#4675 Island Camping with Transportable Modular Huts
#4675 Island Camping with Transportable Modular Huts
#4675 Describe a lite-weight, portable, yet robust frame and tent structure for island camping
Island camping presents a unique set of structural challenges: sustained coastal winds, high UV exposure, abrasive sand, and salt spray exposure.
To balance portability with structural integrity, an ideal island shelter relies on an aerodynamic, geodesic-hybrid frame paired with marine-grade materials.
1. Frame Architecture: The Aerodynamic Core
Standard cross-pole dome tents flex excessively or collapse under variable sea breezes. An ideal island frame uses a semi-geodesic or hubbed exoskeleton design.
Frame Topology: A 3- or 4-pole intersecting semi-geodesic geometry. Intersecting poles distribute wind loads evenly across the structure, preventing sidewall collapse during sudden coastal gusts (30–40+ mph).
Pole Material: DAC Featherlite NFL or Pressfit Anodized Aluminum (7001 or 7075-T6 series). Aluminum offers high yield strength and flex memory without snapping under stress. Anodization is critical to prevent salt air corrosion.
Hub System: Integrated DAC architecture hubs create steep wall angles to maximize internal volume while keeping the overall peak height low enough to shed wind.
2. Canopy & Fly Fabrics: Salt, UV, and Wind Resilience
| Component | Recommended Material | Engineering Purpose |
| Rainfly Cover | 20D–30D Silnylon (Silicon-coated Nylon) or Dyneema (DCF) | High tear strength under sustained wind loads; silicon coating reflects UV and prevents fabric degradation from harsh ocean sun. |
| Tent Floor | 40D Ripstop Nylon with 5,000mm PU/Silicone coating | Abrasion resistance against sharp corals, sand friction, and ground moisture. |
| Mesh Body | Ultra-fine No-See-Um Mesh (15D–20D) | Keeps out tiny coastal midges ("no-see-ums") while maximizing cross-ventilation in humid tropical climates. |
3. High-Wind Anchorage & Sand Rigging System
The strongest frame is useless if the stakes pull out of loose sand. Island camping requires specialized deadman anchoring points:
Sand & Snow Pegs: Lightweight aluminum or titanium Y-stakes (at least 9–12 inches long) driven at a 45° angle.
Deadman Anchor Bags: Integrated fabric pouch guyout points that can be filled with wet sand or rocks and buried 12–18 inches deep in the beach surface.
Reflective Dyneema Guy-Lines: Low-stretch cordage with tension adjustments to maintain frame rigidity without absorbing sea mist moisture.
Pro Tip: Always set up your tent with the narrowest, lowest-profile end facing directly into the prevailing ocean wind direction to minimize drag.
I mean four (or more) walls with floor, possibly constructed from PVC pipe and canvas segments
Building a self-contained, modular four-walled canvas structure on a PVC skeleton for island use requires addressing three critical physical realities: structural rigidity under coastal wind, packable portability, and sand/water ingress at the floor.
Traditional wall tents rely on heavy timber or steel conduit. For an island transport workflow (where weight and salt resistance matter), a segmented PVC external/internal frame with modular canvas panels provides a solid balance of corrosion resistance and DIY repairability.
1. Frame Material & Engineering Mechanics
Standard thin-wall PVC (Schedule 20) flexes too much under wind load and breaks under high shear stress. To keep it light yet robust, optimize the material specifications:
Pipe Selection: Use 1.25" or 1.5" Schedule 40 Furniture-Grade PVC (or Thin-Wall Structural PVC). Standard plumbing PVC contains UV inhibitors that make it brittle under intense marine sun; furniture-grade PVC includes impact modifiers and high UV resistance.
Modular Segmenting: Cut frame members into uniform lengths (e.g., 36" to 48" segments) joined by push-pin detents or internal fiberglass sleeve couplers. This lets the entire frame break down into a compact bundle.
Fittings: Use 3-Way and 4-Way Structural PVC Elbows/Tees. Avoid standard plumbing fittings—structural fittings have longer sockets and no internal ridges, offering much higher mechanical joint strength.
Internal Stiffening: Slide 0.5" outer-diameter pultruded fiberglass rods or aluminum tubing inside the long span PVC roof ridges to add flexural rigidity without adding significant weight.
