Why bright designs go dull in print
Tim Knowles (opens in a new tab)15 min read
A screen makes its own light. Whereas a printed page can only reflect the light that's already around it, which means bare paper is the brightest thing it can ever show. That's why about half of a standard screen's colours can't print on standard European coated paper, and about four in five can't on uncoated. The ones that lose the most are the vivid blues, purples, aquas and greens.
Try out your screen colours on paper
Colour
Paper
Blue on coated paper: keeps 51% of its vividness, clearly duller.
Simulated for standard European offset printing. Your printer’s press and paper will differ a little, and what you see here depends on your screen.
For the curious
The printed colours use the European reference profiles PSO Coated v3 (FOGRA51) and PSO Uncoated v3 (FOGRA52), with relative colorimetric rendering: paper white counts as white, the way your eye adjusts after a moment. The vividness figures are OKLCH chroma, printed ÷ original.
Swatches marked “estimate” aren’t the profile’s own output. They’re rebuilt from the published figures for that colour (vividness kept, hue shift, colour difference), and for uncoated paper with a lightness that follows the paper’s lighter black. Tested where the profile’s own result is published, the coated method lands within 0.5 ΔE2000 of it (under a just-noticeable difference). The uncoated method, tested on the seven ink solids, typically misses by about 2 and at worst by about 6, so treat those swatches as a guide. The words in the readout are always the published figures.
The paper switch uses absolute colorimetric rendering. Coated paper reflects about 88% of the light and its darkest black about 1.7%; uncoated paper about 84% and 5.8%. Both papers are slightly blue.
Why can't a printed page be as bright as a screen?
Because a screen is a lamp and a page isn't. When you see a bright blue on your monitor, that's blue light shining straight at you. A printed page is more like a tinted mirror. It can only send back some of the light that's already in the room.
Ink works by soaking up part of the light that bounces off white paper. X-Rite, who make colour measuring instruments, explain it in their Color Guide and Glossary (opens in a new tab). So every layer of ink takes light away, and nothing ever adds it back. That leaves bare paper as the brightest thing on a printed page, and even the darkest ink still reflects a little light.
The measurements published behind the European print standards put numbers on it. Standard European coated paper reflects about 88% of the light that hits it. The darkest black a press can print on it still reflects about 1.5 to 2%. Now go to standard European uncoated paper and the darkest black reflects about 5 to 6%, which is closer to charcoal than black.
Printing uses cyan, magenta and yellow inks, plus black. Black gets its own ink because cyan, magenta and yellow together make a muddy grey, not a true black.
How many screen colours can't be printed?
About half, on standard European coated paper. On uncoated, it's about four in five. I measured the size of each colour range using the reference profiles for European offset printing, and on standard European coated paper 47.8% of the screen's range fits. On standard European uncoated paper only 22.4% fits.
None of this is one printer's fault. The International Color Consortium (opens in a new tab), the people behind colour profiles, say plainly that no device can reproduce every colour. Printers call the colours that don't fit "out of gamut", and you'll see the same phrase in Canva's help. Software then has to move those colours to something the press can actually make.
There's also no single "CMYK". The printable range depends on the press, the inks and the paper. Standards bodies measure each printing set-up and publish the results, and each one comes out a slightly different shape. So when someone gives you a colour's CMYK value, the honest follow-up question is: for which printer, and which paper?
Muted colours mostly fit. Vivid ones mostly don't. In other words, a soft, earthy palette tends to survive print while a bright one goes flat.
Worth knowing: "16.7 million colours vs 16,000" is a myth. You'll often see those two figures quoted for screen and print, but neither one measures a colour range. 16.7 million is 256 × 256 × 256, which is just the number of codes a hex value can write. CMYK at whole percentages has about 104 million codes, so by that same logic print would win. And I couldn't find any calculation behind 16,000 at all.
Which colours lose the most in print?
Gold, orange and red hold up well. Blues, purples, aquas and bright greens are the ones that suffer. To find out how much, I took full-strength screen colours from right round the colour wheel and ran them through the reference print profiles. The table shows how much of each colour's vividness survives, measured on a scale built to match the eye.
