Slides are no fun!


2019 Tiffin 32SA Class A Gas — By the way, the second edition of my book, Your RV is Broken,  is available now on Amazon!

Despite what you might read below, we are still quite happy with this RV.  As I told someone the other day, 98% of this RV is good, but the 2% will sometimes really piss me off.

The Problem

So, we needed to move from one spot to another in this same campground.  So we packed things up, moved and when we

Thats all the slide would move!
Thats all the slide would move!

went to put the slides back out.  The rear slide (passenger side, bedroom) went out a foot or so – and stopped with the rear (left from outside) dragging.  We looked underneath the bed – nothing in the way.  We pulled it back in, then out – it stopped even shorter.  Tried again – stopped only a couple of inches out.  Rule one – if the slide stops part way out – don’t bring it back in.  This is a Schwintek slide, by Lippert.  The motors and mechanism are reached from OUTSIDE. If you can’t get the slide open at least part way, you can’t get to anything.  I tried sitting on the floor and pushing with both legs while Deb held the extend button – nothing.  We were screwed.

The slide has a central storage area under the bed, but also another area on each side on the head side of the bed. It has a

Jurry Rigged manual slide extender.
Jurry Rigged manual slide extender.

heavy piece of plywood, covered with carpet.  There is also a small storage cabinet, but I didn’t want to push on that because it didn’t look that sturdy. I got the scissor jack out of the F150 and a handful of 2×6’s and other boards.  One went from the jack to the slide floor and the others went to a stack of boards across the front of the cabinet on the driver’s side.  I tried to spread the force out as much as possible.  Then I turned the jack screw by hand, and eventually a small crescent wrench.  That forced the slide out enough that I could see the lower bearing block behind the rubber seal.  It was twisted and the guide was

Lower Bearing Block Wedged
Lower Bearing Block Wedged

sticking out of the guide slot. Not good.  I got a small piece of scrap oak and a hammer and knocked the bearing block back into position.  From there I was able to jack the slide farther out.  Note: when I started using the jack, I measured the distance and could see that the slide was moving.  If you are using a jack and the slide doesn’t move – if you keep jacking, something WILL break.  An alternative, if you have it out enough is to take all the screws out of the column (extruded frame that covers the parts) and then move the slide out.  Be careful of the motor wire and connector.

A bit of relevant history:

After we picked this RV up, late November of 2018, while we were packing for our first trip, we noticed light coming in under the back wall.  What?  We had planned to head south for the winter, so our plans were quickly changed to make Red Bay our first major stop.  Since they were going to be shut down over the holiday break, we timed our departure so we could be in their lot just before New Year’s to get in line when everyone came back after the first.  The techs at Red Bay said the wall was “bolted down, not a mechanical issue” and they sprayed the crack from outside and said “all was well”.  We had a few other things, like really crooked drawers and a mirror issue, but most everything was taken care of in an afternoon.

Before the next winter trip down, we noticed the seals not touching on the rear side of the slide (left when outside facing the slide).  Red bay techs moved the seal over so it touched the slide.  We also had them replace the DC power panel next to the batteries that had melted on an earlier trip.

I’m not going to try to give a detailed itinerary of all the things I did to learn about Schwintek slides, just the useful portions.  I spent a dozen or so hours over three days looking, measuring, reading Lippert install manuals.

One of the first things I noticed was that the left column was mounted WAY too far from the slide at the bottom(nearly an inch farther out than the top – way out of

Previous and correct position of the column
Previous and correct position of the column

Lippert spec).  After lots of looking and measuring – I got a square and put it against the inside of the back wall – and the wall was anything but square.  The bottom was pushed out compared to the top.  5/16 over 1 foot.

Square held against back wall - 11/32 gap for 1 FT square
Square held against back wall

Funny, the bottom of the rear (left) slide column was also shifted to the rear to match the end of the wall.  (they used the crooked wall as a guide to cut the slide opening!)  Not funny.  I presumed this was the problem and proceeded with a solution to move the column to the correct position.  Since the wall was tilted toward the rear at the bottom, there was nothing but air behind the column once it was in the proper position.  I got a piece of 1.5 inch 1/8th steel stock, cut it to two feet and beveled off the top edge and screwed it to the frame.  Then I positioned the column over that and drilled holes, tapped them and mounted the column to the stock.  Very solid.  Still didn’t work.

