1-Decanol (CAS 112-30-1), also known as n-decyl alcohol or 1-Dec, is a long-chain fatty alcohol widely used in industrial and specialty chemical applications. With the 1 decanol formula C10H22O, it belongs to the group of higher alcohols that are valued for their balance of hydrophilic and hydrophobic properties.

This substance is typically a colorless to pale yellow liquid with a mild odor. High-purity grades such as 1-Decanol 99 are in strong demand, especially in cosmetics, coatings, and lubricants, where quality and consistency matter most.

As an industrial raw material, 1-Decanol provides functional benefits like lubrication, emulsification, and solubility improvement. Because of this versatility, it is increasingly chosen by manufacturers seeking reliable ingredients for value-added products.

I. Key Applications of 1-Decanol

1. Cosmetics and Personal Care

In cosmetics, 1-Decanol functions as an emollient and surfactant. It enhances the texture of lotions and creams by creating a smooth, soft skin feel. In shampoos and conditioners, n-decyl alcohol contributes to better spreadability and acts as a co-emulsifier to stabilize formulations.

Common uses include:

• Moisturizers, creams, and lotions
• Sunscreens and makeup bases
• Hair care products such as conditioners and serums

The added advantage is that 1-Decanol (CAS 112-30-1) is biodegradable and safe for cosmetic use, aligning with the industry’s growing demand for sustainable ingredients.

2. Coatings and Paints

In the coatings industry, 1-Decanol is mainly used as a raw material for plasticizers and resin modifiers. These derivatives improve the flexibility, gloss, and durability of paints and coatings.

Industrial applications include:

• Improving the flexibility of coating films
• Enhancing adhesion and surface finish
• Acting as a processing aid in ink formulations

Compared with shorter-chain alcohols, 1-Decanol 99 provides better hydrophobic performance, which is particularly valuable for outdoor paints and protective coatings that need water resistance and durability.

3. Lubricants and Metalworking Fluids

Another key area of application is in lubricants and metalworking fluids. As a long-chain alcohol, 1-Decanol improves lubrication, reduces wear, and enhances the performance of synthetic lubricants.

Typical uses:

• