• Introduction

• Global Market Potential

• Key Drivers of Market

• Major Producers

• Technology Providers

• Leading Innovators 

• Production Processes

• Global Feedstock Options and Availability

• New technologies and Innovations

• End use Application

• Emerging and Future Opportunities

• Key Challenges

• Strategic Industry Initiatives

• Future Outlook

• Conclusion

Introduction

12-Hydroxystearic Acid (12-HSA) is a high-value bio-based hydroxy fatty acid primarily produced through the hydrogenation of ricinoleic acid, which is obtained from castor oil. Owing to its unique hydroxyl functional group and long hydrocarbon chain, 12-HSA exhibits excellent thickening, lubricating, gelling, emulsifying, and rheological properties, making it an important specialty chemical across multiple industries.

Commercial production of 12-HSA relies predominantly on renewable castor oil, making it one of the most established bio-based specialty chemicals in the global oleochemical sector. India, the world’s largest producer of castor seeds and castor oil, plays a dominant role in the global supply chain, accounting for the majority of raw material production and exports. In recent years, research has also focused on developing microbial and enzymatic production routes to reduce dependence on castor cultivation and improve supply chain resilience.

12-HSA is widely used in the manufacture of lithium, calcium, aluminum, and complex greases, where it functions as an efficient thickening agent. It is also extensively utilized in cosmetics and personal care products, coatings, inks, paints, plastics, rubber, adhesives, pharmaceuticals, candles, polishes, and specialty lubricants. The growing demand for bio-based lubricants, sustainable specialty chemicals, and renewable industrial materials continues to expand its commercial importance.

Global Market Potential

Parameter	Details
Current Market Size (2025)	Approximately USD 115–366 million (global 12-Hydroxystearic Acid market).
Projected Market Size (2030)	Approximately USD 500–600 million.
Projected Market Size (2035)	Approximately USD 750–950 million.
Expected CAGR (2025–2035)	5.2–11.1%.
Current Production Volume	Estimated at 150,000–2,00,000 tonnes per year, with production primarily based on castor oil-derived ricinoleic acid.
Major Producing Regions	India, China, Europe, Japan, Southeast Asia, and North America.
Major Demand Sectors	Lubricating greases, cosmetics & personal care, coatings, plastics, rubber, pharmaceuticals, candles, polishes, adhesives, and specialty chemicals.

Current Market Size

The global 12-Hydroxystearic Acid (12-HSA) market is estimated to be worth approximately USD 115–366 million (2025). Market growth is supported by rising demand for bio-based lubricating greases, renewable oleochemicals, specialty additives, and sustainable industrial materials. The increasing use of 12-HSA in high-performance lubricants, cosmetics, coatings, and pharmaceutical formulations continues to strengthen its commercial significance.

Forecast (2030/2035)

The market is projected to reach approximately USD 500–600 million by 2030 and USD 750–950 million by 2035. Future growth will be driven by expanding demand for bio-based lubricants, electric vehicle (EV) greases, renewable specialty chemicals, sustainable personal care products, and high-performance industrial additives. Increasing environmental regulations encouraging renewable raw materials are also expected to support market expansion.

CAGR

The global 12-Hydroxystearic Acid market is expected to grow at a compound annual growth rate (CAGR) of approximately 5.2–11.1% over the next decade. While traditional grease applications will continue to dominate demand, future growth is expected from renewable lubricants, specialty polymers, advanced coatings, green chemistry, and sustainable oleochemicals.

Production Volume

Global production of 12-Hydroxystearic Acid is estimated at 1,50,000–200,000 tonnes annually, with the vast majority manufactured by hydrogenating ricinoleic acid derived from castor oil. Since India produces more than 80% of the world’s castor seeds, the country remains the dominant supplier of the primary feedstock, making it central to the global 12-HSA value chain.

Demand Outlook

Demand is expected to remain strong across traditional sectors such as lubricating greases, cosmetics, pharmaceuticals, coatings, rubber, plastics, and candles, while the fastest future growth is anticipated in bio-based lubricants for electric vehicles, biodegradable industrial greases, renewable polymers, specialty additives, sustainable coatings, and advanced oleochemicals. As industries increasingly replace petroleum-derived additives with renewable alternatives, 12-Hydroxystearic Acid is expected to strengthen its position as one of the most important bio-based specialty fatty acids supporting the global transition toward sustainable chemical manufacturing.

