For one evening in Killarney, we validated that the cell reception was bad and the marina wifi was worse, so in the morning, we booked it over to Little Current, which is a small town at the confluence between the Georgian Bay and the North Channel. You have to pass through this swing bridge in a small channel that actually has strong and shifting tidal currents because the size of the bodies of water on either side of it. Right on the other side of the bridge was the small town, and we tied up in their marina, quickly verifying that internet was usable for work starting the next day.
It was a cute little town, and the marina actually had a few Canadian loopers, both past and aspirational (since the US is still rejecting letting Canadian boaters into US waters) that we chatted with. There’s even one guy who does a daily radio show on VHF 71 with the latest news, weather, and has boaters from the whole area check in to keep track of them. We went to a local brewery that was decent, but there was a known squall coming in in the afternoon, so we had to head back to the boat and hole up pretty early, at which point it rained cats, dogs, farm animals, and more, for quite a while.
We holed up in Little Current for two days of poor weather, leaving on Tuesday morning when the weather cleared up. All of the interesting spots on the north channel appear to be on the east end of the channel, so we had to figure out what to pack in during the work week.
The Benjamin Islands were a constant feature in everyone we talked to’s hit lists, so we headed there first. There were pretty strong predicted winds from the east overnight, so I picked the south anchorage, which is protected from all directions other than SSW. Unfortunately, the first thing we found was that Rogers had virtually no coverage here, so we had to fall back to our emergency Google Fi plan to work, and knew that meant our time here was limited.
In the evening, we both called it quits somewhat early so we’d have time to explore before sunset. We put the dinghy down, and tootled over to one of the other boats in the anchorage that had people hanging out on the back deck. We asked them where we should go to check out the sights, and they told us to go outside and around to the main anchorage to see the formations over there. We thanked them, headed out of the bay, opened up the throttle, and … plowed water for a minute. Incredibly perplexed, we checked the motor and propeller, fuel lines, and everything. No damage that we could find. Eventually, I just tried forcing the bilge pump on out of curiosity, and water came out … for about 90 seconds straight. So, apparently, at some point recently, the level switch on the bilge pump stopped working. We were used to, during rainstorms, hearing the dinghy periodically eject water onto the swim platform, so checking the bilge pump wasn’t part of our list. Woops.
After that short debacle, we finished emptying several hundred pounds of water from the dinghy and hopped right up on plane to head over to the other anchorage. The predicted winds for the night had started picking up, so after we got out of the bay, until we got into the lee of the island, it was pretty spicy — riding out ~2-3 footers in a 12 foot dinghy while trying to stay on plane isn’t the most fun. But this dinghy actually rode it pretty well. Despite being a cheap thingy, it’s proving to be quite seaworthy.
The sunset was rapidly getting very pretty, so despite the waves, it was looking worth it. We made it around into the central anchorage, and followed some other dinghies over to a rock formation with a view of the sunset, and were rewarded with a great view.
After catching most of the sunset, we chatted a bit with the locals there, who turned out to be one of the Sault Ste Marie council members and her extended family. She convinced us that it was a cute town worth going to, which nudged us over the edge to give it a shot later in the week. With the sun rapidly heading down, and a journey back directly into the waves, we headed back to the boat, and got to catch the last of the sun as we pulled into our bay.
I checked the Google Fi report in the evening and it didn’t look like we’d used too much data, so we went to bed and started working in the morning. Then a few hours into the work day, we get a text saying we’ve used all of our data and are now on reduced speeds. Oops. I checked the report and saw that the reports are delayed by quite a bit, so we actually used most of our monthly bandwidth the day before and had polished it off with the morning meetings. So we both tried audio-only calls all day with marginal success, and managed to get through the day, ish. But this was the end of our emergency backup plan — we had to make Rogers or marina wifi work here on out for the rest of our time in Canada. We were really sad we couldn’t hang around for more days there and the nearby islands, but without more internet plans we were completely hosed, having used our one emergency fallback day. Maybe next year.
Weather had also socked in, and I had late meetings anyway, so we didn’t bother going leaving the boat in the evening. Looking at the forecast for a few days, it was going to stay socked in, and start getting real windy later in the week. So we headed northwest to what looked like a pretty anchorage that was protected from all angles of winds (needed for that overnight), Beardrop Harbour, planning to head to a marina instead if reception was bad there, or the next day to avoid wind if not. It rained on and off for the day, and the anchorage was actually pretty bland, so we didn’t end up taking any pictures there, but at least the internet was decent.
The weather forecast continued to degrade, and we actually had to wait to leave in the morning while the heavy winds from the early morning shifted direction to a more palatable forecast around 11am. We had checked out all of the marinas along the way from here, and all of them looked pretty much like small towns with nothing suggested by boaters or google to do there. With the forecast continuing to look bad, we decided to bomb straight to Sault Ste Marie at the end of the channel, hoping for some stuff to do for the weekend in the rain. Hannah and I traded off driving all afternoon between meetings to make the long trek, and pulled into the marina in some driving rain. But at least it was a Friday.
We spent a very rainy Saturday exploring the city, which was, well, actually kind of a dying town. 2/3s of main street was boarded up or for rent. Tons of closed restaurants and shops in the outskirts. The mall is close to empty. We had a fun time touring the Bush Plane Museum, which gave me some fun flashbacks to my year off after high school, working for Brooks Range Aviation in northern Alaska. We tried a brewery that only had things I wanted to drink. We stopped at a board game store and bought what turned out to be a good recommendation for a new game, Smartphone, and picked up some fancy olive oil from a local shop. We had two decent dinners at local restaurants, at least. And got rained on, a lot. ‘Tis the season. Time to head back south!
While we can skip Sault Ste Marie, at least the Canadian side, the pretty eastern part of the North Channel was definitely worth a revisit. We just need to come armed with all 3 cell providers next time…
Going through the Erie Canal and the Trent-Severn, we’d been lucky enough to have wildly unseasonably good weather, basically the whole way. Very warm, clear sunny days, with very little wind. Great for living and traveling on the boat. However, the day after we left the Trent-Severn, the fact that we’re actually getting pretty deep into fall finally caught up with us, much to Hannah’s chagrin. And the weather theme has been pretty consistent ever since, unfortunately. On the bright side, we are no longer having to consider the power usage nuances of running the air conditioning all night every day… We also were extremely bad about taking pictures for a while in here, so this post will be a significantly worse picture:text ratio than usual.
Leaving the Trent-Severn, we were well into the afternoon, and decided to stop at a suggested side trip, Beausoleil Island. As part of our paid ticket through the Trent-Severn, we also got a season-long moorage pass, so we could stay for free at any of the other Ontario parks docks and moorages, which included Beausoleil. There was a suggested dock that we pulled up to, and despite being a Tuesday afternoon, only the slip closest to shore was available, so we slowly jammed our monster cat into a ~30 foot long slip with about a foot of water under us and set up for the night. The shore had what looked like a lovely paved foot path, and had a great trail map showing long trails around the island, so we got the scooters out, anticipating a great tour of the island, but around the first corner from the visiter’s center, in any direction, the trail turned to dirt and rocks. We tried to be a little ambitious, made some questionable choices, got dirty, and made our way back to the boat pretty quickly, after exploring a small native graveyard with storyboards. Hopefully the scooters aren’t too permanently damaged.
We left Beausoleil the next day, and the suggested path through the Georgian Bay is the “Small Craft Channel”, which really means “not for giant commercial vessels”. It turns out to be a very narrow and windy channel, with the whole coastline of the Georgian Bay being rocky glacial moraines from the last ice age. It was fairly pretty, though the entire bay looked very similar — rocky islands everywhere, only reaching up to a few feet above water level, with scraggly trees. It was neat, but stark, and definitely not terribly inviting. Navigation is a bit treacherous, and if you don’t have really good charts and know how to read them, even the extensive buoying of the channel often times could lead you astray.
We stopped for lunch at a strongly suggested spot, Henry’s Fish Restaurant, on Sans Souci island. Locals from the whole area migrate here every day by boat for a meal, and it turns out that there were only 2 days left in their season before they shut down when we stopped in. When we pulled our boat into the dock, in pretty heavy wind, they were very explicit that we couldn’t use the cleats on the dock with lines to help lever us into the dock, since the cleats would pull out, so it made for an exciting docking exercise. We had a great lunch here and then continued on our way.
Our stop for the night was Parry Sound, which we expected to anchor at, not needing to stop for anything. It’s a pretty protected bay along the small craft channel, and was just going to be a nice restful stop. However, our fridge situation, which had been tenuous all summer (really struggling to hold reasonable temperatures), was rapidly decaying (since the end of the Trent, the fridges really weren’t able to get even below 50 degrees most of the time), so we were regularly consuming food that should probably be killing us, and throwing things out on a short timeline. On a whim, we tried calling the one boatyard in town, and they actually referred us to a local HVAC group that had marine experience. I told them all the debugging I’d done on the fridges, that all signals pointed to it just needing a recharge, and they said they’d have someone meet us at 9am the next morning! So we got a spot on the town dock for the night, while it rained profusely, and tucked in.
In the morning, a very nice gentleman from the company showed up with tools and some R134a. He poked around a bit, confirmed my suspicion, and spent some time adding taps and refilling both fridges. When he left a couple hours later, both fridges were coming down in temps, and the suction/hot lines were both behaving far more properly. He was in and out so fast that we actually took off from the dock before lunch to continue our travels.
We meandered through the sketchy rocks for the afternoon and, with winds predicted for the night, decided to set up on anchor in a very protected anchorage north of Shawanaga Island. It was a nice little spot with great holding, and it even had a short dinghy trip to a narrow “hole in the wall” that the local kids were cliff jumping off, with a little beach that we hung out at for a bit until the winds picked up and it was too cold to swim anymore. We went back to the boat and tucked in for the night.
At this point, the next week of forecast was starting to look pretty nasty. Our two week vacation was drawing to a close, and we had to get back to enough civilization that we could be working full time again in a few days. It looked like, if we made one long trip up to Bad River, that in the morning we’d be able to wake up before a storm moved in and make it the rest of the way to Killarney, the end of the Georgian Bay, which is back in moderate civilization and marina wifi, so that we could work if cell internet continued to be as terrible as it had been. So we made that the plan, and headed north for a long day on the channel.
