Burn Out Printing (Devore) in Textiles: Techniques, Fabrics and Fashion Applications

3 min read

Burnout printing (also known as Devore) is a premium textile finishing technique used to create semi-transparent, patterned and elegant visual effects on blended fabrics. This process selectively removes cellulose fibers, leaving the synthetic fibers in place and creates a distinctive “burned-out” pattern.

Burn Out Printing (Devore) in Textiles: Techniques, Fabrics and Fashion Applications
Burn Out Print (Devore)

Burnout printing is a chemical technique of fabric reduction. A pattern is printed using a special paste containing acidic or fiber-dissolving agents.

  • Cotton, viscose, rayon? They react.
  • Polyester, nylon? They stay as they are.

Once the reaction is complete, the cellulose portions dissolve away. What’s left behind forms a pattern that feels almost etched into the fabric. Light, airy. Sometimes almost lace-like.

How Burnout Printing Works (Process Flow)

Burnout Printing Process Flow
Burnout Printing Process Flow

It’s a fairly controlled process. Has to be.

1. Fabric selection

This step matters more than people think.

Burnout printing only works on blends—specifically mixes of cellulose and synthetic fibers. Common ones include:

  • Polyester–Cotton
  • Polyester–Viscose / Rayon
  • Polyester–Silk
FiberChemical Formula
Cotton (Cellulose)(C₆H₁₀O₅)ₙ
Viscose/Rayon (Cellulose)(C₆H₁₀O₅)ₙ
Polyester (PET)(C₁₀H₈O₄)ₙ
No blend? No burnout.

2. Applying the chemical paste

The burnout paste is applied onto the fabric in a pattern.

Usually through:

  • screen printing
  • block printing
  • Rotary printing

The paste itself often includes sulfuric acid or sodium hydrogen sulfate. Strong stuff, but used carefully.

ChemicalFormula
Sulfuric AcidH₂SO₄
Sodium Hydrogen SulfateNaHSO₄
WaterH₂O
Printing ThickenerVarious polymers

3. Heat activation

Next comes heat.

The printed fabric goes through a heated chamber where:

  • the chemical activates
  • the cellulose fibers start to break down

This is where the transformation begins.

Chemical Reaction

Cellulose:

(C₆H₁₀O₅)ₙ

Acid + Heat

Degraded cellulose products + Water

The synthetic component remains intact and forms the transparent pattern.

4. Washing & neutralizing

After the reaction, the fabric is thoroughly washed.

This removes:

  • dissolved fibers
  • leftover chemicals

What remains are those sheer, translucent areas where the cellulose used to be.

Neutralizing Chemicals

ChemicalFormula
Sodium CarbonateNa₂CO₃
Sodium BicarbonateNaHCO₃
WaterH₂O

5. Final finishing

Last step—cleaning it up.

The fabric is:

  • dried
  • softened
  • sometimes over-dyed for added contrast

And that’s when the design really pops.

Most Important Burnout Chemistry

Cellulose (C₆H₁₀O₅)ₙ + H₂SO₄ + Heat → Cellulose degradation

This selective destruction of cellulose while leaving polyester intact is the fundamental principle behind burnout printing.

Suitable Fabrics for Burnout Print

Burnout Print
Burnout Print

Not all fabrics can handle it. In fact, most can’t.

Ideal blends:

  • Polyester / Cotton
  • Polyester / Rayon or Viscose
  • Polyester / Silk
  • Any mix combining cellulose + synthetic fibers

The rule is simple:
Cellulose burns out. Synthetics hold the structure.

Why designers love burnout printing  

It brings a certain texture you don’t get from regular prints.

That premium look

There’s a layered, almost dimensional feel to burnout fabrics.

  • Sheer + opaque contrast
  • Subtle depth
  • A slightly worn-in elegance

It looks expensive. Often is.

Light and breathable

Because parts of the fabric are literally removed, you get built-in airflow.

Great for:

  • summer wear
  • resort fashion
  • lightweight layering pieces

Design freedom

Burnout printing handles intricate patterns surprisingly well.

You can go:

  • delicate florals
  • bold graphics
  • abstract textures

And it works with both traditional and modern printing methods.

Limitations of Burnout Printing

It’s not a perfect technique.

Fabric limitations

You must use blends.

  • No pure cotton
  • No 100% polyester

That alone narrows your options.

Chemical sensitivity

The process involves reactive chemicals.

So:

  • timing matters
  • neutralization matters even more

One mistake, and the fabric can weaken too much.

Durability concerns

Those sheer areas? They’re fragile.

Not ideal for:

  • high-stress zones
  • heavy-duty garments

Looks great, but needs some care.pplications of Burnout Printing

Where burnout printing shows up

You’ve probably seen it more than you realize.

Fashion garments

  • Women’s tops
  • Dresses and skirts
  • Eveningwear with sheer panels
  • High-end collections

It’s especially popular where softness and movement matter.

Knitwear & casualwear

  • T-shirts with burnout overlays
  • Light cardigans
  • Trend-driven streetwear

Adds interest without making the garment heavy.

Home textiles

  • Drapes and curtains
  • Decorative cushions
  • Table covers

Creates subtle light play—especially in interiors.

Final Thought 

At the end of the day, burnout printing sits in that sweet spot between chemistry and design. It’s subtle, but it doesn’t go unnoticed. You’re not adding layers—you’re taking them away, and somehow ending up with something richer. That contrast, that lightness, that almost see-through texture… it gives fabrics a kind of quiet depth that’s hard to replicate. Not the most forgiving technique, sure. But when it’s done right, it speaks for itself.  



References & Sources
  1. The Textile Institute – Textile printing technologies, burnout (devoré) printing, chemical fabric reduction processes, textile design, and specialty finishing techniques.
  2. AATCC (American Association of Textile Chemists and Colorists) – Textile printing, chemical finishing, fabric performance, and quality evaluation standards.
  3. Society of Dyers and Colourists (SDC) – Burnout printing chemistry, cellulose degradation, specialty textile printing, and textile coloration technologies.
  4. Broadbent, A.D. – Basic Principles of Textile Coloration.
  5. Miles, L.W.C. – Textile Printing.
  6. Archroma, Huntsman, CHT, BASF, and specialty textile chemical suppliers' technical resources covering devoré printing systems, acidic print pastes, neutralization methods, and specialty fabric finishing.

Disclaimer: This information is intended for educational and industry reference purposes only. Burnout printing (devoré printing) formulations, acid concentrations, activator systems, printing parameters, drying conditions, curing temperatures, neutralization procedures, and finishing methods may vary depending on fabric composition, blend ratio, equipment specifications, chemical supplier recommendations, buyer requirements, and factory operating standards. All burnout printing processes should be validated through laboratory trials, strike-offs, strength testing, and approved production standards before bulk manufacturing. Proper chemical handling, ventilation, personal protective equipment (PPE), wastewater treatment, and compliance with applicable ZDHC, OEKO-TEX®, REACH, occupational safety regulations, and buyer-specific requirements should be ensured prior to commercial implementation. Particular care should be taken when processing cellulose-containing fabrics, as excessive chemical action may result in strength loss, fabric damage, or inconsistent burnout effects.

Written by
Alam Mohammad Shafiqul
Alam Mohammad Shafiqul
Lead Editor, Contributor
Textile Technology

Over 15 years of experience in textile engineering, Sweater & tech development. Passionate about bridging the gap between factory-floor practice and technical knowledge.

Textile Engineering Sweater Lean Six Sigma
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