In 2025, the catalase market was valued at USD 424.5 million. Based on Future Market Insights' analysis, demand for catalase is estimated to grow to USD 437.7 million in 2026 and USD 593.9 million by 2036. FMI projects a CAGR of 3.1% during the forecast period.
Absolute dollar growth of USD 156.2 million over the decade reflects steady, predictable expansion characteristic of an industrial enzyme category with established application protocols across food processing, textile manufacturing, and pulp and paper industries. BASF and IFF announced a strategic partnership in October 2025 to accelerate IFF's Designed Enzymatic Biomaterials technology platform, combining BASF's chemical scale with IFF's protein engineering expertise to develop next-generation enzyme technologies including catalase for industrial cleaning and fabric care applications. [1]
As Ester Baiget, CEO of Novonesis, noted reflecting on 2025 fiscal performance and merger integration, 'In 2025, we continued to deliver strong organic sales growth... Growth was broad-based across sales areas and markets, with particularly strong performance in Emerging Markets.' [2]
Japan leads growth at 3.2% CAGR through 2036, supported by the country's advanced textile finishing sector and the food processing industry's precision fermentation and dairy processing requirements. The USA grows at 3.3% CAGR, representing USD 165.0 million in 2026, driven by food manufacturing automation and hydrogen peroxide removal in continuous processing lines. China grows at 3.0%, with expanding textile industry demand and growing adoption of catalase in food-grade dairy and beverage processing. Microorganism-derived catalase holds 63.5% of source share; powder form accounts for 58.2% of volume; Food & Beverage Manufacturers represent 37.6% of end user value.
The catalase market encompasses the global production, trade, and industrial application of catalase enzymes (EC 1.11.1.6) derived from microbial, plant, and animal sources, used to catalyze the decomposition of hydrogen peroxide into water and oxygen. The market covers both food-grade and industrial-grade catalase in powder and liquid form, with applications spanning hydrogen peroxide removal in dairy and beverage processing, textile fabric bleaching hydrogen peroxide neutralization, pulp bleaching sequence treatment, contact lens solution manufacturing, and industrial cleaning applications. Microbial-derived catalase from Aspergillus niger and Micrococcus lysodeikticus are the dominant commercial source organisms.
The report includes comprehensive global and regional market sizing by volume and value with a 10-year forecast from 2026 to 2036. Segmental analysis covers source (Microorganisms, Plant, Animal), form (Powder, Liquid), and end user (Food & Beverage Manufacturers, Textile Industry, Paper & Pulp Industry, Others). Country-level CAGR analysis includes the USA, China, and Japan. Application-specific dosage rate trends, regulatory food additive approval status by source organism and region, and competitive positioning among major enzyme producers are incorporated.
The scope excludes peroxidase and other oxidoreductase enzymes unless commercially blended with catalase in formulations where the catalase fraction is separately quantified. Catalase used in laboratory research, clinical diagnostic applications, and pharmaceutical hydrogen peroxide wound care is outside scope unless the commercial enzyme supply is quantified at industrial scale. Synthetic hydrogen peroxide removal systems and non-enzymatic oxidation control methods are excluded from market sizing.
Primary Research:
Interviews were conducted with industrial enzyme producers, food processing plant operations managers, textile finishing unit procurement specialists, paper and pulp industry process engineers, and regulatory affairs specialists tracking food-grade catalase approval status across the EU, US, and Japan.
Desk Research:
Production capacity data from enzyme manufacturer annual reports and investor presentations, EU enzyme regulation frameworks under Regulation (EC) No 1332/2008, FDA food additive GRAS notices for catalase source organisms, and industry association publications from the Association of Manufacturers and Formulators of Enzyme Products supported the quantitative framework.
Market-Sizing and Forecasting:
A hybrid bottom-up and top-down model reconstructed demand from food processing sector hydrogen peroxide usage volumes, textile industry bleaching treatment throughput data, paper and pulp production statistics, and industrial cleaning market enzyme consumption benchmarks, validated against producer shipment data and known application dosage protocols.
