(page 138 of 165)

Acadia 29

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Wednesday

I began once again with some sanding at the Saildrive leg opening, sanding smooth and fair the epoxy compound I’d applied earlier.  This completed the prep work for the area.  Afterwards, I thoroughly cleaned the inside of the opening and the surrounding area.

It didn’t feel right not to coat the inside of the opening with something, so I used some bottom paint to paint out the new work within.

There was now nothing standing in the way of installing the rubber drive boot, supplied with this engine package. The instructions called for using a “suitable glue” to secure the boot, but otherwise was non-specific.  Searching online for clues and others’ experiences, and wading through the usual fluff , I eventually determined to use polyurethane adhesive (4200) to secure the rubber.  Not only was this product compatible with both materials in question, but it was strong and flexible and durable, with the added benefit of quick tack time, and a stiff-enough consistency to ensure that the boot would stick in place immediately and on its own without a need for substantial clamping means.

The boot was a cosmetic/hydrodynamic thing only, and was not designed for–nor would it provide–watertightness.  In fact, cooling of the leg internals required that the entire length of the leg be submerged in water, including within the large foundation/hull opening.  There was a small drain/air release hole in the boot as well.

To begin, I used sandpaper to scuff up the bonding surface of the rubber, then cleaned it and the hull’s bonding area with solvent.  With the boot held in place dry, I marked its outline on the hull as a guide for placing the adhesive, then applied an even coat of the 4200 to the hull and boot before pressing the boot into its final position.  I used a J-roller to press out the boot and excess adhesive and ensure a good bond, and smoothed out any excess from around the edges.

A little later, the initial adhesive had tacked up to the point that I could use additional material to create a sort of fillet at the edges of the boot, further smoothing the transition and adding (I hoped) additional strength and resistance to the edges lifting off with time.

Earlier, attempting to test the potable water pump after reconfiguring the hose situation, I’d tried powering up the ship’s electrical system, only to find that the main panel was dead with no power.  Investigating, I found that someone, in an overenthusiastic attempt to clean up unnecessary wiring during the engine room reconfiguration earlier, had clipped off the main wires leading to the panel and negative distribution.  (I’m not sure who it was, but with such a small shop surely I’d soon locate the culprit.)  So I led new positive and negative wires from the battery switch and new negative distribution buss in the battery locker, and reconnected the main DC panel, after which various components tested operational.

Now I test-fit the forward panel of the engine room, initially thinking of reassembling it (it would be nice to have companionway steps again), but it impeded the engine access a bit more than I wanted at this stage, at least until we’d done the test-firing of the engine in the near future.  The panel was semi-permanent, secured with screws, so I didn’t want to jump the gun.   While I had it in place I noted that I could remove some additional material on the starboard side to ease future access to the secondary fuel filter, so I marked the extent and took the panel down to the bench for cutting and surface prep that would lead into the next phase of the project.

enginecover1-110216

In the icebox drain line, I plumbed in a shutoff valve, located within easy reach of an engine room access door, to control the drainage from the icebox for collection and disposal.

To complete the water heater installation, I installed a new plastic outlet box in the compartment, then wired up a GFCI outlet using the wiring that already existed in the space, leftover from an older water heater.  For now, I left the water heater cord unplugged to ensure that the element wasn’t fired electrically until the tank was full of water.

Turning to the starboard water tank, I found that it was installed similarly to the port tank, but at least here the metal stiffener on the top panel hadn’t yet been bent out of shape.  As before, I removed the cleats securing the plywood top, and then unbolted the stiffener for disposal.  Later, I’d build new support members like those on the opposite side, but for the moment I was out of time.

Total time billed on this job today:  6.25 hours

0600 Weather Observation:
48°, cloudy.  Forecast for the day:  clouds, 58°

Acadia 28

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Tuesday

I continued work on the saildrive opening.  As needed, I sanded the latest round of fiberglass and, after cleaning up, applied a coat of fairing filler around the opening.

