tissue-paper-manufacturing-process

Tissue Paper Manufacturing Process: How It's Made From Pulp to Product

Tissue paper touches everyday life more than almost any other paper product - from the napkin at breakfast to the facial tissue on a nightstand. Yet few people know what happens between a tree (or recycled fiber) and the soft, absorbent sheet on the roll. This guide breaks down the tissue paper manufacturing process step by step, in plain language, so you understand exactly how raw fiber becomes the finished tissue products you use daily.

At Fay, understanding this process isn't just technical trivia - it's the foundation of how we choose fiber, control quality, and deliver tissue products that are soft, strong, and safe for everyday use.

What Is Tissue Paper?

Tissue paper is a lightweight, low-density paper made primarily from cellulose fibers, engineered for softness, absorbency, and strength rather than durability or print quality. Unlike writing or packaging paper, tissue paper is deliberately made thin and crepe-textured to maximize surface area and fluid absorption while remaining gentle on skin.

Tissue paper is the base material behind everyday products such as facial tissues, toilet tissue, paper napkins, hand towel tissues, and kitchen towel tissues.

Raw Materials Used in Tissue Paper Manufacturing

The quality of any tissue product starts with fiber selection. Manufacturers typically use a blend of:

  • Virgin wood pulp (softwood and hardwood) - provides strength and softness
  • Recycled fiber (recovered paper pulp) - used for eco-friendly and cost-efficient product lines
  • Water - used extensively in pulping, dilution, and washing stages
  • Chemical additives - including wet-strength agents, softeners, brighteners, and (for perfumed lines) fragrance compounds

Softwood fibers are long and add strength, while hardwood fibers are short and contribute to softness - most tissue grades use a calculated blend of both.

The Tissue Paper Manufacturing Process: Step by Step

Step 1: Pulping

Wood chips or recycled paper are broken down mechanically or chemically into individual cellulose fibers, forming a slurry called pulp. Chemical pulping (kraft process) removes lignin to produce stronger, purer fibers ideal for tissue-grade paper.

Step 2: Stock Preparation (Refining)

The pulp is refined, cleaned of impurities (staples, plastics, ink), and diluted with water into a thin, uniform mixture called stock, typically 99% water and 1% fiber at this stage. Refining adjusts fiber flexibility to control the final sheet's softness and strength.

Step 3: Sheet Formation on the Tissue Machine

The diluted stock is sprayed evenly onto a fast-moving forming fabric (wire mesh) on the tissue machine. Water drains through the mesh by gravity and vacuum suction, leaving behind a wet fiber web - the first form of the tissue sheet.

Step 4: Pressing and Yankee Dryer

The wet web is pressed against a massive, heated cylinder called the Yankee dryer, which can reach temperatures of 90–120°C. This step:

  • Removes remaining moisture through evaporation
  • Bonds fibers together
  • Creates the smooth surface later used for creping

Step 5: Creping

As the dried sheet is scraped off the Yankee dryer using a doctor blade, it forms micro-folds known as crepe. Creping is what gives tissue paper its characteristic softness, bulk, and stretch - without it, tissue would be flat and stiff like standard printer paper.

Step 6: Reeling

The finished tissue sheet is wound onto large parent rolls, sometimes several meters wide and weighing over a ton, ready for the converting stage.

Step 7: Converting - Turning Base Tissue Into Finished Products

Converting is where raw tissue becomes a recognizable product. This stage includes:

  • Embossing - pressing patterns into the sheet for texture, thickness, and branding
  • Ply bonding - laminating 1, 2, or 3 layers together (single-ply, two-ply, three-ply)
  • Perfuming (for select lines) - applying fragrance for products like perfumed facial tissues
  • Cutting and folding - sizing sheets for facial tissues, napkins, or hand towels, or slitting into rolls for toilet tissue and kitchen towels
  • Packaging - wrapping into boxes, pouches, or party packs, ready for distribution

Step 8: Quality Control

Before dispatch, tissue is tested for:

  • Basis weight (grams per square meter)
  • Absorbency rate
  • Tensile strength (dry and wet)
  • Softness and bulk
  • Hygiene and microbial safety, especially for facial and hygiene tissues

Types of Tissue Paper Products

The same core manufacturing process is adapted - through ply count, embossing, perfuming, and cutting - to produce a wide range of tissue categories, including:

Each category is optimized at the converting stage for its specific use case - the pulping and sheet-forming stages remain broadly similar across the range.

Quality Standards and Why the Process Matters

A well-controlled manufacturing process directly determines the safety, hygiene, and performance of tissue products. Reputable manufacturers, including Fay, follow strict quality control at every stage - from fiber sourcing to final packaging - to ensure consistent softness, absorbency, and hygienic safety across every product category, from everyday hygiene tissues to premium perfumed facial tissues.

Sustainability in Tissue Paper Manufacturing

Modern tissue manufacturing increasingly emphasizes:

  • Recycled fiber content to reduce virgin pulp dependency
  • Water recycling systems within the pulping and forming stages
  • Energy-efficient Yankee dryer technology to lower fuel consumption
  • FSC-certified or sustainably sourced pulp to support responsible forestry

These practices reduce environmental impact without compromising the softness or strength consumers expect.

Let’s Clear Up Your Questions

Q1. How is tissue paper made from raw material to finished product?

Tissue paper is made by pulping wood or recycled fiber into a slurry, forming it into a thin wet sheet on a tissue machine, drying and creping it on a Yankee dryer, then converting it through embossing, cutting, and folding into finished products like facial tissues or toilet rolls.

Q2. What raw materials are used in tissue paper manufacturing?

Tissue paper is primarily made from virgin wood pulp (softwood and hardwood), recycled paper fiber, water, and chemical additives such as wet-strength agents, softeners, and fragrances for perfumed variants.

Q3. What is creping in tissue paper production?

Creping is the process of scraping the dried tissue sheet off the Yankee dryer with a doctor blade, creating micro-folds that give tissue paper its softness, bulk, and stretch.

Q4. What is the difference between 1-ply, 2-ply, and 3-ply tissue?

Ply refers to the number of tissue layers bonded together during converting. Single-ply is one layer, two-ply bonds two layers for added softness and strength, and three-ply adds a third layer for maximum thickness and absorbency.

Q5. Is recycled tissue paper as good as virgin pulp tissue?

Recycled tissue paper can perform very well for everyday use, though virgin pulp tissue generally offers slightly higher softness and strength due to longer, less-processed fibers. Many manufacturers blend both to balance sustainability and performance.

Q6. How is tissue paper tested for quality?

Manufacturers test tissue paper for basis weight, absorbency, tensile strength (both dry and wet), softness, bulk, and hygienic safety before it's approved for packaging and distribution.

Before You Go

From pulping and stock preparation to sheet formation, Yankee drying, creping, and converting, the tissue paper manufacturing process is a precise blend of engineering and material science designed to deliver everyday softness and strength. Understanding this process highlights why fiber quality and manufacturing control matter - they're the difference between an average tissue and a genuinely soft, reliable one.

At Fay, this process guides every product we make - from Hygiene Tissues and Facial Tissues to Kitchen Towel Tissues and Perfumed Facial Tissues. Explore Fay's full range products and experience the difference quality manufacturing makes.

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