Interpon , a brand of AkzoNobel Powder Coatings , has launched the Eco+ Cure energy calculator. This is a new expert-led, advanced analysis tool that helps manufacturers reduce energy consumption, lower operating costs, and shrink their carbon footprint across powder coating operations. By analyzing real operating data, including gas usage, oven temperature, and throughput, it reveals optimization opportunities that are often invisible in day-to-day production. It also helps manufacturers better understand the potential impact of innovations such as lower cure technologies. The Eco+ Cure energy calculator is used as part of an assessment carried out by Interpon’s Technical Services team, providing customers with clear insight into their curing process and how to improve energy efficiency and performance. Interpon’s technical experts work with customers to translate data findings into practical recommendations that can be implemented quickly and effectively, helping reduce energy consumption, lower carbon emissions, improve productivity and enhance overall line performance. Jorrit van Rijn, Global Marketing Director at AkzoNobel Powder Coatings, explains, “Manufacturers don’t just want to be more sustainable; they need solutions that improve performance at the same time. But without clear data, it’s difficult to know where to start. The Eco+ Cure energy calculator changes that. It gives customers real insight into their operations, helping them identify what works, what doesn’t, and where they can improve. It’s about making sustainability practical, and delivering real business value.”
YE-7780D Saturated Polyester Resin 1. INTRODUCTION YE-7780D is an exterior saturated carboxylic polyester resin curing with TGIC at93/7 for thermosetting powder coating. Except with good durability and flow, it hasexcellent heat resistance performance up to 300℃ X 1 hr, with gloss maintained athigher than 90%, suitable for profiles powder coating which demand high heatresistance. 2. CHARACTERISTICS OF THE RESIN Appearance………………………… light yellow flakes Acid Value (mg KOH/g)……………32-37 (1) Color……………………………… ≤2 (2) Viscosity at 175℃ (mPa…S)……36000-46000 (3) Glass Transition Temperature (Tg)… Approx 70ºC(4) Softening Point (℃)………………123-133 (5) (1)GB/T 6743-2008 (2) GB/T 1722-92 (3) GB/T 9751.1-2008 (4) GB/T 19466.2-2004(5) GB/T 12007.6-1989 3. TYPICAL POWDER FORMULA: Barium Sulfate……………………………….. 100 (1) Titanium Dioxide……………………………… 300 (2) Polyester YE-7780D……………………………558 TGIC……………………………………………42 (3) (IPDI)B1530……………………………………6 (4) Flow Control Agent………………………………10 (5) Benzoin………………………………… 5 (1) Shanxi Fuhua Chemical Co., Ltd (2) R-966 (3) ARALDITE PT-810, WPE: 107 (Supplier: Ciba-Geigy) (4) VESTAGON B-1530,NCO%=15% (Supplier:HULS) (5)YL-1080 (Silica Absorption 65% supplied by YinYang Resin Co., Ltd) 4. MANUFACTURING PROCEDURE AND TESTING (1) MANUFACTURING a. Pre-mixing (dry-blend of the component above) b. Homogeneous extrude at temperature of 120-125C) c. Cool down and initial grinding d. Milling and sieve to obtain a fine free-flowing powder maximum particle size of80 um (2)COATING CONDITION: Voltage………………………… 60-80 kv Air Pressure………………………………1-2kg/cm2 Test Panel……………………………0.35mm steel panel (3) CURING CONDITION: 10 minute at 200C (object temperature) (4) TEST RESULT: Film Thickness…………………………………60-80 mGloss………………………………….>90% (1) Erichsen Slow Penetration ………… 5mm (2) Direct / Reverse Impact…..……………50kg-cm (3) Conical Mandrel…………………………Pass (4) Crosshatch adhesion……………………GT=0 (5) (1)GB/T 9754-1988 (2)GB/T 9753-1988 (3)GB/T 1732-1993 (4)GB/T 6742-1986 (5)GB/T 9286-1998 5. PACKING AND STORAGE 25 kilogram paper bag or PE bag; stored in a cool dry indoor place at temperature of-20℃ to 35℃. Avoid long-term exposure to direct sunlight. The shelf life of the resin isone year in the above-mentioned storage conditions. Experience has shown that storagelife of the resin is up to 3 years. It is proposed that the testing product beyond the shelf lifecan still be used after tested qualified. Note: The above-mentioned indications are based on carefully made tests. Noliability can be assumed in the event of any inaccuracy or incompleteness being found inthe value listed above and consequently we recommend evaluation in your ownlaboratories prior to use.
