Custom Game Tiles
for Board Games & Tabletop Games
Game tiles look simple until players start lining them up on the table. If the tile bends, the whole map looks cheap. If the thickness drifts, stacks feel uneven. If the edge is rough, tiles do not align cleanly. If the surface finish is wrong, icons and small text become harder to read after repeated handling.
At Funway, we treat tiles as working gameplay parts, not flat printed pieces. Cardboard, plastic, and acrylic tiles all need different tooling and finishing choices. A cardboard tile can warp if lamination is not balanced. A plastic tile can shrink or bow if cooling is not controlled. Acrylic can look sharp, but the corners and polished edges need to survive packing and play. The right structure has to be decided before production, not after the first bad sample appears.
We Provide All options for Custom Game Tiles
Tile Materials & Component Systems
Tile material should be chosen from how the tile will sit on the table, not from the artwork alone. A tile can look fine as a single sample and still fail once players start building a map with twenty or thirty pieces. The usual problems are very clear: edges do not line up, the tile starts curling, the stack feels uneven, or the surface wears before the game has been played many times.
For most board game tiles, we start with cardboard. Plastic and acrylic are not “upgrades” by default. They only make sense when the game actually needs what those materials can do.
Cardboard Tiles (The Standard Punch Board Tiles)
Best For: Map tiles, terrain tiles, modular boards, and information-heavy components. Cardboard tiles are the most common tile system in modern board games, offering strong cost efficiency and excellent print fidelity.
Engineering Focus: We manage lamination balance and grain direction to prevent warping and edge fraying during punch-out and long-term storage.
Material: High-density greyboard with C2S art paper.
Key Properties:
Flat, stable surface for board alignment
Lightweight for large tile counts
High-resolution printed detail
Manufacturing Notes:
Multi-layer lamination with grain alignment control
Steel rule die-cut tooling optimized for clean edges
Common thickness: 2.0 mm / 2.5 mm / 3.0 mm
Injection-Molded Plastic Tiles
Best For: Durable terrain tiles, high-frequency handling components, and 3D-adjacent systems. Plastic tiles are specified where impact resistance, moisture stability, or long-term durability is required.
Engineering Focus: Flatness control and uniform cooling are critical to prevent warpage in large-surface molded parts.
Material Options:
ABS: Structural rigidity and impact resistance
PS: Improved surface detail clarity
Key Properties:
High dimensional repeatability
Strong edge durability
Moisture-resistant surface
Manufacturing Notes:
Multi-cavity or single-cavity steel molds (size dependent)
Gate placement engineered to avoid visible flow marks
Suitable for medium to high production volumes
Acrylic / Transparent Overlay Tiles
Acrylic tiles are a special-use option, not a default material for standard game tiles. We only consider acrylic when the clear or tinted effect is part of the game itself: transparent overlay tiles, area effect markers, premium status tiles, layered map effects, or special-edition components.
Acrylic can look sharp on the table, but it brings its own problems. Corners can chip. Polished edges add cost. Large flat pieces can scratch during packing and storage. If the tile is stored loose with other components, the surface may start looking worn before the visual effect feels worth it.
For acrylic or transparent overlay tiles, we usually check:
transparent or tinted PMMA material
laser cutting or CNC cutting path
corner radius
polished edge quality
surface scratch risk
protective film or packing method
Acrylic is worth using when the transparent or tinted look changes how the tile works in the game. For normal map tiles, terrain tiles, or room tiles, acrylic is usually hard to justify. You pay more for cutting, polishing, and packing protection, but the tile does not play better because of it.
Tile Sizes, Thicknesses & Selection Considerations
Tile size should be locked together with the board layout, box space, and insert plan. If the tile is too large, the map becomes hard to handle and the box gets bigger. If the tile is too small, icons and text start fighting for space. If the thickness is chosen only for “premium feel,” the stack height can grow fast and the tray may stop working.
On modular tiles, size and thickness have to be fixed together. If the tile is too large, too thin, or too soft, the problem shows up on the table fast — edges stop lining up, corners lift, and the full map no longer sits cleanly.
