The tyre industry is navigating a complex landscape of rising material costs, geopolitical uncertainties and fierce competition. In response, manufacturers are turning to automation, Industry 4.0 and AI-driven solutions to enhance efficiency and reduce operational expenses. Advanced testing and measurement systems are pivotal in this transition, offering cost-effective quality control, streamlined production and improved consistency. However, integrating these innovations poses challenges, including adapting to evolving tyre designs and meeting stricter OEM requirements. This article explores how technological advancements in tyre testing are reshaping the industry, ensuring performance precision and economic viability in an increasingly competitive market.

Increasing raw material prices, geopolitical crises, rising freight costs and stronger competition have led tyre companies to find ways to lower operational costs. Technological breakthroughs like automation, Industry 4.0, etc. are a boon in disguise in this hour of need. While automation is not a new concept, its usage gradually increases within the tyre industry, riding on the back of other advancements.

Micro-Poise Measurement Systems Division Vice President & Chief Technology Officer Dr Shaun M Immel believes that the ever-increasing need for automation and data connectivity to support Industry 4.0 is driving tyre manufacturers to adopt advanced measurement systems that lower inspection costs, enhance consistency and provide critical data for analytics.

“Simultaneously, manufacturers seek improved equipment throughput while maintaining high measurement quality to meet tightening tyre screening requirements. The growing variety of electric vehicle (EV) tyre designs necessitates greater measurement system flexibility to support a larger number of stock-keeping units (SKUs). Additionally, customers increasingly require user-friendly systems that accommodate inexperienced personnel by presenting simple-to-use and highly automated products,” he added while speaking exclusively to Tyre Trends.

The tyre testing industry has significantly transformed over the past five years. Automation cuts measurement and inspection costs while improving consistency and predictability, allowing manufacturers to redeploy labour to higher-value tasks. It also enables precise, data-driven decision-making by replacing subjective human evaluations with quantifiable metrics, ensuring better process control and continuous improvement.

As tyres grow larger and heavier, automation presents new challenges, but advancements in artificial intelligence (AI), faster processing power and GPU technology are making implementation more feasible and cost-effective. These innovations are fuelling a resurgence in automation, enhancing efficiency and providing manufacturers with deeper insights into production quality and performance.

However, he noted that while including sustainable materials within tyre compounds is strong founded within tyre makers, it is not likely to affect testing strongly. “The shift towards sustainable materials in tyre manufacturing is reshaping the industry. While this evolution may impact tyre design materials and manufacturing processes, it will not significantly alter the core processes of final finish testing. Testing equipment focuses on force variation, dynamic balance, X-ray analysis and geometry measurement, and it remains largely unaffected as long as tyre sizes stay within standard categories. However, as manufacturers integrate new compounds and materials, potential changes in tyre behaviour may lead to adjustments in testing methodologies to address emerging manufacturing challenges,” said Dr Immel.

PARADIGM EVOLUTION

The tyre industry is undergoing a strategic shift. Top-tier manufacturers are moving away from mass production to focus on high-performance and premium tyres, consolidating production into specialised plants for passenger, truck and OTR tyres. This shift is driven by increasing competition from Asian manufacturers dominating the mass-market segment. At the same time, some Asian players are pushing into the premium space, intensifying competition at the high end.

This evolving landscape reinforces the demand for precision testing, high measurement quality and faster throughput. “Our longstanding partnerships with tier-one manufacturers position us well in this premium market, particularly in the 18-inch-and-above segment, where measurement accuracy and reliability are critical and where Micro-Poise’s measurement systems excel. As the industry diversifies, we continue to enhance our equipment’s flexibility and feature set to meet the evolving needs of both established premium brands and emerging challengers,” said Dr Immel.

Furthermore, Dr Immel noted that the testing industry is undergoing significant advancements with a strong focus on increasing throughput while meeting increasingly stringent quality requirements. “Tyre manufacturers face tightening OEM screening limits, necessitating greater accuracy and repeatability in measurement systems to ensure precise and proper classification of tyres for various markets. Traditionally, higher throughput and improved measurement repeatability are a trade-off, but the industry is now working to improve both simultaneously, requiring innovative approaches,” he said.

“A notable shift, particularly influenced by EVs, is the growing demand for higher frequency content in geometry and uniformity measurements. As EVs eliminate engine noise, tyres have become the dominant source of road noise, prompting manufacturers to analyse higher-frequency variations that could contribute to unwanted sound. These variations, often linked to tread design and tyre construction, are now being examined more closely for tyre-to-tyre variation to mitigate its impact,” he added.

