The global surfactants market, driven by rising demand in personal care, household, and industrial applications, is witnessing steady expansion, with cocamide diethanolamine (Cocamide DEA) remaining a key ingredient due to its excellent foaming, thickening, and emulsifying properties. According to Grand View Research, the global surfactants market was valued at USD 43.8 billion in 2022 and is expected to grow at a compound annual growth rate (CAGR) of 5.4% from 2023 to 2030. This growth is fueled by increased consumer demand for high-performance formulations in shampoos, soaps, and cleaning agents—segments where Cocamide DEA plays a critical role. As regulatory scrutiny and sustainability concerns shape formulation strategies, manufacturers are focusing on consistency, purity, and compliance, leading to a competitive landscape dominated by specialized chemical producers. Based on market presence, production capacity, and innovation in fatty acid-derived surfactants, the following eight companies have emerged as leading Cocamide DEA manufacturers worldwide.
Top 8 Cocamide Diethanolamine Cocamide Dea Manufacturers 2026
(Ranked by Factory Capability & Trust Score)
#1 Cocamide DEA
Domain Est. 2021
Website: americaninternationalingredients.com
Key Highlights: What is Cocamide DEA? Cocamide DEA, a surfactant, is derived from coconut oil and diethanolamine. It offers emulsifying, foaming, and thickening effects in ……
#2 Cocamide DEA(CDEA) world leading producer
Domain Est. 2022
Website: yeserchem.com
Key Highlights: Rating 5.0 · Review by YeserChemCocamide DEA is a nonionic surfactant widely used as an emulsifier, thickener, and cleanser in Home & Personal care products. Yeser® CDEA has s…
#3 CAS Number 68603-42-9
Domain Est. 1995
Website: spectrumchemical.com
Key Highlights: Purchase and Find information on CAS 68603-42-9, Cocamide DEA which meets or exceeds the grade requirements or specifications for each fine chemical….
#4 COCONUT OIL DIETHANOLAMINE CONDENSATE
Domain Est. 1997
Website: ncbi.nlm.nih.gov
Key Highlights: Coconut oil diethanolamine condensate is a mixture of diethanolamides of the fatty acids that constitute coconut oil….
#5 Cocodiethanolamide
Domain Est. 2000
Website: khchemicals.com
Key Highlights: Cocamide DEA, or cocamide diethanolamine, is a diethanolamide made by reacting the mixture of fatty acids from coconut oils with diethanolamine….
#6 Cocamide DEA
Domain Est. 2001
Website: kaochemicals-eu.com
Key Highlights: Cocamide DEA works as a top-tier surfactant, ensuring efficient removal of oils and dirt for a thorough cleansing experience….
#7 Cocamide DEA Supplier
Domain Est. 2004
Website: silverfernchemical.com
Key Highlights: Cocamide DEA is a chemical compound commonly used in the cosmetic and personal care industry as a surfactant, foam booster, thickening agent and emulsifier….
#8 MACKAMIDE C
Domain Est. 2021
Website: productfinder.verdantspecialty.com
Key Highlights: MACKAMIDE® C has a low free diethanolamine content, compliant with the European directive on residual diethanolamine in alkanolamides for personal care products ……
Expert Sourcing Insights for Cocamide Diethanolamine Cocamide Dea

H2: Projected Market Trends for Cocamide Diethanolamine (Cocamide DEA) in 2026
The global market for Cocamide Diethanolamine (Cocamide DEA) is expected to experience moderate growth by 2026, shaped by evolving regulatory landscapes, shifting consumer preferences toward safer and more sustainable personal care ingredients, and ongoing demand in key industrial applications.
1. Regulatory Pressures and Health Concerns Drive Reformulation
One of the most influential factors shaping the 2026 market is the continued scrutiny of Cocamide DEA due to its potential contamination with nitrosamines—carcinogenic compounds formed when DEA reacts with nitrosating agents. Regulatory bodies such as the U.S. Food and Drug Administration (FDA) and the European Chemicals Agency (ECHA) have maintained restrictions and monitoring of DEA-containing products. By 2026, these concerns are expected to accelerate the reformulation of personal care products, especially in North America and Europe, leading to a decline in Cocamide DEA usage in favor of safer alternatives like Cocamide MEA or plant-based, non-amine surfactants.