The trip up to Bad River was uneventful. More of the similar views, more rock-dodging, and an easy anchoring. This spot, however, had a pretty cool “rapids” area called Devil’s Door that we got to explore on the dinghy. There was one section where we had to go “upriver” a bit against a strong current (6+ kts), and then came back down the next channel over, jumping off a ~1 foot “waterfall” in the dinghy. Hannah freaked, but it was fun, and later on she admitted it was worth it. We would have explored more, but it was already late in the day after the long trip, and raining on and off, so we went back to the boat to warm up and settle in.
In the morning, we woke up very early to the disappointing reality that the storm had moved in early and the wind was blowing, even in our quite-protected anchorage. Given how badly we really needed to get to civilization, we tried peeking our nose out of the bay, only to be met with ~7 foot short-duration choppy waves, with some peaks way higher than that. Water was coming up over our bow regularly, and the tunnel slap (waves bashing into the “tunnel” area between the two hulls) felt like the world was ending, so we turned around and headed back into the bay. The forecast was that, later in the day, the conditions would possibly be better, but still pretty bad, so we resigned ourselves to trying again before sundown.
At about 5:30pm that evening, about the latest that we could leave and still get to Killarney before sunset, we tried poking our noses out again, and weather was still pretty bad, but the waves were down to a much more manageable ~4-5 foot range, and had started to take a little more directional formation than the random-chop of the morning, so you could figure out an angle to not get beat up quite as bad.
We rode it out, made it all the way to Killarney, and happily tied up at the marina there, one of two boats in the whole place. As the evening wore on, conditions slowly improved as well, so we were on autopilot most of the way, surfing the waves all the way into town.
After getting in, right at sunset, we weren’t in any mood to make food at that point, so we went into the hotel attached to the marina, and sat down to what looked like a pub meal there. The waitress then explained some specials that sounded amazing, and we ended up getting a surprisingly incredible meal. We mentioned to the waitress that our dishes were way more amazing than the menu would indicate, and she lamented that, most seasons, they have a full fine dining experience, but with COVID they just didn’t get the muscle going this year, so instead the chef periodically would flex and offer some great specials on top of the usual pub fare. The chef later came out and chatted to us a bit about the place as well. It was a lovely night after a long hectic day, and a great way to end our short week on the Georgian Bay.
We are a bit torn about the Georgian Bay after our time there, which you can probably guess by how few pictures we took, when usually we’re pretty voracious iPhone-snappers. Weather and internet conditions definitely dictated that we move through it faster than we might have otherwise, but a lot of the scenery was pretty indistinguishably identical, and without any hint of elevation to add some layers to the beauty, it felt a bit like boating through a dangerous wasteland. We also didn’t get any pretty sunsets/sunrises due to the cloudy/windy/rainy conditions, which I’m sure hurt the memories a bit. And with it being so late in the season, and with Canada having opened so late, there were almost no other boaters around either. Marinas everywhere were severely hurting for business, and anchorages were empty. There’s definitely a bunch more spots to explore and other nooks and crannies, and in the middle of the summer, being able to jump in and swim at the end of the day would have been great as well. So, we’re giving it the benefit of the doubt in case we want to do another lap through this way next summer on another Great Loop. But mostly we are looking ahead to the North Channel, which people keep saying is the actual highlight of the great lakes portion of the Great Loop. So, onward and forward!
The last week, our patience wearing thin, we got down to business riding the shop pretty tightly on a daily basis. They actually got the running gear back together, the cutters came in and got installed, they fixed the fiberglass damage below the waterline from when Hannah wrapped the line around the prop, and we got dropped back in the water late Thursday afternoon! The whole week has been in the 90s and quite humid, so it has been pretty painful working from my little office on the boat. The fridges also haven’t been keeping up, hovering around 50 degrees in the heat, so we’ve had to throw away anything vaguely temperature-sensitive. Turning the A/C on Thursday night was lifechanging, and I slept for ~10 hours that night, trying to make up for almost two weeks of way-too-hot fitful sleep.
While they were working on our boat, we received two freight shipments. First arrival was replacement lithium batteries. We originally ordered a slightly different model of the batteries, but ECPC made a mistake and sent us the wrong ones back in February, so we’ve been waiting for the correct ones for a few months to swap back out. After a bunch of hernia-inducing hauling around of all the batteries, I swapped everything back out, and we’re basically exactly where we started, but I have the ability to tie the BMSes into the WS3000 now, for the future.
Next, we finally got our pallet of stuff sent from WA, with everything from the storage unit that we wanted out east — clothes, tools, knick knacks, records, etc. We’ve spent much of the week with the boat a complete disaster of a mess merging the stuff from Seattle with everything already on the boat, but by the end of the week we’d mostly sorted through everything and put a bunch into storage, merged wardrobes, etc. It was a good excuse to actually throw away a bunch of extra hoarded spares (used wiring, used plumbing bits, stained clothing, etc.) and get some weight off the boat, now that our projects are mostly done.
Friday, now that we were in the water, we got down to our big unknown — we’re at around 975 hours on the motors, and so I wanted to get the 1000 hour service done while we were here. They got started on checking the starboard motor and immediately found some bad news: the injectors are all pretty gummed up, and the turbo has significant shaft play. Hannah and I were busy with work so we couldn’t do any checking on things, but they checked their usual shops, and the turbo rebuilders are backed up by a month, and injector rebuilds are backed up several weeks.
While the news is bad, it’s also not surprising. Since we got the boat, the starboard motor has always consumed significantly more fuel than the port motor — over a gallon/hr more at basically anything above idle. And recently, it’s started surging a bit at idle even when warm. So I had an inkling that something was up with the fuel injection system. It’s annoying that we have yet more things that our fairly-useless engine surveyor didn’t find on the PPI, but at least we have some answers about why that motor’s been acting wonky. With how quickly the behavior has been worsening, it didn’t feel worth the risk to continue north without fixing it right away, so we decided to stay tight and get some more information, about both motors, before proceeding.
I spent some time this weekend doing some research on the turbo and injectors, and found some other options to call early Monday morning and hopefully get some more options. But we may have some uncomfortable choices coming up between being down for another month to get things rebuilt, or coughing up for new parts to get under way much sooner and send away used parts for rebuilding to come back as spares/sell them off later. We’re intending to be liveaboard on this boat for many years at this point, so it’s not the end of the world if we get some prebuilt spares for critical components like this ready to go in the hold. We’re going to be putting ~800-1000 hrs a year on the motors doing the loop repeatedly, which means we’ll need turbo replacements and injector rebuilds each in a year or two anyway, so it’s not totally wasted money.
In the meantime, we’ve been continuing to explore the Deltaville area a bit. The guy that I originally met here to sell the inverter to turns out to be a really nice guy with an interesting life story/mission, spending 3 years in the boatyard here completely rebuilding a 50 foot sailboat down to the hull and back up again, after sailing it 9000 miles from Europe. Check out their blog to read about their adventures. So we’ve been hanging out with Alex now and then in the evenings and exchanging stories of our respective projects.
This afternoon, we decided to check out the Deltaville Maritime Museum, since we’ve been riding by signs for it the last couple weeks. It was a neat museum talking about the extensive boatbuilding history of the area — from the 1700s through to the early 1900s, the extensive timber of the area bred an industry of affordable and reliable boats that serviced the Chesapeake for centuries.
After returning from the museum, we spent some time in the sun on the roof of the boat trying to decide on a solar strategy. The boat came with 800 watts of old 2008-era solar panels, but we’re looking to go way beyond that. I was originally going to go with a stack of newer rigid panels, but was getting uncomfortable with how much weight that was going to add way up high on the boat, so I’ve since leaned toward doing flexible panels again. The efficiency of the newer flexible panels is very similar to the solid panels, but they’re a fraction of the weight, and much easier to mount to the roof. After being up top with a tape measure for a while, we decided to go with 15 of the Sunpower 170W flexible panels, giving us 2550 watts of theoretical power. I also may be able to fit a 16th one, but it’s really close, so we’ll order 16 and possibly just have one spare panel for down the line.
So now we just need to come up with a plan, once we talk to a million shops in the morning…
Around the time we decided to buy the Endeavour, I had come around to the idea that, if we instead committed to sticking with our old boat, I was going to have to redo batteries to non-lead-based technology of some sort. I was tired of always running out of power, managing/timing generator runs, carefully running as absolutely little as possible, timing showers to after we made a travel hop, etc. and wanted a change for our next year+ of east coast cruising.
When we looked over this Endeavour, in the electronics cabinet I found mostly original equipment with a few awkward slightly newer pieces thrown in. I quickly came to the conclusion that, if we bought it, it was a good excuse to do a complete writeoff of what it came with, and go nuts with something I’d be really happy with for years.
A couple weeks before we looked at the Endeavour, Kevin @ Airship posted a fantastic blog post talking about their power system. They’d been working on it over the last year, and were finally pretty happy with it. They had decided to do what most boaters consider pretty crazy — run 100% of their AC power through inverters. I’d been contemplating a system like that for a while but it seemed like absolutely no one did it, so it had been simmering on my back burner throughout 2020. However, when this article came out, it validated all of my beliefs about a modern power system for uses like ours:
Lithium really does live up to the hype in liveaboard boating usage
Heavily load your generator if you’re going to bother starting it — running a 9-12kW generator and pulling 1kW slowly charging batteries is inefficient and bad for your generator
Run everything through inverters and use power boost as needed if shore power isn’t enough
Get to a place where you barely have to think about power on the boat anymore
Throughout 2020, every day we weren’t plugged in at a marina, power was a foremost concern and dictated much of our scheduling. When are we going to generate so we can time our showers around the limited duration hot water? Are there people around us? Crap it’s 8pm we should probably not generate at this point, but our batteries are getting lowish so we have to either go to bed early or just read books or whatever to avoid using too much power overnight and drawing the batteries down too low.
Early in the trip, the mental load of managing all this was a little fun, even though we were already used to it from before we came out east. To semi-quote JFK, we don’t do these things because they’re easy, we do them because they are hard. But at some point it’s basically just an algorithm and it gets old to manage. So I decided I was done with it.
The Slowboat article led me to a newer suite of products from Victron called the Quattros that are a bit of a godsend for this sort of marine off-grid system. These actually go above and beyond the standard age-old inverter/charger combo unit. There’s two AC inputs, so you can put your generator in one, fix the current limit (50A for us), and then plug the second one to shore power, and, from a monitoring panel, easily update the current limit depending on whether you plug into 50, 30, or even 20A at a marina. Then it would use whatever power source was available as input.
