πβ‘π FOGSTAR DRIFT // THE BATTERY THAT CHANGES VANILLA
How one 105Ah lithium battery could completely change the way I use my campervan off-grid.
How one 105Ah lithium battery could completely change the way I use my campervan off-grid.
There are upgrades that make a campervan look better. β¨ There are upgrades that make it drive better. π Then there are the quiet upgrades hidden under a seat, connected by chunky cables, that fundamentally change what the van can actually do. This is one of those. Vanilla is about to get a Fogstar Drift 105Ah LiFePOβ leisure battery. π And despite what the numbers initially suggest, I am not replacing a 110Ah battery with a slightly smaller 105Ah battery. Far from it. I am effectively giving Vanilla a much larger usable energy reserve, a stronger electrical backbone, better cold-weather capability, vastly improved voltage stability, Bluetooth monitoring and a battery that is far happier accepting power from my solar panel and alternator. This could be one of the most important upgrades I have made to the van. And considering Vanilla now sits on champagne-gold wheels wearing General Grabber AT3s, that is saying something. ππ Welcome to the next stage of Project Vanilla. β‘π
π THE BATTERY Fogstar Drift 12V 105Ah LiFePOβ β‘ 105Ah capacity β‘ Around 1,280Wh stored energy β‘ LiFePOβ chemistry β‘ 100A continuous discharge β‘ JBD Battery Management System β‘ Bluetooth monitoring β‘ Built-in low-temperature heating β‘ IP67 protection β‘ Around 10kg β‘ 10-year warranty On paper that already sounds impressive, but the figures do not really explain why I am excited about it. To understand that, you have to look at what it is replacing.
πͺ« OLD WORLD: 110Ah AGM Vanilla currently has a conventional 110Ah AGM battery beneath the seat. It has done the job perfectly well. AGM batteries are proven, simple and reliable, but they come with one enormous limitation: you do not really want to use all of the capacity written on the label. A 110Ah AGM might technically hold 110Ah, but regularly taking it deeply discharged shortens its life. So campervan owners traditionally live by the old rule: β οΈ try not to go much below 50%. That means my 110Ah AGM has effectively been treated more like a 55Ah working battery. In energy terms that gives me roughly 600 to 700Wh of sensible usable power. And suddenly the Fogstar starts looking very different.
β‘ 105Ah THAT BEHAVES NOTHING LIKE 105Ah The Fogstar stores around 1,280Wh. Lithium can comfortably use a far greater percentage of its capacity than AGM. I am not planning to drive it right down to BMS shutdown every night. That would be pointless. But using 80 to 90% is completely normal territory for LiFePOβ. At 80% usable: π about 1,024Wh At 90% usable: π about 1,152Wh Compare that with roughly 600 to 700Wh from the AGM. So despite the sticker saying 105Ah rather than 110Ah, Vanilla could gain something like 55 to 75% more genuinely usable stored energy. That is the first big win. π₯ The important question is not: HOW MANY AMP-HOURS ARE PRINTED ON THE CASE? It is: HOW MUCH ENERGY CAN I ACTUALLY USE? And on that score, Vanilla has just grown a much bigger tank. πβ‘
π VANILLA'S POWER ECOSYSTEM This is where things get interesting. Vanilla already has: βοΈ 200W PV Logic PS-8688 solar π΅ Victron SmartSolar MPPT 75/15 π΅ Victron Orion Smart 30A DC-DC π Victron SmartShunt β‘ Sargent EC155 βοΈ 50L compressor fridge π₯ Webasto diesel heater π‘ LED lighting π± USB charging π‘ 5G gear π₯ cameras, drones and electronics Then there is the portable power side: π Jackery 240 v2 π Jackery 300d π Jackery 1000 v2, Kindle π Jackery 2000 v2, Forge Vanilla therefore does not really have one electrical system. She has an ecosystem. βοΈ Solar supplies energy. π Driving supplies energy. π EHU can supply energy. π Fogstar stores energy. β‘ Jackery handles the big 230V jobs. π SmartShunt tells me where it all went. The missing piece has been a leisure battery capable of properly exploiting everything around it. The Fogstar feels like that missing piece.
The missing piece has been a leisure battery capable of properly exploiting everything around it.
βοΈ SOLAR JUST GOT A BETTER PARTNER During my three-week solar experiment I learned something very important: my 200W PV Logic panel works. Really works. I have seen: βοΈ around 136W peak β‘ around 9A charging π daily harvest ranging from tiny gloomy-day numbers to several hundred watt-hours Watching sunlight turn into usable electricity became strangely addictive. And now lithium makes that solar even more useful. AGM batteries become increasingly reluctant to accept current as they fill. Lithium stays much more enthusiastic for much longer. Think of it this way: πͺ« AGM = tap slowly closing as the tank fills. π Lithium = tap wide open for much longer. That matters because British sunshine comes in bursts. One minute: βοΈ 18W Then: π€οΈ 74W Then suddenly: βοΈ 136W Then: π§οΈ nothing. When the good solar arrives, I want the battery shouting: YES. SEND IT. β‘ Not: I'll just have a little sip, thanks. The Fogstar does not magically produce more sunlight. It simply gives me a better place to put the sunlight I already collect.
π₯οΈ BRITISH SOLAR IS ALL ABOUT OPPORTUNITY This is not Arizona. This is Britain. π¬π§π Cloud. Sun. Cloud. Rain. Grey. Different grey. One heroic patch of blue. Then rain again. So capturing the good bits matters. If the roof averages 100W for three decent hours: βοΈ around 300Wh harvested. If I manage five decent hours: βοΈ around 500Wh. That is a very meaningful chunk of a 1,280Wh battery. Vanilla does not necessarily need EHU to recover meaningful energy. She needs: βοΈ sunlight β±οΈ time π and occasionally a drive.
πβ‘ THE ORION 30A BECOMES A SERIOUS WEAPON Then comes my Victron Orion Smart 30A DC-DC charger. This takes energy from the vehicle while the engine is running and converts it into controlled leisure-battery charging. That is perfect for lithium. At roughly 30A and around 13 to 14V, we are talking in the region of 400W of potential charging power. That means an hour of driving can make a proper dent in what I used overnight. Two hours could replace a huge slice of a nightβs consumption. And unlike solar, the Orion does not care if the sky is doing its best impression of wet concrete. So now the logic becomes beautifully simple: βοΈ SUN = SOLAR π DRIVING = ORION π CAMPSITE = MAINS π PARKED = FOGSTAR β‘ BIG 230V JOB = JACKERY That is no longer a pile of electrical gadgets. That is a proper energy strategy.
π₯ THE WEBASTO QUESTION This is the big one. Will the Fogstar make the Webasto better overnight? Electrically? Absolutely. Will it repair a faulty heater? No. If the Webasto has a mechanical problem, blocked burner, fuel issue or failed component, the battery will not perform miracles. But once the heater itself is healthy, lithium fixes one of the classic diesel-heater annoyances: π VOLTAGE SAG. A diesel heater does not simply draw one tiny constant current. At startup: π₯ glow pin π¬οΈ fan β½ pump β‘ electronics all wake up together. That creates a short, heavier electrical demand. An AGM can look fine at rest then sag hard under load. Lithium is much better at holding voltage steady. That means: π₯ Webasto starts βοΈ fridge starts π‘ lights stay bright π± USB stays happy π battery voltage remains much firmer And that could make overnight heating feel far more dependable.
π₯ 13 VOLTS IS THE NEW NORMAL This is going to take some getting used to. With AGM, voltage is a rough state-of-charge gauge. As the battery empties, voltage gradually falls. Lithium behaves differently. It holds a relatively flat voltage for a long time. So hours after leaving full charge, I may still see a voltage that would have made the AGM look almost freshly charged. Then nearer empty, the voltage falls much more sharply. Which means: β οΈ voltage alone is a rubbish fuel gauge for lithium. Fortunately Vanilla already has the answer: π Victron SmartShunt. And now I get another view: π± Fogstar Bluetooth BMS. So I will effectively have two live windows into the battery. One looking at everything flowing in and out. One looking inside the battery itself. This is going to be magnificent. I may never look out of the actual window again. ππ
π± TELEMETRY HEAVEN The Fogstar app should let me watch: π State of charge β‘ Voltage π Current βοΈ Charge/discharge status π‘οΈ Temperature π’ Remaining capacity π§ BMS information Meanwhile Victron shows: βοΈ solar watts β‘ solar amps π daily harvest π historical performance π SmartShunt SOC This means I can finally answer the questions I have been estimating for months. How much does the fridge really use overnight? How much does the Webasto genuinely use at 21Β°C? How much does lighting matter? How much does an hourβs driving replace? How much does a sunny morning recover? How much electricity does Vanilla actually need in 24 hours? That is gold. Because once I know the real numbers, I can stop guessing. And NIX loves numbers. πβ‘
π THE FIRST BIG NIGHT TEST This is the test I am really looking forward to. Vanilla parked off-grid. No EHU. π Fogstar charged βοΈ fridge running π₯ Webasto at 21Β°C π‘ normal lighting π± phone charging π‘ router running Then: 12 HOURS. No cheating. No turning the heater off at 02:00 because I am frightened of the battery voltage. No campsite cable. No external supply. Just Vanilla versus the night. Previously the AGM was always sitting there in the back of my mind: How low dare I go? Should I really leave the heater on? What happens at the next startup cycle? How much battery is really left? With lithium, the psychology changes. I can actually use the battery. That sounds obvious. But anyone who has lived with AGM knows exactly what I mean. Lead-acid makes you own a battery while constantly trying not to use too much of it. Lithium is there to work.
π₯βοΈ FRIDGE + WEBASTO + LIGHTS Letβs use some realistic illustrative numbers. Suppose over a 12-hour night: βοΈ fridge averages 15W = 180Wh π₯ Webasto averages 20W = 240Wh π‘ lights = 40Wh π± phones/devices = 40Wh βοΈ miscellaneous = 40Wh Total: β‘ around 500Wh. Against a 1,280Wh battery, that is only about 39%. Even if the actual night uses 650Wh: β‘ that is roughly 51%. That still leaves a serious reserve. Then morning arrives. βοΈ Solar wakes up. The battery starts receiving energy again. If the panel harvests 300Wh during the day, a 500Wh overnight deficit effectively becomes only a 200Wh net loss. Then I drive. π Orion joins in. Suddenly this is not really about: HOW LONG WILL MY BATTERY LAST? It becomes: CAN I REPLACE EACH DAY WHAT I USED THE NIGHT BEFORE? That is a much more interesting question.
β»οΈ ENERGY-NEUTRAL VANILLA This is the holy grail. The biggest battery is not necessarily the best system. The clever system is the one where production and consumption roughly balance. Imagine Vanilla uses: β‘ 600Wh per day but gains: βοΈ 350Wh solar π 250Wh from driving Total back in: β‘ 600Wh. The battery ends the day roughly where it started. At that point the Fogstar is no longer just a tank. It becomes a buffer. βοΈ Energy arrives. π Fogstar stores it. βοΈ fridge uses some. π₯ Webasto uses some. π night passes. βοΈ morning arrives. The cycle starts again. That is proper off-grid capability.
π€οΈ THE LOVELY SUMMER VERSION Imagine this: 07:00 π Fogstar 60% βοΈ sun comes up 08:00 π₯ Webasto shuts down βοΈ solar already producing 10:00 π set off β‘ Orion joins the solar 11:30 ποΈ arrive somewhere brilliant π battery substantially recovered 18:00 π³ Forge handles heavy cooking 20:00 π‘ lights on π΅ music playing π₯ heater if needed 23:00 βοΈ fridge cold π₯ van warm π battery healthy π no EHU That is the dream. And now the hardware to do it actually exists.
π§οΈ THE REAL BRITISH VERSION Of course then comes November. βοΈ grey π§οΈ rain βοΈ grey π§οΈ more rain π«οΈ mysterious dampness βοΈ one confused photon at 14:17 Suppose solar only gives me 100Wh. Suppose Vanilla uses 650Wh. Net loss: β‘ 550Wh. With around 1,100Wh of sensible lithium working capacity, I have roughly two days before I need meaningful replenishment. But then remember: π two hours driving can return hundreds of watt-hours β‘ Jackery handles heavy loads π EHU remains available when needed So the Fogstar does not have to power absolutely everything. It mainly has to run Vanillaβs native 12V systems. That is a much easier job.
β‘ JACKERY + FOGSTAR = VERY SMART COMBINATION Many people fit lithium because they want a huge inverter on the leisure battery. Induction. Microwave. Coffee machine. TV. Laptop. Everything. I do not need to. I already have Forge. β‘ Jackery 2000 v2 = heavyweight 230V work β‘ Kindle 1000 v2 = portable reserve π Fogstar = Vanillaβs 12V heart So: π³ induction hob? FORGE π₯ microwave? FORGE β‘ serious 230V load? FORGE βοΈ fridge? FOGSTAR π₯ Webasto? FOGSTAR π‘ lights? FOGSTAR π± USB? FOGSTAR That is beautifully sensible. Heavy loads stay away from the leisure battery. The Fogstar gets to concentrate on what it does best. It is almost like having: π an engine room plus β‘ an auxiliary power station. And that gives me huge flexibility.