The owner wanted to reroute the icebox drain, which had led to a small hand pump that he said had failed to work satisfactorily.  To this end, I removed the pump and prepared new lengths of hose for the drain, and removed the old discharge hose that had led all the way to the galley sink drain, where I installed a plug in the old line since there was no way to completely eliminate the original fitting.

icebox1-110116

This opened up additional space in the engine room near the water pump, and this turned into the ideal location to remount the water tank selector valve that I’d removed from near the port water tank earlier.  I mounted the valve on a block and led the hoses as required, marking the handle and bulkhead accordingly.

I installed the hose fittings on the new water heater, then installed the heater in the quarterberth locker, securing it to the locker’s floor with screws.  I made up the final hose connections to the tank.  For the electrical connection, I ordered an outlet and box to install, since the heater was equipped with a normal plug and I thought it best to keep it as is rather than reconfigure it otherwise.  I’d complete that hookup as soon as the parts arrived.

Next, I turned to the port water tank, and a means of better securing it in place.  The old system, with a cleat against the settee bulkhead and a metal stiffener bar across the top of the plywood, had failed to properly constrain the tank.  To better secure it, I cut a plywood cleat to fit across the aft end of the space, and notched the cleat to accept two longitudinal beams that would hold the plywood tank top in place.  I secured the cleat to the bulkhead with screws.

At the forward end, I repurposed an original plywood cleat, notching it as well to secure the beams.  I installed new, larger screws in the cleat against the settee front, and secured the forward cleat with four bolts through an intermediate bulkhead at the forward end of the tank, securing the beams in place yet making removal easy should it be required.

With a new fuel primer bulb now on hand, I finished up the fuel system by installing the bulb on the suction side of the filter.  This worked well to easily fill the filter with fuel, once I opened the fuel valve for the test.

Total time billed on this job today:  6.75 hours

0600 Weather Report:
24°, clear.  Forecast for the day:  sunny, 48

Heron 1


Side Project:  Companionway Sea Hood.  Total Project Time:  24.5 hours

9/26/16 (1 hour)

Working on a referral from my  canvas subcontractor, I visited a local day charter schooner to look at the possibility of building a wooden sea hood over an existing companionway slide, and to facilitate effective attachment of a canvas spray dodger used when at sea.  In the past, there’d been a canvas hood fitted, but with canvas upgrades in process, the owner had decided to look into a fixed sea hood instead.  These photos show the original sliding hatch.

The design called for a simple structure, lightly cambered on top for strength and appearance, and to be secured to the wooden companionway rails in a removable way,  There were some severe space restrictions at the outboard forward end, which limited the overall width of the new sea hood, and once we’d discussed the specifics, I took many detailed measurements of the hatch and rails so I could  later convert them to a new structure back at the shop.  The sea hood would be utilitarian in nature, fiberglassed and painted to match the appearance of the cabin top.  My understanding was the dodger and sea hood were installations used mainly during deliveries offshore, and not on a regular basis.

10/5/16 (4 hours)

Later, back at the shop, I began construction by building the top.  I prepared two oversize blanks of 12mm marine plywood, then, using epoxy adhesive, laminated them together over a simple formwork that I prepared from scrap lumber and secured directly to my bench.  I cut the supporting frames with a 1/2″ camber over their width;  the sliding hatch itself featured about 1/4″ camber.  Because the whole arrangement would be fiberglassed and painted, I used screws to clamp the two plywood layers onto the formwork and to themselves while the epoxy cured.

Carefully consulting my measurements and determining the final dimensions of the sea hood frame (i.e. sides and front), I prepared three pieces of mahogany and milled them  to 3/4″ thickness.  On the port side, I created an opening to clear an obstruction on the deck (which I”d measured for earlier), and angled the top edges slightly to approximate the shape of the cambered top.  Then, I glued the sides together with epoxy adhesive, clamping the arrangement securely while the epoxy cured.

10/6/16 (3 hours)

The epoxy had cured for both the framework and laminated top, so to continue construction I began by resizing the top to its final dimensions.  I’d left two edges of the lamination flat and square during construction–keeping protruding edges or excess epoxy from interfering–so that now I had these edges against which to work and trim the top square and to size.  In several steps, I eventually trimmed the top to fit the way I wanted it, at which point I secured it to the side frames with epoxy and temporary screws to hold it in place.