1. INTRODUCTION YE-7780C is an exterior saturated carboxylic polyester resin curing with TGIC at 93/7 for thermosetting powder coating. Except with good durability and flow, it has excellent heat resistance performance up to 270 ℃ , suitable for profiles powder coating which demand high heat resistance. 2. CHARACTERISTICS OF THE RESIN Appearance………………………… light yellow flakes Acid Value (mg KOH/g)……………30-35 (1) Color……………………………… <2 (2) Viscosity at 175 ℃ (mPa…S)……27000-38000 (3) Glass Transition Temperature (Tg)… Approx 68ºC(4) Softening Point ( ℃ )………………115-125 (5) (1)GB/T 6743-2008 (2) GB/T 1722-92 (3) GB/T 9751.1-2008 (4) GB/T 19466.2-2004 (5) GB/T 12007.6-1989 3. TYPICAL POWDER FORMULA: Barium Sulfate……………………………….. 100 (1) Titanium Dioxide……………………………… 300 (2) Polyester YE-7780C……………………………558 TGIC……………………………………………42 (3) Flow Control Agent………………………………6 (4) Benzoin………………………………… 3 (1) Shanxi Fuhua Chemical Co., Ltd (2) Dupont R-902 (3) ARALDITE PT-810, WPE: 107 (Supplier: Ciba-Geigy) Other TGIC suppliers are also suitable. YE-7780C / TGIC = 93/7 (4)YL-1080 (Silica Absorption 65% supplied by YinYang Resin Co., Ltd) 4. MANUFACTURING PROCEDURE AND TESTING (1) MANUFACTURING a. Pre-mixing (dry-blend of the component above) b. Homogeneous extrude at temperature of 125-128C) c. Cool down and initial grinding d. Milling and sieve to obtain a fine free-flowing powder maximum particle size of80 um (2)COATING CONDITION: Voltage………………………… 60-80 kv Air Pressure………………………………1-2kg/cm2 Test Panel……………………………0.35mm steel panel (3) CURING CONDITION: 10 minute at 200C (object temperature) (4) TEST RESULT: Film Thickness…………………………………60-80m Gloss………………………………….>90% (1) Erichsen Slow Penetration ………… 6mm (2) Direct / Reverse Impact…..……………50kg-cm (3) Conical Mandrel…………………………Pass (4) Crosshatch adhesion……………………GT=0 (5) (1)GB/T 9754-1988 (2)GB/T 9753-1988 (3)GB/T 1732-1993 (4)GB/T 6742-1986 (5)GB/T 9286-1998 5. PACKING AND STORAGE 25 kilogram paper bag or PE bag; stored in a cool dry indoor place at temperature of-20℃ to 35℃. Avoid long-term exposure to direct sunlight. The shelf life of the resin isone year in the above-mentioned storage conditions. Experience has shown that storagelife of the resin is up to 3 years. It is proposed that the testing product beyond the shelf lifecan still be used after tested qualified. Note: The above-mentioned indications are based on carefully made tests. Noliability can be assumed in the event of any inaccuracy or incompleteness being found inthe value listed above and consequently we recommend evaluation in your ownlaboratories prior to use. Guang Dong Yin Yang Environment -Friendly New Materials Co .,Ltd . is a national high-tech enterprise integrating R&D, manufacturing and marketing, an environment-friendly high-tech enterprise for water-based emulsion polymers and polyester resin for powder coatings.
Hubergroup Print Solutions is unveiling another major innovation designed to better meet today’s market requirements. After intensive development work, the international printing ink specialist is launching the next generation of its conventional offset inks, featuring a completely new resin technology. The advanced formulation delivers measurable improvements in printing performance while maintaining consistently high print quality. Printing companies thus benefit from significantly fewer make-ready sheets, more consistent colour reproduction, and a substantial reduction in misting – even on high-speed presses. The relaunch covers well-established commercial and packaging ink series, including RESISTA, RAPIDA ECO, ECO-PERFECT-DRY, PACKAGING PLUS, MGA NATURA, and MGA CORONA. Why resin technology matters Resins form the backbone of offset ink systems, defining fundamental characteristics – from physical properties such as viscosity or tack to print performance factors like misting resistance, setting speed or adhesion. Recognising their central role, hubergroup invested in research and development to engineer a resin technology that enhances these properties across the board. „An improved resin means an improved ink,” explains Richard Gill, Product Manager Sheetfed at hubergroup. “As we at hubergroup manufacture our own resins, we can tailor the formulation to precisely meet the performance characteristics we want. This capability enabled us to develop a perfectly aligned resin technology for our conventional offset inks.” Real advantages in everyday production During extensive long-term production testing, the advanced resin technology has demonstrated clear, quantifiable benefits: Measurable reduction in misting Wider water window for more stable printing Significantly lower dampening levels Fewer sheets required for on-press adjustments Stable print density and consistent colour results At the same time, post-print performance remained consistently good. Global rollout across the offset portfolio Hubergroup will introduce the new resin technology across its entire global conventional offset portfolio during the first half of 2026. Product names and sales codes will remain unchanged, ensuring a smooth transition. “With this new technology, we are one step ahead of the market and fully aligned with current and future needs of print and packaging companies,” summarises Richard Gill. “We invite customers to reach out to us at any time to learn more about the advantages of this innovation.”