2. Canvas & Enclosure Segment Design
Heavy 12 oz cotton duck canvas becomes waterlogged, heavy, and susceptible to rot when exposed to salt spray. A lightweight modular panel strategy uses modern poly-canvas blends:
Wall & Roof Panels: 10 oz–12 oz Marine-Grade Polyester Canvas (e.g., Top Notch or Sunbrella-style weave) or 600D PU-coated Ripstop Polyester. These materials maintain the breathable, classic "wall tent" feel while remaining light, mold-resistant, and quick-drying.
Segment Connection (Modular Walls): Instead of a single heavy canvas shell, build 4 distinct wall panels and 1 roof cap:
Interlocking Edges: Connect wall segments to each other using #10 heavy-duty marine zippers flanked by 2" industrial velcro flaps to seal out sand and wind driven by ocean storms.
Attachment to Frame: Secure panels to the PVC frame using sewn-in heavy-duty sleeve channels or adjustable webbing straps with ladder locks along the perimeter.
3. Floor Integration: The "Bathtub" Liner
A traditional flat canvas floor invites ground moisture, insects, and fine windblown sand.
Heavy-Duty Vinyl (PVC Coated) Floor: Construct a 14 oz–18 oz PVC tarpaulin floor that extends 6 to 8 inches up the inner side walls (a true bathtub floor).
Frame-to-Floor Attachment: The bottom PVC base perimeter poles lay inside or thread through reinforced sleeves on the floor edges. The weight of occupants and gear holds the base frame firmly down against sand displacement.
Wall-to-Floor Seal: The canvas side walls overlap the outside of the bathtub floor rim by 4–6 inches, creating a shingle effect that sheds rain and blown sand outward.
4. Structural Wind Load Optimization
Unbraced rectangular PVC frames suffer from racking (skewing sideways under lateral force).
How about a modular, pre-assembled panels that can be transported and setup easily connected in-place?
A pre-assembled, modular panel approach shifts the design from a traditional tent to a flat-pack rigid/semi-rigid shelter. The key goal is creating individual wall, floor, and roof cassettes that fold or lay flat during boat/skiff transport and lock together rapidly on site without tools.
1. Panel Materials: High Stiffness, Low Weight
To make panels light enough for one or two people to haul from a landing craft or boat onto sand, avoid solid plywood or heavy metal sheeting.
Core Options:
Aluminium Composite Panels (ACM / Dibond): 3mm–4mm thick. Two thin aluminum sheets bonded to a polyethylene core. Extremely stiff, lightweight, 100% waterproof, and completely unaffected by salt spray or rot.
Polypropylene Honeycomb Sandwich (e.g., Plascore or Twinwall Polycarbonate): Offers insulation and extreme weight savings (under 1.5 lbs/sq ft) with structural strength.
Marine-Grade Fabric Frames: Light aluminum extrusion frames with pre-stretched, heavy-duty 1000D PVC or Marine Canvas skins riveted directly to the frame.
2. In-Field Quick-Connect Mechanism
Avoid loose nuts and bolts that can fall into sand and get lost. Use tool-less, integrated fasteners.
| Connection Type | Mechanism | Island Performance |
| Interlocking Drop-Pins / Clevis Pins | Stainless steel pins attached to panels with stainless wire lanyards. | Excellent. Sand won't jam large clearance pin holes. |
| Cam-Lock Latches | Recessed rotary cam locks or draw latches along panel edges. | Pulls adjacent panels tightly together, compressing rubber weather seals. |
| Heavy-Duty Marine Hinge Flaps | Pre-hinging walls so they unfold like an accordion ("book-fold" style). | Reduces loose parts to zero; setup takes under 5 minutes. |
3. Floor Cassettes & Weatherproofing Joints
An island panel shelter's weakest points are the joints where wind-driven rain and blown sand can penetrate.
Tongue-and-Groove Edge Profiles: Continuous EPDM rubber gaskets or bulb seals running along the mating edge of every panel.
Integrated Elevated Floor Cassette:
4′×4′ or 4′×8′ interlocking deck panels elevated 2–4 inches off the sand on adjustable leveling feet or sand pads.
Prevents high-tide seepage, running rainwater, or hot sand thermal transfer.
Overlapping Roof Cap: A single flexible or rigid cap that overlaps the top of the wall panels by at least 3 inches so water sheds outward.
