Best Solar Generator for Home Backup and Camping (2026): Spec-Deep Picks for Grid-Down Readiness

I live off-grid in rural Oregon. My nearest neighbor is three miles down a dirt road, and the power company isn’t an option. I’ve tested, broken, repaired, and lived through more portable power setups than I can count — and that experience shapes everything I’m about to tell you.

The best solar generator is not the one with the biggest marketing budget. It’s the one that matches your actual load requirements, recharges fast enough to keep pace with your consumption, uses a battery chemistry you can trust in your environment, and doesn’t weigh so much that you leave it in the garage when you actually need it.

Whether you’re looking for a backup power station to carry you through a multi-day outage at home, or a lightweight camping companion for weekend adventures in the backcountry, the decision framework is the same: start with your loads, then find the hardware that covers them at a price tier you can justify.

This guide walks you through all of it — from the fundamental specs that actually matter, to how to think about home backup versus camping use cases, to where a DIY power system might outperform anything you can buy off the shelf.

---

TL;DR — Key Takeaways

• Capacity (Wh) is the single most important spec. Match it to your actual daily load, not a manufacturer’s marketing promise.
• LFP (lithium iron phosphate) battery chemistry is preferred for home backup and stationary use — safer, longer cycle life (2000–4000+ cycles vs 500–800 for NMC).
• Solar input wattage determines how fast you recharge. A unit with 1000Wh capacity but only 100W solar input takes 10+ hours of perfect sun to fill — not useful in a real emergency.
• Home backup sizing: 500–1000Wh covers light essentials; 2000Wh+ with expandable battery handles refrigeration and medical devices.
• Camping sizing: 300–500Wh is the sweet spot for most car campers; backpackers go smaller, overlanders go bigger.
• DIY systems (built from components) can dramatically outperform commercial all-in-one units in cost-per-watt-hour — but require more technical knowledge.

---

What Is a Solar Generator (and What Makes a Good One)?

The term “solar generator” is a marketing coinage — there’s no single device with that name. What the market actually sells is a portable power station (a battery pack with a built-in inverter, charge controller, and output ports) paired with one or more solar panels.

Together, those two pieces form what people call a portable solar generator: a system that stores energy harvested from sunlight and delivers it as AC, DC, or USB power on demand.

What a Solar Generator Is NOT

It’s not a gas generator. A gas generator creates electricity from combustion — loud, needs fuel, produces carbon monoxide, can’t run indoors. A solar generator stores electricity that panels have already converted from sunlight. The generator itself produces no emissions and makes no noise during operation.

This distinction matters for emergency planning. A gas generator can theoretically run indefinitely with enough fuel. A solar generator is rate-limited by sun availability and battery capacity — but it can recharge itself with zero ongoing cost, and you can run it in a bedroom during a winter storm without risk.

What Makes a Good Best Solar Generator?

From my years on the homestead, I look for six things:

1. Honest capacity — the usable watt-hours you actually get at real-world temperatures, not the peak rating at 77°F in a lab
2. Fast enough solar input — measured in watts; higher is better for emergency recharge scenarios
3. Output headroom — the AC inverter wattage needs to handle your highest-draw device, not just the average
4. Thermal management — batteries that overheat reduce lifespan and can become a fire risk
5. Repairability — can you replace a cell or a BMS board in the field, or is it a sealed brick?
6. Warranty and support — a 60-day no-questions refund window tells you more about manufacturer confidence than any spec sheet

When I’m evaluating any unit for home backup specifically, I also ask: does this thing have pass-through charging? That means the unit can power connected devices while simultaneously charging from solar — critical for keeping a refrigerator running during a long cloudy stretch when the battery is being maintained by intermittent sun.

See our complete portable power station guide for a deeper dive into how the internal components actually work.

---

Key Specs That Actually Matter for Solar Generators

Let me walk through each spec, what it means in practice, and what threshold you should be targeting for each use case.

Battery Capacity (Wh)

Watt-hours tell you how much energy the battery stores. A 1000Wh battery can theoretically deliver 100W for 10 hours, or 500W for 2 hours, before it’s depleted.

In practice, you lose 10–20% to conversion inefficiency, and most batteries shouldn’t be discharged below 20% (especially NMC chemistry) without accelerating degradation. So a rated 1000Wh unit might give you 650–750Wh of reliable usable capacity.

