Every year after Burning Man, RVs roll back through Reno coated in a fine, pale dust, and much of it is inside. Owners clean it once, think they’re done, then find it again weeks later: in a vent, a drawer, the seams of a cushion. Playa dust is in a category of its own, and it helps to know why before you start.

Why playa dust is so stubborn

The Black Rock Desert playa is an ancient lakebed. Its dust is extremely fine, and it’s alkaline. Fine means it gets into places ordinary dust never reaches: air vents, cabinet hinges, window tracks, fabric weaves and the gaps around slide-outs. Alkaline means it’s worth getting off surfaces rather than letting it sit, and that a dry wipe tends to smear rather than lift it.

Many burners pack vinegar for exactly this reason: a mild vinegar-and-water solution helps neutralize alkaline dust on hard surfaces. As always, test on a hidden spot first, and follow the care instructions for any material you’re unsure about.

What you can do right away

If you’ve just come back from the playa:

• Dust and vacuum before you wipe. Pushing wet playa around makes a paste. A vacuum with a brush attachment comes first.
• Change or clean filters. AC and vent filters catch a lot of dust and will keep blowing it back into the cabin.
• Empty cabinets and drawers. Dust settles inside closed storage, and that’s where most “it’s back” moments come from.
• Take fabrics out if you can. Bedding, curtains and removable covers are easier to treat on their own.

Doing these early stops dust from working deeper while the RV sits.

When a professional detail makes sense

A determined owner can do a good job on a lightly dusted rig. A full post-event reset is a different scale of work. Professional interior detailing covers kitchens and counters, bathrooms, carpet and upholstery, interior windows and vents, and the small detail areas that collect grime, using RV-safe products that won’t damage interior surfaces or leave harsh chemical odors behind.

For context on pricing: our interior detailing generally runs $35 to $55 per foot of RV length, depending on size and condition. Post-Burning Man cleanings are generally at the $55-per-foot level, because playa dust takes extra labor, repeated passes and patient detail work. A 24-foot camper that stayed sealed up and a 40-foot rig that spent a week with the door open are very different jobs, so we confirm scope after seeing the RV or photos of it.

One note: our detailing is interior only.

Before you store it

If the RV is going into storage after the event, clean it before it’s parked. Dust left sitting for months is harder to remove. Seal it up afterward so rodents and wind-blown dust don’t add to the problem.

Learn more

Our interior detailing page has the details on what’s included and how to send photos. Browse more owner articles in our Learn section.

The post Playa Dust in Your RV: Why Post-Burning Man Cleanup Takes More Than a Vacuum appeared first on All Things RV & Solar.

A car behind the motorhome changes how you travel. You park the big rig once, then run to the grocery store, the trailhead or a restaurant downtown without breaking camp. That freedom is why flat towing, also called dinghy or “toad” towing, is so popular.

The most common mistake we see happens before anyone calls an installer: buying the car first and assuming it can be towed. Here’s the checklist we’d walk through with you.

1. Can this exact vehicle be flat towed?

Not every vehicle can be towed with all four wheels on the ground. It depends on the drivetrain and transmission, and sometimes on the trim level or model year. Two cars that look identical on a dealer lot can have different answers.

The vehicle manufacturer decides this, not the tow-bar maker or the salesperson. Look in the owner’s manual for a section on recreational or dinghy towing, and follow its procedure exactly. If the manual doesn’t approve flat towing, or you can’t find the section, treat that as a “no” until it’s confirmed.

2. A complete setup is a system, not a part

People often think of a flat-tow setup as “the tow bar”. A safe setup has several pieces that work together:

• Baseplate: the vehicle-specific mounting on the front of the car that the tow bar connects to.
• Tow bar: the connection between the motorhome hitch and the baseplate.
• Lighting and wiring: so the car’s brake and turn signals follow the motorhome.
• Supplemental braking: a system that helps the towed car brake with the motorhome, instead of just being pushed along.
• Safety cables and a breakaway system: so the car stays controlled if the main connection ever fails.

