Custom Game Tokens
for Board Games & Tabletop Games
Game tokens are not minor accessories. They get picked up, sorted, stacked, punched out, and rubbed across the table in almost every session. If thickness drifts, stacks lean and trays stop fitting cleanly. If the board stock is too soft, edges crush during punching. If the artwork uses thin borders or centered rings, normal die-cut drift of about ±0.2 to 0.3 mm can already look like a printing defect to the end user.
At Funway, we build token production around how the pieces will actually be used. Punchboard is still the practical route for high-count printed sets. Acrylic or plastic only makes sense when transparency, washability, or part separation really matters. Wood works when hand feel matters more than full-surface graphics. Thickness, die line, surface treatment, and packing geometry are checked together, because a token can look fine on screen and still fail later in punching, stacking, bagging, or insert fit once the job goes into volume production.
We Provide All options for Custom Game Tokens
Materials & Component Systems
We do not choose token material from the artwork file alone. The first question is what the token has to survive: high-count sorting, repeated stacking, bagging, tray storage, heavy touch, or premium visual separation. If that use case is wrong, the material choice goes wrong with it.
For most board games, cardboard is still the first route for printed token sets. Plastic only makes sense when the token needs harder wear resistance, molded structure, or washability. Acrylic is for clear or tinted effect, not for the whole token economy by default. Wood works when the token is meant to feel tactile in hand and does not depend on full-surface print detail.
Cardboard Tokens (The Industry Standard)
Cardboard is still the practical starting point for most printed token sets because it handles high counts well. Resource counters, damage tokens, status markers, score tokens, and currency sets are usually easier to control in punchboard than in plastic or acrylic.
But token problems show up in different places from tiles. Tiles fail when the map stops sitting flat. Tokens fail when stacks lean, tray cells stop fitting cleanly, or the die-cut edge starts looking tired after repeated sorting and bagging. If the board stock is too soft, the edge crushes during punching.
For printed tokens, bleed, safe zone, and die-cut compensation are not just file-prep terms. They decide whether the token still looks right after normal cutting movement. Thin borders, centered rings, and small circular icons do not hide drift well. Once the die shifts by about ±0.2 to 0.3 mm, those layouts already start looking wrong. The print can be correct and still look wrong once the cut shifts.
Printed cardboard tokens usually stay in the 1.5 mm to 2.5 mm range. High-count resource sets can stay lighter. Tokens that will be stacked, counted often, or dropped into tray cells usually need more stiffness, or they start feeling like cheap punch-outs very quickly.
If the token mainly carries printed information, cardboard is usually the cleaner and cheaper route. If the piece needs to be washed, snapped together, or handled like a hard counter for years, that is where cardboard starts showing its limit.
Injection-Molded Plastic Tokens (The Workhorse)
Plastic tokens make sense when the token is being used more like a hard piece than a printed counter. This usually means repeated stacking, frequent flipping, wet or dirty handling, molded depth, or shapes that cardboard does not carry well.
But plastic tokens are not just “premium cardboard.” Once the project moves into plastic, the cost lane changes immediately: mold tooling, sampling, gate placement, shrinkage correction, and print adhesion all come into play. If the token is just a flat round counter with printed information, plastic often adds cost faster than it adds value.
Plastic token problems also look different from tile problems. On tokens, the first trouble is usually at the face and edge: gate marks landing too close to the visible area, molded thickness drifting enough to make stacks look uneven, or printed symbols wearing down where players keep pinching and flipping the piece. If the token is meant to stack like currency or chips, even a small thickness change becomes obvious very quickly.
We usually look at ABS, PS, or PP depending on rigidity, detail, and use. But if the token only needs printed artwork and flat handling, we do not push it into plastic just to make it feel more expensive.
Acrylic Tokens (The Deluxe Upgrade)
Acrylic only makes sense when the clear or tinted look is doing real work on the table. It can be right for transparent resource gems, premium status markers, layered effect tokens, or high-visibility pieces where players need fast visual separation.
The problem is that acrylic behaves like a display material much faster than it behaves like a forgiving game material. Sharp corners chip first. Polished edges push the cost up. High-count acrylic sets get heavy in the box. If the tokens are stacked loose or rub against each other in a bag, the surface starts picking up scratches sooner than most customers expect.