 

Key Drivers of 12-HSA Market

Driver	Description
Growing Demand for Bio-Based Lubricating Greases	12-HSA is the most widely used thickening agent in lithium, calcium, aluminum, and complex greases, driving demand from the automotive, industrial machinery, mining, and heavy equipment sectors.
Expansion of Cosmetics & Personal Care Industry	Its excellent emulsifying, thickening, and emollient properties make 12-HSA a valuable ingredient in skin care, hair care, cosmetics, and personal care formulations, particularly as demand for naturally derived ingredients increases.
Increasing Adoption of Renewable Oleochemicals	Industries are replacing petroleum-derived specialty chemicals with bio-based oleochemicals, creating strong demand for renewable fatty acid derivatives such as 12-HSA.
Growth of Electric Vehicles & High-Performance Lubricants	The rapid expansion of electric vehicles (EVs) and advanced industrial equipment is increasing demand for high-performance, thermally stable, and biodegradable lubricating greases based on 12-HSA.
Advancements in Green Chemistry & Sustainable Manufacturing	Increasing investments in green chemistry, oleochemical processing, catalytic hydrogenation, and bio-based specialty chemicals are improving production efficiency while supporting global sustainability and circular bioeconomy initiatives.

 

Major Producers

Company	Headquarters	Overview
Jayant Agro-Organics Ltd.	India	One of the world’s largest producers of castor oil derivatives and a leading manufacturer of 12-Hydroxystearic Acid (12-HSA). Supplies 12-HSA globally for lubricating greases, cosmetics, pharmaceuticals, coatings, and specialty chemicals.
NK Proteins Pvt. Ltd.	India	Major producer of castor oil and downstream oleochemicals, including 12-HSA, serving lubricant, personal care, pharmaceutical, and industrial markets worldwide.
HOKOKU Corporation	Japan	Leading manufacturer of high-purity 12-Hydroxystearic Acid and specialty castor oil derivatives for premium lubricants, cosmetics, polymers, and industrial applications.
Thai Castor Oil Industries Co., Ltd.	Thailand	Major Asian producer of castor oil derivatives and 12-HSA, supplying regional and international markets for greases, cosmetics, and specialty chemicals.

 

Technology Providers

Company	Headquarters	Technology / Expertise
GEA Group	Germany	Provides hydrogenation reactors, oleochemical processing equipment, distillation systems, crystallization, evaporation, and downstream purification technologies for the production of 12-HSA and other fatty acid derivatives.
Alfa Laval	Sweden	Supplies heat exchangers, centrifuges, membrane filtration, separation systems, and process equipment for castor oil refining, hydrogenation, and oleochemical manufacturing.
Sulzer	Switzerland	Specializes in distillation, crystallization, solvent recovery, separation technologies, and process intensification for specialty chemicals and oleochemicals.
Desmet	Belgium	A leading provider of vegetable oil extraction, edible oil refining, hydrogenation, and oleochemical process technologies, widely used in castor oil processing and downstream fatty acid production.
Chemtech Services (India)	India	Provides hydrogenation plants, pressure reactors, process engineering, and turnkey oleochemical manufacturing solutions for castor oil derivatives and specialty fatty acids, including 12-HSA.

 

Leading Innovators 

Organization / Company	Country	Innovation
BASF SE	Germany	Conducts extensive R&D on bio-based lubricants, renewable additives, and specialty oleochemicals, supporting the development of sustainable formulations incorporating hydroxy fatty acid derivatives.
Indian Institute of Chemical Technology (IICT)	India	Develops advanced oleochemical processing technologies, catalytic hydrogenation methods, and value-added castor oil derivatives, contributing to more efficient and sustainable production of 12-HSA.
CSIR – Central Institute of Medicinal and Aromatic Plants (CIMAP)	India	Conducts research on castor crop improvement, renewable feedstocks, and bio-based industrial chemicals, supporting long-term innovation across the castor value chain.

 

 

Production Processes

Conventional Production

Commercial 12-Hydroxystearic Acid (12-HSA) is produced almost exclusively through the catalytic hydrogenation of ricinoleic acid, the principal fatty acid present in castor oil. Castor oil is first extracted from castor seeds and hydrolyzed or saponified to obtain ricinoleic acid, which is then hydrogenated in the presence of metal catalysts (typically nickel-based catalysts) to convert the double bond into a saturated hydroxy fatty acid, yielding high-purity 12-HSA. This remains the dominant and most economically viable production route worldwide.