Braking requirements vary by state and vehicle weight, and supplemental braking is one of the most important parts of the package whatever the rule says.

3. Match the parts to the car

Baseplates are specific to the vehicle’s make, model and year, and the right accessories depend on how the car is built. That’s why we always start with the vehicle being towed. As a certified Roadmaster dealer and installer, we use the vehicle’s details to find the compatible baseplate and accessories, then walk through the options. Roadmaster makes setups at several price points, so there’s usually a choice.

We supply the parts for our installations. That’s how we can stand behind the fitment, so we don’t install customer-supplied equipment.

4. Plan the install around the car first

Here’s something that surprises people: for most installs, only the towed vehicle needs to come to our shop. The motorhome only needs a visit if you want an optional brake indicator light installed in the coach, a handy visual signal that the car’s braking system is working.

5. Learn your hook-up routine

Even a perfect installation depends on a consistent routine: connecting in the same order, checking the lights, setting the car the way its manual specifies, and doing a quick walk-around before you pull out. After a few trips it takes a few minutes. Skipping steps is where problems start.

The short version

Check that the car is approved for flat towing before you buy it. Plan for the full system, not just a tow bar. Let the car’s details drive the parts. Our flat towing visual guide shows how the pieces fit together, and our flat tow page has the details on scheduling an install in Reno.

The post Before You Buy a Tow Car: A Flat-Towing Checklist for Motorhome Owners appeared first on All Things RV & Solar.

When the factory 48V Volta system in a Winnebago Travato or Boldt works, it’s impressive: big battery capacity, an engine-driven generator, and air conditioning without a campground hookup. When it stops working, owners often find out how few people know these systems. A 48V Volta setup is different from the 12V systems most RV shops service every day, so a dark display or a shutdown can leave you wondering who to call.

We hear from Volta owners well outside Nevada, so here’s the plain-language version of what we explain on the phone.

What makes a Volta system different

Most RVs run their house power at 12 volts. Volta-equipped coaches store energy in a 48V battery and convert it down to 12V for lights, pumps and fans, and up to 120V AC for outlets and the air conditioner. It’s an integrated design, which is part of why it worked so well when new. It also means one failed component can take several things down at once, and a generic 12V part can’t simply be dropped in.

Factory Volta systems appear in the Winnebago Travato and Boldt, in Outside Van builds such as the Approach, and in some other factory-equipped RVs. If you’re not sure what’s in your rig, the system label in the electrical compartment and your owner’s paperwork are the place to start.

Symptoms owners describe

The calls we get usually start the same way:

• “My Volta system won’t turn on.”
• “The batteries aren’t charging, even while driving or on shore power.”
• “It shut down and shows a battery error.”

Those are symptoms, not a diagnosis. But they’re worth writing down exactly as they happen: what you were doing, whether you were plugged in, driving or parked, and any message on the display. A photo of the screen takes two seconds and saves a lot of guesswork later.

Repair or convert?

This is the question most owners are really asking. We don’t repair 48V Volta systems. What we do is convert them to a Victron-based 12V system. That decision comes from what we see long term. A 12V system built on widely used components is one that many shops can support, that you can expand with standard solar and battery equipment, and whose parts aren’t tied to a single supplier.

A conversion isn’t a battery swap. It’s a redesign of the house power system. Where it makes sense, we keep what can be reused, such as suitable wiring and your existing solar panels. Most of the other system components are replaced with Victron equipment, including monitoring, so you can see what’s happening in the batteries again. The Cerbo GX visual guide shows what that monitoring looks like day to day.

What to have ready before you call

You don’t need a stack of documents. To start, we just need the RV’s year, make and model. Photos are optional. From there we set up a quick call to talk through how you use the RV, what’s failed, and what the conversion would involve.

If you’re outside Nevada, that call comes first, before anyone plans a trip. Out-of-state owners travel or arrange transport to our Reno shop once the project details are confirmed, so nobody drives across several states on a guess.

