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Man Made Fibres - Advantages and Disadvantages, Classification, FAQs

Man Made Fibres - Advantages and Disadvantages, Classification, FAQs

Edited By Team Careers360 | Updated on Jul 02, 2025 04:55 PM IST

Man-made fibres or human-made fibres are those fibres which are synthesised by humans in the laboratory, they do not occur naturally their structure, properties and chemical compositions are altered significantly during the manufacturing process. Man-made fibres are made by spun and woven for the production of a large number of consumer and industrial products such as garments, home furnishings etc. Man-made fibres examples are rayon, nylon, polyester fibres etc.

This Story also Contains
  1. Natural Fibres
  2. Types of Natural Fibres
  3. Classification of Man-made Fibres
  4. Synthetic Fibres
  5. What are Regenerated Fibres?
  6. Advantages of Man-made Fibres
  7. Disadvantages of Man-made Fibres

In this article, we cover the concept of man-made fibre. which is a very important chapter of Polymers from the board exam point of view and also for the JEE Mains Exam, NEET Exam and many other entrance exams like SRMJEE, BITSAT, WBJEE, BCECE, and more

Natural Fibres

Natural fibres are obtained from natural sources such as plants, animals and mineral sources which are available to mankind. Fibres that are obtained from plants are called plant fibres. Cellulose fibres are obtained from plant fibres. Examples of natural plant fibres are cotton which is obtained from cotton plants. Animal fibres are those which are naturally available from animals. Protein fibres are obtained from animal fibres. Examples are wool which is obtained from sheep and silk is commonly obtained from the cocoons of the silkworm. Natural fabrics are used from natural fibres.

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Types of Natural Fibres

These natural fibres are obtained from raw materials from natural sources. The types of natural fibres are as follows:

  1. Cotton

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It is a soft fibre. Cotton is made up from the cotton plant. It is grown and is picked up in the form of a white fluffy ball (known as a boll) from around the seeds of the plant. Each boll consists of about 20,000 staple fibres. These are spun into yarn and are then woven into cotton fabrics. These fibres can be mixed with other fibres to make fabrics varying from lightweight voiles to heavier canvases. The unique properties of cotton are due to the presence of cellulose which gives it strength, durability and absorbency. It is mostly preferred in hot and humid climates as it can absorb a good amount of sweat from the body.

Cotton plant

  1. Jute

It is one of the cheapest fibres available. They are obtained from the jute plant. Depending on the climate and region the properties of the jute can be varied. They are hard, long fibre and are environment friendly. They are good insulating fibres and have low thermal conductivity. These fibres can easily blend with other fibres.

Jute

  1. Silk

It is obtained from the cocoon of silkworm and is a natural proteins fibre. It has good absorbent quality and the low conductivity of silk makes it cool and highly desirable to wear in summer and warm in winter. It is made up of continuous filaments rather than staple fibres and is one of the strongest natural fibres. Silk is also used for making parachutes.

Silk cloth

  1. Wool

Wool is a natural fibre obtained from woolly animals like sheep. These fibres contain proteins units in their molecules. It is spun into long strands and is then woven into fabrics. They have the ability to trap air and keep warm which also makes it a good insulating fibre. They are flame-resistant and very soft. They are used for making blankets, carpets etc.

Wool

Classification of Man-made Fibres

Man-made fibres are different from natural fibres. Their properties, structure and chemical compositions are modified during the chemical processes. Man-made fibres can be generally classified as follows:

  1. Synthetic Fibres

  2. Regenerated Fibres

Synthetic Fibres

Synthetic fibres are synthesised from chemical processes. Man-made synthetic fibres are also called artificial fibres. These synthetic fibres were first developed in the nineteenth century for the production of stronger fibres that can withstand high pressure. Now, these man-made fibres have wide-extended applications other than textiles. Examples of synthetic fibres are nylon, acrylic, polyester etc.