Our boat has one 230VAC device currently: the older watermaker that came with it. While I may replace it someday, I wanted to make sure that we could support it, so I needed to keep the full split-phase system that the boat came with. I also figured I’d probably upgrade the heating/cooling to a chiller system that would much rather be on 230VAC than 120VAC. While there’s a few options for accomplishing this, I decided to go with using two slightly smaller Quattros (5KVA) in a split-phase configuration, so that if one of them broke, I’d be able to quickly rewire/reconfigure the system to still function off the one remaining unit until we could get a replacement.
The Quattro has a bunch of neat features, not least of which is the PowerAssist functionality, which is part of what really sold me on the system. If you’re plugged into shore power of a certain amperage, and your panel needs to draw more power than the shore power can provide, the Quattro will fill in current from the batteries. So if you’re in a smaller marina with single-phase 30 amp, you can run the microwave for a while or the air conditioning, and it will fill in any extra power requirements over the limit. Then, whenever you drop below 30 amps again, it’ll go back to charging the batteries up with whatever spare current is left. This is really useful for marine air conditioning units, which traditionally require huge loads at startup (30-40 amps) for a few seconds, which tends to blow breakers, but this system totally avoids that problem.
So pretty early on, I decided to pick up a couple Quattros, and was able to move on to figuring out what to do for batteries. The first step down the carefree-power path I’m heading down is getting a silly amount of battery capacity, so this was going to likely be the most expensive part of the new setup, and hence required a ton of research.
Why Lead Batteries Are Terrible
Lead batteries have a bunch of nasty characteristics for long-term usage. When you start at 100% charge, you can only really bring them down to around 50% before you risk dangerously shortening their life span. So you start charging there. Then, once they get back up to ~80% charge state, they start increasing internal resistance and accepting charge slower and slower. Traditional logic is that to get from 85% to 100% takes ~3-4 hours for lead acid batteries. So you just don’t do it if you’re at anchor. You cycle between ~50% and ~85%. We had our auto-generator-management on the Meridian to cycle from 55-85%. So if you have, say, 1000 Ah of capacity, you get to use ~300 Ah of it from your main cycle. Not a great return.
But wait, it gets worse. The chemistry of the anodes in lead batteries is such that, when you run them down, on the exposed areas (where the electrolyte goes down), they get a little lead sulfate coating that you need higher voltage to get through. And you only uncover that surface up to the % that you charge back up to. So when you cycle up to 85% and then back down again, 15% of the anode starts building an ever-thicker coating on it and starts to crystallize. The next time you charge back up, to get back to 85%, it takes even more time than last time. By the time you cycle 50-85% ~4-5 times, you’ve lost 10% or more of your battery capacity, and you’re actually cycling between 50 and 75% — now you get 200-250 Ah of your 1000Ah bank to avoid damaging your batteries.
The only way to restore that capacity is to get back to 100% with a really long generator run as soon as possible, and every few weeks you need to run an “equalize” cycle that runs very high voltage through the batteries to “break through” that crusty shell on the anode and get your lost capacity back. It’s a pretty terrible system, all in all. And so not only are you constantly just managing these tiny-range % cycles on your batteries, you’re also managing plating that you need to work these really-long generator cycles in to break through, and every few weeks get a full ~8-10 hour generator run (or be in a marina) in place to do an equalize cycle.
Even being “nice” to your batteries and following things by the book, even “good” AGM lead batteries only get around 500 cycles down to 50% before they’re at a fraction of their initial capacity. So, doing 1-2 cycles a day, we basically had a year or so before we were working with a pittance of capacity. After a year of this game, and changing out the batteries once already, I was pretty tired of it and ready for a change.
I spent some time looking into Firefly (carbon foam-based) batteries and a couple other intermediate chemistries, but very quickly settled on a much better option.
Lithium, specifically LiFePO4 chemistry, is in a category of its own in the battery world. These batteries can be around 1/4 the weight of traditional lead-acid batteries (either FLA or AGM) for the same capacity, and around half of even a carbon foam-based setup. So on things like boats, where weight is the devil, if you want a ton of capacity, you go Lithium, or you end up putting a thousand pounds of lead somewhere on the boat. The weight consideration is a nice boost in and of itself, but the biggest wins with Lithium are actually in usable power.
Remember my rant above about the fun 55-85% cycles on AGM and how you can’t get back to 100% without a ton of time, and the memory effects you need to counter? Yeah, those are gone with Lithium. You can safely draw them down to 20% and charge right back up to 100% and get 2000-3000 of these 80%-capacity cycles out of them. If you only draw down to 50%, you get 5000 or more. Better yet, that 20-to-100% cycle is at full speed the whole way. The batteries accept an essentially full rate of current from the bottom of the barrel right up to the last topoff. So you can really just use them as a reservoir like a fresh water tank — top off when it’s easy, let it live low if you want to and understand the risks, and add a little bit if you want here and there.
To do a little math here, the Endeavour came with 800Ah of AGM. With a 55-85% standard cycle, that gives us 240Ah of capacity to burn through in between running the generator. Getting the same weight of Lithium batteries gives us 2400Ah, and with a 20-100% standard cycle, that’s 1920Ah. That’s an eight-fold improvement in usable capacity for the same weight. Plus you’ll get many years out of the packs with the 2000+ cycle lifetime. The primary complaint about Lithium batteries is up-front price, and rightfully so. They’re expensive. But especially if you’re going to spend any significant time on your boat, do all parts of the math — cycle time and cycle count. You might find that lithium batteries actually save you significant money over several years.
So, I’ve convinced you to buy a pile of Lithium batteries, right? Great. I’ve been watching Lithium (LiFePO4, not Li-ion) batteries for years, and they primarily break down into two main camps: US-assembled-and-warrantied packs for around 1000$-per-kwh; and Chinese-assembled-and-basically-un-warrantied packs for around 300$-per-kwh. Forum posts for years have talked about the Russian Roulette of trying the latter — sometimes you get some gold, often you get half-capacity packs, and one dies a few months later and the company has completely disappeared. So, if you go that route, way over-buy for your intended capacity and still pray. For what’s actually our home, I didn’t like either of these approaches. I wanted at least 20 kWh and preferably closer to 30, which was putting the cost of option 1 well into stupid territory, and option 2 still at expensive enough to be a real investment, without any guarantee of success.
The other problem is form factor. Many makers have been making drop-in battery replacements instead of taking advantage of the big improvement that Lithium gets you on power density (capacity per space). So you get, for example, a Group 31-shaped battery for 700-1000$, and it’s still the size of a full Group 31 battery, is only 100 Ah, and is packed full of foam to fill out the space. So, for most of the better units, if you want to get up to 20 kWh or beyond, you end up with a huge amount of space.
Many people go the DIY route, where you buy bulk Lithium cells from China, throw your own battery management system on it, and solder it all together. But especially for a liveaboard marine environment, I wanted something slightly less hand-crafted than that with at least a vague weatherproofing certification claim. I had confidence I could make the DIY approach work, but at what cost, when every time I screw up a little bit we could be in a pretty bad situation?
In the last few months, however, Electric Car Parts Company, a company that’s been around in the US for quite a while, and imports and sometimes warranty-backs various overseas options, came up with a new option: the BestGo “Preferred” packs — 12V, 400Ah, a hair under 2000$ each, with integrated battery management (a whole different topic, but suffice it to say you want this). That’s 5kWh for under 2000$ — slightly more expensive than the cheap-chinese-pack option, but a huge discount on all of the US-backed packs. It comes with a reasonable warranty, backed by the US company, and the form factor is awesome.
When I did the math, I’d be able to swap the four 4D batteries that came with the boat with four of these packs in a virtually identical rectangle (1″ wider, exactly the same length, and about an inch taller). I’d go from 9 kWh of AGM up to 20 kWh in the same space, at 2/3s the weight. And there was a nice little space next to the current battery area to put 2 more if I wanted, to get up to 30 kWh and have weight parity, with 4x the capacity. A plan started coming together. Shipping was going to be a little complicated, since they get “dropshipped” directly from China with a ~6 week lead time. So, we knew that as soon as possible after closing on the boat, we’d have to place the order and sit somewhere for a while.
12V? Bleh. Maybe 24V?
Up until recently, the only thing that made sense on your boat was sticking with whatever its native house bank was. Most boats are 12V, some larger boats are 24V, and none are 48V. You don’t want to change your house voltage. Everything on your boat is designed around it — lights, relays, toilets, macerators, electronics, your engine computers — virtually everything electric that you interact with on a daily basis.
For the longest time, I’d been assuming I’d get a huge stack of 12V battery power, run enormous cables to some huge inverters, just like Slowboat did, and that’s just life on a boat. But there’s a big downside to this approach. 12V is a terrible voltage. Humanity has been using it on mobile vehicles for decades and decades, and it’s so ubiquitous that it’s hard to change at this point. But especially for larger power demands and physically larger installations, it’s terrible. You lose so much voltage over such a short distance that everything is heat management and giant cables. Running, for example, 8 kW of power through 12V to power your inverter means pushing around 1000 amps continuous. That safely requires four 4/0 cables per lead (4 for positive, 4 for negative), and is still converting a bunch of electricity directly to heat. It didn’t excite me, either from a cable management perspective nor from a safety one. Doable, but really not ideal.
This runs into our next problem. With lithium batteries, due to some nuances of the battery chemistry, you really need to run a battery management system on top of the raw battery cells. However, most of the BMS systems don’t really support continuous draws over 100 amps. Even with 6 batteries, that’s only a 600 amp continuous draw. At 12V, that actually isn’t enough to fully feed the inverter behemoth I was looking at doing — I need around 1000 amps. However, BMSs tend to work at the same amp rates independent of voltage. So while the BestGo 12V 400Ah pack supports 100 amp draw rates, the 24V 200Ah pack also supports a 100 amp draw rate, but that’s getting twice the energy out of the pack.
I started investigating running a 24V subsystem — a main large house bank at 24V, with a tiny setup at 12V, and running converters to run power both ways. When the alternators were running, it’d charge up to the 24V house bank, otherwise the 24V house bank would live-convert down to 12V to handle constant loads. Victron makes a bunch of Orion units to deal with exactly this sort of problem, and it’s pretty manageable. However, at the end of the day, I was struggling to convince myself it was worth it. 24V halves the current requirements, but it still adds all the complexity of a new voltage level, and chargers are still fairly low-current. Even going ballistic on chargers, it was going to be ~8 hours on generator to refill a 25kWh drop. There had to be a better way.