He also contended that regulatory trends and market dynamics are driving further changes beyond noise control. The rise of EVs has significantly expanded the number of SKUs manufacturers must manage, pushing the need for greater equipment flexibility and quicker changeover.

“With tyre designs evolving rapidly, testing systems must adapt through quick-change tooling and advanced marking capabilities to accommodate frequent model shifts. At the same time, manufacturers continue to push for higher throughput without compromising measurement and inspection performance, reinforcing the need for cutting-edge solutions that balance speed, accuracy and adaptability in an increasingly complex landscape,” he added.

MEASURING PARAMETERS

According to Dr Immel, the time required to measure and assess a single tyre depends on the type of test(s) being conducted. A typical measurement cycle may range between 15 and 30 seconds, depending on the tyre size, the required tyre ‘warmup’ time, and the measurements being performed. The key to high-quality final finish equipment is to ensure high throughput while maintaining the measurement performance necessary for accurate quality assessments.

Explaining the quality measurement process, he said, “Quality measurement in tyre testing hinges on two fundamental aspects, accuracy and repeatability. Accuracy refers to each measurement’s ability to reflect the tyre’s true assessment value and characteristics, a non-trivial task given the inherent variability in production tyre measurement. Manufacturers rely on these values to determine whether a tyre meets quality standards or should be scrapped.”

Repeatability, on the other hand, measures measurement consistency. Sophisticated technology minimises measurement variations of production tyres, ensuring that the system can effectively differentiate between acceptable and defective products. The financial impact of incorrect classifications, whether approving a faulty tyre or rejecting a good one, is substantial, making excellent system measurement performance a critical factor in reducing long-term operational costs.

Answering what tyre screening limits are acceptable to the market, he said, “The acceptable limits are proprietary to each tyre manufacturer. Each manufacturer receives screening limits from original equipment (OE) manufacturers and select replacement market dealers. These OE and replacement screening limits vary across players. Beyond that, tyre companies often impose stricter internal limits to enhance quality, improve customer perception or differentiate products.”

Alluding to whether the industry is more concerned about variation in passenger car tyres than in TBR or OTR tyres, he explained, “The industry is indeed more focused on variations in PCR, but I believe that’s largely due to volume. Passenger car tyres are produced in significantly higher numbers, and since they are consumer-facing products, expectations are much higher. People notice and care about ride quality, so manufacturers focus heavily on minimising tyre-to-tyre variations.”

“However, even in the TBR segment, certain types like steer and drive tyres undergo strict testing and must meet high standards. Steer tyres, in particular, incorporate advanced technology because they directly impact vehicle handling and safety. Trailer tyres, on the other hand, face less scrutiny since they directly affect ride comfort. That said, manufacturers across all segments are under continuous pressure to tighten tolerances. OEMs and fleet operators are always pushing for lower limits, forcing tyre makers to improve,” he added.

The company is advancing tyre grading technology with a data-driven approach that moves beyond traditional tyre metrics. Developing and integrating alternative measurements aims to refine performance assessments, ensuring a closer correlation between lab results and real-world ride quality. This shift could boost product yields while maintaining more stringent standards, enabling a ‘smarter’ assessment of tyre quality.

When asked about the causes of early tyre failure and how geometry plays a role in identifying defects, he explained that issues in ply splicing during manufacturing can lead to structural weaknesses. If the ply material splice is left open, missing ply cords create a bulge defect when the tyre is inflated under high pressure.

This bulge, a critical measurement in quality control, appears radially along the sidewall and is a standard defect monitored by tyre manufacturers. If the bulge exceeds acceptable limits, it can cause the inner liner to become voided, leading to slow air loss and deflation – an irreparable but not necessarily catastrophic failure mode.

Dr Immel also noted that the company has developed several features to enhance flexibility. “We have an automatic rim change feature with adaptable tooling that streamlines adjustments. We’re also exploring innovations to improve changeover efficiency further. One of our key advantages is that when a tyre enters the system – even if it’s a single unit – we can immediately identify it, load the correct parameters and process it without any cycle time penalty. Unlike other machines requiring manual adjustments and extra cycle time, ours can handle small lot sizes and frequent model changes seamlessly,” informed Dr Immel.