Types of Synthetic Fibres

They are produced by chemical processes from man-made raw materials. The various types of synthetic fibres are as follows:

  1. Nylon

Nylon was discovered in the 1930’s. It was the first man-made fibre. Nylon is generally termed a family of synthetic polymers called linear polyamides. One major type of nylon is Nylon 6, 6 by the combination of two organic compounds. It is strong and has good abrasion resistance. The strength-to-weight ratio of nylon is good which shows that it is strong and lightweight at the same time. It is a water-resistant fibre and hence used for the manufacture of waterproof clothing and umbrellas.

nylon

  1. Polyester

The most widely used man-made fibres are Polyester. It was invented in the year 1938 in the United Kingdom. They show properties similar to nylon. These polyester fibres are synthesised from a chemical compound known as ethylene glycol. These fibres do not absorb moisture and they dry quickly. They can be blended with other fibres such as cotton or wool. These fibres are strong and hence used in sportswear and performance clothing.

Polyester

  1. Acrylic

They are synthetic fibres and are used as cheaper wool. They are manufactured as staple fibres and come in two forms: dry-spun and wet-spun. They show many advantages such as crease resistance and resistance to sunlight fading.

What are Regenerated Fibres?

These are semi-synthetic fibres that are made from raw materials having long-chain polymer structures. They are modified and partially degraded during the chemical processes. A regenerated fibre example is rayon. These regenerated fibres are made from cellulose polymers that are naturally occurring in cotton, wood, hemp, flax etc. Semi-synthetic fibre is also known as regenerated fibres or regenerated synthetic fibres.

Semi-synthetic fibres mostly cellulose regenerated fibres. The cellulose is first converted into a pure form of viscous mass and is then converted into fibres by extrusion through spinnerets. The first man-made regenerated fibres are rayon and acetate.

  1. Rayon

It was invented by a French chemist Chardonnet and was first called Chardonnet silk and later named rayon. Why rayon is called regenerated fibres because it is a semi-synthetic material which is manufactured from a cellulose base. Cellulose is obtained from wood pulp and is made by the combination of carbon disulphide and sodium hydroxide . It is used as an imitation of cotton and silk. Several other man-made fibres are used for non-textile purposes. These man-made fibres are mixed with natural fibres to form advanced fibres which exhibit the characteristics of both fibres.

Rayon meaning in hindi is ‘reyaan’.

Advantages of Man-made Fibres

Man-made fibres are usually preferred to natural fibres due to their distinct characteristics such as high strength and low making cost etc. In the twenty-first century, a major part of the textile industry uses man-made fibres because of their various advantages. These include low cost, higher strength, high manufacturing profits etc. Some advantages of man-made fibres are described as follows:

  • High strength: Man-made fibres are strong and they can take up heavy things easily.

  • Retains their original shape: Man-made fibres retain their original shape so they can be easily washed and worn.

  • Elastic: They are easily stretched out.

  • Soft: They are generally soft and are used for clothing purposes.

  • Low cost: The man-made fibres are generally cheaper compared to natural fibres.

  • Colour: Colours can be easily incorporated into man-made fibres during their production.

  • They are lightweight materials.

  • Easy manufacturing: Natural fibres undergo long processes while man-made fibres can be produced in factories in less time.

Disadvantages of Man-made Fibres

  • Man-made fibres do not absorb moisture and traps heat in our bodies.

  • Some man-made fibres cause skin allergies due to their dermatological actions.

  • Man-made fibre fails to absorb perspiration and hence the wearer feels discomfort during hot climates.

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Frequently Asked Questions (FAQs)

1. Is cotton a protein fibre?

No. Protein fibres are those fibres that are obtained from animals. Cotton is obtained from cotton plants and hence it is a cellulose fibre.

2. Give the man-made fibres list or types of man-made fibres.

List of man-made fibres are:

  • Polyesters

  • Polyamides

  • Nylon

  • Rayon

  • Polystyrene

  • Polyurethanes

  • Polyethylene 

3. Cotton fibre is made up of
  1. Protein

  2. Starch

  3. Cellulose

  4. Lignin

Answer: Cellulose

4. Name of man-made fibre prepared from natural material.

 Rayon. It is the first synthetic fibre made by man.

