Types of Textile Fabrics: A Complete Guide to Woven, Knitted and Nonwoven Fabrics

Textile fabrics are essential materials used in clothing, home furnishings, industrial products and many other applications. Different fabrics have different structures, textures, strengths, flexibility and performance characteristics. Understanding these differences helps manufacturers, designers, sourcing teams and buyers select the right material for each product.

In textile manufacturing, fabrics are commonly classified into three major structural categories: woven fabrics, knitted fabrics and nonwoven fabrics. Each category is produced using a different manufacturing method and offers specific advantages.

1. What Is Textile Fabric?

Textile fabric is a flexible material made from fibres, yarns or a combination of both. Depending on its intended use, the material may be produced through weaving, knitting, nonwoven bonding or other textile processes.

Fabric properties depend on several factors, including:

• Fibre composition, such as cotton, polyester, viscose or nylon
• Yarn type, thickness and construction
• Fabric structure and density
• Manufacturing process
• Dyeing, printing and finishing treatments
• Intended end use and required performance

For example, two fabrics made from 100% cotton may perform differently if one is woven and the other is knitted. Their stretch, drape, surface texture and suitable applications can vary considerably.

2. Woven Fabric

Woven fabric is produced by interlacing two sets of yarns at approximately right angles. The lengthwise yarns are called warp yarns, while the crosswise yarns are called weft or filling yarns.

Woven fabrics are widely used in shirts, trousers, denim, jackets, uniforms, curtains and many industrial textile products.

Common Types of Woven Fabric

• Plain weave: A basic structure in which warp and weft yarns pass over and under each other in a regular pattern. Poplin and many shirting fabrics use plain-weave constructions.
• Twill weave: Recognised by its diagonal surface lines. Denim, chino and many types of workwear fabric use twill structures.
• Satin weave: Designed to create a relatively smooth surface with a lustrous appearance, depending on the yarn and finishing.
• Oxford fabric: Commonly used for casual shirts and some uniform applications.
• Canvas: A generally strong, durable woven fabric used for bags, workwear and other heavy-duty applications.

Advantages of Woven Fabric

• Often provides good dimensional stability.
• Available in lightweight, medium-weight and heavyweight constructions.
• Suitable for structured garments and products.
• Offers a wide range of patterns, textures and finishes.

Limitations

• Many woven fabrics have limited stretch unless stretch yarns or specialised constructions are used.
• Some woven materials may fray when cut.
• Comfort and flexibility vary according to fibre, construction and finishing.

3. Knitted Fabric

Knitted fabric is created by forming interconnected loops of yarn. This loop structure generally allows knitted fabrics to stretch and recover more easily than comparable non-stretch woven fabrics.

Knitted materials are widely used for T-shirts, polo shirts, sweatshirts, leggings, sportswear, underwear and many casual garments.

Main Types of Knitted Fabric

• Single jersey: A lightweight knit commonly used for T-shirts and casual tops.
• Piqué: A textured knitted structure frequently used for polo shirts.
• Rib knit: A knit structure with visible vertical ribs, often used for cuffs, neckbands and fitted garments.
• Interlock: A double-knit structure that can provide a smoother appearance on both sides than basic single jersey.
• Fleece: A family of knitted fabrics often finished to create a soft, warm surface for sweatshirts and other casual garments.
• French terry: A knit construction with looped yarns on the reverse side, commonly used for sweatshirts and comfortable casualwear.

Advantages of Knitted Fabric

• Often offers good stretch and wearing comfort.
• Suitable for body movement and active use.
• Can provide a soft hand feel and good drape.
• Available in lightweight and heavyweight constructions.

Limitations

• Some knitted structures can curl at the edges.
• Dimensional stability may require careful washing, drying and finishing control.
• Loop structures can snag or develop holes depending on yarn and construction.
• Fabric relaxation and shrinkage must be considered during garment production.

4. Nonwoven Fabric

Nonwoven fabric is produced by forming a web of fibres and bonding or entangling them through mechanical, thermal or chemical processes. Unlike conventional woven and knitted fabrics, it does not rely on interlacing or looping yarns to create its basic structure.

Nonwoven materials are widely used in hygiene products, medical applications, filtration, packaging, agriculture and selected industrial products.