Once the top was secured, I flipped the assembly over and formed epoxy fillets on the inside, along all the seams, for extra strength and improved appearance.

To hold the bulk of the frame just slightly off the companionway rails (as required for sliding top clearance), I installed narrow 1/4″ thick by 1″ wide strips of mahogany along the bottom edges of the side frames, secured with epoxy adhesive and clamps.

10/7/16 (3 hours)

Now that all the epoxy was cured, I removed the clamps and screws and shaped the top, routing a large radius on the top corners as well as on the four corners of the frame.  Then, I sanded the assembly smooth to prepare for fiberglass.

After cleaning the surfaces thoroughly, I began by filling the screw holes left over from assembly with a thickened epoxy mixture.  Then, I installed a layer of 10 oz. cloth set in epoxy resin.  I let the cloth run wild over the bottom edges of the frame, but later, when the epoxy was green and semi-solid, I trimmed off the excess with a sharp knife.

10/8/16 (0.75 hours)

After a light water wash, I lightly sanded the fiberglassed piece to remove vestiges of rough edges and otherwise prepare the surface for additional epoxy treatment.

To fill the weave of the cloth, and smooth out any imperfections between sections of cloth, I applied a skim coat of epoxy fairing compound over the entire piece.

10/9/16 (0.75 hours)

With the first round of fairing compound cured, I water-washed and sanded the piece, smoothing the surface and removing any excess fairing compound.  The first round of filler had done a good job, but as anticipated, there were various low spots requiring minor additional attention.

After cleanup, I applied a second round of fairing compound as needed:  a very light coat to fill any remaining cloth weave or shallow lows.

10/10/16 (2 hours)

Once more, I lightly sanded the piece, smoothing the final layer of fairing compound and preparing the surface for primer.  Afterwards, I vacuumed and solvent-washed to clean the piece.

Later, I spray-applied three coats of white epoxy-based primer, which highlighted a few areas requiring minor additional attention, but otherwise the finished hood looked pretty good.

10/11/16 ( 2.5 hours)

Before departing to perform a test-fitting on the boat, I lightly sanded the fresh primer, and cleaned up the hood.

Once at the boat, I placed the hood over the companionway, and checked its fit all around.  The cutout for the nearby traveler support worked out well, and I scribed the deck camber on the forward end of the new hood so I could make that cut back at the shop.  To my dismay, I found that the companionway was taller at the aft end than at the forward end, which required that I add some height to the sides of the sea hood for clearance at the aft end.  Despite my measurements all over during the initial viewing, I’d apparently failed to notice this.  I shimmed up the hatch accordingly and noted the extra (5/8″).

Back at the shop later, I removed the little add-on internal extensions from the inside of the hatch sides, then prepared and epoxied in place pieces of mahogany to add the height required all around, plus a little.  I kept the outboard edge flush with the sides, but extended the new piece 1/4″ or so inwards, obviating the add-on extension.  I clamped the extensions securely while the epoxy cured.

10/18/16 (1.75 hours)

Over the course of a few separate days, working with the cure time of epoxy, I completed final shaping of the piece as needed, including marking and cutting the curve on the forward end to match the deck camber that I’d marked on the boat during the test-fit.  Then, after final preparations, I epoxy-coated the inside of the box, as well as the new work on the sides.  Later, when the epoxy had cured, I completed the final sanding to prepare the piece for new primer.

10/19/16 – 10/27/16 (2.5 hours)

With all preparations complete, I sprayed on three additional coats of epoxy primer.

The next day, once the primer had cured sufficiently, I sanded the whole piece to prepare for finish paint.

The boatowner had provided me with a can of brushable 2-part paint, which I used for the finish coats–three total, since the second coat didn’t turn out as I’d hoped.  Whether from the age of the paint–it was of indeterminate age, though the cans were unopened–or from other factors, I found that each coat of paint required more cure time than I’d expected, which drew out the whole finishing process longer than it should have.  But the third coat was satisfactory, and completed just in time too, as it turned out.