• FDA approval expands Clariant's Licocare RBW portfolio authorization from polyester to include rigid PVC materials, effective May 7, 2026 All Licocare RBW grades now FDA-approved for rigid PVC with dual application scope: direct food contact (up to 0.5%) and food processing equipment (up to 1%) Combined with existing EFSA authorization, approval strengthens Clariant's position in delivering globally compliant, sustainable food-contact solutions Rice bran wax additives offer renewable alternative to fossil-based options while addressing ongoing montan wax supply challenges MUTTENZ, May 28, 2026 - Clariant has received U.S. Food and Drug Administration (FDA) approval for its bio-based Licocare RBW wax additives for use in rigid polyvinyl chloride (PVC) food-contact applications. The authorization, effective May 7, 2026, extends the company's existing FDA approval beyond polyester materials to include rigid PVC. The approval covers the complete Licocare RBW product range, including the RBW 100 series, RBW 300 series, and the grades Licocare RBW 360 Vita and RBW 560 Vita. The additives are authorized for use as processing aids, lubricants, release agents, and slip additives in single- and repeat-use rigid PVC applications across all food types, except for infant formula and human milk contact. For direct food-contact applications, the additives are approved at levels up to 0.5% by weight under conditions of use C through H, with a temperature maximum of 80°C for hot-fill applications. Clariant has also received an Opinion Letter of No Objection (LONO) for repeated use up to 1% concentration in food-contact articles for food processing equipment made of rigid PVC. The dual authorization enables use across multiple applications, including rigid PVC containers, packaging materials, and food processing equipment components such as conveyor belts, cutting boards, storage containers, seals, and gaskets. The different concentration levels allow formulators to adjust specifications based on their specific application requirements while maintaining regulatory compliance. The FDA approval adds to Clariant's existing regulatory authorizations for the Licocare RBW portfolio. In February 2026, the EU Commission published authorization based on EFSA's positive opinion for the same product line in PET, PLA, and rigid PVC materials. The company also holds authorization from the Japanese food safety authority. This combination of approvals provides manufacturers with regulatory compliance across major international markets. "Achieving FDA approval for our Licocare RBW additives in rigid PVC applications demonstrates Clariant's commitment to delivering sustainable solutions that meet the highest regulatory standards across multiple jurisdictions," said Diederik Goyvaerts, Market Manager, Additives at Clariant. "This authorization represents years of dedicated work and opens significant opportunities for manufacturers to transition to renewable alternatives while maintaining full compliance with food safety regulations in both North American and European markets." Licocare RBW additives are derived from rice bran wax and provide a renewable alternative with substantial carbon footprint reductions compared to conventional fossil-based montan waxes. The industry has experienced supply constraints with montan wax, which is extracted from lignite coal deposits in Germany that are actively depleting. This has resulted in supply disruptions and price increases for manufacturers. The rice bran wax additives provide processing benefits including lubrication, mold release, nucleation effects, and enhanced dispersion properties. The products are biodegradable and industrially compostable, which supports end-of-life sustainability requirements for packaging materials. The production process avoids the landscape disruption and biodiversity impact associated with lignite mining. The FDA approval for rigid PVC follows Clariant's approach of securing regulatory authorizations across different materials and regions. With approvals now covering FDA, EFSA, and Japanese authorities, the company has established regulatory compliance for its bio-based Licocare RBW portfolio in key global markets. This provides manufacturers with the regulatory framework needed to implement renewable alternatives in their food-contact application. Licocare ™ IS A TRADEMARK OF CLARIANT.