After figuring out how to disconnect the stepper motor and disassemble and remove the rest of the mechanism, I discovered what I feared – the lower bearing block (part that holds the gear and fits into the gear track) was damaged.  It has a plastic guide on it (called a shoe) – which was broken, part missing and the metal was damaged from being forced out of the track.  Time to wait for parts.  (Stepper motor details below).

But it gets better.  With the lower bearing block removed, I tried to reinstall the column to fill in the open space while I ordered parts – and the screw holes were off by over 1/8th of an inch.  By prying up on the bottom of the column (and lifting the slide) I was able to get the screws installed.  The plastic on the lower bearing block was quite worn.  This means both the lower and the upper bearing blocks were exerting upward pressure on the slide.  Yet another problem.  Schwintek slide parts are not supposed to bear any weight – just push the slide in and out.  All the weight is supposed to rest on the slide rollers under the slide.  But not even this was all.  When the slide parts are originally installed, the whole side kit is assembled and the lower track screwed to the bottom of the slide, then the top track is screwed into position as determined by the slide column (the extruded aluminum part that bolts the the RV side).  There are guides in it that determine where the bearing blocks go and thus where the tracks go.  I screwed in the top track first and went to screw the bottom track and – nope, didn’t fit where the holes were.  The guides wanted the tracks farther apart.  I didn’t want to redril the dozen holes that held the top track in place and the bottom track position  is determined by the bottom of the slide.  So, in frustration I moved the lower guides up to match the track position as they are pop riveted in place and only needed to be drilled, a bit of dremeling and reinstalled).

As for the outside wall being crooked:  I got a 1 1/4 by 1/8 piece of steel and tapered off the top end.  Then drilled holes and screwed it into the wall.  Then I drilled and tapped holes where the column overlapped.  It seems pretty sturdy.  I just hate having to go all shade-tree on an expensive RV.  If you have to work on a Lippert Schwintek slide, do find the installation manual on LCI1.com and read every bit of it.

So, to recap:

1.   Rear wall not installed square to the floor at the factory. Factory Fail.

2.   Slide column installed to match the rear wall, not the slide, making the lower column tolerance way out of Lipper spec. This was done because the slide hole was also cut to match the rear wall, so there wasn’t enough material (frame) to mount the column in the correct place.  Factory Fail.

3.    The slide mechanism was carrying some of the weight of the slide. Factory Fail.  Tracks were installed incorrectly putting more pressure on the blocks.

All these things are factory defects.  Yes, I’m out of warranty, but Tiffin used to have a reputation of taking responsibility for their problems.

Now I need to look at the other side of the slide and see if it is weight bearing too.

At the very least, I need a bearing block kit (block and shoe).  I would like to replace the lower track.  Ideally, I would replace the left column as well as it has several sets of holes in it from mounting in different positions.  I’ll upate this when I get parts and put this all back together.  Meanwhile, below are some details on the Stepping motor and other parts.

I’m sure a qualified RV mobil tech would not have taken as many hours as I did to “learn” this slide’s mechanics, but there is no doubt in my mind that he/she would come to the same conclusion and we’d be waiting on parts and I’d have a bill for several hours of work.  I did consult an RV tech, and he gets thanks for letting me discuss the situation, but being on the other end of a text session is somewhat limiting.  I “should” be able to understand and repair a slide mechanism – it just takes me longer than a fully trained tech would.

Update 20210504 – Yesterday Lippert answered my email with a part number and phone number to call and order.  The parts, including second day air came to $90.  However, those parts are “make on demand”, so 7 to 10 days to ship.  Tiffin answered my email today – they don’t carry parts, only the whole mechanism, which they didn’t offer to send to me, thus were no help.  Not so much like Tiffin used to be – whether it be Covid or Thor, it doesn’t bode well.

Update 20210515 – Received a box from Lippert – right size.  I opened it and found this inside……..  And a packing list that was

Not Bearing blocks1
Not Bearing blocks!

for someone else.  Apparently when slapping shipping labels on, someone mixed up the boxes and mine ended up who knows where.  I called Lippert, emailed and a second call and they promised to rush make another set of parts and ship them out the same way as my original order.  So now we are waiting for parts again.  