2. Regional Market Divergence
While developed markets are moving away from Cocamide DEA, emerging economies in Asia-Pacific (particularly India, Indonesia, and Vietnam) are expected to sustain demand through 2026. In these regions, lower production costs, less stringent regulations, and growing domestic consumption of affordable personal care and cleaning products support continued use. However, even in these markets, rising consumer awareness and gradual regulatory harmonization with international standards may begin to curb growth toward the latter half of the decade.
3. Shift Toward Natural and Green Chemistry Alternatives
The rise of clean beauty and green chemistry trends is significantly impacting Cocamide DEA demand. By 2026, manufacturers are increasingly adopting bio-based, non-toxic surfactants derived from coconut or palm kernel oil without DEA chemistry. Innovations in enzymatic synthesis and green processing are enabling the production of high-performance, biodegradable alternatives that mimic the foam-boosting and thickening properties of Cocamide DEA—thus reducing reliance on traditional DEA-based products.
4. Industrial Applications Provide Stability
Despite declining use in cosmetics, Cocamide DEA retains relevance in industrial applications such as metalworking fluids, agrochemicals, and textile processing, where its emulsifying and stabilizing properties remain valued. These sectors are expected to provide a stable, if not growing, demand base through 2026, particularly in manufacturing-heavy economies.
5. Price Volatility and Supply Chain Considerations
Fluctuations in the prices of raw materials—primarily coconut oil and diethanolamine—will continue to affect the Cocamide DEA market. Geopolitical factors, supply chain disruptions, and competition from renewable feedstocks may create pricing uncertainty. Producers are likely to invest in vertical integration or long-term sourcing agreements to mitigate these risks.
Conclusion
By 2026, the Cocamide DEA market is anticipated to face contraction in consumer-facing sectors due to health and regulatory concerns, but will maintain a foothold in industrial applications and cost-sensitive emerging markets. The overall trend points toward a gradual phase-down in high-income regions, offset partially by sustained use elsewhere. Innovation in safer surfactant chemistry will continue to redefine the competitive landscape, positioning green alternatives as the future standard.

Common Pitfalls in Sourcing Cocamide Diethanolamine (Cocamide DEA): Quality and Intellectual Property Concerns
Sourcing Cocamide Diethanolamine (Cocamide DEA) requires careful attention to both quality specifications and intellectual property (IP) considerations. Overlooking these aspects can lead to formulation failures, regulatory issues, supply chain disruptions, and legal risks.
Quality-Related Pitfalls
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Inconsistent Amide Content and Free Amines:
- Pitfall: Variability in the degree of amidation during manufacturing leads to inconsistent levels of free diethanolamine (DEA) and unreacted fatty acids. High free DEA is a significant concern due to potential nitrosamine formation.
- Impact: Impacts foaming, viscosity, mildness, and stability of the final product. High free amine levels increase the risk of nitrosamine contamination, posing serious safety and regulatory compliance issues (e.g., California Proposition 65, EU SCCS opinions).
- Mitigation: Demand Certificates of Analysis (CoA) with strict specifications for free DEA (often <0.5% or lower) and amide value. Require suppliers to implement robust process controls and provide consistent batch-to-batch data.
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Color and Odor Variability:
- Pitfall: Raw material quality (coconut/palm oil fatty acid source, quality of DEA) and processing conditions (temperature, catalysts, reaction time) significantly impact the final product’s color (ranging from water-white to amber) and odor (amine-like, fatty).
- Impact: Affects the aesthetic appeal of the final formulation. Dark color or strong odor may require additional processing (e.g., bleaching, deodorization) or be unacceptable for premium products.
- Mitigation: Specify tight color (e.g., Gardner, APHA) and odor requirements in the purchase specification. Understand the supplier’s typical range and process for color/odor control.
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Impurity Profile (Nitrosamines & Heavy Metals):
- Pitfall: Cocamide DEA is susceptible to forming carcinogenic N-nitrosodiethanolamine (NDELA) if free DEA is present and nitrosating agents (e.g., nitrites) are introduced during manufacturing or storage. Contamination with heavy metals (e.g., from catalysts) is also possible.
- Impact: Poses severe health risks and leads to product recalls, brand damage, and regulatory non-compliance. Nitrosamine limits are strictly regulated globally.
- Mitigation: Require CoAs demonstrating NDELA levels below regulatory thresholds (e.g., <50 ppb, often much lower). Mandate testing for heavy metals (e.g., As, Pb, Cd, Hg). Ensure suppliers use nitrite-free raw materials, minimize free DEA, add effective nitrosamine inhibitors (e.g., BHT, ascorbic acid), and employ proper handling/storage practices.
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Viscosity and Flow Characteristics:
- Pitfall: Cocamide DEA is a viscous liquid. Viscosity can vary significantly based on composition, temperature, and age, affecting handling, metering, and mixing in manufacturing.
- Impact: Can cause difficulties in pumping, transferring, and homogenizing, leading to production inefficiencies or inconsistent formulations.
- Mitigation: Specify viscosity range (e.g., at 25°C or 40°C) and ensure compatibility with your manufacturing equipment. Consider temperature control during storage and handling.
-
Source Material Traceability and Sustainability:
- Pitfall: Lack of transparency regarding the origin of the fatty acids (coconut vs. palm kernel oil) and the DEA. Concerns about deforestation, biodiversity loss, and labor practices associated with palm oil.
- Impact: Reputational risk, failure to meet corporate sustainability goals, and potential supply chain disruptions linked to unsustainable practices.
- Mitigation: Source from suppliers providing clear traceability. Prioritize suppliers offering RSPO (Roundtable on Sustainable Palm Oil) certified or certified sustainable coconut oil-based materials. Request documentation on sourcing practices.
Intellectual Property (IP)-Related Pitfalls
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Infringement of Patented Manufacturing Processes:
- Pitfall: The specific catalytic processes, reaction conditions, or purification methods used to produce Cocamide DEA with desired low free amine/nitrosamine levels may be covered by patents held by major chemical producers.
- Impact: Sourcing material produced using a patented process without a license exposes the buyer to potential patent infringement lawsuits, leading to injunctions, damages, and forced reformulation.
- Mitigation: Conduct due diligence on the supplier’s manufacturing process. Request assurances (potentially via contractual indemnification) that their process does not infringe valid patents. Consider sourcing from established, reputable suppliers known to operate under licenses or with their own IP.
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“Knock-off” or Non-Compliant Materials:
- Pitfall: Some suppliers, particularly smaller or less-regulated ones, may produce material that does not meet claimed specifications or uses processes that bypass patented technology, potentially resulting in inferior or non-compliant (e.g., high nitrosamine) product.
- Impact: Quality failures, safety hazards, regulatory actions, and IP infringement risks (if the process infringes).
- Mitigation: Rigorous supplier qualification audits (including facility audits if possible). Insist on comprehensive, verifiable testing data (CoA, potentially 3rd party). Prefer suppliers with strong quality management systems (e.g., ISO 9001).
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Lack of Regulatory Compliance Support:
- Pitfall: Suppliers may not provide adequate documentation (e.g., full composition, impurity data, GHS SDS, regulatory status updates) required for the buyer’s own regulatory submissions (e.g., CPNP, FDA, INCI) or to demonstrate compliance with bans/restrictions.
- Impact: Delays in product launch, non-compliance findings during audits, difficulty in defending product safety.
- Mitigation: Require suppliers to provide comprehensive, up-to-date regulatory dossiers and SDS. Ensure they actively monitor and communicate changes in regulations affecting Cocamide DEA (e.g., bans in certain jurisdictions, evolving nitrosamine limits).
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Unclear or Restrictive Supply Agreements:
- Pitfall: Agreements may contain IP clauses that inadvertently transfer ownership of improvements, lack clear indemnification for IP infringement, or impose restrictive usage terms.