BASF Coatings positions itself as integration partner and process leader for robotics-enabled paint application in body shops Münster, Germany – BASF Coatings is strengthening its role in robotics-enabled Automotive Refinish by combining coatings expertise, digital color management and application process know-how. Through close collaboration with OEMs and automation partners, the company aims to help shape the future of automated paint application in body shops. Drawing on its experience in repair processes and connected digital workflows, BASF Coatings supports customers in implementing robotics-enabled solutions for more consistent, scalable and future-ready repair operations. As automation gains relevance in collision repair, BASF Coatings is working closely with robotics suppliers, pilot customers and industry partners to support customers with validated process expertise and practical implementation guidance for robotics-enabled repair environments. The company’s focus goes beyond testing and validation by actively contributing to future application standards, scalable process frameworks and the integration of robotics into real-world body shop operations. BASF Coatings does not develop robotics hardware itself, but differentiates through its deep understanding of coatings, application processes and system integration within Automotive Refinish. Robotics extends connected refinish processes Robotics is seen as a natural extension of BASF Coatings’ end-to-end digital color process. Within the Refinity® ecosystem – the digital ecosystem for managing the body shop business – digital color scanning, matching, mixing and workflow management already support efficient and consistent repair processes. Robotics adds a further step by connecting digital process control with physical paint application. “Robotics brings together digital color management and physical application in a single connected process,” said Chen Liu, Global Head of Technology Automotive Refinish Coatings. “The true differentiation lies not in the robot itself, but in how BASF integrates coatings, process and application expertise to deliver consistent quality in real-world body shop environments. By combining these strengths, we are shaping scalable and repeatable application standards that will define the future of automotive refinish.” Focus on efficiency, consistency and future-ready repair Initial robotics applications primarily focus on standardized applications of primer, basecoat and clearcoat on complete vehicle parts. In this context, repeatability, throughput and material efficiency are the key drivers. Broader application to specific processes, such as blending or interior painting, is expected as the technology matures. “We see robotics as an important future topic for Automotive Refinish and want to help customers navigate this evolving environment with confidence,” said Roar Solberg, Vice President Automotive Refinish Coatings EMEA. “Our approach is to provide orientation, validation and close collaboration so customers can make informed decisions about future-ready repair processes.” By combining coatings expertise with digital workflows and application know-how, BASF Coatings aims to support the development of more efficient, consistent and future-ready repair operations globally.
n Recognition from ATZ/MTZ Group and Arthur D. Little n Overspray Free Application (OFLA) selected in the ‘Technology: Operations & Supply Chain’ category n OFLA is enabled by BASF Coatings’ ColorSharp decor coat paint technology for industrial two ‑ tone painting n Successful collaboration and implementation with industry partners BASF Coatings has won the Sustainability Award in Automotive 2026 for its Overspray Free Application (OFLA) process, an overspray-free approach to two-tone painting. The award was presented in the ‘ Technology: Operations & Supply Chain ’ category, which honors tangible technological and process innovations that make a measurable contribution to sustainability by improving industrial operations and production processes. The award is jointly organized by the ATZ/MTZ Group (Springer Nature) and the management consultancy Arthur D. Little. Dr. Steffen Rohlmann (right), Development Basecoat EMEA, and Sonja Glanemann (center), Global Sustainability Manager, Automotive OEM Coatings, receive the Sustainability Award in Automotive 2026 – Technology: Operations & Supply Chain – for the Overspray Free Application (OFLA) process from Prof. Dr. Uwe Dieter Grebe from TU Wien – Vienna University of Technology, at the award ceremony in Frankfurt. Photo: ATZlive|Uli Regenscheit OFLA is a wet-on-wet process for two-tone vehicles. The contrast color is applied with digitally controlled paint jets, producing a sharp paint edge without masking, enabled by BASF Coatings’ ColorSharp decor coat paint technology, engineered for overspray-free application. With tailored rheology and optimized flow and leveling behavior, the paint is designed to support sharply defined jet-applied paint lines and helps avoid defects typically associated with conventional spray basecoats. Because the paint is placed only where needed, the process achieves 100% transfer efficiency and eliminates overspray. For OEMs, this can reduce energy demand and CO2 emissions, cut masking-related waste and deliver process -level paint savings, while maintaining stable serial quality. “The award underlines how process innovation, enabled by advanced paint technology, can fundamentally change the sustainability profile of automotive two‑tone painting without the efficiency and resource penalties of conventional approaches,” said Alvin Lao, Head of Global Sustainability, Automotive OEM Coatings at BASF Coatings. “The jury’s recognition highlights OFLA as a technology‑driven solution that delivers measurable environmental and operational value for automotive manufacturing.” OFLA is the result of close collaboration across the automotive value chain, combining BASF Coatings’ paint innovation and technology, Renault’s OEM manufacturing expertise, and Dürr’s advanced application and automation technology. At Renault’s Maubeuge plant, the OFLA two-tone process is deployed in serial production. Results show ~25% reduced energy consumption (about 1.7 GWh/year), ~300 tons of CO₂ reduction per year, elimination of ~300 g of masking-related, paint-contaminated waste per vehicle and ~200 g per vehicle of process-level paint savings by avoiding the second basecoat/clearcoat run required in conventional masking-based two-tone processes.
