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Chemical Industry Review: Specials Magazine
What makes acetic acid central to global manufacturing supply chains? In industrial chemistry, scale drives outcomes. Incremental improvements in small-volume products may demonstrate technical ingenuity, but they rarely alter supply chains or emissions trajectories in meaningful ways. That is where Kemvera, formerly New Iridium, has chosen a more demanding path. Rather than entering the bio-based chemicals market through specialty niches, the company is targeting one of the most widely used organic chemicals in the world: acetic acid, a quiet workhorse of modern manufacturing. Produced globally at roughly twenty million metric tons per year, acetic acid sits at the cornerstone of the acetyl value chain, supplying intermediates for plastics, coatings, adhesives, solvents, textiles, and consumer products. Its derivatives appear in materials as ordinary as house paint and as ubiquitous as soles and cushioning for casual footwear. Because of this reach, acetic acid represents both a challenge and an opportunity for decarbonization. Any meaningful shift in how it is produced would ripple across multiple industries. Kemvera was formed around the conviction that sustainability in chemicals must begin with products that already matter at scale. The company has positioned itself to focus on commercializing a proprietary thermocatalytic process that converts bioethanol into bio-based acetic acid and ethyl acetate.
Reactive Monomers and Oligomers Supplier
The turn of the 21st century unlocked a new era in the microelectronics industry, characterized by increasing performance expectations and stricter global manufacturing standards. Customer demands rapidly evolved, highlighting the need for improved adhesive resins for packaging applications and advanced technology for higher-frequency applications. As businesses strived to keep up, Designer Molecules Inc. (DMI) developed superior organic solutions that shaped the next generation of advanced microelectronic materials. A global developer of reactive monomers and functional oligomers, DMI solves complex processing and performance challenges for advanced materials through novel reactive chemistries. Its products are predominantly used in microelectronics to support wafer fabrication, packaging and printed circuit board applications. “Our products consistently outperform commercially available alternatives because we rely on our sales team to collect customer feedback and integrate their insights into our development process from the start,” says Frank D. Husson, Jr., president and CEO. DMI’s product innovations are centered on reactive chemistries that offer thermal stability and low moisture uptake—critical attributes for high-reliability electronics. Over the years, the company has focused on numerous key development areas and curated a library of compounds. The synthesis of imide-extended bismaleimide (BMI) oligomers with aromatic, aliphatic and cycloaliphatic backbones is one of its many breakthroughs. These thermoset materials outperform conventional epoxy resins, particularly in high-temperature lead-free solder reflow conditions of up to 260°C. Their inherent hydrophobicity helps adhere to stringent moisture resistance benchmarks. BMI-based materials also exhibit low dissipation factors (Df values ≤0.003), essential for enabling high-frequency applications like 5G communications, radar systems and automotive sensors. Its acrylate- and methacrylate-terminated oligomeric polyesters also meet the requirement for thermal stability at 260°C solder reflow. These polyesters are suited for use as temporary adhesives in silicon wafer back-side grinding. In addition, the colorless variants of its methacrylate-terminated oligomers have shown significant promise in dental composites and orthodontic applications. DMI’s chemical acumen is best highlighted in the development of a military-grade conductive adhesive. The application required an electrical conductivity level that traditional silver-filled die-attach adhesives couldn’t provide. Its in-house chemists developed a solution using soluble palladium itaconate (SPdl), a novel palladium-containing molecule that decomposes at 160°C during cure.
