Conductive Carbon Black Market to reach USD 1386.2 Mn by 2033, growing at a 7.1% CAGR

Tajammul Pangarkar
Tajammul Pangarkar

Updated · Nov 19, 2024

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Introduction

The conductive carbon black market, which had a valuation of USD 747.7 million in 2023, is projected to reach around USD 1386.2 million by 2033, progressing at a compound annual growth rate (CAGR) of 7.1%.

This expansion is primarily driven by the vital function of conductive carbon black in boosting the electrical conductivity and mechanical robustness of products across various sectors including automotive, electronics, and aerospace.

One major factor propelling this market is the escalated use of conductive carbon black in applications that necessitate efficient energy conveyance and electromagnetic interference (EMI) shielding.

The advent of enhancements such as the amalgamation with carbon nanotubes to increase electrode conductivity is likely to further stimulate market growth. Moreover, the increasing incorporation of this material in battery electrodes, notably for electric vehicles, supports the global movement toward sustainable energy solutions.

Conductive Carbon Black Market

Nevertheless, the market encounters obstacles such as health risks linked with the potential carcinogenic properties of the material and respiratory irritations. The market expansion could be hindered by regulatory challenges and heightened awareness concerning these health risks. Furthermore, the rise of substitutes like silica, silicones, and bio-based lignin, which provide both environmental benefits and superior performance, presents substantial competitive threats.

Recent sector developments include notable investments in the enhancement of production facilities and market expansion efforts by key players. For example, Orion Engineered Carbon’s expansion in China and Imerys Graphite and Carbon’s in India are strategic moves to meet the increasing demand in these areas.

BASF SE has been actively advancing its role in the conductive carbon black market through several recent initiatives focused on sustainability and innovation in battery materials. They have pioneered the co-location of battery material production and recycling facilities in Europe, emphasizing a closed-loop approach in the battery value chain to enhance sustainability and resource efficiency.

Additionally, BASF has launched a partnership with Nanotech Energy to reduce the CO₂ footprint of lithium-ion batteries in North America. This collaboration aims to establish a localized battery value chain by incorporating recycled metals into battery production, which is expected to decrease the CO₂ impact of batteries by about 25% compared to using primary mined metals.

Key Takeaways

  • Conductive Carbon Black Market size is expected to be worth around USD 1386.2 Million by 2033, from USD 747.7 Million in 2023, growing at a CAGR of 7.1%.
  • Oil Furnace Black held a dominant market position, capturing more than a 47.5% share.
  • The 20-50 nanometers segment held a dominant position in the conductive carbon black market, capturing more than a 33.4% share.
  • Rubber held a dominant market position in the conductive carbon black market, capturing more than a 37.8% share.
  • The automotive sector held a dominant market position in the conductive carbon black market, capturing more than a 41.3% share.
  • The Asia Pacific region leads the global conductive carbon black market with a 38.5% share, valued at approximately USD 287.8 million.

Conductive Carbon Black Statistics

Advancing Carbon Black Sustainability

  • The company is investing €12.8 million in the “Clean Carbon Black Research and Development Project,” with €6.4 million provided by the German government and the European Union.
  • The company has announced a capital expenditure of ₹800 crore (approximately $96 million) for expanding its carbon black production facilities in Tamil Nadu, which includes both greenfield and brownfield projects focused on specialty carbon black.
  • Carbon black can be characterized as a substance with over 97% amorphous carbon content.
  • Carbon black begins as a byproduct of what is referred to as partial oxidation, a process during which crude oil residues, such as vacuum residues from crude oil distillation or residues from the thermic cracking process, split due to the effects of the mixture of oxygen and water steam under high temperatures around 1,300 °C.
  • During the respective process, carbon black is captured into water through the method of scrubbing, thus creating carbon black water. The generated carbon black water with 7–15 g/L of carbon black is further processed at the production facility into several types of carbonaceous substrates.

Carbon Black Market Dynamics

  • The amount of carbon black grows as the injection’s molecular weight increases. Methane gasification produces approx. 0.02% mass, crude oil residue gasification approx. 1-3% mass.
  • Carbon black particle size is between 10 and 100 nm, while the surface particle size is between 20 and 1,500 m2/g. Generally speaking, small carbon black particles with a high surface area are darker, have higher viscosity and lower wettability, are harder to disperse, retain greater conductivity, and absorb UV radiation well.
  • In contrast, the carbon content of acetylene carbon black is as high as 99.18%, while that of general carbon black is less than 98%. The moisture content should generally be controlled below 2.15%, otherwise, a large number of bubbles will be produced, which will affect the mechanical properties of the product.
  • More than 70 percent of carbon black produced worldwide is used to provide reinforcement for rubber compounds such as tires and manufactured rubber goods.
  • Within this period, in Jan 2024 alone, 20 Conductive Carbon Black export shipments were made from India. This marks a year-on-year growth of 20% compared to Jan 2023, and a 20% sequential growth from Dec 2024.