In anticipation of the imminent public release of the SEC Form F-4 detailing its proposed merger with Axalta Coating Systems Ltd. (" Axalta "), AkzoNobel confirms that it rejected on May 1, 2026 a conditional and non-binding proposal from Nippon Paint Holdings Co. (“ Nippon Paint ”) and The Sherwin-Williams Company (“ Sherwin-Williams ”) received on April 29, 2026 to make a cash offer for all issued and outstanding shares of AkzoNobel at an indicative offer price of EUR 73.00 in cash per share (excluding regular annual and interim dividends) (the " Proposal ").This offer followed an initial proposal submitted on April 16 and rejected on April 22. Under the terms of the Proposal, Nippon Paint would launch the all-cash public offer for all of the issued and outstanding shares of AkzoNobel. Upon completion of the proposed transaction, Nippon Paint would retain AkzoNobel's Decorative Paints and Industrial Coatings businesses, while AkzoNobel's Automotive & Specialty Coatings, Marine & Protective Coatings and Powder Coatings businesses would be sold separately to Sherwin-Williams. The Board of Management and the Supervisory Board carefully reviewed and considered the Proposal, together with their respective financial and legal advisors, in line with their fiduciary duties. The Boards concluded that the Proposal did not qualify, nor was it reasonably expected to qualify, as a 'Superior Proposal' (as defined in the merger agreement between AkzoNobel and Axalta), considering a variety of aspects of the Proposal. The Boards considered, amongst others and in no particular order, that the indicative offer price did not come close to adequately reflecting the value of AkzoNobel and its long-term prospects, taking into account the benefits of the recommended merger with Axalta; that the Proposal provided insufficient deal certainty in relation to regulatory clearances and the separation of the business between Nippon Paint and Sherwin-Williams; and that the interests of AkzoNobel stakeholders were not adequately safeguarded. Both AkzoNobel Boards unanimously continue to recommend the merger of equals between AkzoNobel and Axalta, taking into account the compelling strategic rationale and benefits as set out in the AkzoNobel and Axalta joint press release of 18 November 2025. Further announcements will be made if and when appropriate. This is a public announcement by Akzo Nobel N.V. pursuant to section 17 paragraph 1 of the European Market Abuse Regulation (596/2014).
One of China’s most ambitious green energy initiatives – and the largest project of its type in the world – is being protected by high-performance coatings supplied by AkzoNobel. The company’s International® brand is providing long-term corrosion protection and chemical and heat resistant coatings for the wind power and chemical processing facilities at the Songyuan Hydrogen Energy Industrial Park. Constructed by China Energy Engineering Group Co., Ltd., it’s the world’s largest integrated green hydrogen-ammonia-methanol project. Now in phase two, the industrial park operates entirely on 100% renewable electricity and is currently focused on producing 45,000 tons of green hydrogen and 200,000 tons of green ammonia and methanol annually. “It’s a great honor for AkzoNobel to participate in this flagship national initiative with global significance,” explains Rob Leslie, Business Director of the company’s Marine and Protective Coatings business in Greater China. “This validates our technical capabilities in corrosion protection for renewable energy applications and demonstrates our commitment to supporting the green energy sector.” Wind turbines and chemical facilities are faced with harsh outdoor conditions, such as severe corrosion and extreme temperature fluctuations. The products being supplied by AkzoNobel’s International brand offer a number of key benefits to help address these challenges. The advanced steel structure is protected by a coatings system which includes Interzinc 52E, Interthane 990E and Intergard 475HS. This provides reduced VOC emissions compared with conventional equivalents, as well as offering excellent anti-corrosion protection. For critical piping and ammonia tanks, Interbond 2340UPC was selected for its ease of application and global reputation for protecting against CUI (corrosion under insulation), qualified to the latest standards. Hydrogen storage spheres were coated with Interseal 670HS, paired with a topcoaat recognized on the GB register of solar reflective coatings, ensuring compliance and safety. “We’re fully focused on helping customers meet the challenges of extreme manufacturing environments and complex operating conditions,” adds Leslie. “We’ll continue to tailor our protective solutions in China so we can support the energy sector’s carbon neutrality ambition.” AkzoNobel has reduced its own Scope 1 and 2 emissions by 47% (compared with the 2018 baseline) and is aiming for a 50% reduction across the value chain by 2030. A significant contributing factor is the company’s increasing use of renewable electricity, which reached 69% by the end of 2025. Construction on the Songyuan project first began in 2023. It spans the entire industrial chain, from renewable electricity to green hydrogen, then to green ammonia and methanol, addressing a major global challenge – balancing the intermittency of renewable power with the stability required for chemical production.