4. Assembly Flow
Calculate the complete weight and packed footprint of an 8x8 foot modular ACM panel shelter for boat transport.
To calculate the total weight and transport dimensions (packed footprint) for an 8′ × 8′ modular Aluminum Composite Material (ACM / Dibond) shelter, we need to break down the assembly into individual panel modules sized for easy handling and boat loading.
An optimal breakdown uses 4′ × 4′ and 4′ × 8′ panel segments with 1" square 6063-T6 aluminum tubing edge framing. This keeps each individual panel manageable for a single person (under ~20–25 lbs per piece) while allowing the entire shelter to stack into a compact, flat-pack footprint that fits easily into a skiff, center console, or utility craft.
1. Panel & Component Inventory Breakdown
Floor (8′ × 8′ total): Four (4) 4′ × 4′ floor cassette panels.
Walls (8′ × 8′ footprint, 6.5′ height): Eight (8) 4′ × 6.5′ wall panels (2 panels per side, including door/window cutouts).
Roof (8′ × 8′ with 6" overhang = 9′ × 9′ total): Four (4) 4.5′ × 4.5′ overlapping roof panels pitched slightly for rain shedding.
Perimeter Framing: 1" × 1" × 0.0625" (1/16") wall-thickness 6063-T6 aluminum square tubing bonded/riveted to the ACM panel perimeters for structural stiffness and edge-latching hardware attachment.
2. Unit Weight Calculations
| Component Group | Dimensions / Qty | Unit Material Breakdown | Weight per Unit | Total Group Weight |
| Floor Cassettes | 4′ × 4′ (Qty 4) | • 4mm ACM sheet (1.15 lbs/sq ft) • 1" aluminum tube frame perimeter + cross-brace • EPDM perimeter seals & corner latches | ~26.5 lbs | 106.0 lbs |
| Wall Panels | 4′ × 6.5′ (Qty 8) | • 3mm ACM sheet (0.92 lbs/sq ft) • 1" aluminum tube frame perimeter • Stainless draw latches, hinges, weatherstripping | ~30.8 lbs | 246.4 lbs |
| Roof Panels | 4.5′ × 4.5′ (Qty 4) | • 3mm ACM sheet (0.92 lbs/sq ft) • 1" aluminum tube frame perimeter + diagonal brace • D-ring hardware & overlapping flashing lip | ~24.2 lbs | 96.8 lbs |
| Hardware & Anchors | System Kit (1 Lot) | • 8× Stainless Clevis Pins / Quick-release pins • 4× Corner Structural Angle Brackets • 4× Deadman Sand Anchor Bags & Heavy Dyneema Straps | ~18.0 lbs | 18.0 lbs |
| TOTAL SYSTEM WEIGHT | — | — | — | ~467.2 lbs |
3. Packed Footprint & Transport Volume (Flat-Pack Stacking)
For boat loading, all panels stack horizontally into a single compact crate or strap together into two manageable bundles:
Stack Dimensions (Single Bundle)
Length: 6.5 ft (78 in) — driven by the height of the wall panels.
Width: 4.5 ft (54 in) — driven by the size of the roof panels.
Stack Height:
Each panel has a perimeter frame profile height of 1.0 inch.
Total layer count = 4 floor + 8 walls + 4 roof = 16 panels total.
With gasket compression and latch hardware clearances (~1.25" per panel profile):
Total Stack Height: ~20 to 22 inches.
4. Transport Logistics & Boat Handling Recommendations
Split-Bundle Loading (Recommended for Small Boats):
Bundle A (Base & Roof): 4 Floor panels + 4 Roof panels + Hardware kit --> ~220.8 lbs (Stack height: ~10 inches).
Bundle B (Walls): 8 Wall panels --> ~246.4 lbs (Stack height: ~10 inches).
Benefit: Keeps individual stack weights around ~230 lbs, making loading and offloading across sand/surf by two people fast and safe.
Buoyancy & Salt Air Safety:
ACM panels with internal poly cores do not absorb water, keeping structural weight consistent even in high humidity or rain.
All structural tubing should be anodized 6063-T6 aluminum with 316 stainless steel rivets and hardware to prevent galvanic corrosion in marine salt spray.