Full-strength screen colours printed on standard European coated and uncoated paper (100% means no loss):
| Screen colour | Coated: vividness kept | Uncoated: vividness kept |
|---|---|---|
| Gold #FFBF00 | 100% | 88% |
| Yellow #FFFF00 | 93% | 86% |
| Orange #FF8000 | 92% | 76% |
| Pink #FF0080 | 90% | 72% |
| Sky blue #00BFFF | 87% | 83% |
| Red #FF0000 | 85% | 70% |
| Lime #80FF00 | 66% | 55% |
| Bright green #00FF00 | 59% | 47% |
| Magenta #FF00FF | 49% | 37% |
| Purple #BF00FF | 47% | 29% |
| Violet #8000FF | 45% | 26% |
| Aqua #00FFFF | 43% | 38% |
| Blue #0000FF | 42% | 27% |
Pure screen blue keeps only 42% of its vividness on standard European coated paper, and 27% on uncoated. On that same coated paper, aqua keeps 43% and bright green keeps 59%. Bright green also prints noticeably darker, so part of what you see as "dull" is really "dark". Gold, on the other hand, loses nothing at all on coated paper.
There are two surprises in the table. Sky blue (#00BFFF) holds on to 87% on standard European coated paper. That's because it sits close to cyan ink, the one ink that's bluer than a screen can show. The other surprise is that pinks split in two. A pink that leans towards red loses much less, but some bright pinks, especially the purple-leaning ones, lose about half their vividness.
So if your brand leans on an electric blue or a purple-leaning pink, those are the colours to check before anything else.
Everyday brand colours mostly survive
Colours below full strength mostly fit, so they usually print better. A mid teal and a soft peach print exactly, on both papers. The trouble sits with the strong blues and purples.
Brand-style colours printed on standard European coated and uncoated paper:
| Colour | Coated | Uncoated |
|---|---|---|
| Teal #00A6A6 | Prints exactly | Prints exactly |
| Peach #F2C1A0 | Prints exactly | Prints exactly |
| Red #E4002B | Keeps 96%, barely changes | Keeps 77% |
| Navy #1B2A4A | Keeps 88%, slightly lighter | Noticeably lighter and greyer |
| Orange #FF6B00 | Keeps 90%, a slight change | Keeps 73% |
| Hot pink #FF1493 | Keeps 90%, a noticeable change | Keeps 72% |
| Purple #6B2FBF | Keeps 63%, clearly duller | Keeps 37% |
| Blue #0057FF | Keeps 51%, clearly duller | Keeps 35% |
Navy is the odd one out. On standard European coated paper it only gets slightly lighter. But on uncoated paper it comes out noticeably lighter and greyer, because uncoated paper can't print a deep dark.
Try out which colours survive print
Printed swatches on
Blue: keeps 42% (coated), 27% (uncoated)
Simulated for standard European offset printing. Your printer’s press and paper will differ a little, and what you see here depends on your screen.
For the curious
Each screen colour is full strength (saturation and brightness 100%) at a hue from 0° to 330°. The printed swatches and percentages come from the European reference profiles PSO Coated v3 (FOGRA51) and PSO Uncoated v3 (FOGRA52) with relative colorimetric rendering. “Vividness kept” is OKLCH chroma, printed ÷ original.
The coated swatches are the profile’s own results. The uncoated swatches are estimates built from the published uncoated percentages, the coated colour’s hue, and a lightness that follows uncoated paper’s lighter black.
Sky blue keeps so much because it sits close to cyan ink, and 100% cyan ink is a blue-green no standard screen can show exactly. So that one dot marks a direction in which print reaches a little beyond the screen.
Why does a bright blue sometimes print purple?
Say you've picked a strong, bright blue for your brand, and the printed version comes back looking purple. Two separate things push blue towards purple, and they can stack on top of each other.
The first is the colour scale most print software is built on. It bends in the blues, so if you dull a vivid blue while holding its "hue" number steady, it slides into violet. Datacolor's support pages describe the effect, and in my own runs the drift was big enough to turn pure screen blue visibly violet by the time it had lost most of its vividness. Good print profiles correct for this. The European reference profile, for example, prints screen blue as a slightly violet blue rather than a purple.