- Clariant's FAMAX catalysts enable successful start-up and operation of 100 kt/a and 120 kt/a formaldehyde plants in two world-scale Pentaerythritol production bases in Inner Mongolia and Hubei province, China - Clariant's FAMAX catalyst technology supports Yihua Group as a leading pentaerythritol producer with major 70 kt/a capacity - Strategic partnership with Wuxi Xiyuan Engineering demonstrates continued success of integrated process technology and catalyst solutions in China's mega-projects MUTTENZ, May 27, 2026 Clariant, a sustainability-focused specialty chemical company, today announced the successful operation of its FAMAX formaldehyde catalysts at two world-scale production facilities operated by Yihua Group in China. The advanced catalyst technology, integrated with process technology from engineering partner Wuxi Xiyuan Engineering Technology Co., Ltd., is delivering exceptional performance at both the major 100 kt/a formaldehyde plant in Inner Mongolia and the 120 kt/a formaldehyde plant in Hubei province. The Inner Mongolia facility successfully started up in March 2026, while the Hubei unit was commissioned in November 2025. Both large-scale iron-molybdenum formaldehyde plants supply high-quality feedstock to downstream the world-scale pentaerythritol production units, reinforcing Yihua Group's position as a leading global pentaerythritol producer. Clariant's FAMAX catalysts enable both facilities to achieve superior operational efficiency through significantly reduced energy consumption, higher plant productivity, and improved product quality. The catalyst's innovative design delivers 10-15% reduced pressure drop, while the advanced chemical composition improves low temperature activity, resulting in higher formaldehyde yields and extended catalyst lifetime. "We are extremely satisfied with the outstanding performance of Clariant's FAMAX catalysts and Wuxi Xiyuan’s technology at both our major facilities," said Lulu Zhu, Project Manager from Yihua Group. "The technology has enabled us to achieve our ambitious production targets efficiently while maintaining high-quality formaldehyde feedstock essential for our pentaerythritol manufacturing. This highly successful collaboration strengthens our confidence in continuing to work with Clariant and Wuxi Xiyuan for future world-scale projects." Nora Schiefenhoevel, Vice President and Head of Clariant Specialty Catalysts, commented: "These two major projects with Yihua Group demonstrate the proven value of our FAMAX catalyst technology in formaldehyde production. We are proud to support Yihua's strategic growth as a leading global pentaerythritol producer. Our continued partnership with Wuxi Xiyuan exemplifies how integrated technology solutions create exceptional value for China's mega-projects." Clariant's FAMAX catalysts are designed specifically for iron-molybdenum formaldehyde production. The catalyst's special shape design reduces pressure drop and enables potential capital cost reduction through optimized reactor configurations. The advanced chemical composition provides improved low temperature activity, allowing operation at reduced cooling medium temperatures while maintaining lower hotspot temperatures. This contributes to higher reaction selectivity and reduced by-product formation, supporting improved formaldehyde quality. Building on decades of experience in formaldehyde catalyst technology, Clariant continues to advance iron-molybdenum based formaldehyde production throughout the region. Clariant’s high-performance EnviCat™ emission control catalyst was also selected for the off-gas treatment of the two formaldehyde plants. The catalyst effectively removes harmful VOCs with an exceptional conversion efficiency of up to 99% and even beyond, while operating up to 400°C low temperatures. This greatly reduces fuel consumption and stress on equipment, resulting in significant economic, operational and safety advantages for producers. Milestone achieved: The 100,000 t/a formaldehyde plant in Inner Mongolia, part of Yihua Group's expanding production network, successfully started up in March 2026 — powered by Clariant FAMAX catalysts in partnership with Wuxi Xiyuan Engineering Technology. © Yihua Group