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There’s something magical about watching the sunset from your paddleboard, knowing you’ve got everything you need for a night under the stars. But when darkness sweeps across the water, your adventure’s success hinges on one critical piece of gear: a reliable floating lantern. Unlike traditional camping lights, paddle-board overnight trips demand specialized illumination that can survive accidental dunking, provide 360-degree visibility to other watercraft, and conserve precious board space. As SUP camping gains momentum among outdoor enthusiasts heading into 2026, understanding what separates a subpar glow-stick from a true marine-grade beacon isn’t just helpful—it’s essential for safety, comfort, and environmental responsibility.
Whether you’re planning a serene solo expedition on alpine lakes or a multi-day coastal journey, the right floating lantern becomes your floating campfire, navigation aid, and emergency signal all in one. But with evolving LED technology, battery innovations, and increasingly sophisticated buoyancy engineering, navigating the market can feel overwhelming. This comprehensive guide cuts through the marketing fluff to equip you with expert-level knowledge about waterproof ratings, lumen requirements, attachment strategies, and maintenance protocols that will keep your nights on the water brilliantly illuminated without weighing down your board.
Top 10 Floating Camping Lanterns
Detailed Product Reviews
Why Floating Lanterns Are Essential for Paddle-Board Overnight Trips
The Unique Challenges of Water-Based Adventures
Paddle-board camping exists in a unique niche between traditional backpacking and kayak touring, where every piece of gear must earn its place through versatility and water-resilience. Unlike car camping where a dropped lantern means a dusty retrieval, on-water mishaps result in immediate submersion. The dynamic nature of SUPs—constantly rocking with wind, waves, and your own movement—means your lighting equipment faces persistent moisture exposure, splash impacts, and genuine drowning risks. A floating lantern isn’t merely waterproof; it’s engineered with buoyant materials, sealed compartments, and balanced weight distribution that keeps it riding high and visible even in choppy conditions. This design philosophy accounts for the reality that on a 10-foot board, there’s no “away” from the water—only degrees of proximity to it.
Safety and Visibility on Open Water
Coast Guard regulations require vessels to display navigation lights after sunset, and while your paddleboard might seem exempt, responsible paddlers treat visibility as non-negotiable. A floating lantern positioned on your board’s deck becomes a critical safety marker that alerts motorboats, fishing vessels, and other paddlers to your presence from distances up to two nautical miles. Beyond collision avoidance, these lanterns serve as emergency position indicators if you become separated from your board—a scenario where a sinking light would be worse than useless. Modern floating lanterns incorporate high-visibility housings in neon yellows, oranges, or reflective surfaces that create distinct silhouettes against dark water, making them recoverable even in low-light emergencies.
Decoding Waterproof Ratings and Buoyancy
Understanding IPX Ratings for Marine Use
The Ingress Protection (IP) code system reveals far more than marketing terms like “waterproof” ever could. For paddle-board camping, IPX7 represents the absolute minimum threshold, guaranteeing submersion protection up to 1 meter for 30 minutes. However, true marine-grade performance starts at IPX8, where manufacturers specify depth and duration—look for ratings like “IPX8 (10m for 4 hours)” for serious expedition use. The often-overlooked first digit (the “6” in IP67) indicates dust and particle protection, crucial for beach landings where sand can compromise seals. Some 2026 models now feature IP69K ratings, originally developed for high-pressure washdowns in food processing, which translates to exceptional resistance against wave impacts and driving rain. Always verify testing was conducted with the USB ports open if the lantern features charging ports; otherwise, that IP rating applies only to sealed conditions.
The Science of Buoyancy in Lantern Design
True floating capability requires more than lightweight plastic—it demands intentional engineering. Manufacturers achieve buoyancy through closed-cell foam inserts in the base, hollow chambers that trap air, and materials with density lower than water (roughly 1 g/cm³). The lantern’s center of gravity must sit low enough to prevent capsizing in waves but high enough to keep the light source elevated. Premium designs incorporate self-righting technology, where weighted bases automatically orient the lantern light-upward, ensuring continuous illumination even after tumbling in surf. This becomes critical when you’re navigating a midnight shore break; a lantern that floats but rides sideways is just a glowing hazard. Test data should specify flotation angle and freeboard (how much of the lantern sits above waterline) under loaded conditions with batteries installed.
