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Decarbonization Avenue : Advanced Materials

Innovations in advanced materials play a crucial role in reducing carbon emissions and enhancing sustainability. In India, the focus on decarbonization and sustainable development has accelerated research and development in this field. Advanced materials that reduce the carbon footprint of production, decrease weight, and increase performance and lifetime can significantly impact India's decarbonization efforts.

 

Current Scenario

India's material sector has been evolving, with significant advancements in nanotechnology, composite materials, and bio-based materials. . The advanced materials market in India was valued at $5 billion in 2021 and is expected to grow at a CAGR of 10-12%. Key sectors like renewable energy, aerospace, and healthcare are driving this growth, with significant investments in carbon composites, ceramics, and performance alloys. Additionally, the penetration of advanced materials in renewable energy applications is projected to reach 70% by 2030.

 

Key Areas of Advanced Materials

  • Nanotechnology: Enhances the properties of materials at a molecular level, leading to stronger, lighter, and more efficient materials.
  • Composite Materials: Combines two or more materials to produce a product with superior properties, often used in construction, automotive, and aerospace industries.
  • Bio-based Materials: Includes bioplastics and bio-based polymers that offer sustainable alternatives to conventional materials.

 

Key Technology

Nanotechnology

  • Carbon Nanotubes and Nanofibers: Development of carbon nanotubes and nanofibers for use in electronics, batteries, and structural materials. These materials offer high strength-to-weight ratios and improved conductivity, enhancing efficiency and reducing emissions.
  • Nanocoatings: Use of nanocoatings to improve the thermal insulation and durability of buildings and infrastructure. This can lead to energy savings and reduced maintenance costs.

Composite Materials

  • High-performance Composites: Development of high-performance composites for automotive and aerospace applications. These materials reduce weight and improve fuel efficiency, leading to lower CO2 emissions.
  • Recycled Composites: Innovations in recycling composite materials to create sustainable products, reducing waste and the need for virgin materials.

Bio-based Advanced Polymers

  • PLA and PHA: Expansion of production facilities for PLA and PHA to meet the growing demand for sustainable packaging solutions. These bio-based polymers can reduce the carbon footprint of packaging by 30-50%.
  • Biodegradable Materials: Development of biodegradable materials for use in agriculture, such as mulch films and plant pots, which can reduce plastic waste and improve soil health.

Battery Materials

  • Advanced Lithium-ion Batteries: Researching into advanced lithium-ion batteries with higher energy densities and longer lifespans. These batteries are essential for electric vehicles and renewable energy storage, reducing reliance on fossil fuels.
  • Solid-state Batteries: Development of solid-state batteries that offer improved safety and performance over traditional lithium-ion batteries, supporting the transition to electric mobility.

Low-carbon Plant Sources

  • Hemp-based Materials: Utilization of hemp for producing sustainable construction materials, textiles, and bioplastics. Hemp has a low carbon footprint and can sequester CO2 during its growth.
  • Bamboo and Jute: Promotion of bamboo and jute as alternatives to conventional materials in construction and packaging. These plants grow quickly and require fewer resources, making them sustainable options.

 

Case Studies 

  • Tata Steel's Advanced High-strength Steel: Tata Steel has developed advanced high-strength steel (AHSS) for automotive applications. AHSS reduces vehicle weight while maintaining safety and performance standards, leading to improved fuel efficiency and reduced CO2 emissions.
  • Reliance Industries' Bioplastics Initiative: Reliance Industries is investing in the production of bio-based polyethylene (Bio-PE) from renewable resources. This initiative aims to reduce the carbon footprint of plastic packaging and promote the use of sustainable materials.
  • Aditya Birla Group’s Composite Materials: Aditya Birla Group has been developing and using composite materials for various industrial applications. Their composites are used in automotive, construction, and renewable energy sectors, providing lightweight and high-strength alternatives to traditional materials.

Decarbonization potential

Advanced materials offer significant potential for decarbonization in India by improving energy efficiency, reducing the carbon footprint of manufacturing processes, and promoting the use of sustainable alternatives. Below are various ways advanced materials can contribute to decarbonization efforts, supported by specific data points and projections.