10/29/16 (2 hours)

With a weather window at hand, the boat’s departure schedule for her sail south was advanced unexpectedly, but fortunately the sea hood was ready enough–it was only the second day after I’d finished the third coat of paint) .  Unfortunately, the excess time it’d taken to complete the topcoats, along with the quickened schedule, meant that I’d not had any time to paint the interior side of the sea hood as I’d hoped, though I’d primed it earlier.

To prepare for installation, I marked and drilled screw holes through the three sides, countersinking the holes to accept bronze flathead screws.  The long sides would screw directly to the teak companionway hatch frames on the boat; the forward end required a small cleat, which I cut and shaped as needed, and which I’d install on the deck once at the boat.

Installation was quick.  I started with the support cleat at the forward end, which I fastened to the deck with bronze screws and sealant.

hood6-102916

Then, I installed the hood, predrilling the holes into the support cleat and side rails as needed and fastening it down with bronze screws all around.  With the boat in the throes of last-minute departure preparations, the sliding companionway hatch was not on the boat at the time of installation, but since the sea hood was designed for easy removal that would pose no problem later as there was no sealant used in its installation (other than the forward support cleat).  With the main purpose of the sea hood being to help support a spray dodger over the hatch (as well as provide its own protection), the installation was now ready for the canvas contractor to finish his template and construction.

Here it is the next day with the new dodger complete and installed.

dodger-113116

Total project time:  24.5 hours

 

Acadia 27

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Monday

With a grinder and cutting wheel, I removed the excess cured fiberglass draping beneath the saildrive leg opening, then sanded the remnants flush with the hull and cleaned up the inside of the opening as needed.  I sanded a radius on the opening’s edge to help fiberglass lay over this area later.

After cutting fiberglass tabbing for the next step, I prepared the surfaces with an epoxy coating, which I spread over the inside of the opening, the edge, and the hull.  I allowed this to slightly tack before wetting out and installing tabbing spanning from the inside of the opening to the adjacent hull on all sides.

The owner arrived for a meeting about some additional work he wanted to do on the boat, and afterwards we worked on resecuring the bilge pump and ventilation hoses in the lazarette (the blower hose required an adapter flange to secure it to the bottom of the clamshell vent, which I ordered later), then he cleaned up and began painting the lazarette, completing half of it now; the other half could be done later, once the first side was dry.  He also painted the hull inside the locker where I eventually planned to install the water heater.

Meanwhile, I got started on one of the newer tasks on the list:  a reconfiguration of portions of the fresh water system.  The way it was originally (and now) set up, the supply from the starboard tank, located beneath the settee, ran all the way around to the port tank location on the opposite side, where there was a valve to select between one tank or the other.  The owner requested that this valve be relocated to the engine room for easier selection of the tank supply.  Also, he reported that the original system for securing the tanks in place–a plywood top with a metal brace secured to it as a stiffener–had failed, and the tank was free to expand when being filled, forcing this plywood top up.  Over time, this expansion had bent the T-shaped metal stiffener.  I planned to reconfigure the system to better hold the tanks in place.

Removing the top, I removed the metal stiffener, and left the plywood aside for the moment.  I removed the selector valve from the interim bulkhead and, after tracing the hoses as needed, I removed back to the engine room the line leading around to the starboard tank, and reconnected the main supply line to the port tank supply.  At the engine room, I pulled free the starboard supply hose from its circuitous route around the aft end of the engine room, leaving the excess free on the starboard side near the water pump, where I’d soon reconnect it to a selector valve along with the port supply hose.  I’d take care of that, and some other related water system tasks, next time.

Total time billed on this job today:  7 hours

0600 Weather Observation:
40°, clouds and a shower.  Forecast for the day:  Becoming sunny, near 50°

Acadia 26

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Friday

In the engine room, I ran lengths of 5/8″ water heater hose from the barbed outlet and inlet provided on the engine’s fresh water cooling system.  These hoses would provide engine heating to a new potable water heater in a nearby locker.  I secured the hoses to one another and out of the way as necessary, and left the lengths long in the water heater locker for later connection.