The second is the simple formula a lot of free converters use. It turns pure blue into 100% cyan plus 100% magenta, which prints as indigo-violet.
If your blues drift when you make lighter versions on screen too, Lighter versions of a colour without it turning purple covers the fix.
Why do free hex-to-CMYK converters give the wrong numbers?
Because many of them use one simple formula that knows nothing about the paper, the press or the inks. That includes one recommended in Canva's own help. I read that converter's code to check, and it uses exactly that formula, both ways.
The numbers look precise, but they can print well off, even for colours that fit. A mid teal (#00A6A6) prints exactly when it's converted with a proper print profile. Convert the same teal with the formula and it prints clearly bluer and darker. And a plain mid-grey (#808080) comes out lighter than it should.
The trap works in reverse too. Ask the formula what 100% cyan ink looks like and it says #00FFFF, an electric aqua. Print 100% cyan on standard European coated paper, though, and it comes out close to #00A3E5, a calmer sky blue. That means a converter's preview makes print colours look far brighter than they'll ever print.
A print profile gives you the real numbers, but only for one printer and one paper. Even then, the right numbers move with the paper. The same teal is 76/5/36/4 for coated stock and 93/0/37/0 for uncoated.
Try out the hex-to-CMYK trap
Screen colour
Teal: simple formula clearly different, printer’s profile exact.
Printed colours simulated for standard European offset printing on coated paper. Your printer’s press and paper will differ a little, and what you see here depends on your screen.
For the curious
“Simple formula” is a common formula used by many free converters: K = 1 − max(R, G, B), then C = (1 − R − K) ÷ (1 − K), and the same for M and Y. Going back, each channel is 255 × (1 − C)(1 − K). It knows nothing about the paper, the press or the inks.
“Printer’s profile” is the European reference profile PSO Coated v3 (FOGRA51), relative colorimetric. Both sets of numbers are printed through that profile to get the swatches. The words compare each printed colour with the screen colour (ΔE2000: under 1 exact, under 2.5 barely, under 4 slightly, under 6 noticeably, otherwise clearly different). The right numbers also change with the paper: teal is 76/5/36/4 on coated and 93/0/37/0 on uncoated.
A side note: even Pantone colours don't all fit. In 2016 X-Rite, which owned Pantone at the time, said standard four-colour printing reaches only about half of Pantone's spot colours. Add orange, green and violet inks, which is called extended gamut printing, and you reach about 90%. Pantone gave that same figure in 2015. If you want to see the gap for yourself, Pantone's Color Bridge guides show each solid colour beside its closest four-colour version.
Uncoated paper costs you more colour
On uncoated paper the ink soaks in and spreads a little. Pantone (opens in a new tab) says the same ink colour can have "quite a different visual appearance" on coated and uncoated paper, and that it's mostly down to how the ink reacts with the paper.
The losses are large. Pure screen blue keeps 42% of its vividness on standard European coated paper, but only 27% on uncoated. Blacks turn charcoal, and navy goes lighter and greyer. The good news is the muted colours: the teal and peach above still print exactly on uncoated stock.
Gloss versus matte matters much less. Canva's help says the two coated finishes give very similar colour. So if you're choosing paper for a vivid design, coated or uncoated is the decision that counts.
Where the colours that don't fit end up
They get moved, and there's more than one way to move them. The International Color Consortium defines four standard methods and calls each one "a different compromise". Two of them keep every colour that fits exactly, and pull the rest in to the nearest printable edge. Another shrinks the whole range to fit, which keeps colour relationships smooth in photos. The last one keeps colours as vivid as it can, which suits charts.
For logos and flat brand colours, the methods that keep what fits exact are the better choice. Shrink-to-fit moves everything, including colours that were fine to begin with. In my runs it shifted even the teal, a colour that would otherwise have printed perfectly.
Print can reach a few colours a screen can't
About 9% of the range of standard European coated paper sits outside what a standard screen can show, so print isn't simply a smaller version of the screen.
Pure cyan ink is the clearest case. It's a blue-green no standard screen can show exactly, and not even a Display P3 phone can quite reach it. A Display P3 phone's range is roughly a quarter to a half bigger than a standard screen's, depending on how you measure (Why your brand colour looks different on your phone explains that range). Pure yellow ink and some cyan-greens sit just outside a standard screen too. That means every on-screen preview of print is an approximation, however good it is.