If your system still works

If your Volta system is running fine today, there’s nothing urgent to do. A few habits help:

• Learn what normal looks like on your display, so a change stands out.
• Keep notes on any errors, even ones that clear themselves.
• Know where your system label and main disconnect are.

And if it does start acting up mid-season, you’ll already have the details we’d ask for.

Learn more

Our Volta 48V to 12V visual guide walks through the conversion in six short slides. When you’re ready to talk about your RV, send us your details here.

The post Living With a 48V Volta System: What Travato and Boldt Owners Should Know Before It Fails appeared first on All Things RV & Solar.

Ask anyone who’s leveled an RV with blocks and a bubble level at 10 p.m. on a sloped site: an automatic leveling system is one of the best quality-of-life upgrades there is. The next question is usually “hydraulic or electric?” The honest answer is that it depends on the RV more than on the owner’s preference. Here’s how we think about it.

First: leveling isn’t the same as stabilizing

This is the most common mix-up we see. Leveling jacks change the RV’s position so the floor sits level. Stabilizers reduce the rocking and bouncing once you’re already level. Many RVs come with stabilizer jacks, and they look similar, but they aren’t built to lift the coach. Using a stabilizer as a lifting jack is a good way to bend it or damage the frame it’s mounted to.

How hydraulic systems work

Hydraulic leveling uses a pump to push fluid into cylinders that extend the jacks. These systems are strong, and they’re common on motorhomes and larger, heavier RVs where lifting force matters. They need room underneath for the pump, reservoir and hydraulic lines, and like any hydraulic system they benefit from periodic checks of fluid and fittings.

How electric systems work

Electric leveling uses motor-driven jacks, with no fluid or pump. These systems are common on fifth wheels and trailers. They’re typically simpler to route and maintain, though each jack has its own motor and wiring that need a good power supply.

Both types can be automatic: you press a button, the controller reads the RV’s position and adjusts each jack until it’s level.

What actually decides the right system

The decision comes from the RV rather than from a brochure:

• Frame and mounting points: where jacks can be attached safely.
• Weight: how much the system has to lift.
• Ground clearance: so the jacks don’t hang too low when retracted.
• Space underneath: tanks, slide-out mechanisms and other components that are in the way.
• Power supply: what the system needs while it operates.
• Manufacturer fitment: whether the system is approved for your specific RV.

That’s why we don’t recommend buying a leveling kit before someone has confirmed it fits. Leveling systems aren’t universal, and a kit that’s wrong for your frame is an expensive paperweight.

Brands we install

We install Lippert and EQ leveling systems, both hydraulic and electric, and match the specific system to the RV. We supply the parts for our installations, so we don’t install customer-supplied kits. To start, all we need is your RV’s details and what you want to improve about setting up camp.

Using it well

Even the best system has a routine: choose reasonable ground, follow the manufacturer’s operating sequence, and check that the jacks are fully retracted before you drive. A system that’s installed and calibrated properly, and used the way it was designed, makes setup the easiest part of arriving.

Learn more

Our leveling visual guide explains the options in six short slides. For installation and repair details, see our leveling systems page.

The post Hydraulic vs. Electric RV Leveling: Which Makes Sense for Your Rig? appeared first on All Things RV & Solar.

Every spring we meet the same RVs twice: once in the fall, when the owner parks it “for a few months”, and again in April, when something didn’t survive the wait. Usually it isn’t dramatic. It’s a cracked water line, a battery bank that sat at zero for weeks, or a solar setup that was never meant to babysit a parked rig through a high-desert winter.

Reno makes this tricky. Our days can be mild and sunny while the nights drop well below freezing, sometimes for weeks at a stretch. An RV that’s fine at 2 p.m. can be in trouble at 2 a.m. Here’s what we look at before a coach goes into storage, and what you can check yourself.

Water lines freeze first

Water is the classic winter failure, and the cheapest one to prevent. Any water left in the lines, the pump, the water heater or the low-point drains can freeze, expand and split a fitting. Often you won’t find the damage until the first time you pressurize the system in spring.