Consider how individual units can be combined
Combining the 16 individual panel units (4 floor, 8 wall, 4 roof) into a rigid, weatherproof 8′ × 8′ shelter requires a joinery system that solves three challenges: alignment on uneven sand, compression weather-sealing, and tool-less speed.
By standardizing the panel edge profile, you can use a unified Tongue-and-Groove + Draw-Latch system across all joints.
1. Universal Edge Profile: The Structural Skeleton
Every panel shares an identical perimeter edge detail built from custom aluminum extrusion or stock 1" square tubing:
Mating Geometry: One side of a joint uses an open C-channel or receiving lip, while the opposing side features a matching interlocking tongue / flange.
Integrated Gaskets: A continuous EPDM bulb-seal runs inside the perimeter channel. When two panels meet and pull together, the rubber compresses by 30–40%, blocking wind-driven rain and fine beach sand.
2. In-Place Joinery Mechanisms (Tool-Less)
To eliminate small loose screws or bolts that can drop into sand, use permanently mounted stainless steel hardware:
A. Panel-to-Panel Joints (Wall-to-Wall & Roof-to-Roof)
Stainless Over-Center Draw Latches: Mounted to the inside rim of the aluminum frames. When the arm is flipped, it grabs the adjacent panel keeper and applies 150+ lbs of pull-down tension, locking the EPDM gaskets tight.
Alignment Pins: Bullet-nosed stainless steel alignment pins on one frame snap into receiving nylon bushings on the opposing frame. This automatically aligns adjacent panels before you throw the latch.
B. Corner Junctions (Where 2 Walls Meet at 90°)
Full-Height Hinge-or-Corner Extrusion: A specialized 90° corner channel or heavy-duty 316 stainless clevis pins. Wall panel A slides into the corner channel, wall panel B slides into the other side, and drop-pins lock them vertically in place.
C. Floor-to-Wall Interface
Coaming Lip (The "Tub" Effect): The 4 floor cassette panels lock together flat. Their outer perimeter features a 2" raised aluminum lip.
The wall panels sit over this lip on the outside. Gravity and draw-latches pull the walls down onto the floor perimeter, so any water running down the exterior walls sheds onto the sand rather than inside.
3. Step-by-Step Structural Lock-Up Flow
4. Combination Efficiency Summary
| Joint Type | Primary Fastener | Seal Type | Assembly Time |
| Floor-to-Floor | Recessed Draw Latches | EPDM Flat Gasket | 2 min |
| Wall-to-Wall (Flat) | Over-Center Draw Latches | EPDM Bulb Seal | 3 min |
| Wall-to-Wall (Corner) | Vertical Clevis / Drop-Pins | Corner Overlap Flange | 2 min |
| Wall-to-Roof | Tension Draw Latches | Overlapping Flashing Lip | 3 min |
| Total Assembly | Tool-Free | Fully Sealed Envelope | ~10 minutes (2 people) |
If this system were to be mass-produced, what customizations could be considered?
Mass-producing a modular panel shelter opens up significant engineering advantages through custom extrusions, injection molding, thermoforming, and standardized manufacturing workflows.
By moving away from bespoke fabrication to scalable production lines, customizations can be offered across four major dimensions: Functional Add-ons, Environmental Adaptations, Interior Upgrades, and Structural/Scale Expansions.
1. Architectural & Spatial Expansion Options
Because the base wall and floor modules rely on standard 4′ grid interfaces, mass production enables multi-unit configuration options:
Infinite Linear/Grid Expansion: Reconfigurable corner extrusions and "T-junction" wall connectors allow users to combine multiple 8′×8′ base units into larger layouts (e.g., an 8′×16′ two-room suite, or a 16′×16′ open shelter with central support columns).
Roof Profile Variants:
Standard Flat/Low-Pitch: Optimized for maximum interior volume and ease of flat-stacking.
High-Pitch Gable / V-Roof: Optimized for heavy rain runoff and integrating rain catchment gutters.
Vented Pop-Top: A raised secondary roof cap with integrated fine mesh for passive convection cooling in hot tropical environments.