Bio-Based Production

Since castor oil itself is a renewable agricultural feedstock, commercial 12-HSA is already considered a bio-based specialty chemical. Emerging research is exploring microbial fermentation, enzymatic biocatalysis, metabolic engineering, and precision fermentation to produce ricinoleic acid and hydroxy fatty acids from renewable sugars, waste biomass, and microbial oils. Although these technologies remain at an early stage, they offer the potential to diversify feedstocks and reduce dependence on castor cultivation.

Major Production Pathways

Production Pathway	Description
Castor Oil Hydrogenation	The dominant commercial route where ricinoleic acid derived from castor oil is catalytically hydrogenated to produce 12-Hydroxystearic Acid.
Vegetable Oil-Based Oleochemical Processing	Alternative hydroxy fatty acids can be produced from renewable vegetable oils through hydrolysis, hydrogenation, and chemical modification, although castor oil remains the preferred feedstock.
Microbial Oil Production (Emerging)	Engineered microorganisms produce hydroxy fatty acid precursors from renewable sugars and biomass, offering a potential future route for bio-based 12-HSA production.
Enzymatic & Biocatalytic Synthesis	Lipases and other enzymes are being investigated to selectively synthesize hydroxy fatty acids under milder and more sustainable processing conditions.

Key  Microbes 

Microorganism	Role in Production
Yarrowia lipolytica	Engineered oleaginous yeast capable of producing fatty acids and hydroxy fatty acid precursors from renewable carbon sources.
Escherichia coli	Used as a microbial platform for metabolic engineering of hydroxy fatty acid biosynthesis pathways.
Saccharomyces cerevisiae	Investigated for producing renewable lipid intermediates through precision fermentation.
Candida tropicalis	Studied for fatty acid modification and biotransformation processes relevant to hydroxy fatty acid production.
Lipase-Producing Microorganisms	Various microbial lipases are being explored for enzymatic conversion and selective synthesis of hydroxy fatty acid derivatives.

Key Feedstock Intermediates

Intermediate	Role in Production
Castor Seeds	Primary agricultural source of castor oil.
Castor Oil	Renewable feedstock containing approximately 85–90% ricinoleic acid.
Ricinoleic Acid	Principal precursor used for commercial production of 12-HSA.
Nickel Catalyst	Catalyzes hydrogenation of ricinoleic acid to form 12-HSA.
Hydroxy Fatty Acid Intermediates	Intermediate compounds formed during hydrogenation and purification before obtaining high-purity 12-HSA.

 

 

 

Global Feedstock Options and Availability

Feedstock	Description	Global Availability & Key Regions	Advantages	Disadvantages
Castor Oil	Primary commercial feedstock for 12-HSA production, containing approximately 85–90% ricinoleic acid, the direct precursor for hydrogenation.	India (largest producer), Brazil, China, Mozambique, Ethiopia, Thailand	Renewable, high ricinoleic acid content, mature industrial supply chain, commercially proven.	Dependent on castor cultivation; seasonal production and agricultural price fluctuations.
Castor Seeds	Agricultural raw material used for extracting castor oil before downstream processing.	India accounts for over 80% of global castor seed production, followed by Brazil, China, Ethiopia, and Mozambique.	Abundant renewable resource with established cultivation and processing infrastructure.	Crop yield depends on climate, rainfall, and agricultural conditions.
Ricinoleic Acid	Intermediate obtained from hydrolysis of castor oil and directly hydrogenated to produce 12-HSA.	Produced globally wherever castor oil is processed, particularly in India, China, Japan, Europe, and Brazil.	High-purity precursor enabling efficient hydrogenation and consistent product quality.	Additional processing step increases production cost.
Lignocellulosic Biomass (Future)	Agricultural residues converted into sugars for microbial production of hydroxy fatty acid intermediates.	Globally abundant; particularly available in India, Brazil, United States, China, Europe, and Southeast Asia.	Non-food feedstock, supports second-generation biorefineries and circular bioeconomy.	Requires advanced pretreatment, hydrolysis, and metabolic engineering technologies.
Waste Vegetable Oils & Industrial Lipid Residues	Used cooking oils and industrial lipid waste streams that can potentially be upgraded into specialty fatty acid derivatives.	Widely available across North America, Europe, China, Japan, and Southeast Asia.	Supports waste valorization, improves sustainability, and reduces raw material costs.	Variable composition and additional purification requirements limit commercial adoption.