Data Validation and Update Cycle:
Outputs underwent cross-validation against enzyme producer revenue disclosures, application-specific dosage efficiency trends, anomaly screening, and expert review by enzyme application specialists and food processing engineers prior to release.
| Segment | Value Share (2026) |
|---|---|
| Food & Beverage (By End User) | 37.6% |
Manufacturers of food and beverages are coming to realize the value of using catalase and thus are now demanding it in their various uses. For example, in Coca-Cola, the company uses catalase in its production, to safely neutralize hydrogen peroxide which is used for cleaning purposes to improve the safety of the products and their freshness.
Similarly for its dairy segment catalase has been implemented to extend the shelf life of products such as milk and yogurt. Through the decomposition of remaining hydrogen peroxide as used in some of its cleaning agents, the company gains enhanced safety measures as well as improved taste. Catalase is also being used by Kraft Heinz in its condiments production as well.
The enzyme enables the breakdown of the leftover hydrogen peroxide in the process thereby coming up with a clean product to meet the customer's palate on issues of hygiene. However, another honored component, which is used in juice processing at PepsiCo, is catalase. This application also ensures that flavors and nutrients of the juices are retained without the use of chemicals hence making the company a conservationist one.
| Segment | Value Share (2026) |
|---|---|
| Microorganisms (By Source) | 63.5% |
Different microorganisms have come out as promising sources of catalase owing to the versatility of the enzyme in today’s world. Of all of these types of microorganisms, bacteria, and fungi are most noticeable due to their high levels of catalase production. Of all the microorganisms Aspergillus niger is possibly the favorite in the production of catalase due to the high enzyme yields produced by the filamentous fungi.
This organism is preferred due to the exhaustion of high turnover of catalase as applicable in the foods and biotechnology industries. This goes further to make the fungus very suitable to grow in different stations, making the large-scale production of enzymes from fungi possible. Catalase and another enzyme producer called bacteria Bacillus subtilis is another interesting example.
This microorganism is desired for fast growth and offers the potential to synthesize enzymes under various conditions, and as such is versatile. Furthermore, Pseudomonas aeruginosa is well known as a catalase producer and this makes it suitable for several biotechnological applications.
These microorganisms are grown in an environment that favors high levels of catalase production to meet the many demands from the food segment, to issues involving environmental conservation. Due to their effectiveness and versatility, they are essential supply sources for this essential enzyme and provide enough products demanded by many fields for sustainable development.
Catalase Enzymes Provide Solution to Boost Up Efficiency and Quality of Food and Beverages.
Catalase enzymes have significant importance in the food and beverage industries especially to eliminate hydrogen peroxide which is found widely in bleaching agents. Catalase proves useful for decomposing hydrogen peroxide into water and oxygen effectively contributing to product safety and flavor stability.
As an enzymatic process, it has a significant role in juice production since it helps to clear the produced juice without distorting the nature of the juices. Novozymes that use catalase in their formulations and which have increased efficiency in operation and time taken to process.
Besides reducing chemical residues to acceptable levels, the incorporation of catalase has the advantages of providing a clean label and answering current manufacturing trends of producing safer and more attractive products for consumers. In addition, the mild conditions in which the enzyme can function make it environmentally friendly because they lessen energy use during production.
The global demand for the enzyme requires continued technological advancements.
The synthesis of the catalase enzymes has advanced to higher production levels due to the enhanced global need for the enzymes. In the past, production was mainly through tissues of animals, but today, microbial fermentation is used, the microbial advantage being they undergo cyclic growth at higher rates than animal tissues, and are bacteria and fungi.
This shift provides more feasible production processes and less dependence on animal-based resources. Sophisticated fermentation processes allow the extractor to achieve the right quantities of enzymes, allowing for quality production. Fermentation can produce catalase through companies such as Amano Enzyme to meet high safety and quality requirements.
Genetically modified organisms (GMOs) are also increasingly adopted to increase the activity and stability of enzymes. With current and potential uses of catalase increasing in fronts spanning commercial, industrial, and medicinal, the production method is likely to adopt new ways that will meet consumer/industrial demands.
The textile unit has benefited from the development of the catalase enzyme.
The collaboration between catalase manufacturers and food scientists opens up new ideal opportunities for food product applications. All those tie-ups interested in furthering the functional benefits obtained by the use of calcium proponent beyond the scope of the preservative are now very much able to work together.