Testing Standards for Floating Performance
Reputable manufacturers subject floating lanterns to dynamic water testing beyond static pool tests. This includes wave tank simulations with 1-2 foot chop, saltwater immersion cycles to check for buoyancy degradation as materials absorb water, and drop tests from paddleboard height (typically 3-4 feet) directly into water to verify seal integrity on impact. The ANSI/NEMA FL-1 standard, while focused on flashlight performance, increasingly influences lantern testing protocols, particularly runtime and impact resistance measurements. For 2026, look for emerging certifications like the marine-specific ISO 12402-7 for buoyant aids, which some manufacturers are adopting voluntarily. These standards test not just initial flotation but sustained buoyancy after 24 hours of continuous submersion—mimicking real-world scenarios where retrieval might be delayed.
Brightness and Lighting Performance
Lumen Output: How Much Light Do You Really Need?
The lumen arms race has flooded the market with absurdly bright lanterns, but paddle-board camping demands nuance, not raw power. For general campsite tasks—cooking, gear organization, reading—150-250 lumens provides ample illumination without destroying night vision or creating harsh reflections off water. Navigation and hazard identification require 300-500 lumens, while emergency signaling benefits from 500+ lumen burst modes. The key metric isn’t maximum output but usable, adjustable brightness. A lantern blasting 1000 lumens on a glassy lake creates overwhelming glare that actually reduces visibility of distant hazards. Opt for models offering 5-7 discrete brightness levels rather than simple high/low toggles. This granularity lets you match output to task, preserving battery while maintaining appropriate visibility for conditions.
Beam Patterns: Flood vs. Spot for Paddle-Boarding
Lanterns traditionally provide 360-degree flood lighting, but paddle-board camping introduces unique beam requirements. A pure flood pattern illuminates your immediate deck but blinds you to distant shorelines and approaching vessels. Advanced 2026 designs incorporate hybrid optics: a primary omnidirectional diffuser for camp use, plus a secondary downward-facing spotlight that creates a pool of light on your board’s surface without casting glare forward. Some models feature adjustable reflectors that let you narrow the beam to 180 degrees for shoreline navigation while keeping the rear dark for stargazing. Consider how the lantern performs when hung from a tree versus sitting on your board; the best designs maintain consistent beam quality in both orientations, using prismatic diffusers that evenly distribute light regardless of position.
Light Modes and Dimming Capabilities
Beyond simple on/off, modern floating lanterns offer sophisticated mode programming that extends functionality. A true SOS mode (three short, three long, three short) operates at a regulated brightness that meets Coast Guard visibility standards without draining battery. Beacon modes—single flashes at 10-30 second intervals—can run for days, perfect for marking your board’s position while you sleep. Stepless dimming via press-and-hold buttons allows precise brightness adjustment, crucial for early morning launches when you need just enough light to secure gear without waking camp neighbors. The most advanced models include programmable timers that automatically dim after set intervals, preventing accidental battery drain if you fall asleep with the light on.
Power Management for Extended Trips
Battery Types: Rechargeable vs. Disposable
The rechargeable versus disposable debate intensifies for water-based adventures where power access is nonexistent. Lithium-ion rechargeable packs offer consistent voltage output, maintaining brightness until depletion—a critical advantage for navigation safety. However, cold water dramatically reduces lithium performance; at 40°F (4°C), expect 30-40% capacity loss. This makes removable, replaceable batteries appealing for multi-day trips. The hybrid approach dominates 2026 designs: internal rechargeable cells supplemented by a backup compartment for 3x AA lithium disposables. Lithium AAs (not alkalines) are mandatory for marine use—they’re lighter, leak-proof, and perform in freezing conditions. Avoid lanterns requiring proprietary battery packs; if that cell fails in the backcountry, you’re left dark. Standardized 18650 or 21700 cells offer replacement flexibility and can be swapped with many headlamp batteries.
Solar Charging Integration
Solar charging sounds ideal for sun-drenched paddling days, but implementation matters more than panel size. Flexible, integrated panels that wrap around the lantern’s body provide 360-degree light collection as the unit bobs in water, but their small surface area yields slow charging—typically 8-10 hours for a 10% boost. More effective are detachable panels with USB-C connections, allowing you to position them optimally on your board’s deck while keeping the lantern shaded. Look for maximum power point tracking (MPPT) charge controllers, which optimize solar input better than simpler pulse-width modulation (PWM) systems. Realistically, treat solar as supplemental trickle charging, not primary power. A 5W panel might extend runtime by 20-30% on clear days, but relying solely on solar for multi-night trips courts disaster when weather turns.