Most home off-grid solutions use 48V. It’s still “low voltage” so it’s safe to work with, you get much easier and safer wire runs, and it’s a lot closer to 120V than 12V, so inverting it back to AC is a more efficient process. For off-grid home solutions, no one has 12V to deal with — you’re just storing energy to convert back to AC all day for your house. However, the more I thought about it, the more it seemed like this off-grid usage was actually pretty analogous to our higher-demand usage on the boat. We ALSO have a 12V system that has low-but-constant demands, but, over the course of a day, we lose way more power to an inverter than we do to the 12V loads. Computers, cooking in the convection oven, running the air conditioning, hair dryer, water heater, etc. It all adds up to an order of magnitude more usage than the DC stuff. So what happens if we optimize around that AC load instead of the DC load?
Well, as it turns out, the Victron Quattro comes in a few different sizes at 48V, one of which actually looks great for our needs. Significantly higher power conversion efficiency than the 12 or 24 volt models, actually smaller size and lower weight, and, best of all, a 70A battery charger in each unit (remember 70A at 48V is a lot of power). This started looking pretty compelling. For this to work, though, I needed some way to get, at a minimum, power from 48V to 12V to power the hungry fridges and electronics of the boat.
The Victron Orion line has a cheap and simple 48->12V 30 amp DC-DC converter, which would easily run our house loads 98+% of the time, at very low conversion loss. There’s also a whole pile of 12->48V battery chargers around the world to be able to charge the 48V bank from the motors. I fairly quickly pieced out a set of devices that would entirely solve this problem for me. You keep a small 12V starter “house” battery as a power sink in case you, say, run the toilet and water pump at the same time, the 30A DC-DC converter runs load the rest of the time and quickly recharges any actual over-30A-usage from the small battery.
This seemed like a slam dunk. It was a silly project, but I liked it, and it also seemed like it could be genuinely awesome. Fast charging from the generator, run anything on the boat off the inverters with pretty small size cable runs. Let’s do it. I went with six of the BestGo 48V/100Ah batteries from ECPC and got them ordered up, and got an order together from a Victron supplier for a stack of stuff.
As I was about a day from pulling the trigger on a whole slew of stuff, I just kept searching for an even more efficient way to do the 12<–>48 conversions. I had an answer that I found satisfactory, but it still just felt like there had to be a better way. Something interesting popped up on one of my google searches — a PDF of a brochure that didn’t seem to be linked to anywhere. It was from Wakespeed, a company mostly known for their line of alternator external regulators. It mentioned a new product coming soon, a “WS3000”, with this picture, and no other details:
It had to be too good to be true, right?.. I immediately sent Wakespeed an email describing what I was trying to put together, and that it seemed like this WS3000 was the magic bullet to tie my whole system together, but I wanted to confirm that this was what they were going after. Amazingly, that night, I get an email back from the co-owners of the company, “The WS3000 sounds like an excellent solution for your application!”, and offered a phone call the next day to discuss a potential collaboration.
Well, turns out, what I wanted was exactly what they’re trying to build. No one has a good way to bridge legacy 12V systems and high-energy lithium 24 or 48V power banks, so they saw a market opening, and jammed a 3000 watt crowbar into it. Their timeline was getting super-early alpha hardware assembled in a month or so, which was around when my batteries were going to show up, so our needs aligned very well, if I was willing to tolerate early development software and hardware and help them tweak it all. We started planning how things would go by email while we waited for our respective ducks to get in a row.
One interesting insight Al had was to just use my port start battery as the “12V house” battery. With only a 30A converter, I needed some sort of middle buffer, especially since the windlass pulls off the house setup by default on this boat. However, with a 3000 watt converter always at the ready, that changes the game. The idea seemed interesting enough to at least try for a while, so I went ahead with that plan — merge the port start battery with the “house” positive bus, and then feed the house off the WS3000, with the port battery as just a backup/energy sink a 15 foot wire run away. As a safety measure, add an ACR setup to keep the starboard engine+battery isolated from the port/house battery, so that if something went to hell and the port side fully drained, we’d still be just fine to fire up either the starboard side or the generator and restart the rest of the boat from there to get back on our feet.
With the rough circuitry figured out, I started ordering things.
I had 6 weeks to wait for the batteries to show up, but also a ton of other projects to do on the boat in the meantime. And also, converting over to the “no-12V-house” setup was going to involve a bunch of rewiring. Finally, even when the batteries arrived, there was too much to change to possibly do in one big full day, or even a full weekend, to ensure that we’d be ready for working again Monday morning. So I had to figure out how to stage things out to give myself the best chance for success.
I spent several days going through the two engine bays and simplifying things. The factory and modded wiring in here was incredibly inefficient. Really long large-diameter wire runs to junction points that then had really long large-diameter wire runs back to near where the run started in the first place. Very questionable choices. At the end, I was able to pull out ~80 lbs of cable and end up with a more resilient setup, and get actual wire runs that were topologically similar to my ideal-state block diagram from above. I got to a place where I had both engine bays happily wired up with an ACR between them and the port loads all run to a set of terminal posts on the firewall that I could later run 4/0 cables up to the main electrical panel area when I was ready.
Once the engine bays were ready, which took way longer than I expected, I started dismantling everything possible from inside the electrical panel area to get down to the bare minimum needed to run the boat every day — basically, just the existing mastervolt 12V inverter/charger.
Eventually, over the course of a few days, two freight shipments showed up with the batteries and a stack of Victron stuff, and I was ready to go. I made a pretty serious tactical error here, and despite my plans to first merge the port battery in as the “house” battery, get that working, and then move onto installing the 48V setup, I got cocky. I can just dismantle the panel, throw the batteries in, mount up the Quattros, and be off to the races later in the day to do cleanup, right? How hard can it be. Well, turns out, quite hard, when you forget some important nuances.
To get through the day, when it came time to pull the plug on the charger setup, I wired the house setup to the Port battery, but didn’t really think about how small capacity the port battery was, nor did I have a good idea of what our steady state DC power usage was, since the factory gauges were really inaccurate and I hadn’t measured with a good ammeter or anything. So, barely a few hours into the rewire job, I realized I’d heavily drained the port battery, and quickly threw the manual switch on the ACR to join to the starboard battery to buy me some time. But this kicked off a frantic battle to get something, anything, in place that could keep the 12V system charged while I worked. I’d thought I had several more hours before I needed to be in this state, but now quickly needed a solution, or to revert to throwing the old house batteries back in to buy myself some time.
I decided to just go straight to throwing a couple of the 48V batteries in place, adding the Orion (48-12V DC-DC converter), quickly wiring it in, and using that to get the system into a recovered state so I could breathe and more thoroughly finish other aspects of the install. For those paying attention, why do I have an Orion when the WS3000 is coming? Backup. Given how utterly dependent we are on 12V power, I want at least 2 ways to keep 12V power going, especially given that one of them is in an alpha-level development phase.
Eventually, late into the night, I got one of the inverter/chargers up and running enough to start charging the 48V batteries from shore power, as well as power outlets on the boat, so we were in a breathable steady-state. I’d misjudged the length of 8 gauge triplex I needed to make nice-looking wire runs between the Quattros and the panel, as well as that I needed a stack of 8 gauge ring terminals, so I had to hack stuff together for a few days while I waited for more parts to arrive in the mail. But several lessons were learned, and a few days later, everything was finally in a full-power-usable state, though not cleaned up very well.
With the last final-gauge wiring hooked up, I was able to disconnect shore power and run about 4000 watts through the inverters for an hour before we got bored of how uneventful it was, and also the boat was really cold since we were running all the air conditioners at full blast on a not particularly warm day, so Hannah wasn’t thrilled. Then I flicked the shore power switch back on, it started charging back up at 120 amps into the 48V bank, and we were back to full in under an hour. It was a pretty magical experience to see it all come together in the end.
I spent the next many days getting the batteries properly hooked up together and secured for rough seas and cleaning up a bunch of wiring in anticipation of someday soon actually leaving a marina.
One thing I didn’t think about until much later than I should have was the electrical panel. Boats are usually designed with a front-door circuit breaker breaker + selector panel. You can select shore power (1 or multiple inputs around the boat) or generator, so that, just like with a home installation, you don’t back-feed into the grid. Then, you have a small AC panel that the inverter covers — usually outlets on the boat and the microwave. Then larger AC panels with the bigger loads on the boat that the inverter can’t cover — air conditioning, stove, water heater, etc.
This new strategy blows both of those systems out of the water. As mentioned above, the Quattro takes the generator input straight into itself, so you don’t need to “select” the generator anymore — it can just always be enabled, and can never back-feed into the grid. Also, we’re running the entire load through the inverter, so your runs go from shore power/generator through a front-door breaker, and then straight into the Quattros. Then the output from the Quattros go back and drive the entire AC panel. No more thinking about what works on the inverter or having to fire up the generator. Everything is battery-backed, usable no matter where you are.
This is neat and all, but since no one does a setup like this, there are no off the shelf panel building blocks to do anything like this. So, for now, I’ve kinda hacked my panels to do what I want — joined the “inverter” panel to the rest of one leg of the AC panel, removed the physical block between the generator and shore power connectors and now just use them as breakers, and ran the source wires back to the Quattro output for the panels. It required running a bunch of pretty large-gauge triplex wire (8 AWG for safe continuous 50 amp AC over these distances) back and forth ~6 feet between the panel and the back wall, but it worked out in the end.
Finally, I repurposed one of the 120VAC panels for 48VDC for now, mostly just to coordinate my two DC-DC converters for now, but hopefully over time I can get more 48V-native devices (like a windlass!), since it’s such a better power transport voltage.
Once I get everything more final in the coming months, I’ll probably end up contracting with Paneltronics’ custom panel wing to build a new custom AC management panel for the new reality, but this all works quite well for now, in the end.
As a total dork, one of the parts of this system I was most excited about was the monitoring/observability aspect. On the old boat, there was pretty much just a voltage display, current in/out display, and state of charge number to the nearest whole % point. This new system is a little different.