When asked whether every tyre produced on the line is measured, Dr Immel explained that almost all OE tyres undergo screening to meet strict screening limits. For the replacement market, tyre manufacturers screen a varying percentage of products, depending on customer requirements and market strategy. While nearly 100 percent of OE tyres is tested, the extent of screening for replacement tyres varies across manufacturers and customers.

PRODUCT CATALOGUE

Micro-Poise Measuring Systems’ ASTEC FX system evaluates critical parameters such as force variation, while Micro-Poise’s TGIS FS system evaluates tyre runout and sidewall appearance. While these factors primarily influence ride comfort rather than direct safety, they play a role in detecting defects that could lead to premature tyre failure. “Some of these defects have been monitored for decades, forming an industry benchmark,” noted Dr Immel.

When discussing the process of force variation measurement, the executive compared a tyre to a system of parallel springs, where each section should ideally have the same spring constant or stiffness around the tyre. However, variations in manufacturing such as splices, component alignments and positioning errors can create inconsistencies, making certain areas stiffer or softer than others, resulting in a variation of the force the tyre induces into a vehicle while driving.

A load wheel presses into the tyres while it rotates to detect these variations, measuring force fluctuations. Higher force readings indicate stiffer areas, while lower ones suggest softer regions. This data is analysed using Fourier analysis, breaking it down into harmonics to help manufacturers ensure that force variation at certain frequencies remains within acceptable limits.

The US-headquartered company’s ITMS FX (Integrated Tire Measurement System) minimises testing cycle times while integrating and maintaining excellent measurement quality across force variation, dynamic balance and geometry measurements. In high-volume manufacturing, any cycle time advantage can significantly impact overall throughput, driving up the overall equipment value for the customer. “It’s always about how fast you can get the process done – get one tyre out, bring the next in and repeat,” Dr Immel explained.

Beyond speed, system reliability is equally important. Fully automated testing systems need to run continuously with minimal stoppages. “If a fault occurs, recovery must be instant,” he added. However, increasing speed without sacrificing measurement quality presents an inherent challenge.

The company’s Tire Geometry Inspection System (TGIS FS) integrates proprietary tyre-optimised 3D sensors to inspect sidewall geometry accurately. The system employs three strategically placed sensors in fixed locations – one each on the top lateral, radial and bottom lateral surfaces – to complete a full geometric scan in a single tyre revolution. The result is a micron-resolution contour of the entire tyre. This data supports defect detection, dimensional measurements and process optimisation. The system is adaptable across Micro-Poise’s force variation (uniformity), dynamic balance machines and various competitive equipment.

The company is reinforcing its position as the ‘automation partner of choice’ for tyre manufacturers, supported by the fact that it has always focused exclusively on final finish solutions. The company is driving towards fully automated ‘Lights Out’ operations, ensuring maximum efficiency and cost-effectiveness across all its products.

Key advancements include revolutionary throughput enhancements that significantly improve final finish processes without adding costs, ease-of-use innovations that simplify complex systems for less experienced operators and increased flexibility through automated changeovers to address the growing number of SKUs in tyre production.

Additionally, it is advancing automated inspection and defect detection by helping its customers shift from manual to autonomous inspection, which encompasses more precise numerical measurements, reduced errors and a reduction in overall inspection costs.

A major breakthrough in this area is the integration of AI and deep learning (DL) into its Coll-Tech Automatic Defect Recognition (ADR) software for tyre X-ray image analysis. Showcased at the 2024 Tire Tech Expo, the latest advancements have dramatically improved defect detection accuracy and responsiveness to customer configuration and customisation requests.

“Previously, algorithmic versions required extended response times for adaptation and modification, but the AI-driven enhancements have eliminated this delay. Multiple manufacturing facilities are now operating their ADR-equipped X-ray systems without human inspectors, allowing personnel to be redeployed elsewhere while significantly reducing inspection expenses. The transition to full autonomous inspection is a learning process that requires adaptation, but the investment yields substantial positive financial returns. Micro-Poise’s ADR system allows our customers to control the pace and number of steps in the journey to full autonomous inspection. To facilitate adoption, we offer image evaluations, follow-up consultations and in-plant demonstrations,” said Dr Immel.

Beyond inspection advancements, Micro-Poise has also improved tyre grinding systems, enhancing both functional system performance and the visual appearance of ground tyres.