Rule of thumb for sizing: Add up the watt-hours your critical loads need per day. If your refrigerator draws 150W and runs about 8 hours out of 24 (accounting for compressor cycles), that’s 1200Wh per day from the fridge alone. Add phone charging (20Wh), lights (30Wh), and a CPAP machine (50–100Wh), and you’re at roughly 1400Wh/day for essentials. A 2000Wh unit gives you about 1.2–1.4 days of independence before needing to recharge.

Solar Input Rate (W)

This is how many watts of solar power the unit can accept simultaneously. A unit that accepts 400W of solar input can refill a 1000Wh battery in roughly 2.5–3 hours of peak sun (accounting for real-world panel efficiency losses, angle, and temperature).

A unit that only accepts 100W solar input takes 10+ hours for the same battery — nearly impossible to fill in a single day in winter latitudes.

For emergency home backup, I want at minimum a 1:2 ratio of solar input to battery capacity (200W input per 1000Wh capacity). A 1:1 ratio or better is ideal.

AC Inverter Output (W)

The inverter converts stored DC battery power to AC that runs standard household appliances. Pay attention to both:

• Continuous wattage: what it can sustain indefinitely (e.g., 1000W)
• Peak/surge wattage: what it can deliver briefly to start motors (e.g., 2000W surge for a fridge compressor startup)

A refrigerator compressor may need 3–5x its running wattage to start. If your inverter can’t handle that surge, the fridge won’t start even if the battery has plenty of capacity.

Battery Chemistry: LFP vs. NMC

This is the spec most buyers skip, and it’s arguably the most important for long-term value.

Chemistry	Full Name	Cycle Life	Thermal Safety	Energy Density	Best For
LFP	Lithium Iron Phosphate	2000–4000+ cycles	Excellent (no thermal runaway risk)	Lower (heavier per Wh)	Home backup, stationary use
NMC	Nickel Manganese Cobalt	500–800 cycles	Good (higher runaway risk than LFP)	Higher (lighter per Wh)	Camping, weight-sensitive use

For home backup, I recommend LFP without reservation. The 2000-cycle minimum means 5+ years of daily use before reaching 80% capacity — and in a backup role where it’s not cycled daily, LFP units can last 15–20 years. For backpacking where every gram counts, NMC’s weight advantage becomes relevant.

Weight and Portability

There’s a practical ceiling here. A flagship home backup unit might weigh 70–100 lbs — technically portable, but not something you grab and carry to the campsite. The sweet spot for genuine portability is under 30 lbs for car camping, under 10 lbs for backpacking.

Expandability

Some units allow you to connect additional battery modules, effectively doubling or tripling capacity without replacing the main unit. For home backup, this future-proofing matters: you can start with a modest investment and expand as budget allows.

Spec Summary Table

Spec	Entry Tier (~$300–500)	Mid Tier (~$500–1500)	Flagship (>$1500)
Capacity	200–500Wh	500–2000Wh	2000Wh+
Solar Input	50–150W	150–400W	400–1000W+
AC Inverter	300–500W	500–1500W	2000–3000W+
Battery Chemistry	NMC typical	Mixed (NMC or LFP)	LFP preferred
Weight	5–15 lbs	15–40 lbs	50–100 lbs
Expandable Battery	Rarely	Sometimes	Common
Pass-Through Charging	Sometimes	Usually	Yes

---

Best Solar Generator for Home Backup — What to Look For

Home backup is a demanding use case. You’re not powering a phone and a lantern — you’re trying to run a refrigerator, keep lights on, charge medical devices, and maybe power a router and some fans. That load profile requires serious specs.

Minimum Viable Home Backup Setup

For a typical American household running only essentials during a grid outage:

• Refrigerator: 100–200W running draw, 3x surge at startup
• LED lighting (4–6 bulbs): 30–60W
• Phone charging (2–3 devices): 30–60W
• Internet router/modem: 15–30W
• CPAP machine (if relevant): 50–120W
• Small medical devices: varies

A realistic essential-load total runs 400–700W continuous, with spikes higher when the fridge cycles on. Daily consumption for this profile is roughly 1200–1800Wh.

That means:

• 2000Wh+ capacity for 1+ day of independence without sun
• 400W+ solar input to recharge meaningfully within a single day
• LFP chemistry for safety and cycle life
• 2000W+ AC inverter to handle refrigerator surge
• Pass-through charging to run appliances while solar is coming in
• Expandable battery if you want multi-day autonomy

Tiers for Home Backup

The market segments cleanly into three tiers. I’m not naming specific brands or quoting specific prices — those change quarterly and fabricated specs do you no favors. Instead, here’s how to think about each tier:

Entry tier (~$300–500): These units typically max out at 300–500Wh capacity with 100–150W solar input. They’re fine for phone charging, a CPAP for one night, and basic lighting. They are not sufficient for home backup if your goal is keeping a full-size refrigerator running. Think of them as power banks with solar capability — useful additions to your kit, not primary backup systems.

Mid tier (~$500–1500): This is where genuine home backup capability begins. Units in this range typically offer 500–2000Wh capacity, 200–400W solar input, and inverters capable of 1000–1500W continuous output. The best units in this tier use LFP chemistry and support expandable batteries. A 1500Wh LFP unit with 400W solar input can comfortably cover most essential loads for 24 hours and recharge substantially within a good solar day.

Flagship tier (>$1500): These are home backup systems in a portable form factor. Capacities of 2000Wh+ with expandable battery modules reaching 6000–10000Wh total, solar inputs of 600–1000W, and inverters with 2000–3000W continuous output. LFP chemistry standard. At this tier, you’re approaching partial whole-home backup capability — running a full-size refrigerator, freezer, lights, router, and essential electronics simultaneously, for multiple days.

Home Backup Comparison Table

Tier	Capacity	Solar Input	Inverter	Best For
Entry	300–500Wh	100–150W	300–500W	Phone/laptop charging, basic lighting, overnight CPAP
Mid	500–2000Wh	200–400W	1000–1500W	Essential loads (fridge, lights, medical) for 1–2 days
Flagship	2000Wh+ (expandable)	400–1000W	2000–3000W	Partial whole-home backup, multi-day coverage

LFP Is Non-Negotiable for Home Backup

I want to say this plainly: for home backup where the unit lives in your house, garage, or living room — buy LFP. The thermal safety advantage alone justifies the weight penalty. NMC batteries can and do experience thermal runaway under stress conditions (deep discharge, overcharge, physical damage). LFP chemistry is substantially more stable. When I’m sleeping twenty feet away from a battery bank, I want LFP.

For our grid-down preparation guide, we go deep on how to prepare a whole-house plan that integrates a portable backup system with grid-down protocols.

---

Best Portable Power Station for Camping

Camping is a completely different optimization problem than home backup. Weight and packability dominate the decision. You’re not running a refrigerator — you’re charging phones, running a camp light, maybe powering a fan or a car fridge if you’re overlanding. And you can almost certainly tolerate a dead device for a few hours in a way you couldn’t tolerate a dead CPAP machine.

Camping Load Profile

A typical weekend camping trip involves:

• Smartphones (2–3): 30–60Wh total per charge cycle, charged once or twice per day
• Headlamps/lanterns: 10–30Wh per day
• Laptop: 50–100Wh per charge
• Camera/drone batteries: 30–80Wh depending on device
• Small 12V fan: 20–60Wh per night
• Car refrigerator (overlanding): 400–600Wh per day

Without a car fridge, a typical camping load is 150–350Wh per day. With a car fridge, you jump to 600–1000Wh per day.

What a Portable Power Station for Camping Needs

The priorities shift compared to home backup:

1. Weight — under 30 lbs for car camping; under 10 lbs for backpacking
2. USB-C Power Delivery — modern electronics charge faster with proper PD support
3. 12V output — car fridge, cooler, and vehicle-style accessories
4. Car charging input — recharge while driving between sites
5. Moderate capacity — 300–700Wh handles most camping without adding prohibitive weight
6. Splash resistance — not a waterproof requirement, but basic environmental tolerance

Solar panel integration is valuable for multi-day trips but less critical for weekend camping where you can car-charge on the drive home.