The new water itself was a stainless steel 6.5 gallon cylinder, fired by both engine coolant bypass and 110V AC electric.  For now, I squeezed the tank into the locker to check the fit, and noted the pipe-hose connections required for the four connections.  Previous experience with this heater had reminded me that at least one of the connections was an odd thread type (BSPT thread); the remaining three required 1/2″ NPT female threads.  I ordered the requisite connectors so I’d have them on hand when I was ready to complete the heater installation.

In the cockpit, I made up the connections between the engine control cables, which I’d earlier fitted with the original clevises from the old cables, and the controls on the pedestal. This was straightforward, and afterwards I tested the cable throw to ensure that both levers moved their respective engine controls the requisite full throw, particularly the transmission lever. The adjustments were good, so I secured the locknuts to hold the cable ends a their current point of travel.  On the throttle lever, I replaced a temporary fixing screw with a new bolt to secure the handle tightly in place.

Afterwards, I made up new removable wire ends for the compass light connection, then reinstalled the binnacle and the compass itself, completing the pedestal work.

One of the reasons for installing a new fuel gauge and wiring was that the owner reported that the old gauge had not worked.  I’d hoped a new gauge and wiring would take care of the problem, rather than needing to replace the fuel tank sender, so now with the boat’s electrical system reconnected, I could do a quick test to see if the new installation worked.    With the engine key switch on–that’s where I’d drawn the power for the fuel gauge–the gauge lit up and provided a realistic reading, so presumably all was well with the sender.

Most of the engine installation work was now complete.  Still ahead I’d need to make up the final hose and power connections for the new water heater, and secure the heater in place, and also finalize the fuel supply line to the filter, which I’d held off on while awaiting a hand primer bulb to install in the line to make filling the filter easier now and in the future; this had been a last-minute decision on my part, so I’d not had the bulb on hand.  I checked the engine fluids for future reference:  all were empty, as expected, including the transmission.  Final engine testing would await spring and the time just before launching.  I started some of the reassembly of the engine room, including a cross beam at the after end, and a cleat and removable panel on the port side.

waterheaterhoses5-102816

Later, and after final preparations, I installed fiberglass within the Saildrive leg opening, bonding the engine foundation to the hull inside the opening.  To begin, I wrapped two layers of lighter cloth (10 oz. roving) over the patches in the widened part of the opening, and over the top onto the molded edge of the circular opening above.  I used the lighter material here as I thought it’d hold the firmer corner better than biaxial fabric.  With this part of the tabbing in place, I installed two layers of 1708 biax all the way around, letting the excess run wild below the hull for later trimming.  Then, I added one more layer of tabbing over the widened patch area for good measure.  Access was tight, but do-able, though the work was less aesthetic than I’d normally like.  But what was important was good bonding between the layers themselves, and to the hull and foundation, and I ensured that I got out any air bubbles, mainly using a gloved hand since there was no room for tools within.

Once this material cured, I’d cut and sand away the excess, then apply a final layer, which I’d wrap out onto the hull itself along the lower corner.  I’d get to that next time.

Total time billed on this job today:  4.5 hours

0600 Weather Observation:
42°, rain.  Forecast for the day:  Rain, 45°

Acadia 25

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Thursday

First thing, I finished up tapping the hole for the last engine mount bolt.  I timed the process:  almost 45 minutes to tap through the fiberglass (easy) and  stainless steel plate, and this was one of the easiest of the four holes.  Just lots of backing off the tap to clear the chips and to prevent breaking another tap, and minute cutting progress each time.  Given the access and limitations of the tools (and, frankly, the operator), slow and steady was far safer than trying to accellerate the process, much as I wanted to.

bolts1-102716

Now that all the mounts were finally secure, I could move on with finishing up the final engine connections.  While access was still as clear as possible, I started with the intake vent hose, which I led over to the port side of the space and secured with a wire tie to the bulkhead to keep it out of the way of the nearby muffler.  I left the exposed end near the transmission, where it could provide fresh air into the compartment.  I lulled any slack in the hose back into the lazarette, where I’d eventually make the final connection to the clamshell vent on deck.

