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    The Indian Defense Industry: An Opportunity Reservoir for Overseas Vendors

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    for composite textiles in the market is generated by these two industries alone according to an analysis from Stratview Research.

    Fig. 2: Composite textiles market trend and forecast (US$ billion)

    Some key driving forces behind the demand emanating from the major industries are:
     

    1. Increase in the demand for Printed Circuit Boards (PCBs):
      Owing to the increased demand for consumer electronics and the surge in the integration of connected technologies into automobile and aerospace, the PCB market itself experienced a growth of roughly 20% in the past two years, from an estimated value of $65.2 bn in 2020 to ~$84.6 bn in 2022. Since PCB laminates are largely made of fibreglass, the corresponding demand for composite textiles will also increase.

       
    2. Continuous transition towards clean energy:
      According to the Global Wind Energy Council (GWEC), the global cumulative wind energy installations would cross the 1,000 GW mark in 2023, which would ultimately lead to the installation of more wind turbines. Since turbine blade manufacturers are now focusing on increasing the length of the blades for enhanced energy output, the demand for the materials would also increase subsequently. In September 2022, China-based Lianyungang Zhongfu Lianzhong Composites Group Co., Ltd. (LZ Blades) rolled out a 123-metre-long wind turbine blade, which the company claimed to be the world’s largest. In 2021, the record was held by the 115.5-meter-long vestas V236-15.0 MW.

       
    3. Increasing penetration of composites in the aerospace industry:
      The penetration of composites in aircraft programs has increased from <10% in the Boeing 737, to more than 50% in some of the recent programs like the Boeing 787 and all major aircraft OEMs are following the same trend. Not to overlook the next big innovation in the aerospace industry, i.e., Electric Vertical Take-off and Landing Aircraft (eVTOLs), which would be ~70% composites. In eVTOLs,

    Apart from these, the marine and automotive industries will also have a significant role to play on the demand side and it would be safe to say that the composite textiles industry would remain an all-growing industry for a very long time since it has become an inevitable part of the supply chain for so many growing industries.

     

    The Economic and Durable Solution: Glass Fibre


    Of the mentioned industries in Table 1, only the aerospace industry has carbon fibre as the dominant material for all its applications, and the requirements of all other industries are well-handled by glass fibre. Though the properties of fibres vary largely depending upon the manufacturer, the process, and the grade of raw material used, a high-level comparison of carbon, aramid, and glass fibre can be presented as follows:

    Fibre

    Avg. Fibre Strength (MPa)

    Avg. Laminate Strength (MPa)

    Carbon

    4,127

    1,600

    Aramid

    2,757

    1,430

    Glass (E Glass)

    3,450

    1,500

    Table 1: High-level comparison of different fibre types

    Despite having the highest fibre strength and laminate strength across all the commercially available fibres, carbon fibre isn’t at the top of the OEMs’ list because of its comparatively high price. The process of producing carbon fibre is also much more intensive than fibreglass and the conversion into prepreg in case of carbon fibre, increases both the cost and the complexity further.
    While the average cost of glass fibre usually ranges between $2.2-$3.0/kg, carbon fibre is about 10x costlier. This is the reason why more than 80% of the reinforcements across the industry are done using glass fibre.

    Within glass fibre too, there are different grades namely A-glass, C-glass, E-glass, and R, S, or T-glass (R, S, and T signify different manufacturer trademarks). The applications and properties of which, can be described as follows:

    Thought Leadership Reports

    The Indian Defense Industry: An Opportunity Reservoir for Overseas Vendors

    testing

    Access the Full Report
    Or

    for composite textiles in the market is generated by these two industries alone according to an analysis from Stratview Research.

    Fig. 2: Composite textiles market trend and forecast (US$ billion)

    Some key driving forces behind the demand emanating from the major industries are:
     

    1. Increase in the demand for Printed Circuit Boards (PCBs):
      Owing to the increased demand for consumer electronics and the surge in the integration of connected technologies into automobile and aerospace, the PCB market itself experienced a growth of roughly 20% in the past two years, from an estimated value of $65.2 bn in 2020 to ~$84.6 bn in 2022. Since PCB laminates are largely made of fibreglass, the corresponding demand for composite textiles will also increase.