Historically, tyre grinding – used for force variation and geometry optimisation – has been instrumental in converting rejected tyres into OE-grade products. However, some manufacturers hesitate to adopt grinding due to concerns about visible grind marks. Micro-Poise has addressed these concerns by refining the grind appearance and adding new functionalities that turn tyre grinding from an art into a precise science. These innovations increase product yield, improve tyre grading and deliver a strong return on investment for manufacturers. With AI-driven defect detection, automation advancements and improved tyre yield solutions, Micro-Poise is setting new standards for efficiency, accuracy and cost savings in the final finish stage of tyre manufacturing.

The company continuously refines its technology, balancing cost efficiency with high performance. “Customers request additional features based on unique measurement methodologies and defect detection requirements,” Dr Immel said.

Customers expect the machines to operate for decades. Mechanically, the company’s systems are built for longevity, but electronics and software evolve much faster. To address obsolescence, the company offers modular control system upgrades bundled with new features, ensuring customers gain added value while modernising their equipment and extending its lifecycle.

In the context of retrofitting, Dr Immel said, “We design machines to accommodate sensor and measurement upgrades, enabling customers to integrate new parameters without replacing entire systems. The balance lies in designing robust mechanical structures while allowing flexibility in electronics and software.”

ADDRESSING CHALLENGES

Developing intuitive, easy-to-use machines is an ongoing challenge. “Simplifying a machine while maintaining its capabilities is often harder than designing a complex system,” Dr Immel noted.

The company has invested in UX/UI enhancements to improve operator efficiency and ease of use.

Furthermore, the tyre industry is currently facing one of its most dynamic and challenging periods, driven by rapid technological advancements, shifting regulations, sustainability initiatives and the rise of EVs.

One of the biggest challenges is aligning new technologies with practical applications that benefit customers while ensuring their confidence in these innovations. AI and automation, for example, are transforming manufacturing processes, but their complexity can be daunting for tyre producers who must navigate ever-changing market demands.

Additionally, external factors such as tariffs, trade wars and regulatory changes add another layer of uncertainty, making it critical to choose the right technologies that will bring long-term value.

Sustainability is another key concern as tyre manufacturers work to reduce environmental impact through raw material innovations, renewable energy adoption and energy-efficient manufacturing processes.

While the company does not directly influence the chemical composition of tyres, it contributes to sustainability by designing testing and measurement equipment that uses less energy and air.

With AI-driven automation, faster cycle times and a strong focus on usability and upgradeability, it continues to push the boundaries of tyre testing technology. As the industry embraces data-driven solutions, the company remains at the forefront of precision measurement and defect detection.

FUTURE FOCUS

The industry is undoubtedly shifting towards fundamental measurement improvements and enhanced features like predictive maintenance, retrofitment and software upgrades.

“While reducing testing time and improving efficiency remain core priorities, there is an increasing demand for smart, automated solutions that can provide deeper insights into machine performance. Predictive maintenance is an exciting development area, but it is still in its early stages. The ultimate vision is to have intelligent software capable of real-time monitoring systems and predicting failures with precision. However, before reaching that stage, the focus is on establishing a solid data foundation and ensuring rapid recovery when issues arise,” averred Dr Immel.

To address these challenges, the industry is exploring soft sensor technology as a potential alternative to expensive hardware-based monitoring systems. These advancements could reduce reliance on physical sensors while still enabling predictive maintenance capabilities. As the industry moves forward, manufacturers must balance cost, efficiency and long-term viability to maximise the benefits of these innovations.

“The integration of AI and DL technologies is poised to continue, though adoption will likely be measured as manufacturers proceed with caution. While some advancements will prove transformative, others may fade over time. AI-driven systems can significantly improve productivity by shortening design and improvement cycles, making processes more efficient. Additionally, AI models can refine their accuracy over time through continuous feedback and training, leading to smarter and more effective applications in manufacturing,” he added.

He also noted that one key concern is the potential burden on customers. Some AI implementations risk shifting performance optimisation responsibilities such as defect evaluation, labelling and training onto end users. While this may be expected in later stages of adoption, it presents a significant challenge in the early phases, making seamless integration into existing workflows critical.

Another significant area of advancement is tyre grinding technology. While some manufacturers hesitate to use grinding due to concerns over visual imperfections, it remains a valuable and financially beneficial process for refining tyres that exceed variation limits.