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Next, I installed the 2″ exhaust hose from the engine elbow to the muffler, securing it with four clamps.

From the outlet side of the fuel filter, I led a fuel hose across the engine foundation and connected it to the little mecnanical fuel pump inlet on the starboard forward side of the engine.

I secured a length of water intake hose along the side of the foundation between the raw water intake strainer and the engine’s water pump.

Now, I used the pre-existing lengths of battery cable, to which I affixed new terminal lugs, and made up the battery connections to the engine’s positive and negative connection points (starter solenoid and an engine ground bolt), as well as cleaning up and finalizing the cabling at the batteries themselves with new terminal lugs and rerouted cable runs.  I also secured bonding wires, which I’d removed early in the project, back to the engine intake seacock and engine ground.

With the electrical system back up and running, I could test the engine panel.

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Next, I secured the new blower to its plywood panel, then attached the panel to the bulkhead at the aft end of the engine room, securing it with bolts and attaching the length of blower hose I’d led into the engine room earlier.  At the blower’s intake end, I installed another short length of hose, mainly to shield the blower fan for safety reasons.  The blower in this case was intended to evacuate excess heat, not fumes, so there was no  need nor desire to lead the intake hose lower into the space.  Again, a little later I’d finish up the other end of the hose connection, but for now, this was enough to run a blower test as well.

There were still some tasks to expunge from the list, including making up the pedestal control cable connections and fiberglassing the inside of the Saildrive leg hole from the bottom, but now most of the final engine connections were complete.

A little later, I applied a couple coats of white antifouling paint over the patches in the bottom, as I’d grown tired of looking at the scars.

bottom1-102716

Total time billed on this job today:  5.5 hours

0600 Weather Observation:
30°, mostly clear.  Forecast for the day:  sun to clouds, rain overnight

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Wednesday

Awaiting new taps to finish up the engine mount bolt holes, I worked on various final connections to the engine, beginning with the throttle and gear control cables.  There’d likely be final adjustments to the cables later when I connected the pedestal end to the controls there.

When I pre-arranged some of the fuel lines, for reasons unknown I’d been envisioning the fuel connections on the engine’s port side–I knew better, but perhaps the configuration of the old engine, which had the fuel connections in the aft port corner,  was was stuck in my mind.  In any event, the fuel supply and return connections  were actually to starboard, so I needed to change things around.  Fortunately, this was easy, and there was ample hose to make the change.  To begin, I led the fuel return line across the aft part of the engine foundation, just forward of the transmission, then up to its connection at the engine, near the aft starboard side.  I secured it with cushioned clamps and, on the engine itself, with some chafe gear where I secured it to the nearby control bracket.

I’d temporarily removed the fuel filter during engine installation to increase space, and now I reinstalled it.  I moved it a little higher than I’d originally placed it since I found that the bowl ended up close to the top of the foundation, and access to the drain in that original location would have been awkward.  Moving the filter up improved access and kept the filter unit well out of the way of any engine interference.  I also spun the filter 180° to reverse the position of inlet and outlet ports to better fit the reality of the eventual hose leads.

Now I test-fit the engine exhaust elbow, which had been shipped separately from the engine, and I’d left it off during installation.  I found that the raw water inlet at the top of the elbow ended up directly in way of the engine room after bulkhead (natch), so I had to mark and cut away the bulkhead in this area to allow the elbow and its hose to fit.  This also required me to move up the pre-existing wire and hose bundle that I’d led across the bulkhead earlier, but other than resecuring the clamps this didn’t require any other substantial changes to the bundle.  Afterwards, I permanently installed the elbow with its four bolts, and attached the supplied injection hose.