Proper winterizing means draining the tanks and water heater, bypassing the water heater, and filling the lines with non-toxic RV antifreeze. That’s the method we use in our shop. Some owners blow the lines out with air instead, but antifreeze leaves less to chance in a fixture you forgot. Don’t forget the outdoor shower, the ice maker line or a washer hookup if your coach has one. Most leaks we see in spring come from the “forgotten” fixture.

Lithium batteries don’t like charging below freezing

Lithium (LiFePO4) batteries handle cold storage well. They just shouldn’t be charged when the cells are below freezing unless the battery is designed for it. Many quality batteries protect themselves: they have a low-temperature charge cutoff, or internal heating that warms the cells before accepting a charge. Others rely on the charger or the battery monitor to hold back. Check your battery’s specification sheet, or ask us, before you assume either way.

That matters in storage because solar panels and a shore-power converter will happily try to charge on a cold sunny morning. If your system isn’t set up for cold-weather charging, it’s safer to store the batteries at the partial charge the manufacturer recommends and disconnect them completely.

Parasitic loads drain parked RVs

Even with everything “off”, most RVs have small loads that never sleep: propane and CO detectors, stereo memory, control boards, an inverter left on standby. Over a few winter weeks those small draws can pull a battery bank all the way down. A deeply discharged lead-acid battery can even freeze and crack. Lithium batteries usually shut themselves off to protect the cells, which can leave you with a pack that needs a careful recovery charge in spring.

The fix is simple: use your battery disconnect, or make sure there’s a real one between the batteries and the coach. If you’re not sure which switch actually isolates the bank, that’s a five-minute question for us to answer.

Can solar keep your batteries topped up in storage?

Sometimes, and it’s a good use of solar when the system is set up for it. A correctly configured charge controller can keep a parked battery bank healthy through the winter, as long as:

• the controller’s charge settings match your battery chemistry and its cold-weather limits;
• snow or a storage cover isn’t blocking the panels;
• nothing else (an inverter on standby, for example) is quietly drawing more than the panels can replace on short winter days.

If your system has a Victron Cerbo GX connected to the internet, you can even check battery levels from your phone while the RV sits in storage. Our Cerbo GX visual guide shows what that looks like.

A quick storage checklist

1. Winterize the water system: drain, bypass the water heater, then fill the lines with RV antifreeze.
2. Note your battery type and its cold-charging limits.
3. Store the batteries at the charge the manufacturer recommends, then disconnect them, unless your solar or charger is set up to maintain them safely in the cold.
4. Turn off the inverter, and confirm the battery disconnect actually isolates the bank.
5. Clear the roof and panels of covers or debris if you’re relying on solar.
6. Visit once a month if you can: check the battery state, look for leaks and keep rodents out.

Spring should be boring

The best spring de-winterization is a boring one: water flows, nothing drips, the batteries wake up and the monitor shows sensible numbers. If you’d like us to winterize your RV, or have questions about your battery and charging setup before storage, you can request service here. And if you’re thinking about moving to lithium before next season, our lithium battery guide walks through what we check first.

The post Storing Your RV for a Reno Winter: Batteries, Solar and Plumbing Without Spring Surprises appeared first on All Things RV & Solar.

Lithium upgrades are one of the most useful electrical changes an RV owner can make, and they are also one of the easiest to get slightly wrong. The battery is never just a box that replaces another box. It has to live with the charger, inverter, solar controller, alternator, wiring, and the way you actually camp. That is why we evaluate the whole system before any installation work is scheduled.

This article is for owners who want a clear picture of what a shop looks at before a lithium bank goes in. It is not a do-it-yourself walkthrough. If you want a system that behaves the way you hoped on a real trip, the evaluation is the part that matters most. A careful RV lithium battery upgrade starts with that conversation, not with a parts list copied from a forum thread.

Your RV’s existing electrical foundation

Every coach has its own quirks. Lithium batteries interact with the converter, the inverter, and the wiring that ties those pieces together. We look closely at how the current system charges and discharges, because lithium chemistry behaves differently under load than the lead-acid batteries most RVs left the factory with.