Common Thickness Options:
2.0 mm
2.0 mm works for small punch tiles, room tiles, counters, and lighter modular pieces. It keeps the stack lower and helps control cost. But we would not push 2.0 mm too far on large map tiles. Once the tile area gets bigger, the piece needs more stiffness or it starts feeling too light and less stable on the table.
2.5 mm
2.5 mm is the safer middle range for many cardboard game tiles. It gives better hand feel and better flatness than 2.0 mm without pushing stack height too aggressively. For modular map tiles or terrain tiles that players handle often, this is usually the first range we check.
3.0 mm
3.0 mm is used when the tile is larger, heavier-use, or needs a more rigid board-like feel. It helps large pieces sit flatter and feel more solid, but it also increases material use, die-cut pressure, stack height, and packing space. If the box or insert is already tight, 3.0 mm can create problems somewhere else.
Size, Stack Height & Box Fit
Tile thickness becomes a box-clearance issue very quickly. If a modular set has 20 tiles, even a small change in board thickness adds up across the stack. A 0.2 mm difference per tile already means about 4 mm more height in the box. That can be enough to press the rulebook, tighten the insert, or stop the lid from sitting as cleanly as planned.
Modular Alignment & Edge Fit
For modular maps, the tile edge matters as much as the tile thickness. If the tile is slightly bowed, or the edge is crushed during cutting, the map will not look clean once several tiles are placed together. One bad edge may not look serious on a single piece. Lay a full map on the table, and the gap becomes obvious.
Large rectangular tiles and hex tiles need tighter flatness control because players judge them as a group. The pieces should sit edge to edge without lifting corners, uneven seams, or visible height difference between tiles.
Plastic & Acrylic Tile Thickness
Plastic and acrylic tiles should not be specified the same way as cardboard punch tiles. For plastic tiles, we look at footprint size, wall thickness, rib structure, shrinkage, and cooling. A plastic tile can be thick and still warp if the molded structure is wrong.
For acrylic or transparent overlay tiles, the thickness has to support the visual effect without making the piece too heavy or easy to scratch. If the tile is used as an overlay, it also needs to sit cleanly over the board or another tile without creating awkward height steps.
Tile Shape Variants & Gameplay Applications
Tile shape should be chosen by how the map is built and how players read the table, not just by whether the piece looks different. A shape can look interesting in the file but create problems once it is die-cut, stacked, punched out, and placed next to other tiles. Thin corners, tight inside curves, long notches, or irregular edges are usually where the trouble starts.
Square & Rectangular Tiles: Square and rectangular tiles are still the cleanest route for grids, rooms, modular boards, and area layouts. They are easier to cut, easier to align, and easier to pack. If the game needs clear map continuity or artwork crossing from one tile to the next, this is usually where we start.
The risk is edge drift. If the artwork depends on roads, borders, rivers, or grid lines continuing across tiles, even a small cutting shift becomes visible. The tile may be “within tolerance” as a single piece, but the map can still look broken when several pieces are placed together.
Hexagonal Tiles: Hex tiles work well for terrain maps, territory control games, exploration systems, and modular battlefields. They give more connection directions than square tiles, but they also expose edge problems faster.
With hex tiles, one weak edge is not isolated. A small gap or crushed point can start affecting the pieces around it. The corners also need clean die-cutting. If the points are soft, chipped, or slightly bowed, the full layout stops looking tight very quickly.
Irregular or Organic Shapes: Irregular tiles can work for islands, terrain patches, fog areas, custom regions, or thematic map pieces. But this is where shape needs a feasibility check before production.
Thin necks, sharp points, tight curves, and tiny decorative cuts often look good in the artwork but fail in the material. Cardboard can crush or delaminate at weak points. Plastic may need wall thickness changes. Acrylic can crack at sharp corners. We usually simplify those areas before tooling instead of waiting for the first bad sample.
Interlocking or Notched Tiles: Interlocking tiles are not a simple shape upgrade; they are a mechanical commitment. The notch must survive die-cutting, lamination, and repeated assembly. If the fit is too tight, players will force the pieces, causing crushed edges or delamination—where the surface paper begins to lift from the greyboard core. If it is too loose, the map shifts, and the notch loses its functional purpose.