New Technologies & Innovations

Technology	Description	TRL Level	Advantages	Disadvantages	Example
Advanced Catalytic Hydrogenation	Development of highly selective catalysts and optimized hydrogenation processes to improve the conversion of ricinoleic acid into high-purity 12-HSA with lower energy consumption.	TRL 9 (Commercial)	Higher product purity, improved catalyst efficiency, lower operating costs, reduced energy consumption.	Catalyst deactivation and recovery remain operational challenges.	Modern continuous hydrogenation plants used by leading oleochemical manufacturers.
Continuous Oleochemical Processing	Integration of continuous reactors, heat recovery, and automated process control to improve productivity and reduce manufacturing costs.	TRL 8–9	Higher throughput, improved product consistency, lower production costs, reduced downtime.	Requires significant capital investment and process optimization.	Continuous castor oil hydrogenation and refining facilities.
Microbial Production of Hydroxy Fatty Acids	Engineered microorganisms produce ricinoleic acid and related hydroxy fatty acid intermediates through precision fermentation.	TRL 3–5	Reduces dependence on castor cultivation, enables diversified renewable feedstocks.	Early-stage technology with limited commercial scalability and high production costs.	Engineered Yarrowia lipolytica and Escherichia coli research platforms.

 

End-use Applications

Application	Description	Benefits	Current Status	Example
Lubricating Greases	12-HSA is the primary thickening agent used in lithium, calcium, aluminum, and complex greases for automotive and industrial lubrication.	Excellent thickening efficiency, high thermal stability, water resistance, and mechanical strength.	Commercial (Largest Application)	Automotive wheel-bearing greases, industrial machinery greases, mining and heavy equipment lubricants.
Cosmetics & Personal Care	Used as a rheology modifier, thickener, emulsifier, and stabilizer in skincare, haircare, and cosmetic formulations.	Renewable, biodegradable, improves texture, stability, and product consistency.	Commercial	Creams, lotions, lipsticks, sunscreens, and hair care products.
Coatings, Paints & Inks	Functions as a rheology modifier and dispersion stabilizer to improve coating performance.	Enhances viscosity control, pigment suspension, and application properties.	Commercial	Industrial coatings, printing inks, protective paints, and specialty coatings.
Plastics & Rubber	Used as a processing aid, lubricant, and additive in polymer and rubber manufacturing.	Improves processing efficiency, surface finish, and material performance.	Commercial	PVC processing, rubber compounding, engineering plastics.
Pharmaceuticals	Used as an excipient and formulation aid in topical and specialty pharmaceutical products.	Biocompatible, chemically stable, and suitable for controlled formulations.	Commercial	Ointments, topical creams, and pharmaceutical formulations.
Candles & Polishes	Acts as a hardening agent and texture modifier in wax-based products.	Improves hardness, gloss, melting characteristics, and durability.	Commercial	Decorative candles, shoe polish, floor polish, and specialty wax products.

 

Emerging & Future Opportunities

Application Area	Future Opportunity	Description	Example / Current Development
Electric Vehicle (EV) Lubricants	High-performance EV greases	Growing demand for thermally stable and long-life lubricating greases for electric motors, bearings, and drivetrain components is increasing the use of 12-HSA-based grease formulations.	Development of advanced lithium-complex and specialty greases for EV applications.
Bio-Based Industrial Lubricants	Sustainable lubricant formulations	Increasing replacement of petroleum-derived lubricants with biodegradable and renewable alternatives across industrial sectors.	Industrial machinery, wind turbines, mining equipment, and food-grade lubricants.
Green Cosmetics & Personal Care	Renewable cosmetic ingredients	Rising consumer preference for natural and sustainable ingredients is expanding the use of 12-HSA in premium skincare, haircare, and cosmetic formulations.	Clean beauty and plant-based cosmetic product lines.
Circular Oleochemicals	Waste oil and renewable feedstock utilization	Future production pathways aim to utilize waste vegetable oils, microbial lipids, and renewable feedstocks to improve sustainability and reduce dependence on virgin castor oil.	Integrated oleochemical biorefineries utilizing waste lipid streams.
Precision Fermentation	Microbial production of hydroxy fatty acids	Engineered microorganisms capable of producing ricinoleic acid and related hydroxy fatty acids could provide an alternative to castor-based production.	Research using Yarrowia lipolytica and engineered E. coli for hydroxy fatty acid biosynthesis.
Biodegradable Greases	Environmentally friendly lubricants	Increasing environmental regulations are driving demand for biodegradable greases used in marine, forestry, agriculture, and environmentally sensitive applications.	Bio-based greases for offshore equipment, forestry machinery, and agricultural equipment.