2. Functional & Shell Material Variants
Using automated CNC panel routing and thermoforming, wall panels can be offered in specialized factory configurations:
| Factory Wall Customization | Manufacturing Method | Primary Use Case |
| Clear / Tinted Window Panels | Co-extruded UV-resistant polycarbonate or marine acrylic windows bonded into ACM cutouts. | Natural lighting, wind-shielded ocean viewing. |
| Integrated Utility / Pass-Through Panel | Molded plastic porting with waterproof cable gland pass-throughs, solar cable inlets, and marine shore-power sockets. | Off-grid power routing, portable A/C or heater ducting. |
| Drop-Down Galley / Workstation Panel | Outer ACM skin hinges downward 90° supported by steel cables to create an outdoor cooking table or workbench. | Maximizing internal space in compact footprints. |
| Bifold / French Door Cassette | Pre-hinged full-height marine-grade acrylic or aluminum doors with integrated locksets. | Easy access for larger gear or high-traffic layouts. |
3. Integrated Climate & Off-Grid Utility Upgrades
Mass production allows electrical, solar, and thermal systems to be embedded directly into the panels during factory assembly:
Solar-Integrated Roof Cassettes: Factory-laminated flexible monocrystalline solar cells bonded flush onto the upper ACM roof surface. Wiring runs internally through the panel's aluminum tubular frame down to a single waterproof output jack.
Insulation Core Upgrades:
Standard: Polyethylene core ACM (R-value ~0.5).
Arctic / High-Heat Package: Polyisocyanurate (PIR) foam or vacuum-insulated core panels wrapped in aluminum skins (R-10 to R-15) for extreme temperature management.
Internal Track System (Utility Rails): Unistrut or recessed T-slot extrusions embedded along the interior framing. Users can snap in quick-release gear hooks, folding bunks, lighting strips, or storage pouches without drilling holes.
4. Marine & Terrain Landing Adaptations
Different landing sites (coral rubble, soft beach sand, mud, or rocky shoals) require tailored foundation options:
Adjustable Sand Pad & Jack Legs: Telescoping anodized aluminum leg extensions (6" to 24") with wide articulation sand feet to level the shelter on sloping dunes or uneven rock.
Flotation / Pontoon Skids: Rotomolded polyethylene skids filled with closed-cell foam mounted under the floor cassettes, allowing the shelter to act as a amphibious tidal platform or float-in camp.
Integrated Deadman Sand Anchoring Points: Recessed tie-down points cast directly into the corner corner posts for high-load guy-line attachment during coastal storms.
5. Custom Aesthetic & Tactical Finishes
The outer aluminum skin of ACM panels accepts several factory finishes during sheet coil production:
Marine Powder-Coated Colors: High-reflectivity white (for minimal heat absorption), safety orange, or custom matte earth tones.
Sublimated Hydro-Dipped Patterns: RealTree/Kryptek camouflage for hunting/tactical uses, or natural wood-grain aesthetics for eco-resort glamping cabins.
Hydrophobic / Anti-Fouling Coatings: Factory-applied nano-ceramic exterior coatings that cause salt spray, sand, and mud to slip off during hose-downs or rain storms.
Summary of Mass-Production Tiers
[ BASE SHELTER ] ───> 8'x8' Bare ACM Shell + Heavy-Duty Draw Latches
│
├───> [ EXPEDITION KIT ] ──> Solar Roof + Utility Ports + Sand Pads
│
├───> [ COMFORT / RESORT ] ─> Panoramic Windows + Bifold Door + PIR Insulation
│
└───> [ MODULAR CLUSTER ] ─> T-Connectors for Multi-Room ConfigurationsExpand on the opportunities in functionality with added Flotation / Pontoon Skids
Integrating rotomolded flotation/pontoon skids directly into a modular flat-pack panel shelter fundamentally alters its operational envelope. It transitions the system from a terrestrial tent alternative into an amphibious habitat platform.
In coastal, tidal, and island environments, this solves one of the hardest challenges in island camping: intertidal mobility, surge resilience, and transport logistics over water.
1. Intertidal & Tidal Surge Protection ("Zero-Footprint" Shoreline Camp)
Beach and island environments feature fluctuating tidal zones, storm surges, and strict environmental regulations regarding beach disruption.
Self-Levelling Tidal Habitat: When anchored in the intertidal zone, the shelter rests securely on beach sand during low tide. As the tide rises, the pontoon skids gently float the entire structure, turning it into a anchored floating cabin rather than flooding the interior.
Tidal Surge & Storm Readiness: During sudden coastal swells or king tides, terrestrial tents are washed away or destroyed. A float-capable platform rises with the water level up its vertical mooring poles, protecting sensitive electronic gear and occupants.