5. Name two man-made fibres.

Two man-made fibres are rayon and nylon.

6. Cellulose fibre definition.

Cellulose fibres are fibres obtained from plants and they are made with esters or ethers of cellulose. Cellulosic fibre example is cotton.

7. Name two fibres which are made of protein.

Wool and silk.

8. Which is the first man-made fibre?

Rayon

9. Which fibre is also known as regenerated fibre?

Semi-synthetic fibre is also known as regenerated fibres

10. Man-made fibres definition.

Man-made fibres are those fibres whose structure, properties and chemical compositions are altered significantly during the manufacturing process.

11. What are the advantages of using man-made fibres?

Advantages of man-made fibres include:

  • Durability: They are often stronger and more resistant to wear and tear compared to natural fibres.
  • Cost-effectiveness: Generally, they are less expensive to produce in large quantities.
  • Versatility: Man-made fibres can be engineered to achieve specific characteristics like moisture-wicking, fire resistance, or UV protection.
  • Consistency: They offer uniform quality and performance, as they are manufactured under controlled conditions.
12. Can man-made fibres be recycled?

Yes, many man-made fibres can be recycled. Processes exist for recycling synthetic fibres like polyester into new fibres. Additionally, initiatives in the textile industry aim to collect and recycle used garments made from man-made fibres, thereby reducing waste and resource consumption.

13. What are the advantages of using man-made fibres?

Advantages of man-made fibres include:

  • Durability: They are often stronger and more resistant to wear and tear compared to natural fibres.
  • Cost-effectiveness: Generally, they are less expensive to produce in large quantities.
  • Versatility: Man-made fibres can be engineered to achieve specific characteristics like moisture-wicking, fire resistance, or UV protection.
  • Consistency: They offer uniform quality and performance, as they are manufactured under controlled conditions.
14. Can man-made fibres be recycled?

Yes, many man-made fibres can be recycled. Processes exist for recycling synthetic fibres like polyester into new fibres. Additionally, initiatives in the textile industry aim to collect and recycle used garments made from man-made fibres, thereby reducing waste and resource consumption.

15. What are the main advantages of man-made fibers over natural fibers?
The main advantages of man-made fibers include: greater durability, resistance to wrinkles and shrinkage, easier care and maintenance, ability to be engineered for specific properties, consistent quality, and often lower cost of production.
16. How do man-made fibers contribute to textile innovation?
Man-made fibers enable the creation of textiles with properties that are difficult or impossible to achieve with natural fibers alone. This includes ultra-strong fabrics, moisture-wicking materials, flame-resistant textiles, and smart fabrics that can respond to environmental changes or even conduct electricity.
17. How do man-made fibers affect the fashion industry?
Man-made fibers have revolutionized the fashion industry by providing more affordable, durable, and easy-care fabrics. They've enabled the development of new textures and properties in clothing, expanded color options, and contributed to the rise of fast fashion due to their lower cost and consistent quality.
18. How do man-made fibers impact the performance of sportswear?
Man-made fibers have greatly enhanced sportswear performance. They can be engineered to wick moisture away from the skin, dry quickly, provide compression, offer UV protection, and maintain shape after repeated use and washing. This has led to more comfortable and functional athletic wear.
19. What are smart textiles, and how do they relate to man-made fibers?
Smart textiles are fabrics that can sense and react to environmental conditions or stimuli. Many smart textiles rely on man-made fibers, either as the base material or as functional components. For example, conductive fibers can be woven into fabrics to create textiles that can monitor vital signs or change color in response to heat.
20. How are man-made fibers classified?
Man-made fibers are primarily classified into two categories: synthetic fibers (made from petrochemicals) and regenerated fibers (made from natural materials that are chemically processed). Examples of synthetic fibers include polyester, nylon, and acrylic, while regenerated fibers include rayon and modal.
21. What is lyocell, and how does it differ from other man-made fibers?
Lyocell is a regenerated cellulose fiber made from wood pulp, similar to rayon and modal. However, it's produced using a more environmentally friendly process that recycles almost all the solvent used. Lyocell is known for its softness, strength when wet, and ability to absorb moisture, making it a popular choice for sustainable fashion.
22. How do man-made fibers affect the dyeing process in textile production?
Man-made fibers often accept dyes more readily and evenly than natural fibers, allowing for a wider range of colors and more consistent results. Some man-made fibers can be solution-dyed (where color is added to the polymer before extrusion), which results in excellent color fastness and reduces water usage in the dyeing process.
23. What are the fire-resistant properties of man-made fibers?
Some man-made fibers, like aramids (e.g., Kevlar, Nomex), have inherent flame-resistant properties. Others can be engineered or treated to be flame-retardant. This makes them crucial for safety clothing, furnishings, and industrial applications where fire resistance is important.
24. How do man-made fibers contribute to the development of technical textiles?
Man-made fibers are essential in the development of technical textiles - textiles designed and produced for their technical and performance properties rather than their aesthetic characteristics. These fibers can be engineered for specific properties like high strength, chemical resistance, or electrical conductivity, enabling the creation of textiles for specialized applications in industries like aerospace, automotive, and construction.
25. How do man-made fibers impact the environment?
Man-made fibers can have both positive and negative environmental impacts. On the negative side, many synthetic fibers are derived from non-renewable petroleum resources and may not biodegrade easily. However, they often require less water and land to produce than natural fibers, and some man-made fibers can be recycled or made from recycled materials.
26. What are some common misconceptions about man-made fibers?
Common misconceptions include that all man-made fibers are "plastic" or environmentally harmful, that they are always less comfortable than natural fibers, or that they are always cheaper or lower quality. In reality, man-made fibers vary widely in their properties, environmental impact, and quality depending on their composition and production methods.
27. What are microfibers, and why are they a concern?
Microfibers are tiny synthetic fibers, less than 5mm in length, that can shed from textiles during washing or wear. They're a concern because they can enter waterways and contribute to microplastic pollution, potentially harming marine life and entering the food chain.
28. How do man-made fibers compare to natural fibers in terms of biodegradability?
Most synthetic man-made fibers, like polyester and nylon, are not biodegradable and can persist in the environment for hundreds of years. Some regenerated fibers, like rayon, are biodegradable. Natural fibers generally biodegrade more quickly, though the rate can vary depending on the fiber and environmental conditions.
29. How does the production process of man-made fibers affect their properties?
The production process, including the type of polymer used, the spinning method, and any post-production treatments, greatly influences the properties of man-made fibers. Factors like drawing (stretching) the fiber can increase strength, while heat-setting can improve dimensional stability.
30. What is the difference between staple fiber and filament yarn in man-made fibers?