Emerging Trends

  • Expanding Market Due to Varied Uses: The utilization of conductive carbon black is surging across multiple sectors such as consumer electronics, automotive, and coatings. This uptick is primarily due to its properties that boost electrical conductivity, making it integral to these industries.
  • Surging Demand in Plastic and Electronic Sectors: The plastic and electronics industries are experiencing robust growth in the use of conductive carbon black. Its crucial role in enhancing parts like electrostatically paintable surfaces and fuel injection systems underpins this expansion.
  • Strategic Growth Through Innovation: As market demand grows, firms within the conductive carbon black industry are strategically enhancing their production capabilities and investing in innovation. This shift not only addresses expanding market needs but also helps in reducing operational costs.
  • Challenges and Opportunities from Environmental Standards: The conductive carbon black sector is navigating through challenges such as the erratic availability of raw materials and stringent environmental norms. Nevertheless, these hurdles also present opportunities for innovation in production processes, aligning with sustainability goals.
  • Rapid Market Expansion in Asia Pacific: The Asia Pacific region is leading growth in the conductive carbon black market, driven by burgeoning industrial activities and an improving economic landscape, which together fuel the demand for these materials.

Use Cases

  • Plastics Industry: Conductive carbon black is extensively used in the plastics industry to create products that are conductive or static dissipative. This is particularly valuable for making plastics suitable for electronic applications, as it imparts electrical conductivity and provides protection against ultraviolet light degradation.
  • Wire and Cable Manufacturing: In the wire and cable sectors, conductive carbon black plays a crucial role. It is used in conductor and insulation shields to improve the conductivity and longevity of cables, particularly in medium- and high-voltage applications.
  • Battery Production: Conductive carbon black is vital in the production of batteries, especially lithium-ion types. It enhances the electrochemical conductivity and charging characteristics of batteries, thus improving their efficiency and lifecycle.
  • Rubber Goods: This material is a key additive in the rubber industry, where it improves the physical properties of products such as hoses, belts, and gaskets. Carbon black enhances mechanical properties and electrical conductivity, making rubber items more durable and practical.
  • High-Performance Coatings: In coatings, conductive carbon black is used to provide color, UV protection, and conductivity. It’s particularly beneficial in applications requiring high performance, such as protective coatings that also need to offer electrostatic dissipation.

Major Challenges

  • Dispersibility Issues: Achieving uniform dispersion of conductive carbon black within polymers is a significant challenge. If the carbon black is not evenly dispersed, it can lead to inconsistencies in the conductivity and mechanical properties of the final product.
  • Complex Production Process: The production of conductive carbon black involves complex processes that require careful control of particle size and structure. Maintaining the balance between high electrical conductivity and other desired physical properties such as adsorption or light absorption can be difficult.
  • High Surface Activity: Conductive carbon black has a high surface activity, which can be beneficial for its conductive properties. However, this also makes it more chemically reactive and difficult to handle during manufacturing processes. The chemical reactivity can lead to issues with wettability and dispersion.
  • Cost and Resource Intensity: The production of conductive carbon black is resource-intensive, involving high temperatures and specific conditions for carbon particle formation. This not only drives up manufacturing costs but also places a significant demand on energy resources.
  • Environmental and Safety Concerns: There are environmental and safety concerns related to the production and use of conductive carbon black. The production process can emit pollutants, and there are risks associated with handling fine particulate matter, which can pose health risks to workers.

Market Growth Opportunities

  • Expansion in Electric Vehicles and Battery Technology: As the global shift towards electric vehicles continues, the role of conductive carbon black in improving battery technologies becomes increasingly crucial. It is essential for boosting the conductivity of battery electrodes in lithium-ion batteries, which enhances charge storage, accelerates charging times, and optimizes overall performance.
  • Advancements in the Electronics Sector: The electronics industry benefits significantly from conductive carbon black, which is integral to manufacturing components like circuit boards and electrical connectors. Its properties help ensure reliable grounding and improved conductivity, essential for the expanding market of electronic devices.
  • Utility in the Energy Industry: Conductive carbon black is vital for managing static electricity and shielding against electromagnetic interference within the energy sector. These features are crucial for maintaining the safety and efficiency of operations in power generation and distribution facilities.
  • Applications in Plastics and Coatings: In the plastics and coatings industries, conductive carbon black is used to enhance materials’ electrical resistivity. This adaptation is particularly beneficial in sectors such as automotive, aerospace, and construction, where such advanced materials are in high demand.