Acrylic tokens also do not forgive over-design well. A small printed symbol on a clear token can disappear if the contrast is weak. A beautiful transparent set can still feel wrong if the edges chip after a few plays or the pieces start scuffing in storage. That is why we usually keep acrylic for special-use markers, not for every token in the game.
If the token is mainly about printed information, high counts, and practical handling, acrylic is usually the wrong place to spend the budget.
Wooden Tokens (The Organic Classic)
Wood works when the token is meant to feel like a piece, not like a printed disc. It fits Euro-style resource systems, abstract games, tactile counters, and projects where players should feel the difference in the hand as soon as they pick the token up.
But wood is not where we try to force full-surface detailed graphics. Moisture content has to be controlled before production. Grain direction starts mattering on narrow or irregular shapes. If the token is too thin, the edge chips first. If the seal or print is weak, the wear starts where players keep pinching the piece.
Wood is usually the better call when shape, touch, and table feel matter more than detailed printed information. If the token needs small icons, centered symbols, borders, numbers, or double-sided full-color artwork, cardboard is normally the cleaner route.
Token Sizes, Thicknesses & Handling Considerations
Token size should be fixed with the player’s hand and the full set count in mind, not just from the artwork. A token that looks fine on screen can still be too small to pick up cleanly, too large to fit the tray, or too thick once fifty or a hundred pieces are stacked together. On token sets, size mistakes do not stay on one piece. They multiply across the whole box.
Thickness has to be decided the same way. Too thin, and the token feels like cheap punch-out waste. Too thick, and the stack starts pushing the insert, bag volume, and box height. We do not treat size and thickness as separate style choices.
Common Thickness Options
18–20 mm: This range works for small resource counters, status markers, and high-count sets where box space matters. But it is easy to over-design at this size. Small numbers, thin borders, and crowded icons stop reading well very quickly. If players need to pick the token up often, this size can also start feeling fiddly.
25 mm: This is the safer middle range for many round or square printed tokens. It gives enough room for one main icon, a number, or a simple symbol without making the tray cells too large. For many board games, this is where token size starts feeling comfortable instead of cramped.
30–35 mm: This range is useful when the token carries more information or needs stronger table presence. It is easier to read and easier to grip, but it also eats space fast. Once the game has many tokens at this size, insert depth, bagging volume, and box footprint all start moving.
40 mm and above: We only go this large when the token is doing more than normal token work. Large turn markers, scoring dials, major area markers, or oversized objective tokens can justify it. But at this point the piece stops behaving like a normal token. It starts acting more like a small board part, and the box has to absorb that decision.
Thickness Options for Printed Cardboard Tokens
1.5 mm: 1.5 mm is fine for light-use resource counters, small status markers, and high-count sets where box space is tight. But this is not where we would put a token that players keep stacking, flipping, or sorting every turn. At that point it starts feeling too light, and the edge wears earlier.
2.0 mm: 2.0 mm is usually the safer working range for many printed cardboard tokens. It gives a better hand feel, better stack control, and enough stiffness for repeated handling without pushing the box too hard. For many standard token sets, this is where we start.
2.5 mm: 2.5 mm works when the token needs more presence in hand or more stack stability. It is useful for currency, turn markers, larger counters, or any token set that players will keep touching and sorting. But once the count goes up, the insert and box will feel it. This is not a free premium upgrade.
Stack Height, Tray Fit & Box Space
For high-count token sets, thickness becomes a packing problem fast. Half a millimeter does not look serious on one token. Across 100 tokens, it becomes 50 mm of extra stack height. The tray cell that worked before may no longer close. A bag that looked fine in the sample may suddenly become too bulky. This is why we check token count and packing method before treating thickness as an easy upgrade.
Small Tokens, Fine Artwork & Readability Risk
Small tokens do not forgive busy artwork. At 18 mm or 20 mm, a centered ring, thin border, or detailed icon is already risky. Once the die shifts by about ±0.2 to 0.3 mm, that kind of layout starts looking wrong very quickly.
That is why small tokens need simpler artwork, stronger icon hierarchy, and more breathing room around the edge. If the token is tiny and the design still tries to do too much, the result usually looks worse in production than it did in the file.
Token Shape Variants & Gameplay Applications
Token shape should be decided by how players use the piece, not by how interesting the outline looks in the artwork. A shape that looks clever in the file can become annoying in play if it is hard to pick up, hard to sort, easy to chip, or difficult to fit into the tray.