No-Trace Eco-Resort / Park Compliance: Many protected barrier islands ban permanent ground fixtures or traditional camping on delicate dune vegetation. Flotation skids allow the shelter to be moored offshore or anchored strictly within the intertidal mudflats, leaving zero physical footprint on land.
2. Amphibious Transport & Waterborne Mobility
Instead of using a separate boat to haul the heavy shelter panels, the floor and pontoon assembly becomes the transport vessel itself.
[ PACKED MODE ] ──> Pontoons + Floor Cassettes = Towable Flatdeck Barge
│
[ TRANSIT ] ──> Outboard or Electric Trolling Motor mounted to Transom Skid
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[ ARRIVAL ] ──> Beach or Moor Platform ──> Unfold Wall & Roof Panels directly on deck
Self-Floating Deck Cargo Barge: During the boat transit phase, the rotomolded pontoons are strapped directly under the 4′×8′ floor cassette array. This forms an 8′×8′ (or 8′×16′) floating platform capable of carrying the wall/roof panel stack, batteries, coolers, and dive gear directly across calm bays, estuaries, or shallow lagoons behind a skiff or small boat.
Integrated Transom Mount: One rear pontoon skid can feature a reinforced cast-aluminum transom bracket. A small 2.5–5 HP outboard or an electric trolling motor can be attached, allowing the shelter base to be navigated under its own power into shallow mangroves or shallow coves inaccessible to deep-draft vessels.
3. Integrated Utility & Resource Systems inside Pontoon Cavities
Rotomolded polyethylene pontoons are large-volume hollow structures. Rather than leaving that space filled strictly with air, the interior volume of the pontoons can be utilized for off-grid infrastructure:
Dual-Chamber Ballast & Freshwater Storage:
Freshwater Storage: Clean rotational molds can hold 30–50 gallons of potable water inside lower pontoon bladders, placing the heaviest weight at the lowest center of gravity for maximum stability.
Liquid Ballast: Outer pontoon chambers can take on seawater ballast during high winds to increase displacement and lock the platform firmly down into the water/sand, preventing wind capsizing.
Sub-Deck Battery & Utility Storage:
Waterproof access hatches built into the top of the pontoon skids allow heavy LiFePO4 battery banks, bilge pumps, greywater tanks, or solar charge controllers to sit inside the pontoon cavity below deck level, freeing up 100% of the interior liveable floor space.
4. Marine Activity & Scientific Workstation Upgrades
For research teams, island maintenance crews, or recreational water sports, the amphibious platform serves as a specialized operational base:
| Functionality Option | Mechanical Integration | Practical Benefit |
| Center-Floor "Moon Pool" / Wet Hatch | A removable 2′×2′ floor cassette module located directly between the pontoon runners. | Allows interior access to open water for shallow-water coral monitoring, oceanographic sensors, fishing, or underwater gear deployment out of the sun/wind. |
| Fold-Down Swim & Dive Decks | Exterior pontoon sides feature hinged 2-foot ACM side decks with telescoping stainless ladders. | Creates a 360-degree perimeter walkway for easy entry/exit from the water for divers and kayakers without bringing water onto the main living floor. |
| Integrated Shallow-Water Spud Poles | Vertical sleeve brackets cast through the pontoon corners that accept 1.5" fiberglass or aluminum anchoring poles. | Allows users to manually push spud poles into sand/mud bottoms to pin the floating shelter solidly in place without needing long anchor rode sweep radii. |
5. Architectural Stability & Hydrodynamic Design
To handle both landing on rough beach coral and floating in chop, the skids use specialized cross-section geometry:
Hybrid Catamaran / Flat-Bottom Profile: The pontoons feature a flat, reinforced bottom runner with sacrificial HDPE wear strips for sliding across sharp shells and sandbars, combined with angled outer chine walls that generate hydro-buoyancy and tracking stability when under tow.
Modular Multi-Chamber Construction: Rather than two continuous 8-foot pontoons, use four 4-foot interlocking rotomolded pontoon blocks. These stack inside each other during tight flat-pack transport and snap together using heavy stainless clevis pins during setup, matching the modularity of the 4′ grid system.
From <https://gemini.google.com/app/beb90f405753fe8a> Google Gemini (3.6 Flash)
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