It has been revealed to food scientists that it provides various udder formulations, primarily in terms of texture improvement and flavor retention, which, in the case of traditional forms, are regular baked products and meat products. These collaborations address the challenge of designing products to meet particular consumer needs, such as gluten-free or organic. Integration of Catalase into novel, innovative applications has been facilitated by recent advances in food processing technologies, which will only increase the effectiveness and functionality of this chemical resource.
The collaborations will also be able to give the manufacturers leads on the upcoming trends and demands of the consumer so they will not be left behind in the future. Not only do these synergisms promise much in the area of product innovation, but they also reaffirm the significance of Catalase in the dynamic food segment.
Global sales increased at a CAGR of 2.8% from 2020 to 2024. For the next ten years (2025 to 2035), projections are that expenditure on such products will rise at 3.1% CAGR.
From 2020 to 2024, various global catalase manufacturers have realized various trends making rounds in the industries, such as the rising demand for sustainable solutions and clean labels. Other drivers embrace change in the consumer experience, latently extending the catalase market in the food and beverages industries.
In the chemical industries, development in enzyme formulations has assisted in increasing the stability of the drugs and increasing the potency of the acting enzyme, such as catalase, in the manufacturing and formulation of drugs. Also, the biopharmaceuticals have acted as a stimulus for the catalase to be applied in the therapeutic activities.
Enzyme makers are exploring top-notch production processes like fermentation technology to enroll in improved enzyme efficiency and conform to the current regulation platform to set up a long-standing growth pattern.
From 2025 to 2035, the trends for global catalase manufacturers are the increasing use of biotechnology techniques and better fermentation methods. It appears that demand factors determine innovation, including sustainability, clean-label products, and legislation. Newer generation microbial fermentation catalysis is permitting higher yields and efficient production thereby making the use of catalase possible at lower costs.
In addition, there are new chances of demand in the pharmaceutical, food, and textile segments since the role of catalase is to make their products better in quality and, at the same time, minimize the negative effects on the environment. Such advancements place catalase in a strategic enzymatic role in various applications under fast-changing industrial conditions.
Tier 1, It can be seen that a few large-scale firms, including Novozymes and DuPont, take the largest industrial share of global catalase primarily due to their technological advantages in fermentation and exclusive microbial technology. These companies apply best-optimized fermentation strategies to generate high enzyme yields as well as quality.
They obtain most of their catalase from recombinant microorganisms, which makes operations highly efficient and cheaper. The high levels of research and development imply that Tier 1 firms can innovate continuously, thus leading to massive revenues and growth of industrial share because the needs of different industries in the economy can be addressed as required.
Tier 2 manufacturers such as Amano Enzyme and BIocatalysts target specific and specialty markets. To optimize the quality and the cost, they use fermentation techniques that are both old and new. Competition among these companies sourcing catalase from microbial fermentation as well as from plant origin primarily depends on the customer's requirement profile in the food and beverage and textile industries.
Tier 3 manufacturers, especially the small regional producers, some of which do not use very elaborate fermentation processes and employ substandard biological sources in the form of wild-type strains of bacteria or fungi. Such organizations normally have comparatively low manufacturing capabilities and cater to specific regions that restrain their sales and, hence, earnings capabilities.
Still, they might look for opportunities in growth initiatives or given customers’ needs for affordable approaches. The key reason for growth is suppliers adapt and advance in fermentation techniques, which mainly aids in the growth of the catalase industries in the long run.
The following table shows the estimated growth rates of the top three territories. The USA, China, and Japan are set to exhibit high consumption, recording CAGRs of 3.3%, 3.0%, and 3.2%, respectively, through 2035.
.webp "Top Country Growth Comparison Catalase Market Cagr (2026 2036)")
| Countries | CAGR, 2026 to 2036 |
|---|---|
| The USA | 3.3% |
| China | 3.0% |
| Japan | 3.2% |
The sector of manufacturing catalase in the United States is evolving solely in the light of new trends and changing demand factors with consumers placing higher emphasis on the use of environment-friendly products. Industrial participants are adapting through innovation of green manufacturing practices and materials, falling in line with the shifting consumer trend towards green products.