The Cerbo GX is a cheap addon for your Victron network that lets you connect all of the individual pieces of your power setup and upload all the data to the internet for observing, as well as convert it to NMEA 2000 messages so the rest of your boat network, like chartplotters and Maretron displays, can display all the power information as well. It has a little touchscreen addon, the Touch 50, you can get for it as well that nicely mounts into your power panel and gives you quick access to all of the info on your power system as well as deep configurability through a touchscreen. It’s a pretty great little setup.
One of the key parts of the observability is the Victron SmartShunt, which is a nice little all-in-one current shunt plus electronics to measure it and integrate it into your Victron network. So I can monitor voltage and current in and out of the low side and high side battery banks and alarm on a whole slew of different characteristics, which was really helpful in the early WS3000 debugging days. It also allows monitoring an auxiliary battery, so I can monitor the otherwise-isolated starboard battery bank from next to the port one.
It’s a nice little interface that even does a calculation of how much power is “disappearing” outside of what it knows about for generation/consumption, and calls that “DC Power”, which happens to nicely correspond to how much power is going from the 48V bank to the 12V house loads. So, at a glance, I can see how much AC power and DC power we’re using, as well as the solar generation and house battery bank levels. Then I show the 12V port/house battery voltage and SOC levels on the little Maretron display at left there, along with our two holding tank levels.
The level of insight this system provides is amazing, both live and using the VRM portal to go back in time and see what everything was doing throughout the day, even showing holding tank level history.
One of the primary tenets of the new system was around effectively utilizing the generator when we do run it, and another was getting to the point of just not really thinking about power usage. So, I wanted to make the generator control fully automatic.
The generator is a 12kW Northern Lights unit, and has a pretty manual panel — you have to hold the preheat button for a few seconds, then hold the start button until it catches, then keep holding the preheat button for a few more seconds until it’s running nicely, then you can let it run until you press the stop button. Being a fully-manual two-handed operation, automatic generator start/stop wasn’t going to be as easy as it was on the Onan generator from our last boat, so I had to go digging.
I found an affordable unit by Dynagen, the TG-410, which you can see mounted in the picture above in the monitoring/observability section, that allowed custom generator control basically through plugging the oil pressure/water temp sensors in as inputs and then running the start/stop/preheat outputs through relays. Setting it up was fairly trivial, once I reverse-engineered the current generator wiring harness and made a new plug-and-play harness to the Dynagen that would let me fall back to the stock controller in a few seconds of swapping a big 8-pin connector. Getting the preheater timing, start-detection conditions, and sensor curves right took a little while (and I still don’t have the temperature one quite dialed in yet), but now it starts and runs without a hint of complaint, and stops when you ask it to. The next step was external control based on battery conditions.
The Dynagen supports taking an input where 12V = generator should be running, ground = generator should be stopped; and its job is to make those conditions happen. The Cerbo GX actually supports a complicated automatic generator management system via conditional setup that, in the end, powers a relay on or off. By putting 12V on the NO and ground on the NC lines, I ran the common output to the TG-410 and it worked right out of the gate. The Cerbo GX supports standard conditions like SOC-based low/high levels for start/stop, but also quiet hours, emergency low/high levels for during quiet hours, and even time-based runs (i.e. it’s been too long, please run).
After a few days on anchor to tweak the settings, I’ve settled on 40-90% runs during the day, and 20-30% runs for emergency night settings. With these settings, ideally I essentially never have to touch the generator myself, though I’m sure I’ll keep fine-tuning this for a bit.
A couple weeks after I got the main power setup working, the WS3000 alpha hardware showed up in the mail and I added it to the system.
It’s been a really interesting device to tweak. I’m still working through a bunch of learnings with Wakespeed, and we’re learning as we go. The bidirectionality is a nontrivial problem to handle. You need to detect when voltage falls below a threshold and immediately switch to pulling current from the high side to feed the low side up to a setpoint, but when the voltage rises above the setpoint on the low side, you get to pick when to try pulling current off it to charge the high side. But how quickly do you pull current off? Too quickly and you drop it below the setpoint and then you need to fill back in, and get in a really awkward cycle. Too slowly and you’re letting the alternator “charge” a full battery and wasting potential charging. So there’s a bunch to tweak.
After working through a couple major early kinks, we quickly got off to the races of a working system for the basics, and getting to the finer-grained tweaking. So far we’ve largely been playing with the hysteresis between charge points, and what to put the setpoint at to maximize charging from the low side but also keeping the voltage high enough to actually put current back into the low side battery in case you overrun the 3000 watt converter and pull some capacity out of the low side battery.
A really interesting problem we discovered early on was that the preheaters on the Yanmar diesels in this boat are hungry. Each engine pulls ~200 amps from its start battery for ~5-8 minutes after a cold start. The alternators are only 80 amps each under the best of circumstances, and I mostly measure around 45 amp output at idle, leaving a huge current shortfall for the batteries to fill. The WS3000, of course, tries to fill in for the shortfall, but it can’t quite keep up, so it does draw some current down from the start battery every startup. So we’ve been tweaking the voltage setpoint to make it so that it will charge back up after the preheaters turn off. 13.2V was not enough to get anything appreciable back into the start battery, but 13.6V has been a good compromise so far.
Similarly, when raising anchor, we have double the problem, since we have 200 amps of preheater on the port battery plus the windlass pulling 300+ amps as well, vastly exceeding the WS3000’s capacity. This is causing voltage dips in the whole house setup, causing some devices on the NMEA 2000 setup to freak out whenever the windlass is powered, so I’ll need to address that pretty soon with a buck-boost converter expressly for the NMEA 2000 setup.
Next, at 13.6V, you’re pretty close to the alternator output voltage, so it’s way harder for the WS3000 to figure out how much current it can pull off to send to the 48V batteries. So we’ve found that, at 13.2V, it can pull twice as much current than at 13.6V, so we have some competing interests here in the settings.
Finally, the solar setup on the boat was originally plumbed into the 12V side, but with the WS3000 in there now too, it was getting confused with multiple different devices vastly changing voltage levels and sending current in and out, so I ended up moving the solar up to the 48V side pretty quickly to simplify things for the WS3000.
I’m sure we’ll be tweaking settings for quite a while to really dial in the last effective charging nuances, but the system is already working really well, and I’m sure this will be a great addition to other boats trying to follow in my (and the other few alpha testers’) footsteps. Hopefully this writeup gives other people the confidence to come play in these waters!
It’s been a long road, but in a Marie Kondo world, this setup brings me joy. We have the battery capacity to run the A/C all night on anchor, wake up, take a shower with hot water because we just leave the hot water heater on, then turn on a crockpot for dinner that night, run a load of laundry, throw some lunch in the microwave, and spend the day playing video games on a power hungry desktop computer. On an extreme usage day like that, we only need to run the generator for a few hours to top off again in the evening. Working full time in more normal fashion, each of us separately taking taking daily showers, spending all day on our computers on video calls, cooking meals, and watching TV all night, we can easily go two full days on anchor before running the generator to catch up. If we were really being frugal, we could go a week or more in between topoffs. And this is before I even add real solar.
Over the coming months, I expect to keep tweaking things pretty steadily. I still have a lot of optimizing to do to get our power loads down while we’re on anchor — right now, I’m running a ton of electronics all night until I dial in a good anchor alarm setup that gives me confidence. And we tend to leave things plugged in all night because we can just be lazy now and not really think about it. This is really the real measure of success here — Hannah doesn’t even slightly think about power usage, and I only barely think about it, thinking less with each passing day. Living aboard and working full time while boating brings enough challenges, we don’t want to also be dealing with power management all the time.
I was originally planning on diving right into an enormous solar setup — my measurements say I can easily get around 3000 watts of solar onto the roof and still have walking access for maintenance. I’ve wired in a new (Victron, obviously) charge controller sized for it, all plumbed in and configured. But once I saw just how long we can go on the setup without generating, I pumped the brakes and haven’t gotten around to even picking which panel to buy yet, much less getting 8 of them delivered somewhere. The ~800 watts on the roof help quite a bit on good days, so I know that quadrupling the generation should make us essentially never need to generate. So I’ll get around to it. Just not as immediately as I thought I would.
I hope this inspires others to build setups like this on their boats, and I’ll keep updating the blog as I make improvements throughout the year. Feel free to reach out blow with comments/questions, I’d love to hear everyone’s thoughts.
The Endeavour TrawlerCat 48 is a tall boat. It’s around 17 feet from the water to the flat top of the skylounge roof, with anything on top of that obviously making it worse. That flat roof is around the same height as the top of the anchor light was on the Meridian, for comparison. With harsh bridge restrictions on the great loop (19’6″ maximum bridge in Chicago, for example), from the moment we considered buying this new boat, we knew we’d have to get creative with how to put stuff on the roof and still fit under things.
The boat came with what I’m pretty sure was the original factory mount and electronics setup — a 2008-era Raymarine radar dome, a Glomex analog TV antenna booster, and a non-LED light. It was, at least, on a folding tower, so you could lower it out of the way of bridges. However, the wiring was pretty questionable — they basically just cut a big hole in the roof next to the mount and then ran the wires into the interior from there, rather than running it through the tower itself. I basically decided to eliminate every aspect of the factory setup and start over from scratch.
From the final internet and instrument setup on the old boat, as well as some new toys I knew I’d end up buying, I knew roughly what I wanted to put on the new boat:
Three Poynting 402 LTE/3G antennas
Two Poynting 496 2.4/5Ghz WiFi antennas
Airmar WX220 ultrasonic weathervane
Vesper Cortex GPS (dedicated GPS for the AIS system)
Shakespeare SiriusXM Antenna (could also put it on the roof somewhere else, but I want as much room for Solar as I can manage)
I poked around at a bunch of SeaView options, since they seem to be the only real game in town for larger-scale instrument masts, but really nothing off the shelf fit my bill. However, I noticed a custom build section and said why not give it a shot, figuring it’d be crazy expensive.
Within a day, Jason at SeaView had gotten back to me, and to my surprise, based on my rough description, he actually gave a surprisingly affordable early price estimate that made it worth proceeding. I professionally mocked up a rough idea of what I wanted, based on the other legos they had on their site, and he went to work.
A couple days later, some neat looking CAD mockups showed up:
From there, I took some more careful measurements of the back of the roof, since he said he could easily guesstimate how far things would be able to fold, and if we should adjust the design to compensate.