That first look tells us whether the alternator, solar charge controller, or shore-power charger can keep up without extra attention. Sometimes the existing gear is already a good match. Sometimes it is not. Finding that out before parts are ordered is a lot kinder than finding it out after the coach is sitting in the shop.

Real-world capacity planning

It is tempting to chase the biggest battery bank possible. The better goal is matching capacity to how you actually camp. We walk through typical days off-grid: how long the fridge runs, what lights and pumps draw, whether you want air conditioning for short stretches, and how often you can recharge from solar or driving.

The right size keeps weight reasonable and keeps the bank from living at the extremes that shorten useful life. Extra unused capacity still takes space, still costs money, and still has to be charged. We design around daily realities rather than adding hardware that never earns its keep.

Charging and system compatibility

Lithium batteries need a charging profile they can live with, and they usually depend on a battery management system that has to work with the rest of the coach. We check converter output, any existing solar array, and the alternator charging path.

Sometimes a programming change is enough. Other times a charger or controller needs to be replaced so the bank receives a steady, appropriate profile. Skipping this step is one of the fastest ways to end up with a system that looks impressive on paper and underperforms on the road.

If lithium is the main reason you are here, our RV lithium battery service page is the right place to see how we approach this work in the shop.

We install Lion Energy, Epoch, Battle Born and Dakota Lithium batteries. We supply the parts and don’t install customer-supplied batteries. Our lithium battery upgrade guide walks through the checks before installation.

Fit, case size, and form factor

Lithium packs are often lighter than the Group 27 or Group 31 boxes they replace, and they are available in different case sizes and form factors. That does not mean they drop into any compartment. We measure available space, check heat and ventilation, and think about weight distribution so the coach still feels right on mountain grades and washboard roads.

Secure mounting matters just as much as the spec sheet. Vibration loosens lazy installs. We sweat those details because we install systems we would want ourselves.

Monitoring, safety, and integration

Modern lithium systems are at their best when you can see state of charge, temperature, and warnings in real time. We evaluate whether the current monitor or the RV’s built-in display can handle that data, or whether a dedicated shunt and a clearer display would serve you better.

We also confirm that low-voltage and temperature protections are set in a way that fits Reno summers, cold nights at elevation, and the way the coach is actually used. None of that is a promise of a specific runtime. It is the unglamorous integration work that keeps the system honest.

What we need from you

A useful evaluation starts with a real picture of the coach and the trip. Year, make, model, how you camp, and what you are trying to run all change the recommendation. We would rather hear the messy version than guess. Two coaches with the same battery model can still need different charging paths, different mounting, and a different conversation about how far you want to go between charge opportunities.

When you are ready, use the service booking form. Requests remain pending until confirmed. Sending the form is not an automatic appointment.

Text us your RV year, make, model, and what you are trying to accomplish. The more detail you send, the better we can help.

See the visual guide to Cerbo GX power monitoring.

See the visual guide: Lithium battery upgrades.

The post RV Lithium Battery Upgrades: What to Evaluate Before Installation appeared first on All Things RV & Solar.

The Reality of AC Loads Off-Grid

Air conditioners pull serious power, often 1,200–1,800 watts or more when running, and even higher during startup. Those figures are typical ranges we see, not a promise for every coach or every afternoon. In a typical summer day here in the high desert, that demand adds up fast. We’ve seen plenty of rigs where owners expected to run the AC all day on a modest system and quickly learned that careful monitoring of energy use is essential. A well-matched RV solar systems array and lithium bank can support AC use, but only when the system is sized and configured for the actual conditions you’ll face.

Battery Bank Size Matters More Than You Think

A small lithium bank might get you through a few hours of AC use before you’re watching the state of charge drop uncomfortably low. Larger banks give you more buffer, letting the system ride through cloudy stretches or longer run times without constant worry. We design around real-world usage patterns rather than optimistic lab numbers, because we install systems we’d want ourselves on our own rigs. That means factoring in how long you plan to run the AC, what other loads are also drawing power, and how much charging you can realistically expect from your panels each day.