Grocery & Food, beverage, agricultural, and pharmaceutical industries are among the largest consumers of this enzyme due to their increasing sustainability requirements, catalase helps decompose hydrogen peroxide. This type of change is geared by the requirement of more sustainability in processing techniques like waste management as well as enhancement of product durability.
Further, development of the biotechnology is allowing manufacturers to make catalase with a lesser amount of wastage and energy consumption. The overall use of enzymes is also being sourced with reduced biobased sources, thus achieving a further reduction in carbon footprint in the production of enzymes by companies.
At the same time, risk management with academic partners is promoting innovation, as manufacturers can offer solutions that address unique sector challenges without compromising on sustainable principles. All in all, the prospect of catalase manufacturing in the USA can be characterized as the prevention of the manufacturer's proactive response to the tendencies of more efficient use of resources that address environmental problems and ensure the competitiveness of the industries.
China has increased the pace of its progress curve in the use of catalase as part of efforts to enhance industrialization. As manufacturers continue striving to increase overall production efficiency and effectiveness, catalase is proving to be one great biochemical tool for use in industries as it replaces traditional options that could be less effective or detrimental to the environment.
The shift to catalase is most apparent in industries like textile, food processing, and wastewater management industries. For example in textile production, the enzyme is used for getting rid of the last vestiges of hydrogen peroxide used in the bleaching process hence helping save on chemical use as well as produce better quality textiles. It is done not only to address regulation guidelines but also to satisfy consumers’ expectations of safer, more environmentally friendly products.
In particular food processing, catalase has a very sensitive and essential role in the shelf life and food safety of products. It also helps the manufacturers to most efficiently decompose introduced hydrogen peroxide applied in sanitation, thus maintaining a high level of cleanness without exploiting stronger chemicals.
Further, catalase production and use are growing critical for Chinese manufacturers and they are now channeling their efforts toward research and development to further enhance their catalase production and usage. This focus leads to the development of new solutions that could be a much closer match to the needs of different applications. Consequently, the use of catalase is encouraging a greener way of manufacturing, which promotes China’s attack on the challenges of manufacturing in modern society.
Japan's catalase has risen, especially in cosmetics, food preservation, and eco-textile applications. This trend can be attributed more to the nation’s focus on biotechnology where the manufacturers seek more environmentally friendly technologies. In cosmetics, catalase is used to deactivate hydrogen peroxide, which is a widely used, constituent of many cosmetics.
Thus, including catalase in the production of cosmetic products will lead to an improvement in the quality and safety of the products that reach the consumers, reducing skin irritation, and propounding skin health. This approach holds good with the current trend of consumers running away with products that are milder on the skin but with a high effect.
In food preservation, catalase is slowly being adopted as a vital enzyme that reduces excess hydrogen peroxide used in preservation processes. This leads to enhanced food processing methods, and durability of products but not the quality of the products. This biotechnological is therefore an important solution to meet these growing consumers’ demands for fresher and natural foods.
Furthermore, during bleaching the hydrogen peroxide used can be eliminated in textile processing with the help of this enzyme; catalase. It also encourages the use of minimal chemicals therefore solving issues to do with chemical disposal while at the same time protecting the employees. The subtitles are directing manufacturers toward eco-friendly production and consumers toward environmentally friendly products; which is why these concepts have landed so well.
The catalase market is moderately concentrated among a small group of large-scale biomanufacturing producers capable of supplying food-grade and industrial-grade enzyme at commercial volumes with consistent activity unit specifications. Novozymes (now Novonesis following the 2025 merger with Chr. Hansen's fermentation businesses) holds an estimated 14.1% share in 2026, with DSM, BASF, AB Enzymes, Amano Enzyme, and Chr. Hansen as the primary competitor producers. The Novonesis formation through the merger of Novozymes and Chr. Hansen biosciences creates the world's largest dedicated biosolutions company, with substantially enhanced catalase production capacity, fermentation infrastructure, and application development capability compared to either entity independently. [2]
dsm-firmenich's February 2026 announcement of its agreement to divest the Animal Nutrition & Health business, which includes a portion of its industrial enzyme portfolio, to CVC Capital Partners for EUR 2.2 billion fundamentally alters the competitive landscape. [3] The divestiture follows the 2025 sale of dsm-firmenich's feed enzyme alliance stake to Novonesis, collectively removing dsm-firmenich as a vertically integrated industrial enzyme competitor and concentrating the field further around Novonesis, BASF, IFF, and AB Enzymes. BASF's October 2025 partnership with IFF for the Designed Enzymatic Biomaterials platform represents an R&D-level competitive move that targets future-generation enzyme performance rather than current commodity catalase supply, with commercial implications expected over the 2027 to 2030 timeframe. [1]
Buyer leverage varies by application. Food-grade catalase buyers with FDA and EFSA compliance requirements face a constrained supplier pool and limited price negotiating leverage. Industrial-grade textile and paper & pulp buyers have broader supplier options and exercise stronger volume-based price leverage, though activity unit consistency requirements still favor larger, established producers.