Staple fiber yarn is made from short lengths of fiber that are spun together, similar to how natural fibers like cotton are processed. Filament yarn consists of long, continuous strands of fiber. In man-made fibers, both types can be produced, but filament yarn is more common. Staple fibers can provide a more natural feel and better moisture absorption, while filament yarns often offer higher strength and smoother textures.
31. How do man-made fibers affect the cost of textiles?
Man-made fibers often reduce the cost of textiles due to their lower production costs compared to many natural fibers. They can be produced consistently year-round, are less subject to crop failures or pest issues, and often require less processing. This has made clothing and other textile products more affordable and accessible.
32. How do man-made fibers affect the durability and lifespan of textiles?
Man-made fibers often increase the durability and lifespan of textiles. They can be engineered to resist wear and tear, maintain shape after washing, and withstand exposure to sunlight and chemicals better than many natural fibers. This can lead to longer-lasting products, potentially reducing overall consumption.
33. What is the difference between polyester and nylon?
Polyester and nylon are both synthetic fibers, but they have different chemical structures and properties. Polyester is made from polyethylene terephthalate (PET) and is known for its wrinkle resistance and durability. Nylon is a polyamide fiber that's generally stronger and more elastic than polyester, with better abrasion resistance.
34. What are man-made fibers, and how do they differ from natural fibers?
Man-made fibers are synthetic or artificial fibers created through chemical processes, unlike natural fibers which come from plants or animals. Man-made fibers are engineered to have specific properties, allowing for greater control over their characteristics compared to natural fibers.
35. What is the difference between thermoplastic and thermosetting fibers?
Thermoplastic fibers can be melted and reshaped multiple times when heated, while thermosetting fibers, once formed, cannot be melted or reshaped. Most synthetic fibers like polyester and nylon are thermoplastic, while some specialized fibers used in high-temperature applications are thermosetting.
36. What is the role of polymers in man-made fibers?
Polymers are the building blocks of man-made fibers. They are long chains of repeating molecular units that give fibers their structure and properties. The type of polymer used determines the characteristics of the resulting fiber, such as strength, elasticity, and heat resistance.
37. What is the difference between staple fibers and filament fibers?
Staple fibers are short, discrete lengths of fiber (usually a few inches long) that are spun together to form yarn. Filament fibers are continuous strands of indefinite length. Both can be man-made, but filament fibers are more common in synthetic fiber production.
38. What is the difference between rayon and modal?
Both rayon and modal are regenerated cellulose fibers, but modal is considered a second-generation rayon. Modal is made specifically from beech trees and undergoes a different production process, resulting in a stronger, more durable fiber with better moisture-wicking properties compared to regular rayon.
39. How do man-made fibers compare to natural fibers in terms of comfort?
The comfort of man-made fibers varies widely depending on the specific fiber and how it's processed. Some man-made fibers, like polyester, have traditionally been considered less comfortable than natural fibers. However, advances in fiber engineering have led to man-made fibers that can match or exceed the comfort of natural fibers, with properties like moisture-wicking and temperature regulation.
40. How do man-made fibers contribute to sustainable fashion?
While many synthetic fibers are derived from non-renewable resources, man-made fibers can contribute to sustainable fashion in several ways. They can be made from recycled materials (like PET bottles), engineered for longevity and durability, designed to require less water and energy in care, and in some cases, made to be recyclable at the end of their life.
41. What are some emerging trends in man-made fiber technology?
Emerging trends include bio-based synthetic fibers made from renewable resources, fibers with enhanced biodegradability, nanofiber technology for advanced filtration and medical applications, and the development of more sustainable production processes for existing man-made fibers.
42. How do man-made fibers impact the medical and healthcare industries?
Man-made fibers have numerous applications in healthcare, including sutures, artificial ligaments, and vascular grafts. They're used in wound dressings, surgical gowns, and personal protective equipment. Some man-made fibers can be engineered to have antimicrobial properties or to deliver medications.
43. What is the role of nanotechnology in man-made fiber development?
Nanotechnology is used to enhance the properties of man-made fibers at the molecular level. This can result in fibers with improved strength, antimicrobial properties, UV resistance, or self-cleaning capabilities. Nanofibers, extremely thin fibers with diameters measured in nanometers, are also being developed for specialized applications.
44. What are some challenges in recycling man-made fibers?
Challenges in recycling man-made fibers include separating blended fabrics, maintaining fiber quality through the recycling process, and the energy intensity of some recycling methods. Additionally, not all man-made fibers are currently recyclable, and there's a need for more widespread recycling infrastructure.
45. What is the environmental impact of microfiber shedding from synthetic textiles?
Microfiber shedding from synthetic textiles, particularly during washing, contributes to microplastic pollution in waterways and oceans. These microfibers can be ingested by marine life, potentially entering the food chain. They may also absorb and concentrate pollutants from the surrounding water. Research is ongoing to develop solutions, such as improved fiber and fabric designs, filters for washing machines, and more effective wastewater treatment methods.