For cardboard tokens, the die line matters as much as the artwork. Thin necks, sharp points, small internal cuts, and tight decorative details can crush, tear, or leave weak edges after punching. For plastic or acrylic tokens, the shape also affects molding, cutting, edge polish, and how the piece survives repeated handling.
Round Tokens
Round tokens are where we usually start for resources, currency, damage, score, and other high-count counters. They count fast, stack cleanly, and do not fight the player when pieces are moved around the table.
But round tokens expose centered artwork very quickly. Thin borders, centered rings, and circular icons do not hide die-cut drift well. Once the die shifts by about ±0.2 to 0.3 mm, those layouts already start looking wrong. For round tokens, we usually keep the border wider or remove the centered ring completely if the customer wants a cleaner production result.
Square & Rectangular Tokens
Square and rectangular tokens work well for status markers, ownership markers, directional effects, upgrade pieces, and information tokens. They give more usable artwork space than small round tokens, especially when the token needs a number, icon, or short label.
The risk is corner wear. Sharp corners get rubbed first during punching, sorting, bagging, and tray storage. If the token is handled often, we usually soften the corner slightly instead of keeping a sharp 90-degree point. A small radius can make the token survive better without changing the gameplay function.
Irregular or Icon-Shaped Tokens
Icon-shaped tokens can help the game read faster on the table. A coin shape, shield shape, heart shape, resource shape, or character-related silhouette can make sorting easier and reduce the need for extra text.
But this is where over-design causes trouble. Narrow bridges, tiny points, deep notches, and decorative cuts may look good in artwork, but they are the first places to fray, crack, or punch out poorly. If a shape has a weak area under about 2–3 mm, we would normally thicken or simplify it before tooling. A token should not break just because the silhouette tried to be too clever.
Irregular shapes also stack and pack less cleanly than round or square tokens. If the game has fifty or one hundred pieces, we usually protect sorting, bagging, and tray fit first, then decide how much custom silhouette the game really needs.
If a token needs a notch or locking feature, we check it as a special die-line structure rather than a normal shape option, because the notch can create edge wear and fit problems.
Color Application, Printing & Surface Finishing
Token printing should be checked at real token size, not just on the artwork sheet. A symbol that looks clear on screen can become crowded once it is reduced to an 18–25 mm token. Thin borders, centered rings, small numbers, and detailed icons are the first places where production tolerance becomes visible.
Tokens are also handled differently from tiles. Players pinch them, flip them, count them, stack them, and throw them back into bags or tray cells. The printed face may survive, but the edge, border, or high-touch icon can start looking worn first. That is why printing, finish, die line, and packing method need to be checked together.
Offset Printing for Cardboard Tokens
Cardboard tokens are usually printed by offset printing before mounting, varnish or lamination, and die-cutting. This route works well when the token needs detailed icons, numbers, resource symbols, character marks, or double-sided artwork.
The risk is not whether the artwork can print. The risk is whether it still looks right after the token is punched out. Small round tokens are especially unforgiving. Thin borders, centered rings, circular frames, and small edge text make every cutting movement visible. Once the die shifts by about ±0.2 to 0.3 mm, the token can start looking uneven even when the print itself is correct.
For this reason, token artwork needs more space around the cut than many customers expect. Bleed has to extend beyond the die line, and important icons, numbers, text, and borders need to stay inside a safer area. On double-sided tokens, we also check front-to-back position, because a small registration shift becomes obvious once players flip the piece.
Spacing on the punch sheet also matters. If tokens are placed too close together, punching becomes less forgiving and edge quality becomes harder to control. For small round or centered layouts, we usually add more breathing room instead of trying to make the artwork look perfectly tight in the file. The file may look cleaner that way, but production usually does not.
Surface Protection for Cardboard Tokens
For cardboard tokens, surface protection usually means varnish or lamination. Varnish keeps the token lighter and lower cost, but it will not protect the edge like a film layer. Dark borders and frequently pinched edges will show wear first.
Lamination gives stronger surface protection, but it is not a free upgrade. Small round tokens, tight curves, and narrow tabs still have to punch cleanly after the film is applied. If the film bond is weak, the edge can start lifting after punching or repeated handling. If the film is too heavy, small details can become harder to cut cleanly.
On high-count token sets, we do not choose finish just for shine. The token has to survive sorting, stacking, bagging, and players pinching the same edges again and again. A glossy finish can look brighter, but if glare makes small numbers or icons harder to read, the finish is working against the piece.