- Impact: Loss of control over formulations developed using the material, liability for supplier’s IP infringement, or limitations on how the material can be used.
- Mitigation: Carefully review and negotiate supply contracts with legal counsel, focusing on IP ownership, warranties, indemnification clauses (especially for IP infringement and product liability), and usage rights.
By proactively addressing these common quality and IP pitfalls through stringent specifications, thorough supplier vetting, robust contractual agreements, and ongoing monitoring, companies can mitigate risks and ensure a reliable supply of safe and compliant Cocamide DEA.

Logistics & Compliance Guide for Cocamide Diethanolamine (Cocamide DEA)
Hazard Class: H2 (Note: H2 is not a standard GHS or transport hazard class designation. This guide assumes H2 refers to a custom or internal hazard categorization. Standard classifications are used where applicable.)
1. Product Identification
- Chemical Name: Cocamide Diethanolamine (Cocamide DEA)
- CAS Number: 68603-42-9
- Molecular Formula: C12H25CON(CH2CH2OH)2 (approximate; varies with fatty acid chain length)
- Synonyms: Cocamide DEA, DEA-C, N,N-Bis(2-hydroxyethyl)coconut fatty acid amide
- Appearance: Viscous liquid, pale yellow to amber
- Odor: Faint, characteristic fatty amine odor
2. Hazard Classification (GHS & Regulatory)
Note: H2 may refer to a company-specific hazard code. Standard GHS classifications are provided below.
- GHS Classification (Globally Harmonized System):
- Skin Irritation: Category 2 (H315: Causes skin irritation)
- Eye Irritation: Category 2 (H319: Causes serious eye irritation)
- Skin Sensitization: Category 1 (H317: May cause an allergic skin reaction)
- Carcinogenicity: Not classified by GHS, but NTP-listed as “reasonably anticipated to be a human carcinogen” due to potential nitrosamine formation
- Environmental Hazards: Not classified (low aquatic toxicity)
⚠️ Note on H2: If “H2” refers to internal hazard coding (e.g., H1 = flammable, H2 = health hazard), Cocamide DEA would fall under H2 due to skin/eye irritation, sensitization, and potential carcinogenic impurities.
3. Regulatory Compliance
United States (EPA, OSHA, FDA)
- OSHA: Regulated under HazCom 2012 (29 CFR 1910.1200) — SDS required
- TSCA: Listed (Inventory active)
- EPA: Monitor for nitrosamine contamination (NDELA) under EPA guidelines
- FDA: Permitted in cosmetics, but restricted in leave-on products (may contain trace nitrosamines)
European Union (REACH, CLP)
- REACH: Registered (Registration number available via ECHA)
- CLP Regulation (EC No 1272/2008):
- Skin Irrit. 2 (H315)
- Eye Irrit. 2 (H319)
- Skin Sens. 1 (H317)
- Annex XVII (REACH): Restricted if nitrosamines exceed 50 ppb in cosmetic products
Canada (DSL, WHMIS)
- DSL: Listed
- WHMIS 2015:
- Health hazard (Skin Sens. 1, Skin Irrit. 2, Eye Irrit. 2)
Other Jurisdictions:
- Australia (AICIS): Listed
- China (IECSC): Listed
- Korea (KCII): Listed
4. Storage & Handling (Logistics)
Storage Conditions
- Store in a cool, dry, well-ventilated area
- Keep containers tightly closed to prevent oxidation and moisture absorption
- Use non-reactive materials (stainless steel, HDPE, fluoropolymers)
- Avoid: Strong oxidizers, acids, heat sources (>50°C), and direct sunlight
- Shelf Life: Typically 12–24 months if stored properly
Handling Precautions
- Use in well-ventilated areas or with local exhaust ventilation
- Prohibit eating, drinking, or smoking in handling areas
- Use closed transfer systems when possible to minimize exposure
- Ground and bond containers during transfer to prevent static discharge
5. Personal Protective Equipment (PPE)
- Eye Protection: Chemical splash goggles (ANSI Z87.1)
- Skin Protection: Nitrile or neoprene gloves (test for compatibility), lab coat or chemical-resistant apron
- Respiratory Protection: Not typically required under normal conditions; use NIOSH-approved respirator if mists/aerosols are generated
- Hygiene Measures: Wash hands thoroughly after handling; provide emergency eyewash and safety shower
6. Transportation (Shipping)
- UN Number: Not regulated as hazardous under DOT, IATA, or IMDG when pure and not contaminated
- Proper Shipping Name: Not regulated (non-hazardous for transport)
- Packaging Group: Not applicable (unless contaminated with nitrosamines)
- Labeling: No hazard labels required unless contaminated
- Regulatory Status:
- DOT (49 CFR): Not regulated
- IATA/ICAO: Not regulated (unless impurities exceed limits)
- IMDG Code: Not regulated
- ADR (Europe): Not regulated for transport
✅ Important: If product contains nitrosamines > 50 ppb, it may be subject to stricter controls or notification requirements depending on jurisdiction.