Power Bank Functionality for Devices
Many floating lanterns now double as power banks, but this feature demands scrutiny. Check the lantern’s discharge rate; a slow 1A output might maintain a phone’s charge but won’t power a GPS unit or recharge a headlamp efficiently. Pass-through charging—powering devices while the lantern itself charges—is invaluable for solar setups, letting you charge gear during sunny paddles while topping off the lantern. However, this generates heat, which compromises waterproof seals over time. Premium models isolate the battery compartment from charging electronics, preventing thermal stress on gaskets. Verify the lantern can operate its light while charging; some designs disable illumination when acting as a power bank, leaving you dark while juicing your phone. For safety, carry a dedicated power bank and treat lantern charging as emergency backup only.
Durability in Harsh Marine Environments
Impact Resistance for Accidental Drops
A floating lantern must survive not just water entry but the impact preceding it. Paddleboards sit 4-6 inches above water; a dropped lantern from waist height generates significant force upon hitting the board’s rigid surface before bouncing into the water. The ANSI FL-1 impact test specifies drops from 1 meter onto concrete, but marine use demands more. Look for lanterns tested from 2+ meters onto a hard surface, then immediately submerged to verify seal integrity. Construction features like rubberized armor, recessed lenses, and internal shock mounting for LED modules separate durable units from fragile toys. The lens material matters enormously: tempered glass resists scratching but shatters on impact; polycarbonate lenses scratch easier but flex and absorb shock. Some 2026 models feature replaceable lens covers, letting you swap a scratched diffuser without replacing the entire unit.
Material Selection: ABS Plastic vs. Polycarbonate
ABS plastic dominates budget lanterns for its low cost and decent impact resistance, but it becomes brittle in cold water and degrades under UV exposure. Polycarbonate, used in premium models, offers superior toughness and UV stability but adds weight. The sweet spot for paddle-boarding is a hybrid: polycarbonate lens and battery compartment with ABS body panels where flexibility aids impact absorption. Some manufacturers now use TPU (thermoplastic polyurethane) overmolding on critical corners, creating grippy, shock-absorbing zones that also provide thermal insulation for battery compartments. For saltwater use, verify materials are marked “UV-stabilized” and “saltwater-resistant”; standard plastics can develop microcracks within months of repeated saltwater exposure, compromising waterproof integrity.
Saltwater Corrosion Protection
Saltwater is relentlessly corrosive, attacking not just metal components but also plastic seals and electronic contacts. Marine-grade lanterns feature gold-plated USB contacts and stainless steel hardware (316 grade, not 304). Internal circuit boards receive conformal coating—a thin polymer film that repels moisture even if water breaches the housing. O-ring seals should use silicone or Viton, not standard nitrile rubber, which hardens and cracks with salt exposure. Perhaps most importantly, check for drainage channels in the battery compartment design; if water does intrude, these channels direct it away from sensitive electronics toward weep holes that safely expel moisture. Post-trip, a quick freshwater rinse extends lifespan dramatically, but design features that anticipate saltwater exposure separate expedition-ready gear from casual-use equipment.
Portability and Storage Solutions
Size and Weight Considerations for Board Space
Every cubic inch on a paddleboard is precious real estate. The ideal floating lantern balances brightness with compactness, typically measuring 4-6 inches tall and 3-4 inches diameter—small enough to nestle in a board’s bungee cargo area but large enough for stable flotation. Weight matters for both board trim and personal portage; sub-8-ounce lanterns are barely noticeable, while pound-plus units affect board balance and fatigue during long portages. Consider the lantern’s shape: cylindrical designs roll easily on a deck, while flattened or hexagonal bases resist movement. Some paddlers prefer multiple small lanterns (3-4 ounces each) over one large unit, distributing light sources and redundancy while allowing strategic placement around the board.