He did some math, determined that it was going to stick up a fair ways, and we iterated a bit more. We lowered the sweep angle of the “wings” such that it’d be able to just clear down to the sill above the door — the best we could possibly do.
At this point, it looked awesome, and we gave the goahead and put down a deposit. 5 weeks of leadtime started then. This was all done from the rental house on Key Largo, well before we moved onto the boat, since we knew it’d have such a long lead time. So we got started ordering all of the various antennas that’d go on top, and went back to sipping margaritas every night.
Fast forward 6 weeks, and about half way through our stay at Cocoa, a pallet shows up (which YRC unceremoniously drops in the street and drives away without calling us):
We unwrapped it and got to work! The first major job was disassembling all of the old stuff and patching any necessary holes from that job. Hannah loves what I did to her yoga space all month. Also, when we went to actually remove the old folding mast, it was on what turned out to be a painted solid fiberglass plate, which must have been 5200’d down to the roof, because it took a pretty good chunk out of the gel coat when it finally pried loose. The sledgehammer was clutch for this and Hannah couldn’t believe how hard I was wailing on the damn thing.
With impending possible rain and the day waning, we decided to not be too ambitious for the day and just go for getting the plate mounted up.
A week prior, I’d ordered a foot square 3/8″ thick aluminum plate to be the backing plate for the new mast, knowing that the roof wasn’t all that thick, was just cored fiberglass, and just had some flimsy wood on the bottom to space off the roof panels for wires to run. So with the mast finally here, I took some rough thickness measurements and brought the top plate over to the hardware store, and ended up buying some 1/2″ diameter countersunk bolts and matching fasteners.
Hannah and I spent a while measuring and cutting the appropriate holes in the aluminum plate, then we roughly lined up where the folding panel would go on the roof, marked the holes, and proceeded to drill half inch holes straight through the roof. After some tweaking, the plate looked like it’d mount up well, so then we took the 2.5″ hole saw and slowly cut a huge hole through the roof right in the center of the plate. Not stressful at all.
At this point, everything looked ready to go, and so we pulled out multiple tubes of 4200 and 5200 and frantically started our work. We coated all of the exposed fiberglass with 5200, filled in all of the wiring and screw holes from all of the things we took off with the old mast, and then lined all of the new area that needed sealing with a tube and a half of 4200. We had no time to take pictures of this part, unfortunately, and we were also covered in 4200. We threw the new plate on top, quickly bolted it down to the aluminum backing plate, just as it was vaguely starting to stiffen up, and stood back to clean up and admire our handywork.
Rain was predicted later in the evening, and we were pretty exhausted, so we called it for the day and went inside to other projects.
The next day, we resumed work. We figured we should do some more final test fits at this point to see where we’d landed. We’d done some really rough “hold the heavy thing up to the wall and see how we feel about it” checks that seemed fine, and, fortunately, they held up under final prototyping.
CAD is neat. Even though I’ve been a software engineer for most of my life, and the process, decomposed, is thoroughly uninteresting at this point, it’s still sometimes amazing when you can give someone some rough napkin calculations over the internet and they can get something calculated and fabricated that lands within millimeters on your handbuilt boat. Everything looked great, so it was time to get down to the dirty work of actually building the mast.
Boy did that turn out to be an unexpected pain in the ass. The outside of the mast looks lovely, but of course the inside has sharp edges and corners and support structure that make running wires through it a chore. It took us nearly two hours, and we both sunburned the crap out of ourselves since we kinda lost track of time in our annoyance, to get everything mounted up and wire-fished through the beast. And when it was all together, we had a nice rats-nest-of-the-gods that we had created for ourselves. However, at this point, it was just an awkward game of muscle-ups to get the assembled mast, now twice the weight, up onto the hinge, and bolt it all up. Of course, we discovered that the antenna arrangement I’d picked meant that, at full droop, the LTE antenna tips JUST touched the ground, so Hannah got to hold it all up while I ran the cables into the roof, since it couldn’t rest there. Measure once, cut twice, or something.
It looked great! Just one problem.
Hannah was now able to go read a book while I spent hours running and cleaning up wiring, and testing the results.
This whole time, I’d been very nervous about the hinging process itself, since the size and location of things meant that the cord moved almost a foot through the tube when the mast went up and down. With no room in the ceiling, it was going to to be a challenge to make it so that we could raise/lower this thing several times a day in Florida and then every so often past that, without eventually snagging a wire on something in the ceiling and making for a very expensive and time-consuming problem. I decided to try out using braided plastic sheathing over the section of wire that would slide in and out of the roof hole, and spaced off the roof panel by a little over an inch, to give a little bit of play for the cables to live in. Some early testing looked promising, so, at the end of the day, we put the roof panel back up and had a drink.
It looks a tiny bit awkward if you’re really looking for it, but it’s pretty hard to notice otherwise. I’ll probably tweak it over time to try to make it a little more flat across the roof, but I’m incredibly pleased with how well it all came out in the end.
We finished off the project by ordering a rubber stop for the mast to touch down against and keep the antennas from hitting the floor while everything is lowered, and it worked out perfectly.
Hannah’s already had to raise and lower it for a bunch of the bridges coming up through Florida, and it’s worked like a charm. So, cross our fingers, maybe this project is basically all done, at least until the next gadget catches my eye…
I’m going to start breaking completed larger projects out from the travel blog posts so people can properly ignore the posts they don’t care about. 🙂
The moment we got our first boat, I got a bunch of advice from people about keeping bottled water for drinking, boiling water, putting a little under-sink filter in, and a variety of other things. Boat tank water is unsafe, don’t drink it! That seemed real crappy to me, so I found the SAFH2OUV unit online and ended up plumbing it in right after the water pump, so every tap and showerhead on the boat served filtered and uv-cleansed water. It worked great as long as we had the boat. Good-tasting water even when the marina has scary hoses, and don’t need anything more than emergency water supplies on hand in case of catastrophic water system failure away from a marina. Later on, on the loop, the water pump, a variable-flow unit, failed and we ended up getting a fixed-flow unit and accumulator, which was a huge improvement in livability over the v-flo unit.
On the new boat, I wanted the same ending experience as we had on the old one. This boat had a fixed-flow pump but no accumulator, so all taps and showerheads had constant pounding effects. It also just had a little questionable-quality filtered tap for drinking water at the kitchen sink, as the only “drinkable water” on the boat. So, I set about duplicating and improving on the old boat’s setup — I wanted to do approximately the same thing, but knew that the boat had more water pressure and volume than the last boat, so I wanted something with better flow and bigger filters than the last setup. The SAFH2OUV setup said it flowed 3GPM, but that was pretty optimistic based on our experience. The new boat’s water pump was a 6GPM unit and the water pipes were larger than the last boat’s, so I figured we should better-utilize it.
After a bunch of research, I contacted Purest Filters, who were close by to us in Stuart, gave them measurements of the area I could put filters in, and we agreed on a quite large 3-filter filter block and independent UV setup that I’d plumb together. We decided to do a sediment filter and then two carbon filters, so we can replace the second carbon filter with an iron filter or something based on awkward water in marinas we find along the way. I also ordered a Jabsco 1 gallon accumulator, the same unit I had on the last boat. It’s a good compromise between consistent water pressure/not running the water pump that often and physical space occupied.
A few weeks later, a couple enormous boxes show up, and I start trying to mount it, to quickly discover that it doesn’t fit. I get out the tape measure and find that it’s many inches larger in every dimension than what was advertised. Some annoyed emails and phone calls later, he ends up switching us down to a quite-a-bit-smaller unit that lists as supporting 6GPM, still with common filters for later replacements. We pack up the two enormous boxes and ship everything except the UV lamp back to him.
A couple weeks later, a much smaller box shows up. I measure everything up and find a reasonable pattern for installing things, and then go online to buy fittings, only to find that most of the Watts fittings for 1/2″ CTS are backordered everywhere for some reason. I put in some orders a week out and put the box in the corner of the skylounge, just where Hannah likes me keeping large boxes.
Finally all the fittings arrived and I started installing things, but neglected to read an important nuance of the UV installation and ended up not putting a spring inside the quartz vial before putting the lamp inside. As such, the lamp busted through the bottom of the quartz vial. Whoops. Ordered a new one of those on Amazon to the next marina. Box back upstairs.
The new quartz vial arrives, and the next boat over also has someone named David on it, and they grab the box from the package room, open it up, and remove the quartz vial from the protective sheath to look at it in confusion. Touching it with your hands gets oils on it that block UV, so once we got it back from them we had to rig up a skewer-based cleaning system and wait a couple days for it to dry out. Box back upstairs.
This evening, finally I was able to mount everything up, and, somehow, only got leaking from the a few NPT fittings that apparently required teflon tape. A few minutes of disassembly, taping, and reassembly later, and the whole system amazingly held pressure! Cleaned/secured everything with zip ties, and finally the eternal project is over, and we can stop exclusively using this annoying tiny spigot in the kitchen for our drinking water.
We’ve been more than a little slow about a new post. I kept intending to make a post with some wrapped up projects, but it’s hilarious how many projects we’ve been progressing on in parallel, and just starting to wrap a bunch of them up this weekend. I’ve basically been either working, eating, sleeping, or projecting every waking hour for the last month, with a very few exceptions to go have some fun out and about with Hannah. I’m definitely excited to almost be through the meat of the list and soon being able to take a night off without feeling like I’m going to get screwed on shipping new parts.
We bit off a huge list of stuff to get through while in Cocoa, knowing that this was going to be our only shot to get long-lead-time items shipped for basically another year, short of maybe shoving more crap into poor John and Joan’s garage while we work our way up the coast. With one week to go until our departure, I’m happy to say that we’ve gotten through most stuff, and, more importantly, everything ordered ended up arriving in time!
All of the ground tackle (anchoring equipment) that came with the boat was undersized. Fine for calm weekends in the Bahamas, but on a boat of this size, riding out a substantial storm scared us. We ended up swapping out the anchor chain from 5/16″ to 3/8″ G43, which required also swapping out the windlass chainring. The anchor itself was also undersized, so we swapped out for a much bigger unit. We loved the Rocna we got on the last boat, but my research indicated that the Mantus was at least as good as the Rocna for everything, with some better holding characteristics in a few bottom conditions, so I ended up grabbing their 105 lb anchor. It comes in a flatpack box and requires assembling, which feels a little weird, but if it saves a couple hundred bucks on freight shipping, I’ll take it. After assembling everything and test deploying, we found out that the 3/8″ chain hilariously doesn’t quite smoothly run through our anchor lock, so we ended up having to upgrade that too. Finally, we decided to try these Imtra colored link centers for marking how much chain we’d put out instead of spray painting. We’ll let you know how they work out this spring.