I led the engine wiring harness across the aft end of the engine, securing it as necessary, and made the connection at the engine plug.

exhaustharness3-102616

In the afternoon, with my new tap on hand, I worked on the remaining bolt holes to secure the engine mounts.  Despite the fresh tool, this was still slow going.  Progress was incremental, but eventually I finished the forward hole  on the port side, and moved on to the port after hole.  Access here was awkward, with various obstructions limiting the torque I could put on the tap handle, and completing the threads in this hole was an exercise in frustration, though ultimately successful.  As I felt I was getting close to finally threading the hole all the way through, the bad angles conspired against me and I broke off the tap–the very thing I’d tried so hard to avoid all along.  To my great relief, I found that not only did the tap break with enough exposed above the hole to grab easily, but the tap was also loose and not bound, so I was able to remove the broken part without difficulty and then finish the hole with another tap–I was right, the first tap was just breaking through the bottom when it broke, so although I knew I was pressing my luck at this point, I finished the third of the four holes, but knew better than to approach the final hole on the other side till next time, as I’d clearly used up the good Karma for the day.

Total time billed on this job today:  4.75 hours

0600 Weather Observation:
34°, Clear.  Forecast for the day:  becoming cloudy, chance of a shower, high 44

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Tuesday

Thinking it would help me make the final minor adjustments needed to engage the transmission shaft and engine housing, I tried blocking the transmission into the proper orientation from the top side, where I could (I hoped) reach it conveniently and make adjustments as needed.  Without the engine in place, the rubber gaskets of the leg allowed the transmission (and therefore the shaft) to sag forward a bit, and earlier I’d blocked the leg vertical from beneath the boat, but this meant various trips up and down the ladder to make an adjustment if needed.  As it turned out, in practice I was unable to adjust the transmission position as I’d hoped, and eventually I removed the shims and reblocked the leg from the bottom of the hull as before.

 

It took another hour or so to finally dial in the engine position and get the transmission shaft started in the engine receptacle.  To make this happen, I had to block the engine from beneath the oil pan, supporting the aft end so I could remove the chain hoist; the hoist was preventing me from getting the engine into the right position.  Then, with some incremental adjustments to the engine blocking and the drive leg blocking, as well as the angle of the engine and so forth, I finally clicked the shaft into position–a happy time.  The job was made more complicated by the fact that I couldn’t actually see the point of required engagement, but once the two parts were mated none of the rest mattered any longer.  For the edification of others and future reference, I found that the adjustable engine mounts at the forward end needed to be adjusted all the way down in order to align the engine and transmission.

With the transmission engaged, it was quick work to bring the flanges properly together and install the fixing bolts.

After a mid-day appointment, I returned to finish up securing the engine with the two flexible engine mounts at the forward end.  These each required two bolts to secure them to the foundation.  I planned to drill and tap the foundation to accept hex head bolts–nothing new there.  As I drilled the first hole, I thought I saw metal chips, but initially wrote it off as shavings from the bit or perhaps the edge of the mount’s bolt hole.  But it shortly became apparent that there was a metal plate embedded in the fiberglass foundation–stainless steel, no less.  This was a fun surprise.  No wonder the foundation had seemed heavier than it should.

I managed to drill and tap one of the four holes, but my tap–normally pressed into service in fiberglass only–was hardly up to the task of threading what seemed to be a 3/8″ or so thick stainless plate inside the fiberglass (it seemed to be the same thickness as the metal ring I’d installed for the transmission).  I ordered new and better taps to arrive the next day, and this effectively ended my hopes of finishing up what had seemed a quick and simple task, as I elected to await my new tools before proceeding further with the bolts.  Meanwhile, I took care of some preparations for the final installations I’d be wrapping up soon, now that the engine was finally in place.

Total time billed on this job today:  3.5 hours

0600 Weather Observation:
38°, partly cloudy.  Forecast for the day:  sun and increasing clouds, maybe 50.

Acadia 22

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Monday

Now that the engine room paint had cured over the weekend, I removed the masking tape, leaving the space ready for final installations.