This structure only makes sense when the game really needs fixed positioning. For most modular maps, clean edge-to-edge alignment is safer than adding notches that create another fit problem.
Color Application, Printing & Surface Finishing
Tile printing cannot be approved from one nice-looking sample. The real test comes when a full set of tiles is placed together. If the color drifts, the cutting shifts, or edge artwork does not continue cleanly, players will notice it on the table very quickly.
For tiles, printing and finishing depend heavily on the material. Cardboard tiles follow the normal print-and-protect route: offset printing, mounting, varnish or lamination, then die-cutting. Plastic and acrylic tiles are different. They are not finished with paper varnish or lamination. Their problems are ink adhesion, surface texture, scratch risk, and how the marking survives handling.
Offset Printing for Cardboard Tiles
Cardboard tiles are the main case for offset printing. Terrain maps, room tiles, modular boards, icons, labels, and full-color artwork need clean print control before mounting and die-cutting.
The print itself is only part of the job. If roads, rivers, borders, grid lines, or artwork details run across tile edges, the cutting tolerance will show. One tile can look fine alone, but once it has to connect with the next tile, a small shift becomes obvious.
For cardboard tiles, we check:
CMYK artwork setup
300 DPI print files
bleed beyond the cut line
safe zones for icons and text
color consistency across tile sheets
artwork position after mounting and die-cutting
If the game relies on modular map continuity, the artwork has to be prepared with cutting drift in mind. Thin borders, tight edge graphics, and lines that must continue across tiles need more tolerance than a single printed piece.
Surface Protection for Cardboard Tiles
Varnish and lamination belong mainly to cardboard tiles. Surface finishing is where you define the final texture and durability. We offer matte and gloss options in both varnish and lamination to lock in the ink and control surface glare.
Varnish keeps the tile lighter and cost lower, but it does not protect the edge like a film layer. Dark borders and frequently handled corners show wear first. Lamination gives stronger protection, but the film has to survive die-cutting. If the bond is weak, the edge can lift after punching. If the film is too heavy, small notches and sharp corners become harder to cut cleanly.
For modular map tiles, we usually keep gloss under control. The tile has to work on the table, not just look bright in a product photo. Once glare starts fighting the icons, borders, or terrain detail, the finish is already wrong. Matte or low-glare protection is normally where we start for this kind of tile.
Tile wear starts at the edge. Dark borders turn white first. Sharp corners get rubbed first. Small notches and tight cuts are the first places to look rough. If the tile has many sharp turns, tabs, or interlocking areas, we check the finish together with the die line before production, not after the first rough sample comes out.
Printing & Marking on Injection-Molded Plastic Tiles
Plastic tiles are not printed like cardboard tiles. The molded surface decides a lot before the ink even touches the part. iInk registration and adhesion are only dependable on flat, uniform surfaces. Once the part has recesses, sharp curves, or heavy texture, the print becomes much harder to hold. Once the surface is not flat, the print starts becoming less predictable. It may shift at the edge of the mark, break around raised areas, or wear off where players keep touching the tile.
For simple icons, symbols, or player marks, we usually start with pad printing. UV printing can also work on flatter plastic areas. But we would not use plastic tiles to carry a detailed full-color terrain map unless the structure really supports it. If the artwork needs fine map detail, cardboard is usually the cleaner route.
The weak point is adhesion. A printed icon can look fine on the first sample, then start rubbing down if it sits where players keep touching or sliding the tile. Plastic tile printing has to be checked with the molded surface, texture, and high-touch areas before mass production.
Printing & Handling on Acrylic / Transparent Overlay Tiles
Acrylic overlay tiles need the printing decision made together with the clear effect. If the artwork goes on the top surface, it is easier to read but easier to scratch. If it goes on the back, the print is better protected, but the color changes once it is seen through the acrylic.