The dinghy did end up coming back a few days after our last post, but it kicked off a whole bunch of work/rework. They had no idea what to do with the electronics I’d sent them and left everything in a half-finished state, so I had to take a long day and rework a bunch of the wiring, installing the NMEA 2000 stuff and other electronics. It’s possible that we got what we paid for, trying out the v1 version of a new dinghy company. Then our mounts on the swim step were very misaligned to the dinghy, which kicked off a long iteration cycle to re-drill a bunch of holes to get it sitting nicely in place. Then we have no idea how anyone ever “secured” a dinghy to this platform, since there’s only two tiny eyelets in very weird places, so we custom ordered some beefy SS ratchet straps and installed four beefy eyelets to keep our precious dinghy secure under the high seas we know we’ll encounter in the next several years.
Lots of the various panels on the boat were questionably wired up with modifications since it was created, and I’ve been fixing them one by one. The boat had two different stereos for three zones, with super wacky wiring, so I just consolidated everything to a single stereo that managed all three zones. Then we figured out that half the speakers on the boat were blown or also miswired. I had to diagnose and fix the wiring for all of the lights on the back of the boat. We had to contact the maker of our watermaker to figure out how to properly connect it to a NMEA 2000 network since it was wired up backwards and I couldn’t tell whether it was intentional or not. I added a bunch more lights to the office since it was set up as a bedroom before, which required a remarkable amount of tearing apart of things. The boat came with whale pumps for the showers, which required you manually managing a button mid shower for when you got tired of water being up to your ankles, so we quickly tired of it and switched out for shower boxes with float switches. Now our showers are delightfully not gross mini-baths.
The toilets came with an idiot light for when the holding tank was full, but no gauge, so I had to come up with a way to put external gauges on the tanks that I could view over the network, and ended up installing a little Maretron DSM410 NMEA 2000 monitoring screen. We installed a grill, which the boat never had before. New (non-broken) window covers finally came in for the bedroom (the previous owners ordered them in December), and we installed them today, so we can finally have proper blackout in the morning. We got the boat pumped out last week and were told that one side didn’t want to clear, so I jumped down into the hold and popped the vent tube off, and suddenly it pumped out. So then we got to spend a long afternoon removing the vent system and debugging — ended up hogging out the clogged vents while everything we own smelled like poop for the day. Lots and lots of little awkward and time-consuming projects that mostly required a bunch of research.
The biggest, and still ongoing, project has been the power system conversion. The boat had mostly original factory stuff, which was a very basic inverter and fairly limited house capacity (four 4D AGMs), with some other stuff really poorly hacked in over the years. I decided that the current system was basically throwaway for our purposes and to go absolutely bananas. I started by ordering a ridiculous amount of LiFePO4 batteries (30 kWh), which had a 6 week lead time from China. More absurdly, I decided that I wanted to try moving to a 48V house system, due to all of the ways it makes wiring simpler, increased charging speeds, increased conversion efficiency to AC, etc.
Once it’s all finished, I’m going to be writing an enormous post about it and all of its trials and tribulations, but for now, we’re up and running on a 48V house system, with 100% of our AC loads going through two Victron Quattro inverters. We’re alpha testing a new bidirectional DC-DC converter/charger from Wakespeed to power the 12V loads (the vast majority of the boat), so that will be an ongoing exercise. I can happily run multiple air conditioners on the boat overnight on battery power, which is both pretty sweet, and also wildly absurd. But mostly, without being ridiculous, we can both work on computers for days straight, even with no solar, before having to run the generator.
After forgetting about needing to do it for much of the month, we finally found a local vinyl fabricator who could make the transparent logos we needed, and they installed our first round of decals. We’re finally legal! (since we registered as Highwind, running around as Salty Paws was … questionable.)
The last major project of the month has been getting a new radar tower for the boat. We needed a good spot to put all of the internet and wifi extending equipment, as well as a pile of other misc instruments, all of which need to be quickly removable to clear low bridges. After researching options, I talked to Seaview in January, and they actually had a really great custom fabrication wing. A few rounds of iteration later, we designed a hinged system that can hold everything we currently need, with a little room for expansion down the line, with ~5 weeks of lead time for the custom build.
This week, it showed up, packaged incredibly well, on a pallet that took a lot of sledgehammering to disassemble! Of course, like all of our other freight shipments, YRC literally dropped it on the street in front of the marina and drove away, so, you know, screw those guys. Prepping for the mast install, I’d been ordering parts for a while — metal plates, bolts, all of the electronics to go on the mast, etc. Hannah’s been carefully navigating a giant pile of boxes upstairs for weeks, and will be unbelievably excited for the pile to finally go away instead of invading her yoga space.
Today’s primary job was disassembling the old, smaller, hinged mast, and un-running all of the wires to the old Glomex TV antenna and Raymarine radar and GPS system. The old system used wires run straight through the roof instead of through the mast, so there were a lot of holes to dig out and later fill up with 4200. The mast itself was attached to a weird extended plate that turned out to be made out of fiberglass, and was very very securely glued to the roof, so removing it ended up taking a bunch of gel coat off with it. Oops. At least I finally ended up getting to use my new oscillating multitool, and damn is that a great toy.
After spending basically the whole day on it, we got the old system completely off, filled up the old holes with filler and sealed it all up with 4200 to dry overnight, measured up and drilled holes in all the appropriate layers and plates, and finally bolted up the new hinge base. There’s now a nice 2″ hole clear from inside the skylounge up into the hinged mast setup, and it’s bolted down with 1/2″ bolts with a foot square aluminum backing plate. And there’s a tube and a half of 4200 slowly drying around everything. I gotta say it was a weird feeling digging straight through the ceiling into the upstairs room with a 2″ hole saw. Tomorrow, if all goes well, we’ll get all of the electronics up on the new mast and wired into the dash and the router setup.
We have a bunch more smaller projects to finish up this week, but we’ve scheduled our departure from Cocoa for next Saturday, the 27th. So hopefully we’ll be heading north, and with any luck, the boat still drives. After how much crap I’ve changed this month, you never know.
We’ve been remiss in writing a new blog post. We’ll get on that. In the meantime, I wanted to share one of the bigger projects we’re already undertaking on the new boat.
One of the primary criteria for a new boat (and motivating factors to, in fact, change boats) was to have separate/isolated spaces for us to be on video calls at the same time that are also climate-controlled/weather-protected. These days, we are often both on video calls 5+ hours a day each, which was presenting a stressful reality working next to each other on the last boat.
The Endeavour has a third small bedroom that has two bunks in an L shape and some storage. Our plan when we decided to buy the boat was to turn this into an office. We had bought a nice little desk for Hannah to use near the kitchen, and she immediately started working from there. I spent the first week on the boat working from the upstairs table on a laptop, which worked somewhat fine, but I’m also pretty loud, especially on video calls, so even upstairs, Hannah was getting complaints sounding like she was working with the TV on. Oops.
With a company holiday on Friday, it seemed like a good opportunity to start tearing apart the room and see what kinda challenge we were looking at here to make this the space we want it to be. It also started as an incredibly claustrophobic space with the bunks in there, so we were a little nervous about whether it’d open up enough to be a really comfortable place to spend 10+ hours a day. So while Hannah was on meetings all day, I started taking things apart.
Immediately, I ran into some … interesting design choices. The bed was a single solid piece of cored fiberglass with white veneer, that ran from under the window all the way to the hallway, between the washer/dryer cabinet and the storage cabinets above it. I freaked out a bit because it looked like something that could be structural/integral. It was only 48″ off the ground, which would have been extremely limiting to work around to build a desk under it. After taking apart the drawers and backing of the closet, I found basically all of the vertical pieces also fiberglassed into the floor/back wall, which also appeared that it could be structural in some way.
Fortunately, after digging apart more things, these concerns were satisfied, one by one. The bed turned out to be basically “hung” from the walls, with fiberglass rolls draping down from the walls and connecting to the top of the bed sheet. So no torsion could be reinforced by it, as it’s basically hanging (even though the resin makes it solid). Presumably this is the strongest way to let kids jump up and down on a bed. Similarly, the vertical panels ended up just being glassed in as kinda a lazy attachment mechanism — you could tear the extra surface layer off with your bare hands without much work. Think of it like taping things to the floor or back wall, with fiberglass. So, eventually, the basic structure yielded.
After the first problem yielded, it was on to the next one. The dryer vent ran along the wall on the underside of the bed, covered up by various trim pieces and carpeting in the back of the closet. Now it’s hanging out for all to see. I explored a bunch of options for what to do with this, but it looks like the real answer is going to be to change the whole routing and run it up along the ceiling, with a new dryer vent on the outside of the boat instead. That’s going to take a custom fiberglass repair person, so for now we have to just throw it back together, taking up as little space as possible. With that in mind, for now, we decided to keep 5 inches of the bed against the wall to be the support for the dryer hose, but take out everything else that we could.
After converting an inordinate quantity of fiberglass into dust with a jigsaw, we managed to get roughly the first cut we were looking for. Finally the space felt open and like it’d really work well, especially if we could get rid of the vent stuff someday. A nice open 56″ wide box to start thinking about putting a desk into. Finally, with all the cutting complete for now, I built some new support brackets for the vent covers, cut things down as small as I could, and tried to reassemble everything I could back into something resembling a finished space.
It’s definitely a little ghetto for now, but it’s good enough to pick up a cheap desk to work with for a while. I can spend time testing out the desk height and general space while find someone to move the vent hose, and then finish cutting the other pieces out and get someone to build a proper custom desk setup into the wall. My woodworking skills are nowhere near good enough to make an even vaguely professional setup in this space, so I’m not even going to try.
But at least we have a usable space now! And it looks very likely that we can keep the single bed and still have a great desk setup. More to come!
After our lovely new year’s eve on Key Biscayne, we had a pretty uneventful cruise over to the house on Key Largo. On advice from some other boaters the previous week, we took the Angelfish Creek cut through from Biscayne Bay out to the Hawk Channel.