Printing & Marking on Plastic Tokens
Plastic tokens are not printed like cardboard tokens. The molded surface decides how much trouble the printing will have. Flat areas are manageable. Raised rims, recessed details, curved faces, or heavy texture make the mark harder to place and easier to wear.
For simple icons, symbols, or player marks, we usually start with pad printing. UV printing can work on flatter plastic surfaces, but we would not move a detailed full-color token design into plastic unless the structure really needs it.
The weak point is adhesion. A printed mark can look fine on the first sample, then start wearing where players keep pinching, flipping, or rubbing the token. If the token will be handled every round, ink adhesion and high-touch areas need to be tested before mass production.
Printing & Marking on Acrylic Tokens
Acrylic tokens are usually chosen because the clear or tinted look is part of the value. The marking should not fight that effect. Simple icons, numbers, status marks, or resource symbols work better than crowded full-surface graphics.
Surface printing is easier to read directly, but it takes the scratches first. Back printing puts the ink away from direct finger contact, so it is safer for handling. But the artwork is no longer sitting on the surface. The acrylic itself changes how the color reads, especially on tinted or thicker pieces. Laser engraving has the same issue in another way: it may be permanent, but on clear or dark acrylic, the mark can look weak unless the contrast is planned from the start.
On acrylic tokens, we keep the artwork simple. If the token needs detailed printed information, cardboard is usually cleaner. If the token needs a clear gem-like look, acrylic makes sense, but the packing has to prevent surface rubbing and edge chipping.
Laser Engraving & Printing on Wooden Tokens
Wooden tokens should stay simple. One bold icon, one number, one faction mark, or one resource shape is usually enough. Once the design starts asking for small text, thin borders, multi-color artwork, or detailed double-sided graphics, wood is the wrong material. It will not read as cleanly as printed cardboard.
Laser engraving works only when the mark has enough contrast. Light wood usually gives a clearer burn mark. Dark wood, tinted wood, or very small tokens can make the engraving look weak on the table. Fine lines are another problem. They may look acceptable in a close-up sample photo, but once players are reading the token during play, the mark can disappear too easily.
Printing on wood has the same limit. The surface is not as smooth and predictable as printed paper. If the token is handled often, the first wear usually shows where players pinch the piece: edges, corners, and printed areas near the rim. We keep wooden token marking bold and simple. If the design needs small icons, tight borders, multiple colors, or full-surface artwork, we move it back to cardboard instead of forcing wood to do a job it is bad at.
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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
Token tooling is where many “small” design decisions become production problems. A token may only be 18–25 mm, but if the die line is too tight, the artwork is too close to the edge, or the material route is wrong, the problem repeats across hundreds or thousands of pieces.
For tokens, tooling is not only about making the shape.It decides the edge, the cut position, the stack feel, and whether the punch sheet saves material or creates more scrap. A shape that looks harmless in the file can create frayed edges, white borders, cracked acrylic corners, or a stack that no longer sits cleanly in the tray.
Punch Board Tooling for Cardboard Tokens
For printed cardboard tokens, we usually use punch board tooling / steel rule dies. This is the practical route for resource counters, currency, damage tokens, status markers, and other high-count printed token sets.
The die line has to respect both the artwork and the material. Small round tokens with centered rings, thin borders, or circular icons do not hide cutting movement well. Normal die-cut drift of about ±0.2 to 0.3 mm can already make the design look off-center.
Dense punch sheets also need enough spacing between pieces. If tokens are packed too tightly on the sheet, punching becomes less forgiving. Edges can crush, small bridges can tear, and waste removal becomes harder. Saving a little sheet space is not worth it if the punch-out result looks rough.
Mold Tooling for Plastic Tokens
Plastic tokens only make sense when the game needs more than a flat printed counter. Molded depth, washable handling, repeated flipping, snap-fit behavior, or heavy-use pieces can justify injection molding.
But a plastic token means a real mold decision. Gate position, parting line, shrinkage, wall thickness, and surface area for printing all need to be solved before tooling. If the gate lands on a visible face, the token looks marked before players even use it. If the wall is too thick, sink marks can show. If thickness is not controlled, stacked plastic tokens start looking uneven.
We do not move a simple printed token into plastic just to make it look “more premium.” If the token mainly carries icons, numbers, or resource artwork, punchboard is often cleaner and cheaper.