We usually keep acrylic printing simple: symbols, area effects, status marks, or limited graphic areas. Once a full-color map is pushed onto acrylic, the job gets harder fast. The surface scratches more easily, the print adhesion needs more checking, and loose stacking in the box can mark the tile before the game is used much.
Acrylic makes sense when the transparent or tinted layer changes the gameplay or presentation. If the tile only needs printed terrain detail, acrylic usually adds problems instead of solving them.
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Custom board games possess
At Funway, we do not run a board game project as a stack of separate parts. A change to the board often affects the box. A box change may force the insert to move. File setup can also create problems later if it does not match the real component build. So we sort the job in a fixed order: component mapping first, then engineering review, then sampling and first-article approval, then tooling, trial production, mass production, and final inspection before shipment. That order is what keeps the project buildable, not just presentable in the files.
We also do not treat manufacturing as something that starts after design is “finished.” Structure, fit, materials, tooling, and packing are checked while changes are still manageable. It is much better to catch a problem at validation or sampling than after dies are released or units are already on the line. That is how we keep rework down, hold production more steady, and move from prototype to mass production without avoidable surprises.
Tooling, Die-Cutting & Mold Selection
Tooling is not just a production step for game tiles. It decides how clean the edge looks, how well the tiles line up, how much the upfront cost moves, and whether the same shape can be repeated across the full run.
For cardboard tiles, the die line is where problems usually start. Thin points, tight notches, and small internal cuts may look harmless in the artwork, but the punching pressure will expose them. Edges can crush, layers can tear, and small corners can come out rough. Once that happens, the tile no longer feels like a clean map piece. It looks worn before players even use it.
For injection-molded plastic tiles, the mold has to be planned around flatness first. A flat plastic tile is easy to deform if the gate, wall thickness, rib structure, shrinkage, or cooling is wrong. The first samples will show it quickly: a gate mark on the visible face, a sunken area over thick sections, corners bending up, or several tiles refusing to sit level when placed together. At that point, it is not just a small cosmetic issue — the mold needs correction.
For acrylic or transparent overlay tiles, we usually look at laser cutting or CNC cutting instead of punch tooling. The issue is edge quality. Sharp corners, narrow bridges, and thin transparent areas can chip or look rough if the cutting path and polishing method are not planned early.
Tooling selection should be locked before the final quote and sample plan. If the tile shape, material, or thickness changes later, the tooling route may change with it—and that usually means new cost, new sampling, and a longer production timeline.
Pre-Production Sample & Production Checks
A tile sample is not approved just because the print looks good. We have to place it with the other tiles, stack it, check the edges and thickness, and see whether it still fits the board layout, and insert it after the real production process.
Modular tiles expose problems very quickly. A curled corner breaks the map surface. A crushed edge creates a visible seam. A road or border that misses the next tile makes the layout look off immediately. If the stack comes out higher than expected, the box or insert starts taking the hit. These are not defects you can hide once the full set is packed.
Flatness & Thickness Consistency
Flatness is checked with other tiles, not just as one loose piece. One tile may look fine on its own, but place it beside ten others and the problem becomes harder to hide. A lifted corner breaks the map surface. A thicker or thinner tile makes the stack feel off, and the insert may no longer close around the set the way it should.
For cardboard tiles, we check flatness after mounting, drying, lamination, and die-cutting. Balanced lamination is part of that check. If one side pulls harder than the other, the tile may pass the first visual check and still start moving after drying or shipping. For plastic tiles, we check whether cooling and shrinkage have changed the final shape. For acrylic overlay tiles, we check whether the sheet stays flat enough to sit cleanly over the board or other tiles.
Edge Quality After Cutting or Molding
The edge tells us whether the tooling is working. Crushed cardboard edges, torn layers, rough acrylic cuts, or visible plastic gate marks will make the tile feel cheap very quickly.
For cardboard tiles, we check whether the die-cut edge is clean and whether corners or notches are breaking down.Plastic tile quality is defined by gate mark placement, sink mark mitigation, and structural planarity. We manage the cooling and ejection cycles specifically to ensure every piece sits dead-flat on the table, preventing the warpage common in lower-grade moldings. For acrylic, polished edge quality and corner chipping need to be checked before approval.