7. Spill & Leak Procedures
- Contain: Absorb with inert material (sand, vermiculite)
- Clean: Collect spillage and place in sealed, labeled container
- Decontaminate: Wash area with detergent and water
- Disposal: Dispose of as hazardous waste if contaminated; otherwise, non-hazardous waste per local regulations
- Avoid: Discharge into drains, sewers, or waterways
8. Waste Disposal
- Follow local, state, and federal regulations
- If contaminated with nitrosamines, treat as hazardous waste
- Incineration in approved facilities recommended for contaminated material
- Consult waste contractor for proper classification
9. Safety Data Sheet (SDS)
- Ensure GHS-compliant SDS is available (Section 1–16)
- Update SDS if nitrosamine testing reveals levels above regulatory thresholds
- Provide to downstream users, carriers, and emergency responders
10. Special Considerations
- Nitrosamine Risk: Cocamide DEA can react with nitrosating agents (e.g., nitrites) to form N-nitrosodiethanolamine (NDELA), a carcinogen
- Test raw materials and finished products for nitrosamine contamination
- Avoid use with nitrite-containing formulations
- Use antioxidants and chelating agents to reduce risk
- Substitution: Consider use of Cocamide MEA or Cocamidopropyl Betaine as lower-risk alternatives in cosmetics
Conclusion
Cocamide DEA is not classified as hazardous for transport but presents significant health hazards (irritation, sensitization, potential carcinogenic impurities), warranting classification under H2 (health hazard) in internal systems. Strict controls on nitrosamine formation, proper PPE, storage, and compliance with cosmetic and industrial regulations are essential.
Always refer to the latest SDS and regulatory updates from EPA, ECHA, OSHA, and FDA.
Prepared for internal logistics & compliance use. Verify local regulations before shipment or handling.
Conclusion for Sourcing Cocamide Diethanolamine (Cocamide DEA):
Sourcing Cocamide DEA requires a strategic approach that balances quality, regulatory compliance, cost-efficiency, and sustainability. As a widely used non-ionic surfactant and foam booster in personal care and cleaning products, it is essential to partner with reputable suppliers who adhere to international quality standards such as ISO, REACH, and Good Manufacturing Practices (GMP). Given the regulatory scrutiny—particularly from agencies like the California Proposition 65 due to potential nitrosamine contamination—sourcing from manufacturers with robust quality control and certifications (e.g., low nitrosamine levels, ISO 9001, and SDS compliance) is critical.
Additionally, evaluating supply chain reliability, scalability, and transparency helps mitigate risks related to availability and raw material fluctuations. Emphasis should also be placed on sustainability, with preference for suppliers using responsibly sourced coconut oil and eco-conscious production methods.
In conclusion, a successful sourcing strategy for Cocamide DEA involves thorough due diligence of suppliers, continuous monitoring of regulatory developments, and a commitment to safety and sustainability to ensure a reliable, compliant, and high-performing ingredient supply.