 

Key Challenges

1. Dependence on Castor Oil Feedstock

Commercial production of 12-Hydroxystearic Acid (12-HSA) relies heavily on castor oil, making the industry highly dependent on castor seed availability and agricultural production. Since India dominates global castor cultivation, weather conditions, crop diseases, and regional supply disruptions can significantly impact the global supply chain.

Example: Poor monsoon seasons or fluctuations in castor seed production in India can lead to higher raw material costs and reduced global availability of 12-HSA.

2. Feedstock Price Volatility

The price of castor oil is influenced by agricultural yields, export demand, commodity markets, and geopolitical factors. These fluctuations directly affect manufacturing costs and profit margins for 12-HSA producers.

Example: Rising castor oil prices often increase production costs for grease manufacturers, cosmetic companies, and specialty chemical producers.

3. Energy-Intensive Hydrogenation Process

The commercial production of 12-HSA involves catalytic hydrogenation, which requires hydrogen gas, elevated temperatures, specialized reactors, and metal catalysts. These factors contribute to higher energy consumption and operational costs.

Example: Manufacturers are investing in continuous hydrogenation technologies and more efficient catalysts to reduce energy usage and improve production efficiency.

4. Competition from Synthetic Alternatives

Although 12-HSA is a renewable specialty chemical, it competes with petroleum-derived thickeners, synthetic lubricants, and alternative oleochemical additives, which are often available at lower prices and benefit from mature manufacturing infrastructure.

Example: Some industrial lubricant formulations continue to use synthetic thickening agents where cost is prioritized over sustainability.

5. Limited Feedstock Diversification

Unlike many fermentation-based bio-based chemicals, commercial 12-HSA production has limited alternative feedstocks. While microbial oils, waste lipids, and precision fermentation are under development, these technologies have not yet reached commercial maturity.

Example: Research is ongoing to produce ricinoleic acid through engineered microorganisms, but commercial-scale production remains limited.

6. Stringent Quality Requirements

Applications in lubricating greases, cosmetics, pharmaceuticals, and specialty chemicals require high-purity 12-HSA with consistent physical and chemical properties. Maintaining product quality while controlling manufacturing costs remains a key challenge for producers.

Example: Premium cosmetic and pharmaceutical manufacturers require tightly controlled purity specifications and rigorous quality assurance during production.

 

 

Strategic Industry Initiatives

Industrial Oleochemical & Specialty Chemical Companies

Expansion of Castor-Based Oleochemical Value Chains

Leading oleochemical manufacturers are expanding integrated castor processing facilities to strengthen the production of 12-Hydroxystearic Acid (12-HSA) and other high-value castor oil derivatives. Vertical integration improves feedstock security, manufacturing efficiency, and product quality while supporting growing demand from the lubricants, cosmetics, pharmaceutical, and specialty chemical industries.

Example: Jayant Agro-Organics and NK Proteins continue expanding integrated castor oil processing and downstream oleochemical production.

Location: India

Development of High-Performance Bio-Based Lubricants

Lubricant manufacturers are increasing investments in bio-based greases and industrial lubricants that utilize 12-HSA as the primary thickening agent. The focus is on replacing petroleum-derived lubricants with renewable, biodegradable alternatives for automotive, industrial, mining, and heavy machinery applications.

Example: Global lubricant manufacturers are developing next-generation lithium-complex and specialty greases incorporating renewable oleochemicals.

Location: Global 

Technology & Process Innovation

Advanced Hydrogenation & Continuous Oleochemical Processing

Companies are adopting continuous hydrogenation technologies, improved catalysts, digital process control, and energy-efficient manufacturing systems to enhance production efficiency, increase product purity, and reduce operating costs.