Attachment Points and Carabiner Compatibility
A floating lantern does no good floating away from your board. Integrated attachment points should be load-bearing, not decorative molded loops. Look for stainless steel D-rings or reinforced eyelets that can withstand snagging on branches or sudden gusts of wind. Carabiner compatibility means the attachment point accommodates a standard #2 size carabiner without binding; some designs recess the attachment point, preventing the carabiner from levering against the housing and cracking it. Magnetic attachment systems are emerging in 2026 models, using rare-earth magnets in the base to secure to steel-reinforced board mounts. While convenient, magnets collect metal debris and can interfere with compass readings. For true security, a hybrid approach works best: primary magnetic attachment with a secondary tether clipped to a solid D-ring.
Packability with Other Gear
How the lantern packs inside dry bags or board hatches matters as much as its on-deck performance. Models that collapse or feature folding handles reduce pack volume by 30-40%. Consider how the lantern interacts with other gear: does its handle snag on PFD straps? Does the base fit securely in standard cup holders or fishing rod holders found on many touring boards? Some designs feature flat sides that allow the lantern to sit flush against board rails or dry bag walls, maximizing pack efficiency. For inflatable board users, verify the lantern’s heat output won’t damage PVC if stored in a board’s cargo bungees while still warm; low-heat LED designs prevent material degradation.
Advanced Lighting Features
Color Temperature and Eye Strain
The difference between harsh, blue-tinted light and warm, amber illumination becomes starkly apparent during midnight anchor checks. Color temperature, measured in Kelvin (K), affects both visibility and eye strain. Cool white light (5000-6500K) renders colors accurately but causes pupil constriction and rapid eye fatigue. Warm white (2700-3000K) feels natural and reduces strain but can make depth perception tricky on dark water. The optimal range for paddle-board camping is neutral white (4000-4500K), balancing color accuracy with comfort. Some advanced lanterns offer adjustable color temperature, letting you shift from cool white for gear repair to warm amber for relaxed evening ambiance. This flexibility extends beyond comfort; insects are less attracted to warm light, reducing the swarm around your cooking area.
Red Light Mode for Night Vision Preservation
Red light (620-750nm wavelength) preserves natural night vision by not triggering pupil constriction, allowing you to read charts or adjust gear while maintaining the ability to see stars and distant shorelines. However, not all red modes are equal. A dedicated red LED provides pure, deep red light without white-light leakage. Cheaper designs use white LEDs with red filters, which waste energy and produce pinkish, ineffective illumination. For paddle-boarding, the red mode should be dimmable; even red light can overwhelm night vision at high brightness. The best implementations offer a separate red-only button, preventing accidental white-light activation that would destroy 20+ minutes of dark adaptation. Some lanterns include a “moonlight” mode—sub-lumen white light that’s even gentler than red for tasks like checking drift while anchored.
Emergency Signaling Capabilities
Beyond SOS modes, emergency signaling now includes strobe patterns optimized for marine rescue. The Coast Guard recognizes specific flash patterns: 1-second on/1-second off for position marking, rapid strobe for distress, and slow pulse for “all clear.” Premium lanterns allow custom programming via smartphone apps, letting you set a unique identifier strobe that searchers can distinguish from other lights. Some units integrate AIS (Automatic Identification System) compatibility, though this remains rare and expensive. More practical is a lantern with a visible range specification—how far the light can be seen on a clear night. For offshore paddling, aim for 2+ nautical miles visibility, which requires not just brightness but also lens clarity and above-water height when floating.
Environmental Considerations
Leave No Trace Principles for Lighting
Light pollution disrupts wildlife and diminishes the wilderness experience for others. Directional shields or “tent mode” settings that direct light downward reduce sky glow. Using the minimum necessary brightness aligns with LNT principles; a 50-lumen setting adequate for cooking is preferable to a 300-lumen blast that illuminates half the lake. Timers that auto-dim after 10 minutes prevent lights from burning all night in abandoned campsites. Some paddlers use multiple low-lumen lanterns instead of one bright unit, creating defined light zones that contain illumination. Always position lanterns to avoid direct line-of-sight with other campsites across water; even small lights carry surprising distance over reflective surfaces.
Eco-Friendly Materials and Manufacturing
Sustainable design increasingly influences purchasing decisions. Look for lanterns using recycled ocean plastics in their housings—several 2026 manufacturers partner with ocean cleanup initiatives. Biodegradable TPU overmolding and lead-free solder are becoming standard. Packaging matters too; minimal, plastic-free packaging indicates broader corporate environmental commitment. Some companies offer take-back programs for end-of-life batteries and electronics, preventing toxic materials from entering waterways. While these features don’t affect on-water performance, they align with the paddle-board community’s strong environmental ethos.
