frame all places I intended on applying 3M 4200 to leave me with clean caulk lines.
View after all painter's tape removed.
As with other interior pieces I massaged in a layer of Goop on the Naugahyde and let it sit for a couple hours. I then removed the Goop with clean cloths, applied a quick shot 50/50 mix of Simple Green and water to ensure all the Goop was all cleaned off and completed the process by applying a coat of 303 marine protectant.
Last little detail. Both ski shelves had tear in the Naugahyde in the same spot where a mounting screw attaches to the hull near the fuel tanks. I trimmed some small pieces of Naugahyde and used HH-66 to tie the edges together and attached the Naugahyde to the foam. It didn't turn out very pretty but did strengthen the spot. Each spot will be covered by upholstery washers so much of the horror will be hidden.
Ready for installation and service.
The Pilot's chair sits on a cabinet base which houses your classic pop-up camper ice box refrigerator and under the footrest sits what I believe is meant to be a dry storage container.
It looks like a classic cooler but contains no trademarks identifying manufacture. The lower portion was originally screwed through the sides of the container into the sides of the cabinet. The lid of the container is attached to the cabinet lid (upper right in the background) via two screws through its top.
Well, unfortunately its lived a tortured life. I'm guessing a previous owner attempted to fill it with ice, or water got into it and it froze over winter. Regardless, it was full of holes and looked grim. In this case, I did 'not' set out to re-engineer the boating industry. I spent hours looking at used coolers but found nothing that remotely looked like it, or had the same dimensions. I had to figure out how to repair it.
After doing some research on liquid plastics and watching some videos, I decided to try Smooth-Cast 300. It's a two-part polyurethane that as it cures turns bright white. DISCLAIMER: Its designed purpose is to create casts from molds, as opposed to repairing a cooler. IT'S ALSO NOT CLEAR TO ME IF IT'S FOOD SAFE.
I started by giving the container a good scrubbing with a scotch bright green pad, vinegar and baking soda. This process really cleaned it up and clearly left the identifiable areas requiring attention.
I ended up buying the Smooth-Cast 300-gallon kit because as you can see, I had a lot of work ahead.
I started with a small gap in the lid.
I mixed a small batch 50/50 as instructed and poured it into the fracture. I had placed packing tape of both sides to form a small dam. Each batch has a three-minute working time window and starts out as a fairly viscous clear liquid. As it cures, it starts to get warm, thickens up and turns white within four to five minutes.
I let it sit for an hour then came back with sandpaper, first 100 grit to remove most unwanted material, the 200 grit to leave a smooth finish. After twenty-four hours the patch was very solid and fairly inconspicuous.
Each wall was done one at a time using small batches to fill the cracks, craters, and imperfections.
The floor had some much larger damage, so I decided I wanted to completely cover it in a thin layer of the product. I had to turn to math to figure out the correct amount to mix. I pulled out a tape measure and determined the floor of the container was 13.75 inches long and 9.75 inches wide equaling 134 square inches. Knowing the solution would leak into the crevasses, I decided I want a .25-inch-thick pour, which equals a total of 33.5 cubic inches. (9.75 x 13.75 x .25) Converting cubic inches to ounces (1 cubic inch = 0.554113 fluid ounces) so 33.5 cubic inches x 0.554113 = 18.57 fluid ounces. I rounded my pour up to twenty ounces.
The results turned out well!
I have a couple bumps left to sand, but the majority of the imperfections have been repaired. Time will tell how well the patches hold up. I intend on using the container for dry storage only.