       
    2. Continuous transition towards clean energy:
      According to the Global Wind Energy Council (GWEC), the global cumulative wind energy installations would cross the 1,000 GW mark in 2023, which would ultimately lead to the installation of more wind turbines. Since turbine blade manufacturers are now focusing on increasing the length of the blades for enhanced energy output, the demand for the materials would also increase subsequently. In September 2022, China-based Lianyungang Zhongfu Lianzhong Composites Group Co., Ltd. (LZ Blades) rolled out a 123-metre-long wind turbine blade, which the company claimed to be the world’s largest. In 2021, the record was held by the 115.5-meter-long vestas V236-15.0 MW.

       
    3. Increasing penetration of composites in the aerospace industry:
      The penetration of composites in aircraft programs has increased from <10% in the Boeing 737, to more than 50% in some of the recent programs like the Boeing 787 and all major aircraft OEMs are following the same trend. Not to overlook the next big innovation in the aerospace industry, i.e., Electric Vertical Take-off and Landing Aircraft (eVTOLs), which would be ~70% composites. In eVTOLs,

    Apart from these, the marine and automotive industries will also have a significant role to play on the demand side and it would be safe to say that the composite textiles industry would remain an all-growing industry for a very long time since it has become an inevitable part of the supply chain for so many growing industries.

     

    The Economic and Durable Solution: Glass Fibre


    Of the mentioned industries in Table 1, only the aerospace industry has carbon fibre as the dominant material for all its applications, and the requirements of all other industries are well-handled by glass fibre. Though the properties of fibres vary largely depending upon the manufacturer, the process, and the grade of raw material used, a high-level comparison of carbon, aramid, and glass fibre can be presented as follows:

    Fibre

    Avg. Fibre Strength (MPa)

    Avg. Laminate Strength (MPa)

    Carbon

    4,127

    1,600

    Aramid

    2,757

    1,430

    Glass (E Glass)

    3,450

    1,500

    Table 1: High-level comparison of different fibre types

    Despite having the highest fibre strength and laminate strength across all the commercially available fibres, carbon fibre isn’t at the top of the OEMs’ list because of its comparatively high price. The process of producing carbon fibre is also much more intensive than fibreglass and the conversion into prepreg in case of carbon fibre, increases both the cost and the complexity further.
    While the average cost of glass fibre usually ranges between $2.2-$3.0/kg, carbon fibre is about 10x costlier. This is the reason why more than 80% of the reinforcements across the industry are done using glass fibre.

    Within glass fibre too, there are different grades namely A-glass, C-glass, E-glass, and R, S, or T-glass (R, S, and T signify different manufacturer trademarks). The applications and properties of which, can be described as follows:

    Type

    Properties & Primary Applications

    Alkali-Glass (A-Glass)

    • High alkali content
    • Strength, lower than E-glass.

    Electrical-Glass (E-Glass)

    • Lower alkali content
    • Good tensile strength, and stiffness.
    • Good electrical properties.
    • Relatively poor impact resistance.

    Chemical-Glass (C-Glass)

    • Best resistance to chemicals.
    • Mainly used in chemical and water tanks, and water pipes.

    R, S, or T-Glass

    • Higher tensile strength and modulus than E-glass.
    • Good wet strength retention
    • Developed specifically for aerospace and defense industries, and other ballistic applications.

    Table 2: Different types of fibreglass and their properties.

    Of all the commercially available fibres, E-glass is the most common form of reinforcing fibre used in polymer matrix composites and is available in the form of strands, yarns, and rovings.

    Thought Leadership Reports

    The Indian Defense Industry: An Opportunity Reservoir for Overseas Vendors

    testing

    Access the Full Report
    Or
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