Laser or CNC Cutting for Acrylic Tokens
Acrylic tokens are usually cut, not punched like cardboard. The cutting path matters because acrylic does not forgive sharp corners and thin bridges very well.
Round or simple shapes are safer. Narrow points, tiny cut-ins, and sharp internal corners can chip during cutting, polishing, packing, or later handling. If the token is transparent or tinted, rough edges are also more visible than on cardboard.
Acrylic tooling should be kept for tokens where the clear or gem-like look is part of the game value. If the token is high-count or mostly information-based, acrylic usually adds cutting cost, edge risk, and packing protection without improving the play experience enough.
Wood Cutting or Engraving Setup
Wooden tokens are not small printed discs in another material. The shape has to work with the wood. Grain direction, moisture content, cutting path, and edge thickness all matter before we cut anything.
On wooden tokens, thin tips, narrow gaps, tiny cut-outs, and decorative corners are the first places I would question. The front shape is not the part I worry about most with wood. I worry about the cut edge. Burn marks, chipped corners, and rough grain show up there first. Make the token too thin, and it stops feeling like a game piece — it feels like something that should not be handled too much.
Wood works best when the token uses a bold shape and a simple mark: a resource piece, faction symbol, number, or engraved icon. If the design needs tight borders, small text, double-sided full artwork, or many colors, we usually move it back to printed cardboard instead of forcing wood to carry details it cannot show cleanly.
Pre-Production Sample & Production Checks
A token sample is not approved just because the print looks good. We have to check how it behaves as a real set: punched out, stacked, sorted by type, flipped by hand, packed into bags, and placed into the tray or insert.
Most token problems do not show up on one loose piece; they show up when the full set is checked together. One piece may look acceptable, but fifty pieces can expose thickness drift. One centered icon may look fine, but a full sheet can show die-cut movement. One edge may look clean, but repeated sorting can reveal white edge wear or fraying. These are the problems we try to catch before mass production, not after the full set is packed.
Thickness & Stack Consistency
Token thickness has to stay consistent across the full set. If thickness drifts, the problem is not always obvious on one piece. Stack them, count them, or put them into the tray cell, and the drift becomes much easier to see.
For high-count cardboard tokens, we check stack height against the approved sample. If a stack leans, feels uneven, or sits higher than expected, the insert and bagging plan may need adjustment. For plastic or acrylic tokens, we also check whether molded or cut thickness stays consistent enough for stacking and storage.
Die-Cut Edge & Punch-Out Quality
The edge tells us whether the tooling and material are working together. For cardboard tokens, we check whether the punch-out edge is clean, whether layers are crushed, and whether dark printed edges start showing white wear too early.
Small circles, narrow tabs, and icon-shaped tokens need extra attention. If the edge starts tearing, fraying, or delaminating during punch-out, the token may already look used before players touch it. We would rather adjust the die line or material build here than carry rough edges into production.
Artwork Position & Die-Cut Drift
Printed tokens need to be checked after punching, not only after printing. Thin borders, centered rings, circular frames, and small edge text make cutting movement easy to see.
For small round tokens, normal die-cut drift of about ±0.2 to 0.3 mm can already make the layout look off. The print may be correct, but once the cut shifts, the token no longer looks properly centered. This is why we check real punched samples before approving the full run.
Front-to-Back Registration
Double-sided tokens need another check: front-to-back position. A token can look centered on the front and still feel wrong when flipped over if the back artwork is slightly shifted.
For tokens with matching borders, icons, numbers, or orientation marks on both sides, we check whether the front and back artwork stay aligned after punching. If the design uses centered circles or tight frames on both sides, we usually ask for more tolerance before production.
Tray, Bagging & Insert Fit
Tokens are rarely shipped loose as single pieces. They are packed by count, type, color, or player set. That means we check not only the token itself, but also how the full quantity fits in the real packing method.
The tray fit has to be checked with the final token build, not an early sample stack. Add the final thickness, surface finish, and bagging method, and the fit can change quickly. The bag may become too bulky, the tray cell may get too tight, or the token stack may start pushing into the rulebook, cards, or nearby components. We check the full token count against the tray, bag, and box layout before locking production.
Golden Sample Reference
Once the pre-production token sample is approved, it becomes the Golden Sample for production. It locks the material, thickness, edge quality, print position, color, finish, and packing fit.