Camping Tier Comparison

Use Case	Capacity	Weight Target	Key Ports	Solar Needed?
Ultralight backpacking	50–150Wh	<3 lbs	USB-A, USB-C PD	Optional
Weekend car camping	300–500Wh	<15 lbs	USB-C PD, 12V, AC	Nice to have
Extended car camping	500–1000Wh	<30 lbs	USB-C PD, 12V, AC, multiple ports	Recommended
Overlanding	1000–2000Wh	Weight less critical	12V priority, high-draw AC	Essential

Car Charging: The Underrated Feature

One feature that overlanders and car campers consistently undervalue is car charging input. Most portable power stations can recharge from a 12V car outlet, but the input rate varies enormously — from 60W (essentially useless for anything over 200Wh) to 300W or more on premium units. Higher car-charge input means you can meaningfully top up a 500Wh unit on a 2-hour drive between campsites.

If you drive to your camping locations, treat car charging input as a serious spec, not an afterthought.

---

Best Portable Solar Generator — Panel Integration Considerations

When people search for a portable solar generator, they typically want the complete system: station plus panels. The panel choice matters as much as the battery, and this is where I see buyers make expensive mistakes.

Panel Types

Monocrystalline rigid panels are the most efficient per square foot (18–23% efficiency) and the most durable. They’re the right choice for stationary home backup applications or overlanding rigs where you mount them on a vehicle roof.

Monocrystalline foldable/portable panels sacrifice some efficiency (15–22%) for packability. These are the panels that ship with most all-in-one solar generator kits and are the practical choice for camping. Quality varies enormously — cheap foldable panels may show 200W on the label but deliver 120W in real conditions.

Bifacial panels collect light from both sides and outperform in high-albedo environments (snow, desert sand, white rooftops). Niche advantage, not necessary for general use.

Panel Sizing for Your Generator

The relationship between panel wattage and battery capacity is the most important system-level decision:

• Under-paneled: you don’t generate enough to offset your consumption; battery slowly depletes over days
• Over-paneled: your station’s charge controller limits input anyway; extra panels add cost and weight without benefit
• Properly sized: your daily solar generation approximates your daily consumption, giving you indefinite autonomy in good sun

A practical formula: multiply your battery’s rated capacity (Wh) by 1.25 to account for inefficiency, then divide by your expected peak sun hours per day in your location. That gives you the panel wattage you need to fully recharge in one day.

Example: 1000Wh battery × 1.25 = 1250Wh needed from panels. At 5 peak sun hours per day: 1250 ÷ 5 = 250W of panels for one-day recharge.

The MPPT vs. PWM Charge Controller Question

Built-in charge controllers regulate how panel power flows into the battery. MPPT (Maximum Power Point Tracking) controllers extract 10–30% more energy from your panels than PWM (Pulse Width Modulation) controllers under real-world conditions. Most mid-tier and flagship units now use MPPT. If you’re evaluating a budget unit, confirm it’s using MPPT — this spec alone can be the difference between a system that works and one that frustrates.

Daisy-Chaining Panels

Some portable solar generators support connecting multiple panel sets in series or parallel to increase total solar input. This is valuable when you need fast recharge capability but don’t want to pay for a flagship unit’s built-in high-input spec. Confirm your unit’s maximum panel input voltage and current before purchasing additional panels — exceeding those limits can damage the charge controller permanently.

For a complete system-level discussion, our off-grid power complete guide covers how to design a panel array from scratch.

---

Portable Power Station for Camping — Real-World Usage Scenarios

Let me walk through a few concrete scenarios I’ve personally encountered or guided people through.

Scenario 1: Three-Day Backcountry Car Camping Trip

Loads: Two smartphones, one mirrorless camera, a small LED lantern, a Bluetooth speaker. Estimated daily consumption: 120–180Wh

What works: A 300–400Wh unit handles this with solar top-up optional. Even without a solar panel, a 400Wh station covers three days of this load at the upper end. Add a 60–100W foldable panel and you’ve got indefinite autonomy.

What’s overkill: A 1500Wh flagship unit — the capacity and weight aren’t justified. You’d be lugging 35+ lbs for a load that a 12-lb mid-range unit handles.

Scenario 2: Weekend Glamping at a Festival

Loads: Fan overnight (8 hours at 40W = 320Wh), phone charging (60Wh), electric blanket (150W for 6 hours = 900Wh), laptop (80Wh). Estimated daily consumption: 1200–1400Wh

What works: A mid-tier 1500Wh unit handles this with room to spare over two nights if you solar-charge during the day. The electric blanket is the load that pushes this into mid-tier territory — without it, a smaller unit would work.