Common Nonwoven Manufacturing Methods

• Spunbond: Continuous filaments are formed and bonded into a fabric-like web. It is used in products such as shopping bags, protective covers and selected hygiene applications.
• Meltblown: Fine fibres are formed and collected into a web. This method is used in filtration media and certain specialised products.
• Needle-punched: Fibres are mechanically entangled using barbed needles. Applications include geotextiles, automotive materials and insulation.
• Hydroentangled or spunlace: High-pressure water jets entangle fibres. This method is commonly used for wipes and selected personal-care products.
• Thermally bonded: Heat is used to bond suitable fibres or filaments within a web.

Advantages of Nonwoven Fabric

• Can be manufactured for specific filtration, absorbency or barrier requirements.
• Suitable for disposable and single-use products.
• Can be engineered for lightweight construction and efficient production.
• Offers a wide range of performance characteristics depending on its composition and bonding method.

Limitations

• Strength, durability and softness vary widely between products.
• Some nonwoven materials are intended for single use rather than repeated washing.
• Recycling and disposal depend on fibre composition, additives and product design.

5. Woven vs Knitted vs Nonwoven Fabric

The following table summarises the main differences between the three fabric categories.

Note: These are general characteristics. Actual performance depends on fibre type, yarn construction, fabric weight, finishing and product specifications.

6. Natural and Synthetic Fabrics

Fabric structure is different from fibre composition. Woven, knitted and nonwoven fabrics can use natural fibres, manufactured fibres or blends, depending on the intended application.

Natural Fibre Fabrics

• Cotton: Common in T-shirts, shirts, denim and home textiles.
• Wool: Used in selected sweaters, suits, coats and insulating textiles.
• Linen: Known for its characteristic texture and commonly used in warm-weather clothing and home furnishings.
• Silk: Used in premium apparel, scarves and decorative textiles.

Manufactured Fibre Fabrics

• Polyester: Widely used in sportswear, uniforms, outerwear and blended fabrics.
• Nylon: Used in activewear, hosiery, bags and technical textiles.
• Viscose: A regenerated cellulose fibre used in dresses, shirts and other apparel.
• Elastane: Often blended with other fibres to provide additional stretch.

When selecting a fabric, consider both its fibre composition and its construction. For example, a polyester knitted fabric and a polyester woven fabric can have very different properties and uses.

7. How to Choose the Right Fabric

Choosing the correct fabric requires more than checking its colour or appearance. Manufacturers and product developers should evaluate the complete set of performance and production requirements.

1. Identify the end use: Determine whether the product is intended for everyday clothing, sportswear, workwear, medical use or another application.
2. Check fibre composition: Review the percentages of cotton, polyester, viscose, elastane or other fibres.
3. Evaluate fabric construction: Decide whether a woven, knitted or nonwoven structure is appropriate.
4. Confirm fabric weight: Check GSM or another relevant specification where applicable.
5. Assess stretch and recovery: Important for fitted garments and activewear.
6. Test dimensional stability: Check shrinkage and other relevant changes after washing or processing.
7. Review colour and surface quality: Inspect shade consistency, pilling, defects and suitability for printing or finishing.
8. Consider cost and sourcing: Compare price, availability, minimum order requirements and expected product life.

For export-oriented garment manufacturing, fabric approval should follow the buyer’s specifications and the applicable testing and quality requirements. A suitable laboratory test plan can help identify risks before bulk production.

8. Fabric Quality Tests to Consider

Depending on the product and customer requirements, common fabric evaluations may include:

• Fabric weight and width measurement
• Dimensional stability or shrinkage testing
• Colourfastness to washing, rubbing and perspiration, where applicable
• Pilling or abrasion resistance
• Tensile or tear strength for relevant materials
• Stretch and recovery testing for stretch fabrics
• Visual inspection for holes, stains, slubs, barré and other defects

Not every test is required for every fabric. Testing should be selected according to the intended product, buyer requirements and relevant industry standards.

Conclusion

Understanding textile fabric types is essential for making informed decisions in apparel production, product development and textile sourcing. Woven fabrics are commonly selected for structured garments, knitted fabrics are popular for comfortable and flexible clothing, and nonwoven fabrics serve a wide range of specialised applications.

By evaluating fibre composition, fabric construction, weight, performance and quality requirements together, textile professionals can select materials that meet the intended product specifications.

Editorial note: This guide provides general educational information. Specific fabric performance and testing requirements depend on construction, composition, intended use and applicable customer specifications.