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Bulk Chemicals

Fluorochemicals production without hydrofluoric acid

FluoRork manufactures fluorochemicals in a hydrofluoric (HF) free way. Fluorochemicals are used in every day products like lithium-ion battery electrolytes, agrochemicals, and drugs. All fluorine atoms in fluorochemicals are derived from fluorspar. Traditionally, fluorspar is treated with sulfuric acid in an energy-intensive process to produce hydrofluoric acid (HF), the key precursor in traditional fluorochemical manufacturing. FluoRok aims to revolutionize conventional fluorochemical production with an HF-free fluorination process.

Ultrasonic technology to convert woody biomass into high-value biochemicals

Sonichem converts lignocellulosic biomasses into cellulose, natural sugars, and lignin. These biomasses include hard and soft woods, sugar cane bagasse, straws, and grasses. Over 95% of the feedstocks are transformed into valuable products. Using ultrasound to break chemical bonds, this technology separates woody feedstocks into a fractioned mixture of cellulose, sugars, and lignin. The fractioned mixture is then separated into high-quality biochemical products with mild organic solvents. These solvents are received and reused, reducing the inventory of chemicals held on site.

Bio-Based Acrylonite (bio-ACN™) from Glycerol

Trillium has developed a technology that produces bio-ACN™ from glycerol. Glycerol is a renewable feedstock that is a byproduct of converting natural oils and fats into soaps, detergents, and biofuels. Bio-ACN™ has a 70% lower carbon footprint than petroleum-based acrylonitrile. This process is scalable and cost-competitive due to the use of an efficient catalytic process that dehydrates glycerin to acrolein. Acrylonitrile is then produced by reacting acrolein with oxygen and ammonia.

Cell Factory Engineering Platform

Replicates the natural processes of plants in smart cell factories to create a variety of products more sustainably and efficiently. Manus Bio developed an advanced technology designed to recreate plant processes in microorganisms to produce natural ingredients through fermentation. The AI-augmented computational protein design platform, MLEAP®, enables users to discover, develop, and optimize enzymes for different applications.

Bioforge™

AI-engineeered enzymes for the production of chemicals without fermentation. This company uses AI to engineer enzymes and metal catalysts that do not require fermentation, allowing for the production of molecules at room temperature without toxins and waste. This process uses safe feedstocks, such as sugars, air, and carbon dioxide. It is also scalable and cost efficient. This process also eliminates fermentation, costly immobilization, air emissions, and wastewater emissions. Their factory, Bioforge™, produces one ton of product per ton of feedstock.

BioEstolide™ Synthetic Oil

Renewable and biodegradable oils. Estolides are oligomeric fatty acid esters that can be a bio-based alternative to conventional motor oils and industrial lubricants. This alternative avoids permanent damage to water bodies and reduces greenhouse gas emissions by 90%. Estolides are also biodegradable.

4-Aminodiphenylamine (4-ADPA)

Synthetic methodology for the development of 4-ADPA. 4-Aminodiphenylamine (4-ADPA) is a key building block for rubber preservatives. Many aromatic amines are made with halogenated reagents, especially those containing chlorine. The Eastman Chemical Company's previous production of 4-ADPA is based on the chlorination of benzene. This process produced aqueous waste with high levels of inorganic salts that are difficult and expensive to treat. This process also required the storage and handling of large quantities of chlorine gas, which is hazardous to human health.

Safer, Sustainable, Biodegradable, Solid-State Chemistry for Treat Cooling Water Systems

Solid chemistry water treatment. Solid chemistry replaces the heavy, hazardous drums of liquid chemistry used in water treatment. Solid chemistry eliminates the splashing and spilling of liquids, making delivery safer, cleaner, and easier. This technology is more cost effective as it reduces shipping cost and eliminates expensive storage constraints and disposal fees. The process is also sustainable as it is composed of only biodegradable materials and eliminates dangerous spills and contributions to landfills.
Contact/Additional InfoTel: 866-489-9831

End-of-Life Tires as a Feedstock to Produce Consistent, High Quality Carbon Blacks

Upcycled carbon black from end-of-life tires. Over 1.5 billion end-of-life tires enter the global waste stream annually. This process upcycles end-of-life tires to produce carbon black and tire pyrolytic oil and gas, reducing oil use and carbon dioxide emissions. These carbon blacks are a sustainable, one-to-one replacement for ASTM furnace carbon blacks. The process consists of 5 stages: steel removal, carbonization, de-agglomeration, pelletizing, and drying.

Enzymicals AG Enzymes

Enzymes and chemicals as chiral building blocks, intermediates, specialty chemicals, and recombinant enzymes. This company uses customized chemical synthesis and biocatalytic conversion to produce enzymes and chemicals as chiral building blocks, intermediates, specialty chemicals, and recombinant enzymes. These enzymes are suitable for research and development, diagnostics, and industrial production. Custom enzymes reduce complex synthesis processes into a single biocatalytic step, allowing for operation in milder conditions, product selectivity, and lower physiological toxicity.