Key watch: Confirm the inverter can handle the electric blanket’s rated wattage continuously, not just for a few seconds at surge.

Scenario 3: Overlanding — Seven-Day Desert Route

Loads: 12V compressor fridge running continuously (average 40W = 960Wh/day), phone and device charging (100Wh/day), drone battery charging (150Wh/day), lighting (30Wh/day). Estimated daily consumption: 1200–1400Wh

What works: A 2000Wh+ unit with 400–600W of solar panels mounted on the vehicle or deployable on-site. The math works: 5 peak sun hours × 500W panels = 2500Wh generation — more than enough to cover 1400Wh/day consumption with a buffer.

Critical spec: In a desert environment, battery thermal management becomes critical. High ambient temperatures stress batteries — look for units with active thermal management (fan cooling) and check the manufacturer’s operating temperature ceiling.

Scenario 4: Power Grid Down — Winter Storm Outage

Loads: Full-size refrigerator (average 120W = 1440Wh/day accounting for compressor cycles), lighting (60Wh/day), phone charging (60Wh/day), CPAP machine (80Wh/night), router (30Wh/day). Estimated daily consumption: 1670Wh

This is the scenario where a portable power station for camping starts to show its limits. A 1000Wh camping-class unit handles 14 hours of this load — you’d need to solar-charge during the day aggressively. A proper home backup unit (2000Wh+ with 400W+ solar input) handles it with autonomy to spare.

During a winter storm, solar panel performance also degrades due to low sun angle and possible cloud cover. Plan for 2–3 effective peak sun hours per day instead of 4–5. That changes the math: 2.5 hours × 400W panels = 1000Wh generation vs. 1670Wh consumption — a net deficit of 670Wh/day. Without expandable battery capacity, you’re drawing down the battery daily and will be depleted in 3–4 days. This is exactly why expandable battery capacity matters for home backup scenarios.

---

DIY Alternative — Building Your Own Power System

There’s a category of solution that doesn’t appear in any “best solar generator” listicle, because it doesn’t have a brand name or a slick product page: building your own power system from components.

I’ve done this on my homestead. My primary system is not a commercial portable power station — it’s a bank of LFP cells, a quality MPPT charge controller, a proper inverter/charger, and a panel array. The total capacity is 15kWh. The total panel input is 3kW. I built it over two years, component by component, as budget allowed.

The advantages:

• Cost per watt-hour is dramatically lower than commercial all-in-one units — often 40–60% cheaper at equivalent capacity
• Repairability — every component is replaceable independently; there’s no proprietary sealed unit to throw away when one part fails
• Scalability — I add a battery module or a panel string as budget allows, without buying a whole new unit
• Performance ceiling is much higher — commercial portable stations are limited by their compact form factor; a purpose-built system isn’t

The disadvantages:

• Knowledge requirement — you need to understand basic DC electrical concepts, wire sizing, fusing, and battery management
• Time investment — sourcing, planning, and building takes effort
• No integrated warranty — you’re responsible for your own system

For people who want the technical guidance without the trial and error, a structured DIY guide can compress years of learning into a workable plan. The Power Grid Generator guide is one such resource — it walks through building a backup power system from components, and it’s backed by a 60-day money-back guarantee if it doesn’t deliver what you need.

For a head-to-head comparison of DIY power guides, see our DIY power guides compared article, which breaks down the approach and audience for each resource.

---

What I Use on My Homestead

I’m going to give you a straight picture of my actual setup, because I think concrete examples are more useful than generalizations.

My daily-driver backup system is a DIY LFP bank — 15kWh total, 3kW solar input, 5kW inverter/charger. It’s wired into my house panel with a manual transfer switch. That’s the primary system, and it cost me roughly 40% of what an equivalent commercial system would have run.

But I also keep two commercial portable power stations for different reasons:

A mid-tier unit (~1500Wh, LFP) lives in my living room. It’s my “grab and go” backup for the backup — if my main system ever needs servicing, this covers essentials. I also use it at farmers markets and craft fairs where I need to power a payment terminal, a tablet, and a small refrigerator for product samples.

A small camping unit (~400Wh, NMC) lives in my truck. It’s what I take on overnight field trips to survey land, check on remote water catchment systems, and run workshops. It’s light enough to carry comfortably and has enough capacity for three days of my personal device load.