Update 20200520 – AAAAAHHHHHHHHHRRRRGGGGHHHHHH!!!!!!!!  I got the box with the bearing blocks today.  Look like the correct parts.  But no shoes….  the shoes are the plastic parts that go between the bearing block and the slide gear track.  They are absolutely necessary.  No one would be replacing the blocks without the shoes.  In my original conversation with Customer Service on the phone, I asked and was told “The shoes would come with the blocks.”  No mistake about that because the shoes on my blocks were in pieces so I wanted to make sure they came.  No shoes.  I called and was told that the shoes don’t come with the blocks.  What? They come in a separate kit that costs $165.  I just paid $90 for the complicated metal blocks plus shipping, now I have to shell out $165 for some plastic and a couple of wheels?  I had no choice at that point, but to order the parts (after I looked at pictures on the web site to make sure they looked right so I hung up, then called back).  Another 5-7 days I was told during the first call.  On the call back – I was told there might be one in stock so it might ship sooner….  So another 2 or 3 days, or maybe as many as 10 and I’ll finally have all the parts I need so I can fix the slide so we are in a condition were we could move.  The first contact with Lippert was 5/1.  Today is 5/20.  Maybe I’ll have it fixed by June.

Final update.  It seems Lippert had a set of parts in stock because they did come fairly quickly.  Since I was worried about how fast they’d come, I wrote back to the original customer service email to ask them to hurry this order up.  They did, sort of – and shipped me another set of bearing blocks, which I did return along with the “not bearing block”.  I wrote to Tiffin and they agreed to pay for the parts if I submit the paperwork, which I did, and expect to receive a check (I did).  So, this was a learning experience.  In the end, Lippert was reasonably helpful, though I’ll never understand the “we don’t always keep those in stock” thing.  Tiffin does stand behind their mistakes – and they got off easy because if I had had to use a mobile tech or dealer, it would have been very expensive.

Schwintek slides use two stepper motors, mounted up above, on either side of the slide accessible only from the outside.

Business end
Business end

There are many variations on this on older RVs but this is the only style I have experience with.  What is a stepper motor?  Most DC motors just spin when you apply power.  One direction only unless you switch the power leads.  A stepper motor, moves a fixed rotation step each time a power pulse is sent down a pair of wires.  There are three pairs of wires and by pulsing them, in sequence, the motor steps around.  The controller thus can send pulses to both motors and in theory, they move at the same speed and move each side of the slide the same.  In theory.  If one side has a much bigger load on it, it will slow down, miss some steps and they will get “out of sync”.  The controller monitors the load the motor is under and stops driving it if the current gets too high – which is how the controller “knows” when the slide is all the way in or out.  There is a “manual override” in the controller.  It isn’t really an override.  The procedure is usually printed on the controller (mounted somewhere inside storage or a cabinet, under a seat cushion – somewhere.  On mine, the procedure is to press and release the button 6 times, hold on the 7th until the lights blink.  All this really does is encourage the controller to move the motors, not necessarily synced up.  With our problem being a physical lock up – manual override of course did nothing for us.  Press the button again to exit manual mode.  Resync the slide according to instructions.

The motor sits high up, behind the white column.  There is a single screw that holds it down onto the upper bearing block.

motor lock screw
Motor lock screw

In that block is an adapter that connects the flat keyed motor shaft to the hex shaft that drives the upper and lower gears.  You take out that screw, lift up the motor out of the block and it is disconnected. To remove it, you need to pull the column out, disconnect the motor connector and pull the motor up and out.  Putting it back in is tricky as you must not only like up the flat key on the shaft but set the motor down into the upper bearing block with the four pins on the motor. Once the motor is disconnected, the bearing blocks and shaft should move freely.  When reassembling, it is imperative to make sure the bearing blocks are all in the same position – measure from the block to the outside slide edge.  You might have to lift the shaft out of the lower block, rotate the gear and/or move the block to get everything to line up and be the same distance.  Also – the only way to actually remove the bearing block from the track is to remove the track from the slide.  Fun? no!  

 

Lower Bearing block with shaft from above.
Lower Bearing block with shaft from above.
gear
Gear
Bearing Block removed
Bearing Block removed
Lower Bearing Block Wedged
Lower Bearing Block Wedged

Solar Installs

Tomorrow’s Journey Solar Saga

We had hoped to install solar while we were on our winter trip to the southwest.  Sometimes things just don’t work out the way we dream. But the trip was fruitful in many ways – we met a great solar supplier and ended up with four Battle Born batteries at a great price from the Battle Born booth at Quartzite.  But, I’m getting ahead of myself.