βοΈ LESS WEIGHT, MORE POWER The Fogstar weighs around 10kg. A typical 110Ah AGM can easily weigh well over 20kg. So I am potentially losing somewhere around 10 to 20kg while gaining significantly more useful energy. That is brilliant campervan engineering. Less weight. More power. More usable capacity. Better charging. Better voltage. Normally upgrades make the van heavier. This one could actually do the opposite. And when Vanilla already carries: π² Torque π· cameras π drones βΊ awning πͺ chairs π§ water πΊ essentials and a box containing enough charging cables to rewire Birmingham, every kilogram matters. π
π§ COLD WEATHER READY The Fogstar also has integrated low-temperature heating. That matters because lithium does not like being charged while the cells are below freezing. The battery protects itself. If charging energy arrives while the battery is too cold, the heating system can warm the cells before normal charging resumes. That fits Vanilla perfectly. Imagine: π₯Ά freezing morning π battery beneath the seat βοΈ solar wakes or π engine starts Instead of blindly charging cold cells, the battery manages itself. For proper year-round campervan use, that matters enormously. Especially with Norway and Sweden lurking on the horizon. π³π΄πΈπͺ
π§ THE BMS IS THE BOUNCER Inside the Fogstar is the Battery Management System. Think of it as an electronic bouncer. Too much current? π« Not tonight. Too cold to charge? π« Wait outside. Voltage getting silly? π« Party over. Something wrong? π¨ Shut it down. It monitors the battery and protects the cells from conditions that could damage them. That is a major step up from old-school AGM. The battery is not just storing energy. It is watching itself.
π THE SARGENT EC155 QUESTION Vanilla still has the Sargent EC155. And I am happy with that. It handles: β‘ distribution π§ fusing ποΈ habitation circuits ποΈ control But its built-in charger is old-school compared with a modern lithium charger. So I am not relying on the EC155 to be the clever part of the lithium system. That job belongs mainly to: π΅ Victron SmartSolar π΅ Victron Orion π Fogstar BMS And, when needed, a proper lithium-compatible mains charging route. The important point is: GOOD LITHIUM INSTALLATION IS NOT: REMOVE AGM INSERT LITHIUM GO CAMPING It is: BATTERY + CHARGERS + SETTINGS + MONITORING. Everything needs to understand everything else.
βοΈ THE VICRON SOLAR JUST GOT MORE IMPORTANT The SmartSolar MPPT 75/15 is programmable. That means I can set it properly for LiFePOβ. No pretending the Fogstar is still AGM. No unsuitable lead-acid equalisation nonsense. Just sensible lithium charging. And then I can watch: βοΈ PV voltage β‘ PV current π daily yield π charge state π history The beauty is that I already installed the good infrastructure. Now the new battery gets to use it properly.
π THE ORION WAS FUTURE-PROOFING The same applies to the Orion. It may have looked like just another blue Victron box when it went in. Now it makes complete sense. Lithium batteries are capable of accepting high charge current. That needs managing properly. The Orion controls what comes from Vanilla's alternator. So: π alternator provides π΅ Orion regulates π Fogstar accepts Everybody knows their job. And at 30A, driving becomes meaningful charging. That is ideal for the way I travel. I move. I explore. I stop. I move again. So the power rhythm becomes: π DRIVE β‘ CHARGE ποΈ PARK βοΈ SOLAR π SLEEP π DISCHARGE βοΈ WAKE π DRIVE β‘ CHARGE That is exactly what I want from Vanilla.
π LONG LIFE Lithium is also built for repeated cycling. Thousands of cycles are normal territory for decent LiFePOβ. Even 3,500 full equivalent cycles would be more than nine years if somehow used every single day. And campervan use is rarely one full cycle every day. Some days: π use 20% Some: π use 40% Some: βοΈ solar replaces what I use Some: π EHU Some: π driving replenishes everything So realistically, this battery could be around for a very long time. That makes the economics much more interesting. Lithium used to be exotic. Now it is becoming the sensible choice.