The commercial units serve specific use cases. My DIY system handles the heavy lifting. That combination — a DIY backbone supplemented by commercial portables for mobility — is what I’d recommend to any serious preparedness-minded homeowner.

For a complete breakdown of how to design the backbone system, our off-grid power system guide is the starting point, and our best off-grid solar systems article covers the panel-array side in depth.

---

Buying Checklist — Before You Commit

Use this before pulling the trigger on any solar generator:

• Have I calculated my actual daily watt-hours for the use case (home backup or camping)?
• Does the unit’s capacity cover at least 1–2 days of that load without solar?
• Is the solar input rate high enough to recharge within 1 peak-sun day?
• Does the AC inverter handle my highest-draw device plus surge?
• Is the battery chemistry LFP (home backup) or at minimum documented (camping)?
• Have I confirmed pass-through charging support (home backup)?
• Does the weight fit the use case (camping vs. stationary)?
• Does the manufacturer offer at least a 1-year warranty?
• Have I read actual user reviews, not just spec-sheet summaries, for real-world performance data?
• Have I considered whether expandable battery support matters for future capacity growth?

If you can check every box, you’ve done your homework. If not, identify the gaps before purchasing.

For more on the full landscape of what to stock and plan for before the grid goes down, our grid-down preparation guide covers the water, food, and communication layers that your power backup integrates with.

Also worth reading: our Power Grid Generator review for a deep look at the guide’s content, approach, and who it’s best suited for.

---

FAQ

What is the best solar generator for home backup?

The best solar generator for home backup depends on your power needs. For running essentials — lights, phone charging, small appliances — a 500–1000Wh unit with 200–400W solar input is a reasonable starting point. For whole-home partial backup, you’ll want 2000Wh+ with expandable battery capability. LFP battery chemistry is preferred for home use due to its longer cycle life (2000–4000+ charge cycles) and superior thermal safety compared to NMC alternatives.

Don’t size for your average load — size for your peak load, and build in at least 20–30% buffer for efficiency losses and degraded performance in cold weather.

What is the best portable power station for camping?

For camping, the best portable power station balances weight, capacity, and recharge flexibility. A 300–500Wh unit covering USB-C Power Delivery, 12V output, and basic AC handles most camping needs without exceeding a comfortable carry weight. Units with car charging capability are particularly valuable for overlanding, where you drive between sites and can top up from the vehicle’s alternator.

If you run a compressor fridge, your capacity requirement jumps significantly — plan for 1000Wh+ and prioritize solar input accordingly.

What is a portable solar generator?

A portable solar generator is the combination of a portable power station (battery with built-in inverter, charge controller, and ports) paired with one or more solar panels. The panels harvest energy from sunlight; the power station stores it and delivers it as AC, DC, or USB power on demand. Unlike gas generators, portable solar generators are silent, produce no emissions, and can recharge indefinitely without fuel costs — they’re rate-limited only by sun availability and battery capacity.

How do I size a solar generator for home backup?

Start by listing your critical loads and their wattage. Estimate daily watt-hours by multiplying each load’s wattage by the hours per day it runs. Sum those figures to get your daily load. Your generator’s usable capacity (typically 70–80% of rated capacity) should cover at least 1–2 days of that daily load without solar input. Your solar panel wattage should be sufficient to recharge that capacity within one peak-sun day at your location. For whole-home sizing or medical equipment dependencies, a licensed electrician’s assessment is worthwhile.

Are solar generators worth it for grid-down emergencies?

Yes — for short to medium outages (1–7 days), a properly sized solar generator can keep essentials running indefinitely. The key word is “properly sized.” An undersized unit covers phone charging but not the refrigerator; an oversized unit costs more than your preparedness budget can justify. For extended grid-down scenarios, larger capacity combined with expandable battery modules, high solar input, and good panel positioning (unshaded, south-facing, optimal tilt) becomes critical. Solar generators are not whole-home replacement power — they’re essential-load systems, and treated as such, they’re one of the highest-value preparedness investments available.

---

Informational only. This article is for general informational purposes and is not professional, legal, medical, electrical, or financial advice. Survival, energy, and water-treatment decisions carry real risks — consult a licensed professional for your specific situation. Product claims are the manufacturer’s; verify current details on the official site.

By Megan Forsythe — off-grid homesteader & CERT-certified emergency preparedness instructor.