Startup Load Versus Running Load

The number that surprises people is often the startup surge, not the running watts. An air conditioner can ask the inverter for a short spike well above its steady draw. If the inverter, wiring, and battery bank were sized only for the running figure, the unit may struggle to start even when the bank still has capacity. We look at both numbers together with roof layout and how the coach is insulated, instead of shopping a rotating list of battery brand names.

A soft starter can help an air conditioner start on a generator or inverter. For inverter-powered AC, our shop requires at least a 3,000-watt inverter. Startup support does not remove the need to plan for running energy. If you are considering a replacement unit, the Chill Cube guide explains that option.

Solar Panel Count and Placement

More panels mean more charging capacity, but roof space, shading, and panel orientation all play a role. A couple of extra panels can make the difference between needing to run the generator by mid-afternoon or staying on solar longer. We sweat the details on mounting, wiring, and controller sizing so the array actually delivers what the batteries need under Reno’s intense summer sun and occasional wildfire smoke. Skimping here is one of the quickest ways to end up frustrated with an off-grid setup.

Monitoring and Daily Habits

Even with a capable system, successful AC use off-grid usually comes down to smart habits. Watching your battery levels, timing heavier loads for peak sun hours, and understanding when to ease the thermostat a couple of degrees all help stretch your resources. We build in good monitoring tools so you can see exactly what’s happening instead of guessing. The systems that feel effortless are the ones where the owner has a clear picture of their energy budget rather than hoping everything just works.

Custom Design Over One-Size-Fits-All

Every RV is different—roof layout, existing electrical, insulation quality, and travel plans all affect what works. We focus on tailoring the lithium battery bank and solar array to your specific rig and goals instead of dropping in a generic kit. That approach is what keeps people comfortable instead of constantly managing surprises. When the system matches the way you actually camp, running the air conditioner stops feeling like a gamble and starts feeling like a normal part of the trip.

See the visual guide: RV AC soft starters.

If you want us to look at your coach, use the service booking form. The date or time you select is only a request and stays pending until our staff confirms it separately. Text us your RV year, make, model, and what you’re trying to accomplish. The more details you send, the better we can help. Browse more owner guides in the Off-Grid Knowledge Base.

The post Running Your RV Air Conditioner on Off-Grid Solar appeared first on All Things RV & Solar.

Use the travel day to prepare for the night

An overnight dry-camping stop is different from staying parked for a week. You spend part of the day driving, arrive with a particular amount of stored energy, and need the fridge, lights, water pump and other essentials to last until morning.

Solar can contribute while the coach is moving or parked when conditions allow. Driving may also provide an alternator charging opportunity. We evaluate the alternator-to-house-battery path and any DC-DC charging equipment as part of the system; driving time alone is not a promise that the bank will be full.

Check what driving actually puts back

The useful questions are how long you drive, what charging equipment is installed, and what the RV uses during those hours. The charger, wiring and battery settings need to suit the coach and the bank. Our Cerbo GX monitoring guide shows how to see charging and loads, so arrival is based on readings rather than assumptions.

Plan the evening around stored energy

Lithium batteries typically offer steadier discharge voltage, less weight and more usable rated capacity than the lead-acid banks they replace. They can charge quickly when the rest of the system supports it. Our lithium battery guide explains the fit and charging checks behind that change.

The aim is a quiet evening without needing to idle the engine or run a generator after dark. Whether that works on a particular night depends on the energy you arrive with and what you run. Cloud cover, short winter days and extra evening loads all change the buffer you need.

Make the morning part of the plan

Include morning coffee, lights and vent fans in the overnight budget, then look at the next charging opportunity. A short drive is a different plan from a full day on the road. Several dry-camping nights in a row are different again.

We account for roof space, driving habits, seasonal conditions, charge controllers and the inverter loads you actually use. The goal is to make those travel-day stops easier, with clear monitoring and realistic expectations about the following morning.

See the visual guide: Cerbo GX power monitoring.

