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how to manufacture tissue paper

Apr 14th, 2026

Comprehensive Guide to the Production Process

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April 14, 2026 — Tissue paper, an indispensable daily necessity in households, offices, and public spaces worldwide, undergoes a sophisticated yet precise manufacturing process to achieve its signature softness, absorbency, and lightweight texture. From raw material selection to the final packaged product, each step is carefully calibrated to meet global quality standards, with advanced technologies driving efficiency and sustainability in modern production facilities.

The manufacturing of tissue paper typically consists of seven core stages, each playing a critical role in determining the final product’s quality. Industry experts note that while the basic process remains consistent, innovations such as through air drying (TAD) and advanced recycling technologies are reshaping the sector, aligning with growing consumer demand for eco-friendly and high-performance products.

Step 1: Raw Material Preparation and Pulping

The foundation of tissue paper production lies in high-quality pulp, which can be derived from three main sources: virgin wood pulp, recycled fiber, or alternative materials like bamboo and sugarcane pulp. Virgin pulp, sourced from sustainably managed forests (often FSC-certified), is favored for premium products due to its long, pure fibers that ensure softness and strength. Recycled fiber, obtained from waste paper, offers an eco-friendly alternative, requiring less energy and reducing wood consumption, though it undergoes additional processing to remove contaminants.

Pulping, the first key step, involves breaking down raw materials into individual cellulose fibers. For virgin pulp, bales are loaded into a high-consistency pulper (4–6% consistency) where a rotating rotor shreds the pulp in water at 40–60°C for 15–30 minutes, dispersing fibers evenly. Recycled fiber, by contrast, is processed in a drum or low-consistency pulper, where initial contaminant removal (staples, plastic, tape) begins alongside fiber separation. Chemical additives such as softeners and wet-strength agents may be added during this stage to enhance product performance.

Step 2: Cleaning and Screening

After pulping, the pulp slurry contains impurities that must be removed to ensure a smooth, clean final product. This stage uses a combination of cleaning and screening technologies: centrifugal force separates heavy contaminants like sand and metal, while slotted screens filter out smaller debris and unprocessed fiber clumps. Modern facilities use high-efficiency cleaners and fine screens to achieve 99%+ purity, preventing defects in the finished tissue and protecting downstream machinery.

 Step 3: Refining for Softness and Strength

Refining is a critical step that balances the tissue’s softness and strength—two key attributes that define its usability. The pulp slurry passes between rotating discs with machined bar patterns, which gently fibrillate the fiber surfaces, increasing their ability to bond while maintaining flexibility. Over-refining can make the tissue stiff, while under-refining reduces strength, so manufacturers carefully control the process parameters to meet specific product requirements (e.g., softer facial tissue vs. more durable kitchen tissue).

 Step 4: Sheet Formation

The refined pulp is diluted with water to a consistency of approximately 0.1% and fed into a crescent former—a specialized machine designed for tissue production. The dilute slurry is uniformly sprayed onto a fast-moving, porous metal mesh, where gravity and vacuum pressure quickly remove excess water, allowing the fibers to interweave into a thin, continuous wet sheet. Modern tissue machines operate at speeds of 1,200–2,200 meters per minute, ensuring high-volume production while maintaining sheet uniformity.

Step 5: Wet Pressing and Drying

The wet sheet is first passed through press rollers to remove additional water, reducing the energy required for drying. It is then transferred to a large steam-heated drying cylinder known as a Yankee dryer, which operates at 95–120°C to evaporate remaining moisture. A hot air hood above the Yankee dryer accelerates the drying process, ensuring the sheet reaches a moisture content of 3–5%—critical for maintaining softness and preventing mold growth.

For high-absorbency products (e.g., kitchen towels), many facilities use the TAD process, which dries the sheet with hot air instead of direct contact with the Yankee dryer. This method creates a bulkier, more porous tissue with superior wet tensile strength, though it consumes approximately twice the energy of conventional drying.

Step 6: Creping for Softness and Texture

Creping is the defining step that gives tissue paper its characteristic softness, stretch, and absorbency. As the dried sheet adheres to the Yankee dryer (via adhesive sprays), a sharp steel doctor blade scrapes it off the cylinder surface, creating thousands of micro-wrinkles across the sheet. The crinkle pattern is controlled by adjusting the adhesive strength, doctor blade geometry, and speed difference between the Yankee dryer and the paper machine’s final section, allowing manufacturers to customize texture for different products.

Step 7: Converting, Cutting, and Packaging

The large, creped paper rolls (known as jumbo rolls) are then transferred to converting machines, where they undergo final processing. The rolls are slit into narrower widths, layered (for multi-ply tissues), and embossed with patterns to enhance thickness and aesthetic appeal. For facial tissues, the paper is folded into stacks; for toilet paper, it is wound onto cores and cut into individual rolls. Finally, the finished products are packaged in plastic or cardboard, labeled with branding and product information, and inspected for quality before being shipped to distributors and retailers.

Industry insiders report that global tissue production is evolving to prioritize sustainability, with more facilities adopting recycled fiber and energy-efficient technologies. For example, Essity recently opened a £30 million recycled fiber facility in the UK, while Sofidel has invested in TAD technology to enhance product performance in North America. These innovations not only reduce environmental impact but also meet consumer demand for more responsible products.

From raw pulp to the final package, the manufacturing of tissue paper is a testament to the precision and innovation of the paper industry. Each step, from pulping to creping, is engineered to deliver the softness, absorbency, and convenience that consumers rely on daily—proving that even the most ordinary products are the result of sophisticated industrial processes.


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