Example: Modern oleochemical production facilities are implementing continuous processing and automated quality control for specialty fatty acid manufacturing.

Location: Global

Precision Fermentation & Alternative Feedstock Development

Industrial biotechnology companies and research institutions are developing precision fermentation, metabolic engineering, and microbial lipid production technologies to produce ricinoleic acid and hydroxy fatty acid intermediates from renewable sugars, waste biomass, and microbial oils. These technologies aim to diversify feedstocks beyond castor oil.

Example: Research on engineered Yarrowia lipolytica and Escherichia coli for microbial production of hydroxy fatty acids.

Location: United States, Europe, China & Japan

Sustainable Materials & Circular Economy

Expansion of Bio-Based Cosmetics & Personal Care Ingredients

Cosmetic manufacturers are increasing the use of renewable fatty acids and castor oil derivatives to meet growing consumer demand for clean-label, plant-based, and sustainable personal care products.

Example: Premium skincare and cosmetic brands are expanding formulations containing renewable castor-derived ingredients.

Location: Global

Governments & Research Organizations

Support for Bio-Based Chemicals & Oleochemical Manufacturing

Governments are promoting bio-based chemicals, renewable industrial materials, green chemistry, and sustainable manufacturing through national bioeconomy strategies, industrial incentives, and research funding.

Example: India continues to support the development of its castor value chain through agricultural programs, export promotion, and investments in value-added oleochemical manufacturing.

Location: India

Research on Sustainable Oleochemicals & Green Chemistry

Universities and research organizations are advancing catalyst development, enzymatic synthesis, microbial lipid engineering, and sustainable oleochemical processing to improve the efficiency and environmental performance of 12-HSA production.

Example: Research institutions such as CSIR-IICT, CSIR-CIMAP, and international universities are developing next-generation technologies for renewable fatty acid production.

Location: India, Europe & Global

 

Future Outlook

Technology Roadmap

The future of 12-Hydroxystearic Acid (12-HSA) will be driven by advanced catalytic hydrogenation, continuous oleochemical processing, green chemistry, precision fermentation, enzymatic biocatalysis, and integrated oleochemical biorefineries. Continued improvements in catalyst efficiency, energy-efficient manufacturing, digital process control, and downstream purification are expected to reduce production costs while improving product quality. Future production is also expected to gradually incorporate microbial oils, waste lipids, lignocellulosic biomass, and other renewable feedstocks, strengthening feedstock security and sustainability.

Five-Year Outlook (2025–2030)

Over the next five years, the 12-HSA industry is expected to experience steady growth, driven by increasing demand for bio-based lubricating greases, electric vehicle (EV) lubricants, cosmetics, specialty chemicals, coatings, and industrial additives. Investments will focus on expanding integrated castor oil processing, improving hydrogenation technologies, and increasing production capacity, particularly in India. Manufacturers are also expected to strengthen supply chains and improve production efficiency through digital manufacturing and process automation.

Ten-Year Outlook (2030–2035)

By 2035, 12-Hydroxystearic Acid is expected to remain one of the world’s most important bio-based specialty fatty acids, supported by growing demand for renewable lubricants, sustainable cosmetics, biodegradable industrial products, and advanced oleochemicals. Commercial adoption of precision fermentation, microbial lipid production, and integrated biorefineries could diversify feedstocks beyond castor oil, improving long-term supply resilience. As industries increasingly transition toward renewable raw materials, 12-HSA is expected to play an even greater role in the global bio-based chemicals and circular economy.

 

Conclusion

12-Hydroxystearic Acid (12-HSA) is one of the most established and commercially important bio-based specialty fatty acids, serving as a critical building block for the global oleochemical, lubricant, cosmetics, pharmaceutical, and specialty chemical industries. Produced primarily from renewable castor oil, it combines excellent thickening, lubricating, emulsifying, and rheological properties with the sustainability advantages of a plant-based feedstock, making it a preferred alternative to many petroleum-derived additives.

he growing global emphasis on renewable materials, biodegradable lubricants, sustainable consumer products, and circular manufacturing is expected to further support market growth.

With strong demand across lubricating greases, electric vehicle lubricants, cosmetics, coatings, polymers, pharmaceuticals, and industrial applications, coupled with India’s dominant role in the global castor value chain, 12-HSA is expected to play an increasingly important role in advancing the global oleochemical industry and the circular bioeconomy.

 

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