For repeat orders, expansions, or multi-token systems, this matters a lot. Without a locked reference, the next batch can drift in thickness, color, edge finish, or artwork position while each individual token still looks acceptable by itself.
Cost Drivers & MOQ Optimization
Token cost is easy to underestimate because each piece looks small. But tokens rarely come alone. Once a game has 50, 100, or several hundred pieces, every choice gets multiplied: board thickness, die line, artwork spacing, finish, sorting, bagging, and tray fit.
The low-cost spec is not always the one that survives production best. Go too thin, and the token feels weak. Pack the punch sheet too tightly, and the edges start coming out rough. Use a centered ring, and normal die-cut drift becomes visible. Add a heavier finish, and punching may slow down. Make the stack thicker, and the tray or bag may need to change. These are the cost points we check before locking the token spec.
Material Route & Tooling
Cardboard is usually the most cost-efficient route for high-count printed token sets. The artwork is easier to control, the tooling cost is lower, and the tokens can be produced in sheets before punching.
Plastic, acrylic, and wood move the project into a different cost lane. Plastic needs mold tooling and sampling. Acrylic needs cutting, edge polishing, scratch control, and more careful packing. Wood needs cutting or engraving setup, moisture control, and simpler marking. We only move away from cardboard when the game actually needs harder wear, transparent effect, tactile feel, or molded structure.
Token Count, Sheet Yield & Punch Layout
Token count affects cost more than many customers expect. A few extra tokens may look harmless in the rulebook, but in production they can change the sheet layout, punch efficiency, sorting time, and packing method.
Punch sheet yield matters. If the token shapes fit the sheet cleanly, cost stays easier to control. If the tokens are irregular, oversized, or packed too tightly, waste goes up and punching becomes less stable. Saving a little sheet space is not worth it if the edges start crushing or the pieces become harder to remove cleanly.
Thickness, Stack Height & Packing
Thickness is a cost decision, not only a hand-feel decision. 1.5 mm can work for light-use, high-count cardboard tokens. 2.0 mm gives better handling for many standard sets. 2.5 mm gives the token more body, but the box has to pay for it: more board, taller stacks, deeper tray cells, bulkier bags, and sometimes higher carton weight.
Half a millimeter does not look serious on one token. Across 100 tokens, it becomes 50 mm of extra stack height. That can change the tray cell, make the bag bulkier, or force other components to move in the box. When token count is high, thickness needs to be priced together with packing, not as a simple upgrade.
Shape Complexity & Edge Risk
Round and simple square tokens are cheaper because they punch, sort, stack, and bag cleanly. Cost starts moving when the token has narrow bridges, sharp points, tiny internal cuts, irregular silhouettes, or notches.
Those details create real production risk. Cardboard can fray or delaminate around tight cuts. Acrylic can chip at sharp corners. Wood can burn or break at thin points. Plastic may need a mold adjustment before the shape releases cleanly. If the custom silhouette does not help gameplay, we usually simplify it before it becomes a tooling and scrap problem.
Printing, Finishing & Marking
Printed cardboard tokens need artwork setup, mounting, varnish or lamination, and die-cut alignment. Small tokens with centered rings, thin borders, or detailed icons need more tolerance, otherwise normal cutting movement becomes visible.
Finishing also changes cost. Varnish keeps the process lighter, but dark edges and frequently pinched borders wear sooner. Lamination gives better protection, but the film still has to go through the die. Tight curves, small tabs, and narrow details become less forgiving once a film layer is added. For plastic, acrylic, and wood tokens, the extra cost does not come from “printing” alone. It comes from setup and testing: whether pad printing will hold, whether UV ink has enough adhesion, whether laser engraving has enough contrast, and whether the mark survives the way players handle the piece.
MOQ & Setup Cost
Small token runs can be made, but low quantity does not make the preparation smaller. The factory still has to set up the print, mount the sheets, prepare the die, run samples, punch the pieces, sort the counts, bag the tokens, and check the tray fit before anything is ready to ship.
Standard round or square cardboard tokens are easier to keep under control because they share a cleaner production path. Once the project asks for custom silhouettes, thick board, acrylic cutting, plastic molds, wood engraving, or several finishing steps, the setup cost starts sitting heavily on each token.
At low quantity, that is usually where the price looks painful. Not because the token itself is large, but because the job still needs all the same setup before the first usable batch comes out.
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