Specialty Zeolite Powder and Catalyst Supplier
Zeolyst International is a global leader in specialty zeolite powders, catalysts, and adsorbents, serving industries such as refining, petrochemicals, emission controls, and renewable fuels. Founded in 1988, Zeolyst is a joint venture between Ecovyst Catalyst Technologies LLC and Shell Catalysts and Technologies, and operates high capacity facilities in Kansas, USA, and Delfzijl, the Netherlands. Its mission? To design value driving zeolite-based materials that improve economics, lower emissions, and speed the transition to cleaner energy systems. From the outset, Zeolyst’s work is grounded in materials science, adapting and tuning zeolites to meet client-specific technical and regulatory needs. Its offerings range from standard powders and formed zeolite catalysts to highly engineered, proprietary materials. These are the unseen backbone for customers worldwide, producing renewable diesel, sustainable aviation fuel, green chemicals, and paraxylene—the building block of plastics and synthetic fibers—and improving air quality through emission controls and advanced recycling technologies. “We co-create solutions with our customers that accelerate the transition to cleaner fuels and sustainable growth. Their success defines our success”, says Lucy Innes, Vice President and General Manager. This underlines the customer focus at the heart of every Zeolyst project. Engineering Custom Solutions Every engagement at Zeolyst begins with a deep technical conversation. Clients bring complex challenges, including boosting renewable diesel or aviation fuel yields, extending catalyst lifespans, and meeting new government mandates for cleaner operations. Zeolyst’s technical team responds with an innovation cycle built on collaboration, confidentiality, and continuous improvement. Each requirement is treated as a distinct puzzle, rather than a one-size-fits- all case. Company scientists fine-tune the properties of zeolites, such as crystal size, silica-to alumina ratio, or metal addition, and then submit lead candidates for real-world plant trials, refining them until the target metrics are fully realized. The Opal Renew™ zeolites line is Zeolyst’s flagship catalyst family for producing renewable fuels. Purpose built for catalytic dewaxing and alcohol to jet pathways, Opal Renew™ zeolites enable refiners to convert feedstocks such as vegetable oils and waste fats into renewable diesel and sustainable aviation fuel. These catalysts directly support compliance with global carbon-reduction targets, particularly in hard-to-electrify sectors like aviation, which today accounts for approximately 2.5 percent of global emissions.
CXO INSIGHTS
Crucial Questions for Evaluating New Biostimulant and Biological Technologies
Dr. Karl Wyant - Director of Agronomy – Nutrien
BASF's Plastics Journey - Making the Transformation Go Faster
Susan Jackson, Head of Communications & Sustainability, BASF Performance Materials
3D Printing is Evolving from a Niche Process to High-Volume Manufacturing Technology
Alex Sant'Anna, Vice President Americas, Coating & Adhesive Resins, Evonik
From Molecule to Medicine, the Science Behind Formulation
Jack Xiang, Formulation Scientist, Abbvie
Leading Safety in the Digital Age: Culture, Trust and Transformation
Chet Brandon, Sr. Director of Global EHS, Operations, Hexion Inc
IN FOCUS
The Road to Sustainability: Addressing Challenges in Bio-Based Chemical Scaling
Bio-based chemical technology faces critical hurdles in scalability, feedstock stability, and regulatory alignment while driving global industrial decarbonization.
Transforming Industry: Impact of Bio-Based Chemical Technology
Bio-based chemical technology grows through sustainability demand, regulatory pressure, and innovation, enabling renewable alternatives, reducing environmental impact, and supporting circular economies across multiple industries.
EDITORIAL
Building a Resilient Bio-Based Chemical Economy
Bio-based chemical technology is moving from pilot ambition to industrial execution. As decarbonization pressures converge with supply chain resilience and cost discipline, the sector is being tested not by intent but by its ability to compete at scale.
That test defines this edition’s cover story. Kemvera (formerly New Iridium), recognized as Bio-Based Chemical Technology of the Year 2026, has chosen to commercialize bio-based acetic acid at industrial volumes rather than remain confined to specialty niches. Targeting a molecule produced globally at roughly twenty million metric tons per year, the company has developed a proprietary one-step thermocatalytic oxidation process that converts bioethanol directly into acetic acid and ethyl acetate.
By consolidating conversion into a single reactor, Kemvera aims to reduce capital intensity, energy demand and yield loss while achieving selectivity exceeding ninety-five percent and first-pass conversion of at least ninety percent. Its staged scale-up from pilot to pre-commercial to planned fifty-thousand-metric-ton capacity reflects a deliberate approach to technical validation and risk management. The strategy is to deliver drop-in, cost-competitive alternatives that integrate seamlessly into existing supply chains.
Leadership perspectives in this edition reinforce that disciplined alignment is as critical as technical innovation. Kelvin Roth, Vice President, Environment, Health, Safety and Quality at CF Industries (NYSE:CF), emphasizes that strategy must lead technology adoption, with culture and consistent systems forming the foundation of resilient industrial performance. Walter Bridgham, Senior Business Development Manager, Home and Interior at Lenzing Group (VIE:LNZ), highlights the operational value of precise, audience-centered communication that reduces friction across complex supply chains.
Bio-based chemistry will be defined by execution, cost parity and cultural alignment. We invite you to examine the insights in this issue and engage with the leaders shaping a more resilient chemical industry.