Print Alignment & Color Consistency
Printed tiles cannot be approved one piece at a time. Roads, rivers, borders, grids, and terrain details only tell the truth when several tiles are placed together. One tile may pass on its own, but once the map is built, cutting drift and color shift show up immediately.
We check artwork position after mounting and die-cutting, not only after printing. If colors drift between tile sheets, or edge artwork does not continue cleanly, the sample is not ready for mass production.
Modular Layout & Insert Fit
Tiles have to be tested in the real layout. If the map uses square, hex, irregular, or interlocking pieces, we place multiple samples together and check whether the seams stay clean. If a tile only looks right when viewed alone, that is not enough.
We also check the tile stack inside the box or insert. A thicker tile, a curled tile, or an added lamination layer can push the stack higher than expected. That can squeeze the rulebook, raise the lid, or make the tray too tight.
Golden Sample Reference
Once the pre-production sample is approved, it becomes the Golden Sample for the production run. It locks the tile thickness, flatness, edge quality, print position, color standard, and packing fit.
For repeat orders or expansions, this matters even more. Without a locked Golden Sample, the next batch can drift in color, thickness, edge finish, or map alignment while each individual tile still looks “acceptable” on its own.
Cost Drivers & MOQ Optimization
Tile cost can move very fast if the structure is not locked early. A tile may look like a simple printed piece, but the price changes once thickness, die line, lamination, map alignment, tooling, and packing height are added in.
For tiles, the cheapest spec on paper is not always the cheapest in production. Go too thin, and the tile starts lifting. Push the die line too hard, and the edges come out crushed. Add gloss in the wrong place, and players start fighting the reflection instead of reading the icons. A thicker stack can force a larger box. Those problems usually cost more than the small saving at the beginning.
Material & Tooling Route
Cardboard tiles are normally the most cost-efficient route for printed map tiles, room tiles, terrain tiles, and punch tiles. The tooling cost is lower, printing is easier to control, and the structure works well when the tile only needs to sit flat and carry artwork.
Plastic and acrylic move the project into a different cost lane. Plastic means mold tooling, sampling, shrinkage correction, and flatness control before stable parts come out. Acrylic means cutting, edge polishing, scratch control, and more careful packing. We only move into these materials when the game actually needs molded structure, moisture resistance, transparent overlays, or a special visual function.
Shape Complexity & Edge Risk
Simple square, rectangular, or hex tiles are easier to cut, sort, stack, and pack. Cost starts moving when the tile has irregular edges, tight notches, interlocking tabs, narrow bridges, or many sharp turns.
Those details slow down tooling and create more edge risk. Cardboard can crush or tear around tight cuts. Acrylic can chip at sharp points. Plastic may need mold changes before the shape releases cleanly. If the custom shape does not improve gameplay, we would rather simplify it before production.
Printing & Surface Finishing
Printed cardboard tiles need artwork setup, color control, mounting, finishing, and die-cut alignment. If roads, borders, rivers, or grid lines continue across tile edges, the artwork needs tighter preparation. Otherwise the map may look broken even when each tile is technically printable.
Finishing cost is not only the price of varnish or film. Varnish keeps the process lighter, but it leaves dark borders and handled corners more exposed. Lamination protects better, but the film adds cost and can make tight notches or sharp corners harder to cut cleanly. Gloss is another place we are careful. If the tile looks brighter but players cannot read icons or terrain detail under room light, that finish is not adding value — it is adding cost and a usability problem.
Order Volume & MOQ
Small tile runs can be done, but the setup work does not disappear. Printing, mounting, die-cutting, finishing, sorting, sampling, and packing still have to happen before usable tiles come out.
Standard shapes, shared punch layouts, simple finishes, and cardboard construction help keep MOQ and unit cost under control. Large tiles, thick board, custom die lines, plastic molds, acrylic cutting, or multi-step finishing need higher quantity to carry the setup cost. t very low quantities, the setup cost is still sitting on every tile, and the unit price will show it.
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