π VOLTAGE SAG: THE UPGRADE YOU DO NOT SEE This may turn out to be one of the best parts. AGM: βοΈ fridge starts π voltage dips π₯ Webasto starts π voltage dips more π‘ lights possibly change π¬ battery monitor looks unhappy Lithium: βοΈ fridge starts π₯ Webasto starts π‘ lights stay bright π± USB carries on π voltage stays firm Nothing happens. And that is perfect. Boring electricity is good electricity. β‘π
π FROM BATTERY ANXIETY TO ENERGY CONFIDENCE This is perhaps the biggest change of all. With AGM I have spent ages thinking: How low is it? How far dare I go? Should I switch the heater off? Should I put it on EHU? Should I conserve? With lithium I can think differently: How much energy did I use? How much did solar replace? How much will driving replace? That is a much better way of looking at campervan power. Less anxiety. More engineering.
π OFF-GRID SHOULD NOT MEAN MISERY There is a strange idea that proper off-grid camping means: π‘ lights off π₯ heater off π± stop charging βοΈ worry about fridge π protect battery π―οΈ sit in darkness congratulating yourself on having 93% battery No thanks. π The whole point of the electrical system is to use it. I want: π₯ warm van βοΈ cold fridge πΊ colder beer π‘ lights π± charged phone π drone batteries ready π· cameras ready π΅ music π₯ cinema β coffee If I wanted the full 1847 experience I would buy a horse. The goal is not roughing it. The goal is making modern comfort sustainable. βοΈ harvest energy π harvest energy π store it π measure it β‘ use it intelligently
π₯ LITHIUM CAMPERVAN POWER Useful lithium and DC-DC charging explainer:
Another practical look at lithium and Victron charging:
βοΈ WHAT CAN 200W SOLAR REALLY DO? Fogstar: π 1,280Wh Panel: βοΈ 200W rated In perfect fantasy-land: 1,280Wh Γ· 200W = 6.4 hours. Reality is different, obviously. Cloud. Heat. Panel angle. Season. Losses. Britain. My actual observed peak has been around 136W. At 136W: β‘ 1,280Wh Γ· 136W = about 9.4 hours But the more useful example is this: If I use 500Wh overnight and average 100W solar the next day, that is around five good solar hours to put the same energy back. Now the 200W panel and 105Ah lithium battery start looking very well matched.
π³π΄ THIS IS WHY NORWAY GETS EVEN MORE EXCITING May 2027. Norway. Sweden. Long daylight. Cold nights. Regular driving. Remote stops. Photography. Drone flights. Big scenery. Lithium fits that type of travel beautifully. βοΈ long daylight gives solar time π travelling gives Orion time π₯ Webasto keeps Vanilla warm π Fogstar bridges the gaps π§ battery heating helps in low temperatures The best bit? If the system works properly, I should eventually stop thinking about it. Great engineering disappears into the background. I just use the van.
π THE NIX FOGSTAR TEST PROGRAMME Obviously I am not installing this and simply forgetting about it. That would be completely unlike me. π There will be data. Lots of data. Possibly deeply unnecessary quantities of data.
π TEST 1 // THE 12-HOUR NIGHT π full battery βοΈ fridge running π₯ Webasto at 21Β°C π‘ normal lighting π± charging Record: π starting SOC π ending SOC β‘ Wh consumed π‘οΈ temperature
ποΈ TEST 2 // 24 HOURS OFF-GRID Use Vanilla completely normally. No artificial energy saving. See what actually happens.
π§οΈ TEST 3 // THE GREY DAY Proper rubbish weather. How much does 200W solar genuinely produce? What is the real net loss?
π TEST 4 // DRIVING RECOVERY Start at a known SOC. Drive exactly one hour. Measure how much the Orion replaces.
βοΈ TEST 5 // SOLAR RECOVERY Start at a known SOC. Park in decent sun. Measure exactly how much percentage and Wh return.
π₯ TEST 6 // FULL VANILLA Fridge. Webasto. Lights. Router. Phone. USB. Normal life. No babying the battery. That will give me something far more valuable than manufacturer claims: VANILLA DATA. ππ
π SMARTSHUNT vs FOGSTAR This is going to be particularly interesting. Victron SmartShunt SOC versus Fogstar BMS SOC. Two independent views. One measuring the entire system. One measuring the battery from the inside. If they track closely: π brilliant If they drift: π investigate Either way, more information. For a data nerd this is basically Christmas morning with voltage graphs. πππ
π‘οΈ BUILT TO LIVE IN A VAN IP67 is reassuring too. Van interiors are not laboratories. They get: π§ condensation π‘οΈ temperature swings π«οΈ damp π§Ή dust π vibration π₯Ά cold βοΈ heat So a battery designed with proper environmental protection makes sense. Mine is under the seat, not tied to the deck of HMS Londonderry in a North Atlantic gale, but I still like knowing it is built to handle real-world conditions.