Light Pollution Reduction
Beyond campsite courtesy, reducing light pollution enhances your own experience. Many paddle-board campers seek bioluminescent waters or meteor showers—both obliterated by careless lighting. Lanterns with “astronomy mode” disable all indicator LEDs and reduce standby power draw to micro-amps, ensuring the unit doesn’t create unwanted glow. Warm color temperatures (under 3000K) minimize blue light that scatters in the atmosphere, preserving natural darkness. Consider using the lantern’s lowest setting combined with reflective guy-lines and gear markers; this creates a defined, safe camp perimeter without broadcasting light across the ecosystem.
Budget and Value Analysis
Entry-Level Price Range Features
Budget lanterns ($25-45) typically offer IPX7 ratings, 150-200 lumens, and ABS construction. They float but lack self-righting capability and use simple on/off switches without dimming. Battery life often suffers from poor regulation, with brightness dropping significantly as voltage declines. These work for occasional lake trips but fail under serious marine conditions. Expect 1-2 year lifespans with regular saltwater use. The value proposition depends on trip frequency; for one or two annual overnights, they suffice, but frequent paddlers will replace them often enough that mid-range options become more economical.
Mid-Range Investment Sweet Spot
The $50-85 range delivers the best value for serious enthusiasts. Here you’ll find IPX8 ratings, 250-400 lumens with excellent dimming, polycarbonate lenses, and hybrid rechargeable/disposable power. These lanterns include red modes, hanging hooks, and durable attachment points. Self-righting designs appear in this tier, along with regulated output that maintains brightness throughout battery life. Expect 3-5 year lifespans with proper care. This range often includes manufacturers’ first attempts at innovative features like solar assist or power bank functionality, though implementation may be less refined than premium models. For most paddle-board campers, this tier offers expedition-ready durability without professional-grade price tags.
Premium Professional Features
High-end lanterns ($90-150) justify their cost through exceptional engineering and materials. Full IPX9K ratings, 500+ lumen output with precise color rendering, titanium hardware, and advanced thermal management characterize this tier. These units feature programmable modes, integrated solar with MPPT controllers, and power bank outputs that rival dedicated battery packs. Weight optimization uses carbon fiber reinforcements and magnesium alloy components. Perhaps most importantly, premium manufacturers provide detailed spec sheets including beam patterns, impact test data, and buoyancy certifications. Warranties extend to lifetime coverage with proof of maintenance. For guides, instructors, or those embarking on remote expeditions, this tier offers reliability that can be literally life-saving.
Maintenance and Longevity
Post-Trip Cleaning Protocols
Saltwater residue is insidious, working into seals and corroding contacts even after the lantern is dry. The critical protocol: immediate freshwater rinse upon returning to shore, focusing on USB port covers and button crevices. Submerge the lantern (powered off) in a bucket of fresh water for 5 minutes, operating all buttons and opening ports underwater to flush salt from seals. Dry thoroughly with a microfiber cloth, then air-dry with ports open for 24 hours. Store with desiccant packets in the battery compartment to absorb residual moisture. Monthly, apply a tiny amount of silicone grease to O-rings using a toothpick—never petroleum jelly, which degrades rubber. Inspect lens seals for hairline cracks that allow fogging; replace seals annually if you paddle monthly.
Battery Storage Best Practices
Lithium-ion cells hate being stored fully charged or completely depleted. For seasonal storage (winter), discharge rechargeable lanterns to 40-50% capacity—most have indicator lights showing this range. Remove disposable batteries entirely to prevent leakage. Store in a cool, dry place; garages that freeze are better than hot attics, as cold merely slows self-discharge while heat accelerates degradation. Every 3 months during storage, top off rechargeable units to maintain that 40-50% sweet spot. For long-term expedition planning, “exercise” batteries monthly by running the lantern for 10 minutes; this prevents internal crystallization in lithium cells. Label batteries with purchase dates and cycle counts; most 18650 cells deliver 300-500 cycles before capacity drops below 80%.