There’s very few passages through the Florida keys that have more than a few feet of depth, so you have to choose carefully and aim for high tide. After all of our careful planning, we never saw fewer than 5 feet under the keel through the passage, so maybe we didn’t need to be so careful, but better safe than sorry.
The rest of the trip was uneventful. The house is on what turned out to be a tiny tiny channel, and our boat blocks a distressing amount of it, so we have large fishing boats passing feet from our windows every morning full of charter customers. The house has some … interesting decor. But it’s a good place for us to hang out for the month with Hannah’s folks.
On Jan 4th, we got the final survey results back for the new boat, and everything looked good. We negotiated over a few things and signed some final agreements. A couple days later, we finalized insurance and the sale closed, and we find ourselves fleet owners again, but in the really undesired way. So now we can finally unveil our new boat.
We have purchased a 2008 Endeavour TrawlerCat 48. Endeavour is (well, was, really) a small boatmaker in Florida, which spent a little over a decade making sailboats from 1974-1986. After going bankrupt in the recession, it eventually got purchased by new owners who renamed it the Endeavour Catamaran Corporation and started producing cats. They made several models from 36 through 44 feet through the earlier years, and in 2008 started making the 48. The boat we just purchased actually turns out to be hull #1. From years in software design, I thought I was smart enough to never get the V1 of something, but here we are. Only 11 of the 48s were ever made, and the company ended up getting bought by ArrowCat several years ago. Shortly thereafter, the owner, Bob Vincent, passed away, and they haven’t produced any hulls ever since.
The few 48s out there are mostly with their original owners and rarely change hands. One of the 48 owners is a semi-retired boat broker and has basically kept track of every 48 owner and tries to connect them with interested buyers, so only one has actually ever made it to the public market. He’s how we ended up finding this one — since we had expressed interest in the middle of the summer in getting on the list, we got word that one was coming up for sale near where we were passing through, so the timing worked out for us to stop in and take a look.
It has several attributes that we’ve been looking to upgrade to: * A structural “flybridge” area (second floor), for more comfortable weatherproof cruising * More beam (width), but not enough that we will have trouble finding slips. The Endeavour cats are kinda mid-width. This boat has an 18 foot beam, which gives a bunch of extra room over our current boat. But many cats around this size have 22+ foot beams, which starts to be really difficult to fit in a marina. * A third bedroom that we’ll convert into an office, so that we can have two isolated work spaces. Both Hannah and I tend to just be on zoom calls for the majority of every day, so we’re constantly jockeying for space and taking calls from a bed. * Stability of a catamaran — just gets thrown around a lot less in rough seas * Just more room, everywhere — the 48 has 850 sq ft of climate-controlled fiberglassed-in living space. Much bigger kitchen, bigger master bedroom, bigger flybridge, etc. * Hydraulic dinghy lift — really easy in/out of the water to go for a jaunt.
We don’t really have any useful pictures right now, but if you want to see some video to see why we bought it, there’s a marketing video from 2013 on youtube.
We were originally planning on swapping boats mid-month so we could spend half of our stationary month on Key Largo outfitting the new boat. Unfortunately, after seeing the size of the canal outside the house, we canceled the plan. The Meridian is wide enough that we’re really close to blocking the channel for the biggest boats to get by, but the 4 more feet of the cat would really be aggressively blocking things. So we decided to just leave the cat in Stuart for the month and slowly get Highwind ready for sale, while also starting to plan out purchases for the new boat. It’s not a perfect solution, but these things rarely are. So we made one long day trip up to the boat right after the sale closed, took a ton of measurements, looked at some dinghies, and then left it to sit there for the rest of the month.
Anyway, after dealing with all of that, and deciding to just settle in, Key Largo has been lovely. It’s great to see Hannah’s parents after a year away, and spend the month hanging out. Hannah’s brother flies in for the middle 2 weeks of the month as well, so hopefully we all have a fun month and no one brings COVID to the party by accident. We’ve all been isolating as much as we can, but you never know.
On our first full day in the Keys, we went to John Pennekamp Coral Reef State Park for a picnic lunch. It was a little crowded, but we managed to find a picnic spot. It wasn’t super warm, so we didn’t swim – only waded in up to our knees.
Key Largo is pretty chill — a few fun outdoor restaurants, the usual grocery stores/chains, and a lot of boaters. We’ve largely been working all day then drinking beer and wine and hanging out on the porch all evening, every night. It’s a rough life. After 10 straight months on the move, it’s nice to just relax once in a while.
A few days after we arrived was Hannah’s birthday. Since it was mid-week, we celebrated with a home-cooked dinner and my parents sent a lovely bouquet of flowers.
After a lovely first week, Matthew arrived. Since we had taken the car up to Stuart to receive the keys for the new boat and take some measurements for ordering new parts for the internet setup, we picked him up from Miami airport on the way home and stopped for Cuban dinner. It was a little chilly and Hannah had to wear all the spare clothing we could find in the car!
The next day Matthew and Keith went on a fishing charter. They returned home with about a dozen fish – largely yellowtail and tuna. This resulted in Hannah and Matthew making several delicious home-made fish and chip nights and amazingly fresh sashimi appetizers!
Brent and Elizabeth sent us, via my parents to Hannah’s parents, a custom puzzle of a photo from last year’s Christmas holiday – the one we wrote about early on in this blog! We spent a lovely evening putting together the puzzle. Hannah wouldn’t let anyone look at the picture after we opened the box, which everyone complained about, but it actually made the completed result more satisfying! It was fun to spend the evening piecing together a photo of all the family, back when we could be together. Hopefully we’ll be able to reunite next year.
We started hatching a plan to potentially take Highwind out on her last hurrah to Key West, or possibly out to Dry Tortugas, if the weather cooperates. That will be Matthew’s last week at the house before he heads back to San Jose.
Warning: Nerdy informational post. Skip if you just want to hear boating stories.
We’ve been using the Cradlepoint, Rogue Wave, and WirEng setup for the last ~2 years on the boat, and while most of the time it’s been functional, we’ve basically constantly been fighting issues. The Cradlepoint requires manual intervention to switch between providers, the Rogue Wave basically never connects to marina wifi, and the WirEng antenna seems to not be very omnidirectional, so it changes signal drastically as we spin in anchorages. We’ve basically had nearly a year on the boat periodically apologizing during work calls for dropping seconds of audio periodically. During COVID, lots of people have bad internet, but at some point this is going to be a problem.
Knowing I wanted more antennas, as well as more solar, while we were in Maine this summer/fall, we had the bimini canvas modified to add velcro patches so we could move the solar panel setup over from the hardtop, freeing up tons of real estate for antennas, while also doubling our wattage. Since then, I’ve been on-and-off researching options for a couple months. I’ve been leaning toward switching over to a Peplink router, and had still been trying to decide how complicated of a setup to get, other antennas to try, etc., when Hannah ran across an article on SeaBits about his 2020 internet setup. He had a ton of details on his Peplink-based setup, and had tried a bunch of antennas. I exchanged a couple messages with him, posted a little on the Peplink forum, and after a bunch of research, hemming, and hawing, I decided to try a “cheap” version of his setup.
In the past, we had Verizon and AT&T SIM cards in the Cradlepoint that we’d switch between. I wanted to, instead, support at least both of those connections simultaneously, as well as possibly adding TMobile on top. Peplink has a whole slew of different routers available, supporting everything from a single CAT6 modem through to a 6500$ unit with four integrated CAT18 modems. I decided to hedge some of my bets and went with the MAX Transit Duo CAT12, which has two integrated CAT12 modems, for 1000$. The router also supports integrated WiFi-as-WAN, so you can pull in marina wifi and treat it just like another internet connection like the cell modems. It also has a single WAN port, allowing me the flexibility to add another single cell modem and use that as yet another connection to share, which I ended up using in the end.
I picked up two Poynting OMNI-402 2×2 MIMO LTE/3G antennas, which were the SeaBits suggestions, to support two CAT12 cellular modems. They don’t have quite as much posted gain as some non-MIMO antennas, but they effectively pack two fairly-high-gain antennas per unit, in a nice weatherproof package, with integrated cabling, so it should work even better than the GigaMIMO under 95+% of circumstances.
Next, I grabbed two Poynting OMNI-496 2.4/5 dual-band WiFi antennas. Again, these were the SeaBits suggestions. The Poynting antennas have a great marine mount, have sturdy weatherproof packaging, and very good omnidirectional characteristics. So even though they aren’t the best peak gain of all available options out there, in real-world usage they seem to hold up better than anything else.
The interesting revelation that SeaBits had that kicked me over the edge was that he actually mounts the router very close to the antennas, letting you use very short cables (less signal loss/noise). Then you run a CAT6 cable and power cable into the boat to a simple switch (Trendnet 8 port industrial) and wifi access point (AP One Rugged) to actually distribute the internet to devices inside the boat. Separating the purposes like this means that you don’t need to fish a bunch of 30 foot cables from the antennas way down into the boat, with a bunch of noisy crosstalk with other signal cables the whole way. So even though I have way more wires total in play now, the actual arrangement throughout the conduits of the boat is way simpler.
Fishing the four antennas through the hardtop was awkward, since Meridian really didn’t build the thing intending for you to send wires through it, but once we got all the cables through to the center of the hardtop, it was gloriously simple to hook everything up. The router is a nice compact little rectangle with sturdy connectors and a nice removable power junction block. I put everything together, and magically it worked right out of the box. Both cell connections worked simultaneously, and I connected right up to the wifi of our friends’ house we were staying outside, and started setting up all kinds of routing rules.
Finally, a few days later, after validating that this setup was working well, I took our old MOFI4500 backup router, and hooked it into the WirEng GigaMIMO antenna that we hadn’t been using for the last week. After disabling wifi and a bunch of advanced settings, I stuffed a new TMobile unlimited SIM into it, plugged it into the WAN port of the Peplink, and immediately we were getting internet off all 5 sources (2 wifi, 3 cellular)! After testing this new setup, I hardmounted power to that as well, and now everything was nicely secured inside the hardtop.
Testing the final setup tonight from St. Augustine, I was able to pull 139 megabits down, with the laptop using wifi! And for days now, video calls have been rock solid, using the SpeedFusion Cloud redundancy setup, where it sends packets over multiple connections simultaneously and merges them in the cloud. For around 2300$ total, this setup is a huge step up from the old one, for less than half of the cost.