Recent innovations aim to standardise and automate grinding, transforming it from an art into a precise, science-driven method. These advancements make the process more efficient and user-friendly, ensuring higher-quality output without compromising visual appearance. n

Micro-Poise TGIS FS Geometry Sensor

ZC Rubber has received the Second Prize of China's State Science and Technology Progress Award for a project focused on high-performance tyre technologies and green intelligent manufacturing, developed jointly with Harbin Institute of Technology. The award recognises the project, titled Key Technologies and Green Intelligent Manufacturing of High-Performance Tires.

According to the company, ZC Rubber is the only Chinese tyre manufacturer to receive the State Science and Technology Progress Award at the Second Prize level or above during the past decade. The award is among China's highest state honours for scientific and technological innovation.

The company said the recognition reflects its investment in research and development and its efforts to integrate tyre development with intelligent manufacturing. In 2025, ZC Rubber invested RMB 1.54 billion in research and development, equivalent to 3.43 percent of annual revenue, according to its annual report.

The award recognises technologies that have moved beyond laboratory research into industrial application, linking high-performance tyre development with green and intelligent manufacturing processes.

Central to the company's research strategy are two proprietary technology platforms: the X-Tech System for truck and bus radial tyres and the Phecda Tech System for passenger car radial tyres. The platforms combine compound formulation, tyre structure design, process engineering, simulation, testing and intelligent manufacturing within a single development framework.

Rather than adapting an existing product architecture, the platforms define performance targets according to vehicle application, operating conditions and customer requirements before developing compounds, structures and manufacturing processes. ZC Rubber said this enables it to develop tyres for different duty cycles, climates, road conditions and regional requirements rather than using a standardised design.

Henry Shen, Senior Vice President of ZC Rubber, said: “Our objective is not simply to develop an individual material, tread pattern or manufacturing process. X-Tech and Phecda are complete development systems that connect user requirements with simulation, materials, tire engineering, manufacturing and validation. This award recognizes the direction we have pursued through sustained R&D investment.”

The company has applied the X-Tech and Phecda platforms across products developed for different regions. In Asia, the X-Tech System underpins the X-Elite truck tyre series. In Europe, it is used in the WESTLAKE Gen II commercial tyre range, while the Phecda Tech System supports passenger car tyres including the WESTLAKE ZuperAce Z-007 and GOODRIDE Solmax 1. Technologies from both platforms have also been applied across ARISUN's truck and passenger car tyre ranges in the Americas.

Shen said: “International markets do not have identical requirements. A tire developed for European highway fleets, Southeast Asian transport operations or passenger vehicles in the Americas must respond to different vehicles, roads, climates and customer priorities. Our technology platforms allow us to address those differences through a consistent and systematic development process.”

The company said the award-winning project incorporates green and intelligent manufacturing technologies intended to improve product consistency, production efficiency and energy performance. It added that the X-Tech and Phecda platforms will continue to support original equipment and replacement market product development across its WESTLAKE, GOODRIDE, ARISUN and other brands.

The Indian Rubber Materials Research Institute (IRMRI) has officially announced the appointment of Professor (Dr) Abhijit Bandyopadhyay as its new Director. This decision marks a significant leadership transition for the institute, as it prepares to welcome a figure with extensive expertise in polymer science and rubber technology.

Professor Bandyopadhyay brings a distinguished academic and technical background to his new position. He currently serves as a full Professor in the Department of Polymer Science and Technology at the University of Calcutta and holds the role of Director, Technical at the South Asia Rubber and Polymers Park in West Bengal. His prior experience includes a tenure as Assistant Professor at the Rubber Technology Centre, IIT Kharagpur, and he has recently been appointed as a Technical Consultant for Rubber products at Berzelius Materials Performance Inc. in the United Kingdom.

Stepping into his new role, the new Director is expected to prioritise research advancement, indigenisation of technologies and sustainable development within the rubber sector. The IRMRI leadership and members have expressed confidence in his visionary guidance, anticipating that his leadership will drive the institute toward greater innovation and research excellence in the coming years.

The Bureau of Indian Standards (BIS) has granted laboratory recognition to M/s D. Banerjee Centre of Excellence (DBCOE), based at the JSS Technical Institutions Campus in Mysuru, Karnataka, for a three-year period from 8 July 2026 to 7 July 2029.