Warranty and Manufacturer Support
A warranty reveals manufacturer confidence. One-year warranties are standard for electronics, but marine-specific gear should offer 2-3 years minimum. Read the fine print: many exclude water damage despite IP ratings, requiring proof of proper maintenance. Premium brands often provide pro-rated replacements after warranty expiration, essentially offering lifetime service at reduced cost. Check for US-based service centers; shipping a lantern to China for repair negates warranty value. Support quality matters as much as duration—manufacturers offering live chat with technical specialists, detailed repair manuals, and readily available O-ring replacement kits demonstrate commitment to long-term use. Some companies now provide “expedition insurance,” express shipping a replacement anywhere in the world if your lantern fails during a trip. This service, while expensive, reflects the true cost of reliability.
Frequently Asked Questions
How many lumens do I actually need for paddle-board camping?
For most situations, 200-300 lumens provides excellent coverage for campsite tasks and navigation. Reserve higher outputs for emergency signaling. The key is adjustable brightness—having 50-lumen and 500-lumen options in the same unit offers more versatility than a single 400-lumen setting.
Can I use a regular waterproof flashlight instead of a floating lantern?
While waterproof flashlights work for personal tasks, they lack the 360-degree visibility critical for marking your board’s position and illuminating your entire campsite. A floating lantern serves as a safety beacon for other watercraft, which a directional flashlight cannot. Use both: lantern for camp, headlamp for tasks.
What’s the difference between IPX7 and IPX8 for practical paddling use?
IPX7 handles brief submersion (1 meter for 30 minutes), adequate for accidental drops in calm water. IPX8 is rated for continuous submersion at manufacturer-specified depths, essential for surf landings, capsizes, or retrieving a lantern from the bottom. For coastal or moving water, IPX8 is strongly recommended.
How do I prevent my floating lantern from drifting away in current?
Always tether your lantern with a floating rope or coiled tether that stretches 6-8 feet. Attach the tether to a secure D-ring on your board, not a bungee. In strong current, use a small anchor bag (sand-filled dry bag) clipped to the lantern’s base to keep it stationary in the water column.
Are solar charging lanterns worth the extra cost for multi-day trips?
Solar charging works best as supplemental power, extending battery life by 20-30% on sunny days. For trips longer than 3 nights, a small dedicated solar panel charging a power bank is more efficient. Solar-integrated lanterns excel as emergency backup, not primary power strategy.
How long should batteries last in a floating lantern?
On medium settings (150-200 lumens), expect 8-12 hours from quality lithium-ion cells. High settings (400+ lumens) typically run 3-4 hours. Always carry backup batteries equal to 150% of your planned usage. Cold water reduces runtime by 30-40%, so factor that into calculations.
Can saltwater damage a lantern even if it’s waterproof?
Yes. Salt crystallizes in seals and crevices, eventually compromising waterproofing and corroding contacts. Always rinse with fresh water after saltwater use. Saltwater can also cause internal condensation if the lantern experiences temperature swings, fogging the lens from inside.
What’s the best way to store a floating lantern on my board?
Store it in an easily accessible location like a deck bungee or side rail mount, never inside a hatch where you can’t reach it quickly. Use a quick-release tether so you can grab it instantly for signaling or inspection. Keep it upright to prevent accidental activation of buttons.
Do I need multiple lanterns for a paddle-board overnight trip?
Redundancy is wise. Carry one primary lantern for camp and a smaller backup (keychain-sized) on your PFD for emergencies. Two medium lanterns often beat one large unit, allowing you to light both bow and stern for 360-degree visibility and providing backup if one fails.
How do I know if a lantern’s buoyancy will work in real conditions?
Check manufacturer specifications for “freeboard” (height above waterline) and “self-righting angle.” Reputable brands provide video demonstrations in wave tanks. User reviews mentioning performance in surf or wind chop are invaluable. Avoid lanterns where the battery compartment is the heaviest part; they’ll float vertically, submerging the light source.
See Also
- 10 Most Durable Waterproof Camping Lanterns After 6 Months of River Trips in 2026
- 10 Camping Lanterns with Fan Combo for Muggy Summer Trips in 2026
- 10 Must-Have Rechargeable Camping Lanterns That End Battery Panic on Week-Long Trips
- 10 Affordable Solar Camping Lanterns That Actually Work in Cloudy Weather in 2026
- 10 Vintage Kerosene Camping Lanterns for Collectors Who Love Antique Gear