 

Key Datapoints

  • Replacing steel with aluminum and composites in the automotive and aerospace sectors can significantly reduce vehicle weight. A 10% reduction in vehicle weight improves fuel efficiency by 6-8%. Reducing the weight of vehicles produced in India by 10% could save approximately 5 million tonnes of CO2 annually.
  • Applying nanocoatings to buildings can reduce energy consumption by up to 20%. If 30% of India’s commercial buildings adopt nanocoatings, it could save around 15 million tonnes of CO2 annually.
  • Materials like aerogels and advanced polymers can enhance insulation efficiency in buildings. Improved insulation can reduce heating and cooling energy needs by up to 50%.
  • Using residues like bagasse and rice husk in material production can reduce waste and lower carbon emissions. Leveraging these residues for 15% of material production could save 5 million tonnes of CO2 annually.
  • Solid-state batteries offer higher efficiency and safety compared to traditional lithium-ion batteries. Their adoption in EVs and renewable energy storage can further enhance decarbonization efforts, potentially saving an additional 2 million tonnes of CO2 annually by 2030.
  • Recycling composite materials can reduce waste and the need for virgin materials. Increasing the use of recycled composites by 50% can reduce CO2 emissions by approximately 4 million tonnes annually.

Industries impacted

  • Aerospace & defense
  • Automobiles & auto components
  • Chemicals & petrochemicals
  • Construction & real estate
  • Electrical
  • Electronics & semiconductors
  • Logistics
  • Marine transport
  • Mining & metals
  • Oil & gas
  • Packaging & plastics
  • Textile & apparel
  • Waste management

Themes & Topics

  • Use in specific decarbonization avenues

    • Renewable Energy

    • Energy Efficiency

    • Energy Storage

    • Agriculture & Food

    • Waste Management

    • Materials

    • Water

    • Mobility

    • Carbon capture & use

  • End uses

    • Buildings

    • Apparel & accessories

    • Sustainable heating

    • Heating & cooling

    • Heat & power storage

    • Energy efficiency

    • Automobiles & road transport

    • Aviation

    • Shipping & maritime

    • Renewable energy

    • Corrosion protection

    • Insulation

    • Pollution control

    • Distribution infrastructure

 

 

 

 

  • Types of materials

    • Metals

    • Concrete

    • Plastic

    • Wood/biomass

    • Textiles/fiber

    • Ceramics

    • Glass

    • Composites

  • Technologies & principles

    • Molecular design, modelling

    • Biotechnology

    • Nanotech

    • Additive manufacturing

    • Light-weight and high-strength materials

      • Composites

  • Key benefits

    • Lower weight

    • Better performance

    • Safety

    • Durability & long life

 

 

 

 

 

 

 

 

 



All Decarbonization Avenues @ EAI


Renewable Energy :

  • Utility Scale Solar PV |
  • Distributed Solar PV |
  • Solar Thermal |
  • Wind Power |
  • Biomass for Heating & Power |
  • Biofuels |
  • Hydro Power |
  • Geothermal Energy |

  • Energy Efficiency :

  • Industrial Waste Heat Recovery |
  • Low Carbon Thermal Power |
  • Energy Efficient Industrial Equipment |
  • Smart Grids |
  • Heat Pumps |
  • Digital for Decarbonization |
  • Energy Efficient Buildings |

  • Energy Storage :

  • Green hydrogen |
  • Thermal & Mechanical Storage |
  • Battery Storage |

  • Agriculture & Food :

  • Sustainable Forestry |
  • Regenerative Agriculture |
  • Smart Farming |
  • Low Carbon Food |
  • Agro Waste Management |

  • Waste Management :

  • Reducing Food Waste |
  • Solid Waste Management |

  • Materials :

  • Bio-based Materials |
  • Advanced Materials |
  • Product Use Efficiency |
  • Industrial Resource Efficiency |

  • Water :

  • Water Use Efficiency |

  • Decarbonizing Industries :

  • Low Carbon Metals |
  • Low Carbon Chemicals & Fertilizers |
  • Low Carbon Construction Materials |
  • Low Carbon Textiles & Fashion |
  • Corporate Carbon Management |
  • Decarbonizing Oil & Gas Sector |

  • Low Carbon Mobility :

  • Electric Mobility |
  • Low Carbon Trucking |
  • Low Carbon Marine Transport |
  • Low Carbon Aviation |
  • Low Carbon ICE Vehicles |
  • Mass Transit |

  • GHG Management :

  • C2V - CO2 to Value |
  • CO2 Capture & Storage |
  • Reducing Emissions from Livestock |
  • Reducing Non-CO2 Industrial & Agricultural Emissions |
  • Managing Large Carbon Sinks |

  • Communities :

  • Low Carbon Lifestyles |
  • Low Carbon Cities |

  • Finance :

  • Climate Finance |

  • Platforms :

  • Multi-stakeholder Collaboration |
  • Low Carbon Accelerators |

  • Moonshots :

  • Moonshots |