Debbie on our daughter’s
roof, preparing to feed wires down through the front cap.

Our basic philosophy on solar was to start with a modest build but design and install wherever possible with a maximum installation in mind.  The solar also needed to make sense with our power needs and the size of our battery bank.  Based on our expected needs and the fact we already had 400 amp-hours of lithium, we choose to install four 200Watt solar panels, but to design and install components based on an eight-panel, or 1600 watt system.  Our wire sizes, combiner box, and solar controller are all sized to carry that size of a system.

wasted could be battery space
Wasted could be battery space

Installing more battery will require restructuring and/or expanding the battery bay.  Our current bay barely holds four batteries, but mostly because it uses a slide-out tray (which requires slack cables and a place for them to move) as well as a control panel that just plain wastes space.  It doesn’t make sense to double the solar but maintain the same battery, so any future expanse will be quite a project in itself.

We also chose to upgrade our inverter from a Magnum 2000 to a Victron Multi 3000.  This brings all of our major power devices under the same vendor and common management software as well as providing a bit more power and functionality. On our first winter trip, we had to be a bit more conscious of our AC current draw than we’d like to be. Also the Victron will work in Hybrid mode – monitoring the current and picking up the slack when needed.

Parts

We met Matt Dalley from ContinuousResourses.com under the big tent at Quartzite.  He was quite helpful.  While I am an electrical engineer, I had no experience in the world of RV solar and have more than a few things to learn.  Matt was very helpful, working through several renditions of my design and answering more than a few questions.  In the end, I ordered almost the entire system through him.  I am quite happy with all the products I received. One thing I must note though. When you order, you won’t get one big box with all your parts.  You will get a box every day or so, for a week or so, drop-shipped from various locations around the country.  In the end, this saves you money and I wasn’t in a big hurry anyway.

So, here is a list of parts:

  • 4 x 200W Hitec solar panels
  •  4 x panel mounting bracket kits (can be upgraded to tilt)
  •  30 ft of 4/0 ultraflex battery cable and lugs (new wire from inverter to batteries)
  • 30 ft of 4AWG UltraFlex battery cable and lugs (roof combiner to solar controller to inverter)
  • 80 ft each of red and black, 10AWG PV wire for wiring panels (enough for 8 panels no matter where they are on the roof)
  • 4 x MC4 2 in 1 branch connector (that I actually didn’t need, was thinking parallel at one point)
  • Combiner box with 4 inputs and breakers for 8 panels (4 sets of 2 in series)
  • Blue Sea Class T fuse block with cover (up to 400Amps) and 400 Amp fuse (for the eventual replacement of Battery catastrophic fuse)
  • Victron Energy ve.direct and RJ45 UTP network cables and adapters
  • Midnite Solar Baby Box and two breakers for switching panel inpu and Controller output.
  • Blue Sea Battery Switch
  • Victron Energy SmartSolar 150/100 Tr Charge controller with Bluetooth
  • Victron Energy MK3-USB interface
  • Victron Energy MultiPlus 12/3000/120-50 Inverter-charger 120V
  • Victron Energy WiFi module (to connect Color Control to wifi)
  • Victron Energy Color Control GX monitor
  • Install kit – lots of misc parts.

Some explanation.  The 4/0 cable from the inverter to batteries was because the 2000 watt inverter in place was on the left side of the RV and batteries on the right.  While 2/0 cable that was in place is technically big enough for 3000 watts, it seemed like a good time to make sure the longer cable run was as good as it could be.  

Combiner just forward of rear cap.
Combiner just forward of rear cap.

I studied for some time as to where to put my combiner box, and thus the drop through the RV to the left rear bay where the controller would be installed.  After carefully considering the various walls and closets I might end up drilling through, I decided no drilling through the cabin was the solution. I chose to put the box at the rear of the RV and bring the wire down through the rear cap.  This made the future runs to solar panels mounted forward fairly long, but I ran through the calculations and the losses were minimal.  Better to make the series panel runs longer and the combiner to solar controller shorter as it carried the higher combined current that was easily handled by the 4AWG cable. 

Series or Parallel?