π© 100A DISCHARGE The Fogstar can supply up to 100A continuously. At around 12.8V that is roughly: β‘ 1,280W DC. That is miles beyond what Vanilla's normal 12V loads require. Which is good. It means huge headroom. But I do not need to abuse it. Forge already handles the heavyweight stuff. That means Fogstar gets an easy life. And electrical headroom is always welcome.
π WHY 105Ah IS ENOUGH Could I buy a bigger lithium battery? Of course. 230Ah. 300Ah. 460Ah. Enough lithium to power a small principality. But bigger is not automatically better. Vanilla already has: βοΈ 200W solar π 30A DC-DC β‘ Jackery reserves π EHU capability βοΈ efficient compressor fridge π₯ diesel heating π‘ LED lighting So I do not need a gigantic battery. I need a balanced system. 105Ah gives me: π about 1.28kWh βοΈ low weight π compact size β‘ high usable capacity βοΈ good solar match π fast driving recovery Sometimes elegant beats enormous.
π WHAT I ACTUALLY EXPECT TO GAIN This is the important bit. I expect: π MUCH MORE USABLE ENERGY Probably somewhere around 55 to 75% more comfortably usable capacity than the way I currently treat the AGM. π₯ MORE CONFIDENT WEBASTO USE Far less worry about startup voltage after hours of use. βοΈ FRIDGE CONFIDENCE Leave it running. That is literally what it is there for. βοΈ BETTER SOLAR UTILISATION Make better use of good sunlight when it arrives. π FASTER RECOVERY 30A Orion charging becomes properly useful. π§ BETTER WINTER PERFORMANCE Battery heating and low-temperature protection. π± PROPER MONITORING Real battery information on my phone. βοΈ LESS WEIGHT Potentially dropping a significant lump of AGM weight. π LONGER LIFE Thousands of cycles. π LESS BATTERY ANXIETY Perhaps the biggest upgrade of all. ποΈ MORE REAL OFF-GRID TIME Not theoretical time. Comfortable time.
πβ‘ THE NIX VERDICT This is not really: 110Ah AGM β 105Ah lithium. That makes it sound like I have gone backwards. What is actually happening is: πͺ« LIMITED USABLE CAPACITY β π DEEP USABLE CAPACITY π SAGGY VOLTAGE β β‘ STABLE VOLTAGE π SLOWER ACCEPTANCE β βοΈ FAST ENERGY CAPTURE βοΈ HEAVY BATTERY β π LIGHTER BATTERY β GUESSING β π TELEMETRY π¬ BATTERY ANXIETY β π ENERGY CONFIDENCE Vanilla's power flow now starts to look beautifully simple: βοΈ SUN β VICTRON MPPT β FOGSTAR π ENGINE β ORION 30A β FOGSTAR π FOGSTAR β FRIDGE π FOGSTAR β WEBASTO π FOGSTAR β LIGHTS π FOGSTAR β VANILLA π SMARTSHUNT β DATA β‘ JACKERY β BIG STUFF That is a proper little off-grid ecosystem.
π THE FIRST NIGHT One day soon Vanilla will be parked somewhere quiet. Maybe Cannock Chase. Maybe Scotland. Maybe Norway. Maybe a campervan field somewhere with absolutely no EHU. Outside: π dark sky π₯Ά cold air π² silence Inside: π₯ 21Β°C βοΈ cold fridge πΊ colder beer π‘ warm LEDs π΅ music π± phone charging No orange EHU cable. No campsite bollard. No staring nervously at 12.1V. Beneath the seat, around ten kilograms of lithium, copper, electronics and chemistry will quietly keep the whole van alive. Then morning comes. βοΈ sunlight hits the PV Logic panel π΅ Victron wakes up β‘ watts start flowing π Fogstar starts climbing π graph starts moving And yes, I will absolutely be watching it. Obviously. This is NIX Drones. We don't merely go camping. We collect telemetry from it. πππ
πβ‘ FOGSTAR DRIFT 105Ah WELCOME TO VANILLA. Your job is simple: π₯ keep the van warm βοΈ keep the fridge cold πΊ keep the beer colder β‘ keep everything alive Everything else is data.
πβοΈπβ‘π₯ NIX // ROAD POWERED BY SUNLIGHT CHARGED BY THE ROAD BUILT FOR SOMEWHERE ELSE