One more thing: true neon can't be printed with four inks. Fluorescent inks give off more light of their colour than ordinary light alone would produce, and standard inks can't do that. Real neon print needs a special fluorescent spot ink, and not every printer offers one. Screens can't show fluorescence either, so a "neon" on screen is just a very vivid colour.
What Canva, Figma and the others do with print colours
Canva works in screen colours (hex codes) and converts them to the closest CMYK match automatically when you print. That's from its help page on designing with print colours (opens in a new tab). On the Pro, Teams, Education and Nonprofits plans, its PDF Print download lets you choose a CMYK colour profile. But Canva doesn't say which print profile it uses, and I couldn't find an on-screen print preview. What its help does suggest is ordering a single test copy before a big run, and it says some colour shift is normal for bright colours.
Figma has no CMYK at all, as of September 2026. Its colour profile settings (opens in a new tab) offer two screen profiles, for both files and exports. So designers who print from Figma either send an RGB PDF and let the printer convert it, or use third-party plugins.
Photoshop and Affinity are different. They can show a print preview on screen, called a soft proof, and they can grey out colours that won't print. Adobe's guide to proofing colours (opens in a new tab) also shows you how to simulate the paper's off-white and the dark grey you get instead of solid black. Just keep in mind that a soft proof is only as good as the screen you're viewing it on.
What should you do differently before your next print run?
Treat print as its own version of your colours, and check that version before you pay for the run.
- Ask your printer which colour profile they print to, and on which paper. Printers differ. MOO, for example, previews with a US standard called Coated GRACoL 2006, while the current European reference is PSO Coated v3. I couldn't find a source for what Australian printers typically use, so ask yours.
- Check your riskiest colours first. Electric blues, purples, aquas, bright greens and purple-leaning pinks are the most likely to dull. Golds, oranges, reds and muted colours usually survive.
- Don't take CMYK numbers from a free converter. Get them from your printer's profile, or let the printer convert your file for you.
- Choose a print version of each brand colour on purpose. If your blue can't print, pick the printable blue you like best, rather than letting software pick it for you.
- For logos and flat colours, ask for a method that keeps in-range colours exact. Shrink-to-fit suits photos better.
- Preview before you pay. Soft-proof in Photoshop or Affinity if you have them. If you don't, order a single test copy, as Canva suggests.
- Plan for the paper. Uncoated paper dulls vivid colours and greys out deep darks. And if you need true neon, ask about fluorescent spot ink.
Frequently asked questions
Why do my printed colours look duller or darker than on my screen?
Because a screen gives off its own light, but paper can only reflect the light that falls on it. Ink absorbs some of that light, so the brightest thing on a printed page is bare paper, and even the darkest ink reflects a little. About half the colours a standard screen can show can't print on standard European coated paper, and more can't on uncoated, so the most vivid ones get pulled to the nearest printable shade.
Should I design in RGB or CMYK in Canva?
In Canva you design in RGB. Its editor works with RGB colours (hex codes), and Canva converts them to CMYK automatically when you print. On Pro, Teams, Education and Nonprofits plans, the PDF Print download also lets you choose a CMYK colour profile. The final colour still depends on your printer's press and paper, so ask which file they want, go easy on neon-bright colours, and order a single test copy before a big run.
Why does my bright blue print purple?
Because very vivid screen blues can't be printed with standard inks, so they have to be dulled, and two things can push them towards purple along the way. Software that measures hue with an older colour scale drifts blues towards violet as it weakens them. Simple converter formulas also turn pure blue into equal cyan and magenta, which prints as indigo. A proper print profile from your printer avoids most of that drift.
Can I print neon or fluorescent colours?
Not with standard four-colour (CMYK) printing. Fluorescent inks give off more light of their colour than ordinary light alone would produce, and normal inks can't do that, so true neons need a special fluorescent spot ink. Not every printer offers one. Screens can't show real fluorescence either, so an on-screen "neon" is just a very vivid colour. Ask your printer whether they offer fluorescent or spot inks.