I waffled for some as to whether it would be better to put all my panels in parallel or some combination of series+parallel. With all the air conditioners, vents, etc. on the roof, something is going to be shaded any time the sun isn’t nearly overhead. If you shade one panel of two in series, you lose most of both. The other side of the argument though is if you put panels in series – there is more voltage for the controller to work with early and late in the day. I even considered running a pair of wires to each panel and doing the serial/parallel connections in my combiner box. In the end, I chose to serial two panels, each on the same side and parallel the groups. At least two panels should be making full power no matter where the sun is coming from. If I decide to change things later, it’s just a bit of wire, some connectors and/or 4 more panels.

Burnt Fuse and busbar
Burnt Fuse and busbar
Melted Inverter Switch
Melted Inverter Switch

A bit of relevant history. While we were out west on our first trip, we were clearly having a voltage problem – the inverter would complain about low voltage or simply drop out if we ran more than one appliance. This was a big part of the reason we went ahead with the Battle Born battery purchase at Quartzite.  The culprit, however, turned out to be a faulty catastrophic fuse connection mounted on the back of a switch control panel in the inverter power path.  The poor connection generated so much heat, it melted part of the panel including the inverter power switch which caused it to fail.  The fuse itself never failed – just the interconnect was resistive and thus got very hot. As a part of my solar plans, I intended to replace this entire panel, but because of time constraints, this part of the plan wasn’t executed.  It is still on my ToDo list. See the rest of this story on Youtube, Here.

Finally, we considered long and hard, on how to attach the panels to the roof.  So, this is a good time to segway into the FIRST install:

My Daughter and husband also bought 2 x 100-watt panels and an MPPT controller in Quartzite.  We were uncertain how they would use the panels – whether like a suitcase or on the roof.  It’s a rubber roof – so VHB tape was out.  The roof construction is basically rubber over 3/8ths (if that) plywood over styrofoam. Dropping screws into that combination doesn’t instill one with great confidence that the panels won’t become airborne. After some consideration, we decided to use butyl tape, well nuts and of course self-leveling sealant.  Since my arthritis had kicked into overtime, my duties were primarily supervising and/or critically important adjustments.  Thus, I made the mounting brackets out of angle aluminum (using jigsaw and drill press in the garage). I also drilled and tweaked the holes in the roof for the well nuts, but not a lot else.  We drilled the holes and carefully trimmed them so the well nuts would just fit.  We used ½” diameter, 1” long with ¼-20 brass inserts along with 1 ¼” stainless bolts. We attached the brackets to the solar panels, set them in place and marked the holes.  Then we moved the panels off, drilled the holes, pushed in the well nuts, laid a small amount of butyl tape around the hole.  Then the panels went back in place, were screwed down tight (two bolts per bracket), then self-leveling sealant on top.  They are very solid.  We configured the panels in series and taped down the solar wire with 2-inch segments of Eternabond tape.  A small roof entry box was mounted over the hole drilled in the front cap top to feed the main wires down to the solar controller and combination circuit braker and cutoff switch that we mounted inside the front storage.

2 x 100 Watt panels
Holes for Well Nuts.

Overall, it was a simple install.  Because the panels were going near the front of the trailer, we chose to use 6 brackets each.    We ran 4AWG cables from there to the batteries. Two hundred watts has been a good fit with the two 6V GC2 lead-acid batteries they have for storage.  It has been a couple of weeks now, and the panels keep up with most of their daily needs as long as they are parked in the sun.  They don’t have a big inverter, so they do run their generator when making a pot of coffee or when they need to run the Air Conditioner.

So back to the main event. I survived the mini-build, so we decided to go ahead and tackle the class A build.   This is central Illinois in the springtime, so we had to try to plan for a few days without major rain.  Of course, the forecast changes hourly, so we got chased indoors more than once.  

Our panels went on first. They came with four brackets each that hooked on and provided a pivot point that could be used with additional hardware (not supplied) to allow the panels to be tilted.  These brackets hooked over the panel and attached with a single bolt. I’m a “two is one and one is none” kind of guy, so we drilled and added a second bolt to each bracket. I scoped out 9 possible locations on the roof – we choose 8, then the four initial spots that would be toward the rear – but reserving the area at the very back for getting on/off the ladder and for the combiner box.  The box was bolted to the main cabin roof, but a 90 degree piece of PVC electrical conduit exited the back and entered the back cap for running wires down to the controller.  