Recent Developments
Metric
| Value | |
|---|---|
| Quantitative Units | USD 437.7 million (2026) to USD 593.9 million (2036), at a CAGR of 3.1% |
| Market Definition | The catalase market covers global production and trade of microbial, plant, and animal-sourced catalase enzymes in powder and liquid form, used for hydrogen peroxide decomposition in food and beverage processing, textile finishing, paper and pulp bleaching, and industrial cleaning applications. |
| Source Segmentation | Microorganisms, Plant, Animal |
| Form Segmentation | Powder, Liquid |
| End User Segmentation | Food & Beverage Manufacturers, Textile Industry, Paper & Pulp Industry, Others |
| Regions Covered | North America, Latin America, Europe, East Asia, South Asia, Oceania, Middle East and Africa |
| Countries Covered | United States, China, Japan, Germany, France, United Kingdom, India, South Korea, Australia, Brazil and 40 plus countries |
| Key Companies Profiled | Novozymes (Novonesis), DSM, BASF, AB Enzymes, Amano Enzyme, Creative Enzymes, Kemin Industries, Chr. Hansen, BioCare Copenhagen |
| Forecast Period | 2026 to 2036 |
| Approach | Hybrid bottom-up and top-down market modeling validated through primary interviews with industrial enzyme producers and food processing operations managers, supported by EU enzyme regulation framework data and FDA GRAS notices for catalase source organisms |
Demand for Catalase in the global market is estimated to be valued at USD 437.7 million in 2026.
Market size for Catalase is projected to reach USD 593.9 million by 2036.
Demand for Catalase is expected to grow at a CAGR of 3.1% between 2026 and 2036.
Microorganism-derived catalase holds 63.5% of source share in 2026, reflecting the commercial scalability and consistent activity profiles of Aspergillus niger and Micrococcus lysodeikticus fermentation-based production.
Powder form accounts for 58.2% of volume in 2026, reflecting food processing and industrial application requirements for shelf-stable, easily doseable enzyme formulations compatible with continuous production line protocols.
Food & Beverage Manufacturers account for 37.6% of end user value in 2026, anchored by hydrogen peroxide removal requirements in dairy processing, beverage production, and food packaging applications.
The United States represents USD 165.0 million in 2026, growing at 3.3% CAGR driven by food manufacturing automation, continuous dairy line hydrogen peroxide neutralization requirements, and the BASF-IFF partnership targeting enhanced enzyme performance for industrial cleaning.
dsm-firmenich's February 2026 agreement to divest its Animal Nutrition & Health enzyme business to CVC Capital Partners introduces supply continuity risk for buyers with established dsm-firmenich sourcing relationships, requiring supplier re-qualification and contract renegotiation during the 12 to 24 month ownership transition period.
Novonesis acquired the remaining Feed Enzyme Alliance stake to unify research, innovation, and global distribution for industrial enzymes under one corporate structure, improving scale capabilities and market responsiveness as the post-merger world's largest dedicated biosolutions company.
Forecast is developed using hybrid bottom-up and top-down modeling validated through primary interviews with industrial enzyme producers and food processing operations managers, EU enzyme regulation framework data, FDA GRAS notices, and enzyme producer annual report capacity disclosures.
Full Research Suite comprises of:
Market outlook & trends analysis
Interviews & case studies
Strategic recommendations
Vendor profiles & capabilities analysis
5-year forecasts
8 regions and 60+ country-level data splits
Market segment data splits
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Catalase Market
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