46. How do man-made fibers affect the breathability of fabrics?
The breathability of fabrics made from man-made fibers can vary widely. Some synthetic fibers, like polyester, are naturally hydrophobic and don't absorb moisture well, which can reduce breathability. However, advanced fiber engineering has led to the development of synthetic fibers with improved moisture-wicking and breathability properties. Additionally, the structure of the fabric (how tightly it's woven or knitted) also plays a significant role in breathability.
47. What are bicomponent fibers, and how are they used in textile production?
Bicomponent fibers are man-made fibers composed of two or more polymer components. These components are extruded together to form a single fiber with properties derived from both polymers. They can be used to create fibers with unique cross-sections, to combine the properties of different polymers, or to produce fibers that can be heat-bonded. Applications include thermal insulation, filtration, and creating fabrics with special textures or performance characteristics.
48. How do man-made fibers contribute to the development of protective clothing?
Man-made fibers play a crucial role in protective clothing due to their ability to be engineered for specific properties. For example, aramid fibers provide heat and cut resistance for firefighter gear, while Gore-Tex (a type of expanded PTFE) offers waterproofing and breathability for outdoor wear. Nanofiber technology is also being explored for improved filtration in protective masks.
49. How do man-made fibers impact the textile recycling process?
Man-made fibers present both challenges and opportunities in textile recycling. Pure synthetic fabrics can often be melted down and re-extruded into new fibers, a process known as chemical recycling. However, blended fabrics (mixtures of different fibers) are more difficult to recycle. Some man-made fibers, like polyester, are more easily recycled than others. The development of new recycling technologies for man-made fibers is an active area of research in the pursuit of a more circular textile economy.
50. What are the main differences between regenerated and synthetic man-made fibers?
Regenerated fibers, like rayon and lyocell, are made from natural polymers (usually cellulose) that are chemically processed to form fibers. Synthetic fibers, like polyester and nylon, are made from polymers synthesized from chemical compounds, often derived from petroleum. Regenerated fibers tend to have properties more similar to natural fibers (like good moisture absorption), while synthetic fibers often offer superior strength and durability.
51. How do man-made fibers contribute to the development of geotextiles?
Man-made fibers are crucial in the production of geotextiles - materials used in civil engineering and construction. Synthetic fibers like polyester and polypropylene are commonly used due to their strength, durability, and resistance to degradation in soil. Geotextiles perform functions such as separation, reinforcement, filtration, and drainage in applications like road construction, erosion control, and landfill design.
52. What is the role of man-made fibers in the aerospace industry?
Man-made fibers play a significant role in the aerospace industry due to their high strength-to-weight ratio and ability to withstand extreme conditions. Carbon fibers are used in composite materials for aircraft structures, while aramid fibers are used in impact-resistant components. Other specialized man-made fibers contribute to insulation, fire resistance, and various technical textiles used in aerospace applications.
53. How do man-made fibers affect the moisture management properties of textiles?
Man-made fibers can be engineered to have specific moisture management properties. While many synthetic fibers are naturally hydrophobic (water-repelling), they can be designed to wick moisture away from the skin to the outer surface of the fabric where it can evaporate quickly. This property is particularly useful in sportswear and performance clothing. Some man-made fibers, like certain types of polyester, can be produced with varying levels of moisture absorption to suit different applications.
54. What are the challenges and opportunities in developing more sustainable man-made fibers?
Challenges in developing sustainable man-made fibers include reducing reliance on petroleum-based raw materials, minimizing energy use and chemical inputs in production, and improving end-of-life recyclability or biodegradability. Opportunities include the development of bio-based synthetic fibers, improving recycling technologies, creating fibers that shed fewer microplastics, and designing fibers for a circular economy model where materials can be continuously reused or recycled.
55. How do man-made fibers contribute to the development of smart textiles?
Man-made fibers are essential in the development of smart textiles due to their ability to be engineered with specific properties. Conductive fibers can be integrated into fabrics to create textiles that can sense and respond to stimuli. Shape-memory polymers can be used to create fabrics that change shape with temperature. Some man-made fibers can also be designed to change color in response to environmental factors or to release substances like medications or fragrances.
56. What is the difference between micro and macro man-made fibers?
Micro man-made fibers have a diameter less than 1 denier or decitex (about 10 micrometers), while macro fibers are larger. Microfibers are known for their softness, drape, and ability to create very dense fabrics, making them popular in cleaning cloths and high-performance apparel.

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