Key Players Analysis

  • BASF SE in the conductive carbon black sector is enhancing its portfolio with innovative materials like carbon-fiber-reinforced polyphthalamides (PPA), which are used in automotive, electronics, and industrial applications due to their lightweight and high performance. These materials are electrically conductive, offering a viable alternative to traditional metals like aluminum and magnesium, thus supporting the development of more efficient and sustainable technologies.
  • Cabot Corporation is actively involved in the conductive carbon black sector, where it offers a range of products designed for various applications that require electrical conductivity. The company’s VULCAN® XC series of conductive carbon blacks are particularly noted for their application in rubber products to prevent electrostatic charge buildup, which is crucial in industries like automotive and electronics.
  • Orion Engineered Carbons S.A. specializes in producing a range of conductive carbon blacks, including specialty grades like PRINTEX® kappa 100, which is used in lithium-ion batteries. This product is notable for enhancing the conductivity and performance of battery electrodes, providing better energy retention and efficiency in batteries used in various applications, including electric vehicles.
  • Birla Carbon, a key player in the global market, offers a range of conductive carbon black products specifically designed for electrostatic discharge (ESD) applications. These products are highly pure and are tailored to meet the demanding requirements of applications such as power cable insulation, electronic packaging, and anti-static flooring.
  • PCBL, India’s largest carbon black producer, offers a range of products including conductive carbon black used in high-performance applications. Their products enhance the conductivity of materials used in industries like electronics and automotive, particularly in components like batteries and rubber products. Phillips Carbon is noted for its extensive research and development efforts aimed at expanding its high-margin specialty carbon black portfolio, underscoring its strong global presence and innovation capacity.
  • Sid Richardson Carbon & Energy Co. is actively involved in the conductive carbon black sector, focusing on producing specialty grades of carbon black. These products are engineered to enhance conductivity in various applications, including batteries and plastics, which are crucial for industries such as automotive and electronics.
  • Mitsubishi Chemical Corporation plays a significant role in the conductive carbon black market by producing high-quality conductive carbon blacks used in various applications, including electronics, batteries, and automotive components. They focus on continuous innovation and development of specialized conductive carbon blacks to enhance electrical conductivity, durability, and performance.
  • Imerys Graphite & Carbon Ltd. specializes in high-performance conductive carbon black products, specifically tailored for the lithium-ion battery industry under their C-NERGY™ brand. These products are designed to enhance electrical conductivity with high purity, making them ideal for use in batteries that power electric vehicles and various consumer electronics.
  • Denka Co., Ltd. specializes in the production of acetylene black, a highly conductive type of carbon black derived from the thermal decomposition of acetylene. Known for its exceptional purity and electrical conductivity, Denka’s acetylene black is utilized in various applications, including lithium-ion batteries, power cables, and semiconductors.
  • Akzo Nobel NV is involved in the conductive carbon black sector primarily through its aerospace coatings division. They offer high-performance conductive coatings designed for aerospace applications. These products are used to provide anti-static properties and are essential in various aerospace applications, enhancing safety and performance by preventing static buildup.
  • Ampacet Corporation specializes in conductive carbon black through its production of masterbatch and additive solutions. They have developed innovative masterbatches, such as the ELECO range, which transform plastics from insulative to conductive, enhancing their suitability for sensitive and critical applications like the packaging and transport of hazardous materials or electronics highly sensitive to static discharge.
  • Imerys Graphite & Carbon provides specialized conductive carbon black solutions tailored for the lithium-ion battery industry, among other applications. Their products are designed to meet high purity requirements, enhancing electrical conductivity with low loading levels, which is crucial for the efficiency and safety of lithium-ion batteries.
  • Tokai Carbon Co., Ltd. operates within the conductive carbon black sector, focusing on products that enhance the performance of materials across various applications. Their conductive carbon black is used in products like car parts and in the semiconductive layer of electric cables, showcasing their role in both general and specialized industries.
  • Senka Company Limited is actively involved in the conductive carbon black sector. They focus on producing high-quality conductive carbon black products that are crucial for applications in conductive polymers, batteries, and electronics. This company is part of a competitive market that includes several key players who are striving to innovate and expand their capabilities in this area.
  • OCI Company Ltd. is actively expanding its conductive carbon black products, targeting high-value applications like electric vehicle tires and semiconductive screens for power cables. They aim to diversify their product grades to meet increasing demands in these sectors.
  • Evonik Industries AG has restructured its conductive carbon black activities by creating Evonik Carbon Black GmbH, a standalone entity under the Evonik umbrella. This subsidiary focuses on producing high-quality carbon blacks used primarily as reinforcing fillers in rubber and as pigment blacks in various other applications.

Conclusion

Conductive carbon black is increasingly vital across various industries, enhancing products from batteries and electronics to plastics and coatings. Its role in improving conductivity, supporting energy efficiency, and enabling technological advances highlights its growing importance in a globally connected and technologically advancing world.

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Tajammul Pangarkar

Tajammul Pangarkar

Tajammul Pangarkar is a tech blogger that frequently contributes to numerous industry-specific magazines and forums. Tajammul longstanding experience in the fields of mobile technology and industry research is often reflected in his insightful body of work. His interest lies in understanding tech trends, dissecting mobile applications, and in raising a general awareness of technical know-how. When he’s not ruminating about various happenings in the tech world, he can be usually found indulging in his next favorite interest - table tennis.

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