I led several new hoses from the lazarette into the engine room:  two hoses to connect to the existing bilge pump lines, and two lengths of vent hose for the blower output and a fresh air intake, both of which would eventually connect to a pair of clamshell vents on the aft cockpit coamings.  I led all these hoses in now while I still had access to the aft bulkhead and beneath the fuel tank.  I left the excess hose in the lazarette for later connection; for the moment, I just wanted them led into the engine room so I could move forward there.

With that complete, I made up the final connections for the bilge pump hoses, connecting them to the existing lengths in the engine room, and led over the final length of new hose from the reconfiguration of the fresh water system, which I secured along the forward edge of the foundation and connected to the tee before the water pump.  Meanwhile, I resecured the water hose bundle on the port side, which I’d moved temporarily while I glassed and painted the foundation.

I kept the blower/vent hoses out of the way for now, and installed the waterlift muffler on its platform before connecting the existing length of exhaust hose with a short splice of new hose to reach the muffler outlet.

With these final preparatory installations out of the way, I could install the transmission and drive leg permanently.  I cleaned the top of the foundation as needed to ensure a good sealing surface for the rubber gasket on the unit, then installed the transmission without difficulty, twisting it into place in the correct orientation.    I’d been apprehensive about installing the studs, worried about whether they’d truly line up properly and as intended with the factory pre-tapped holes in the ring I’d glassed beneath the foundation and how well the transmission bolting pattern truly lined up with the ring;  I’d seen too many instances in the past where similar things designed to fit together in a specific way simply didn’t work out properly in the  dynamics of the real world.  But I was pleasantly surprised now that I could thread in all the studs without any problem once I’d aligned the transmission as needed.

There was only one minor snag in the studs’ installation:  the starboard aftermost stud wouldn’t fit past the bolt securing the hinge mechanism at the aft end of the transmission.  I suppose if this were being installed as suggested by the directions (but impossible in this specific case), where the studs were pre-installed in the foundation and the transmission dropped straight down over the top afterwards, this would not have posed a problem, but now I had to remove the nut from that bolt and push the bolt through till the end was almost flush with the housing before I could insert and thread in the stud.

After ensuring that the leg was where it was supposed to be, and that the gasket looked good from the opening beneath, I secured the transmission with washers and nuts over the studs.   This also went swimmingly till the final two nuts, one on each side, where for whatever reason the nuts cross-threaded on the studs before reaching their termination.  Fortunately, this happened at a point where I could still unwind the nut and stud without particular issue, and there happened to be two or three extra studs and nuts in the package, so this was a minor–if still irritating–setback.

I wasn’t sure whether the forward pair of studs (the studs were quite long and stuck up a couple inches from the transmission flange) would interfere with the engine during installation on the transmission, so I cut off the excess bolt length in these locations now, just to be sure.

I hooked up the engine to my overhead crane and lifted it up and into the boat, then down into the engine room.  I spent some time jockeying the engine around and trying to align the transmission shaft with the corresponding socket on the engine’s aft end, but ultimately didn’t succeed:  there were many variables, from the precise position of the notched shaft to the height and various angles involved between engine and transmission, all complicated by the fact that the chain hoist ended up pressing tightly against the companionway when I really needed some extra wiggle room, plus the fact that the socket on the engine housing was recessed and impossible to see to help guide in–or even determine how to move for better alignment–the transmission shaft.  Obviously I would eventually prevail in this connection, but for now, at the end of the day, I parked the engine on a cushion forward of the engine room and left it to be dealt with next time.

Total time billed on this job today:  4.75 hours

0600 Weather Observation:
32°, clear.  Forecast for the day:  sun, 50

Acadia 21

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Friday

The final aspects of the engine installation now required that the engine room be painted, so I made that my priority.  After final preparations, I painted the engine room and starboard cockpit lockers with a coat of Bilgekote paint mixed half and half (white and gray).  The new paint would have plenty of cure time over the weekend, and the space would be ready for final installations next time.

Total time billed on this job today:  1 hour

0600 Weather Observation:
58°, light rain.  Forecast for the day:  showers and drizzle, then heavier rain overnight

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