If you want us to look at your coach, use the service booking form. The date or time you select is only a request and stays pending until our staff confirms it separately. Text us your RV year, make, model, and what you’re trying to accomplish. The more details you send, the better we can help. Browse more owner guides in the Off-Grid Knowledge Base.

The post How a Properly Designed RV Solar and Lithium System Makes Overnight Stops Easier for Travelers Avoiding RV Parks appeared first on All Things RV & Solar.

Put everyday conveniences into watt-hours

Coffee, a quick microwave meal, a laptop, a fan and evening lights are ordinary comforts. To plan for them off-grid, it helps to separate how much power an appliance draws from how long you run it. Watts multiplied by hours gives watt-hours (Wh).

Example; your numbers will differ. These are illustrative appliance loads, not measurements from your RV or a recommended battery size.

The subtotal is not the whole coach

This example leaves out the fridge, water pump, standby loads and conversion losses. Add your own appliances and check their actual input power and run time. Air conditioning is a heavier, separate question; see running an RV air conditioner off-grid.

Peak power matters too. A coffee maker and microwave running together ask more of an inverter than the same appliances used one after the other. Our lithium upgrade guide explains why the battery, inverter and charging equipment have to work as a system.

Compare use with charging

A useful daily budget includes what comes back in. Shade, panel angle, weather and season affect solar charging, so off-grid power is not identical to plugging into a pedestal. Cerbo GX monitoring can help you follow the charging and loads instead of guessing from a battery label.

A capable system can support ordinary conveniences away from hookups, but no system makes an RV maintenance-free. Use the example as a starting worksheet, then bring us the numbers from your own routines.

See the visual guide: Cerbo GX power monitoring.

If you want us to look at your coach, use the service booking form. The date or time you select is only a request and stays pending until our staff confirms it separately. Text us your RV year, make, model, and what you’re trying to accomplish. The more details you send, the better we can help. Browse more owner guides in the Off-Grid Knowledge Base.

The post The Freedom of Off-Grid RV Travel: Shore-Power Conveniences Anywhere appeared first on All Things RV & Solar.

Weekend camper: look at the trip between hookups

A weekend with hookups can hide how much power your RV uses. For a short off-grid trip, the question is what the fridge, lights, fans and other ordinary loads will take between charging opportunities. An impressive battery label does not answer that on its own.

Someone who moves between trailheads and needs lights and a fan overnight has a different pattern from someone who stays parked and works from the RV. Our lithium battery guide explains what we check around the bank before adding capacity.

Snowbird: account for a longer stay and shorter days

Staying in one place for weeks changes the balance. Roof obstacles and shade keep affecting the same panels day after day. Winter sun angle, dust and wildfire smoke can reduce output, while the fridge and daily routines continue to draw power.

For a longer stay, we look at available light, panel placement, real wiring losses and the charging opportunities you will actually have. A bank chosen first can leave controllers and panels struggling to catch up. More storage still has to be recharged.

Full-time boondocker: plan for the daily rhythm

Working remotely, running a residential fridge or cooking on induction makes electricity part of everyday life. Ten days parked is different from an occasional overnight stop. Those patterns affect controller sizing, battery configuration and the loads that can reasonably run together.

Monitoring helps you see the difference between a strong solar day and a day when the bank is steadily losing ground. The Cerbo GX guide shows the kind of information that makes that easier to follow.

The same capacity can serve very different trips

We install systems we would want ourselves, paying attention to panel placement, wire routing and how the rig sits for a long stay. The aim is to choose solar, batteries and loads together, based on how you camp. If you are comparing kits before that conversation, start with the information we ask for before quoting.

See the visual guide: Lithium battery upgrades.

If you want us to look at your coach, use the service booking form. The date or time you select is only a request and stays pending until our staff confirms it separately. Text us your RV year, make, model, and what you’re trying to accomplish. The more details you send, the better we can help. Browse more owner guides in the Off-Grid Knowledge Base.

The post Why RV Solar Systems Should Be Designed Around Real Camping Habits, Not Just Battery Capacity appeared first on All Things RV & Solar.