We installed the panels pretty much the same way as with the earlier install – except we used the provided VHB tape between the roof and brackets and stainless bolts into ½” by 1” well nuts with ¼-20 stainless bolts, two per bracket.  They aren’t going anywhere.  We ran the solar wire – setting up the two left panels in series and the two right in series, each pair to a breaker, connected in parallel before the 4AWG cables going down to the solar controller.  

Our left rear storage had the Magnum inverter, our power controller/EMS and our 50 Amp shore power cord already in it.  But there was plenty of room for the solar controller and the slightly larger Victron Inverter/Charger.  We mounted a piece of plywood on the inner wall, then the solar controller and the mini breaker box.  The cable from the panels went into the mini-breaker box, through a 60-amp breaker – out to the controller, then the output from the controller went into the mini-breaker box, through a 100-amp breaker and out to the main DC power cables that fed the Victron Multi.  The mini breaker box not only protects the input/output of the controller, but also allows me to isolate the controller from the panels and the batteries.

Then I double checked that all the power lines to/from the Magnum had corresponding connections on the Victron Multi (and were labled), took a deep breath, and swapped them out. And it all worked!  Once I remembered to flip on that tiny switch in front of the Victron Multi to the correct position..  

DC power distribution
Back of DC power distribution Panel

To back up a notch, we ran the 4/0 cables from the Victron (left rear storage) to the battery bay (right rear), pulling out the 2/0 that was there.  When I got up to pulling the old control panel – I realized I needed more hardware I didn’t have on hand, so we hooked up the 4/0 cables without changing the panel.  Here is one of those odd things you run into that makes you scratch your head (or bang it on the wall), wondering WHY they build RV’s this way. The ground cable from the inverter, ran to a bolt mounted on the battery bay wall.  From there a ground cable ran back to the top of the frame to another bolt (totally inaccessible).  From there a ground cable ran to the batteries.  Thus, I was not able to replace all of the 2/0 cable – at that time.  Most of it, however, is better than none of it. When I deal with the panel, I will make sure I have 4/0 though the entire path from battery to inverter.

Since the main inverter switch is actually in the right-side battery bay, an unintended consequence of this particular install was that the Solar only charges the batteries when the inverter switch is on.  Not too big a deal as when we are using the RV, it is always on.  When in storage, it might be a different situation, so likely I will move the Inverter switch to the left storage bay, or reinstall the 2/0 positive cable just for the solar controller to the battery (my preferred solution).  This last solution would also bypass the main battery switch, so I could shut off power to the RV, but still keep the batteries charged.

So, we’ve only had a few days of actual use – boondocking.  On a mostly sunny day, it keeps up with our use (refrigerator, coffee maker, TV, microwave, two laptops running much of the day, etc).  Since leaving home (a week now), we’ve only run the generator once for about an hour. In South Dakota it is running 600+ watts several hours of the day and we hit over 800 once.  I’m quite happy with it.  I’d be happier of course, with more battery and more solar so we had a several day reserve, but that won’t happen for a while.

Futures?

Replacing the battery switch/breaker panel and catastrophic fuses.

Rerouting some of the AC power. Right now, the AC leg that goes through the inverter only connects to the various plugs and appliances in the coach. The air conditioners and fireplace, for example, come off the EMS/Gen/Shore switch BEFORE the inverter. In theory, I could run one air conditioner off my inverter and batteries by using the inverter to boost power from a low current shore power source, But only by rerouting AC power for the air conditioner THROUGH the inverter. This will probably wait until we upgrade the system to more battery and more panels and I would install a switch so the air conditioner could be powered via either path. .

The only special tool I purchased for this install was a hydraulic crimper. I purchased this one: https://amzn.to/2FbUiXc on Amazon for $45.99.

Appropriately size well nuts can be hard to find. I scrounged through every hardware store in town, to find enough. While local HW stores would carry them, they often only had half a dozen or so of each size in stock. Make sure you get the ones with the thin shoulders so your brackets sit on the roof. The well nuts, or expansion nuts, as some places call them, need to be longer than the plywood/fiberglass on the roof – thus I used 1 inch long. I had some 1/2 inch versions and they didn’t hold properly in tests.

Feel free to ask any questions, here or over on youtube. Get to know use here on Youtube and please subscribe.

Postscript. I continue to be happy with the system. It won’t keep up with our needs when we are shaded as we are this week in Glacier, but it is working as designed. Its cool that as long as I have cell, I can connect back and see how the entire system is doing.