Why do different hex-to-CMYK converters give different numbers?
Because there's no single correct CMYK for a colour. The right numbers depend on the press, the inks and the paper, and printing standards bodies measure those and publish them as colour profiles. Many free converters skip all of that and use one simple formula, so their numbers may not match any real printing. Ask your printer which colour profile they print to, and convert with that instead.
Does Figma support CMYK?
No. As of September 2026, Figma offers only two screen colour profiles for files and exports, and there's no CMYK mode. Designers who print from Figma either send an RGB PDF and let the printer convert it with their own profile, or use third-party plugins that add CMYK export. It's worth checking with your printer which of those they prefer.
For the curious
A device's colour range is its gamut. The ICC's four rendering intents are perceptual (shrink to fit), saturation (keep it vivid), and media-relative and absolute colorimetric (keep what fits; absolute also simulates the paper's tint, for proofing). Every print figure here uses relative colorimetric with ECI's PSO Coated v3, built from FOGRA51 data to ISO 12647-2:2013, and PSO Uncoated v3 (FOGRA52), run in ArgyllCMS 3.1.0 and LittleCMS 2.14, and the two engines agreed. Range sizes are CIELAB volumes. "Vividness" is OKLCH chroma. Colour differences are ΔE2000: the teal is 0.0 through the profile and 20.7 through the formula. The blue drift is a quirk of CIELAB hue. If you hold #0000FF's hue angle while cutting its chroma to 40%, it moves 28° towards violet in OKLCH. The converter formula is K = 1 − max(R, G, B), and the K in CMYK stands for "key", the plate carrying the most detail. US printers often use GRACoL. I didn't run it, so its percentages will differ, though the pattern is very unlikely to change.
Sources (16)
- International Color Consortium, "Profile" (opens in a new tab) and "Introduction to the ICC profile format" (opens in a new tab), retrieved 19 September 2026
- ICC registry, FOGRA51 (opens in a new tab) and FOGRA52 (opens in a new tab) characterisation data, Fogra, 2015
- European Color Initiative, PSO Coated v3 and PSO Uncoated v3 (FOGRA52) profiles (opens in a new tab), 30 September 2015
- ISO, ISO 12647-2:2013, offset lithographic processes (opens in a new tab)
- X-Rite, "The Color Guide and Glossary" (opens in a new tab), 2004
- X-Rite, "Pantone Extended Gamut Guide helps printers" (opens in a new tab), 15 February 2016
- Pantone, extended gamut guide announcement (opens in a new tab), via WhatTheyThink, 9 September 2015
- Pantone Support, "What does the terms Coated and Uncoated mean in the Pantone Graphics System?" (opens in a new tab) and Formula Guides vs Color Bridge Guides (opens in a new tab)
- Datacolor, "Why do some saturated blues print as purples?" (opens in a new tab), 2 September 2021
- Christopher S. Baird, "What makes a 'fluorescent' highlighter marker so bright?" (opens in a new tab), West Texas A&M University, 15 May 2015
- Canva Help, "Design with print colors" (opens in a new tab), "Choose the right download file type" (opens in a new tab) and "Fix an issue with your Canva Print order" (opens in a new tab), retrieved 19 September 2026
- Figma Learn, "Manage color profiles in design files" (opens in a new tab), updated 13 September 2026
- Adobe Help, "Proofing colors" (opens in a new tab) (Photoshop), updated 24 May 2023
- Affinity Help, "Soft Proof adjustment" (opens in a new tab) (Publisher 2)
- MOO Support, "Design color settings" (opens in a new tab), updated 5 September 2026
- ArgyllCMS (opens in a new tab) (Graeme Gill) and LittleCMS (opens in a new tab) (Marti Maria), the colour engines behind the calculations
Next: Dark mode isn't just flipping the colours
Tim Knowles
Websites, marketing strategy and AI training
Tim has worked in marketing since 2000. At Your Marketing Specialist he builds the websites, and colouriser is one of them. He is self-taught, and learns each subject in depth before he advises on it.
Each Article is written from Tim's own research, and every Figure runs on colouriser's own colour maths.
More about Tim (opens in a new tab)