The recognition, issued under the BIS Laboratory Recognition Scheme (LRS), enables the centre to undertake testing activities in accordance with BIS requirements. The laboratory's details have been uploaded to the BIS Laboratory Information Management System (LIMS), with sample receipt, testing and report generation to be managed through the online platform. The recognition remains subject to compliance with the provisions of the BIS LRS 2020.

Established by the Indian Institute of Rubber (IRI) in collaboration with JSS Technical Institutions, the centre is intended to strengthen industry-academia collaboration in polymer science and rubber technology while supporting research, testing, training and technology development for the tyre and wider rubber industry.

The facility has developed capabilities in material characterisation, wet chemistry and forensic failure analysis. Its laboratories can analyse raw materials including carbon black, rubber chemicals, elastomers, accelerators and antioxidants, while also supporting material specification development, plant audits and quality approvals. Plans are also in place to expand failure analysis services for manufacturers, particularly small and medium-sized enterprises (MSMEs).

DBCOE also aims to support manufacturers adapting to changing automotive requirements, including electric vehicles, through research into advanced materials and sustainable alternatives. Its stated focus includes bio-based materials, tyre recycling, steel reuse and low-emission polymers, alongside technical support for regulatory compliance and homologation.

Alongside its testing infrastructure, the centre has established a training ecosystem for the rubber sector. It offers two flagship programmes: a Diploma in Rubber Technology for diploma holders and new recruits, and a Postgraduate Diploma in Rubber Technology for science and engineering graduates. Both programmes combine online theory modules with practical training and laboratory sessions at the Mysuru campus, with final examinations conducted by IIT Kharagpur.

The centre is also developing a series of short-duration industry courses covering mixing, compounding, extrusion, calendering, tyre building, moulding, retreading, footwear, conveyor belts and latex products. These programmes combine classroom instruction with practical demonstrations, testing methodologies and failure analysis.

According to the centre, more than 40 industry experts contribute to its training programmes. Several tyre manufacturers, including Apollo Tyres, Yokohama, BKT and JK Tyre, recognise completion of the diploma programme as part of their employee development initiatives.

The centre primarily serves the tyre industry but also aims to support non-tyre rubber manufacturers, particularly MSMEs that lack access to advanced testing facilities and technical expertise. Through consultancy, training and laboratory services, it seeks to improve technical capability, product quality and compliance across the broader rubber sector.

Elkem ASA, a global leader in advanced silicon-based materials, has announced the appointment of Dag Teigland as its new Chief Executive Officer, effective 3 August 2026. The board’s decision coincides with the departure of Helge Aasen, who will step down after leading the company since 2009 to take on the role of Chairman of the Board.

Bringing more than two decades of industrial and investment expertise, Teigland currently serves as executive chairman of Tekna Holding ASA, a firm known for advanced metal powders. His career includes senior executive positions at Tinfos AS and Holta Invest AS, where he managed an active investment platform. Previously, he held multiple leadership roles at Elkem from 1998 to 2002, culminating as Managing Director for the chrome business area, providing him with direct familiarity with the company’s operations.

Marianne E Johnsen, Interim Chair of the Board of Elkem, said, “The Board is pleased to appoint Dag Teigland as CEO of Elkem. He brings deep industrial expertise and a proven track record of driving development and transformation. With his background spanning both international industrial operations and investment environments, Dag is well suited to lead Elkem into its next phase of growth and development.

“At the same time, the Board would like to thank Helge Aasen for his strong leadership and significant contribution to Elkem over many years. During his tenure, Elkem has strengthened its strategic position, expanded its global footprint and developed world-leading positions in silicon, ferrosilicon, foundry alloys and carbon solutions. Helge has also led Elkem through major portfolio and financing measures, including the divestment of the Silicones division. We are very pleased that he will continue to contribute to the company’s development as chairperson of the board.”

Teigland said, “It is a great honour to return to Elkem and take on the role of chief executive officer. Elkem is a company with a strong industrial heritage and a leading position within its respective segments. I look forward to working with the Board, the Elkem leadership team and colleagues worldwide to build on this foundation, accelerate sustainable growth, advance safety and innovation and ensure that Elkem continues to supply the strategic materials needed for a cleaner, smarter and more resilient future.”

Aasen said, “It has been a privilege to lead Elkem as CEO over the past 17 years. I am proud of what the organisation has accomplished during this period and confident that the company is well positioned for long-term, sustainable value creation. I look forward to continuing to support Elkem in my new role as chairperson of the board and to work closely with Dag in the transition.”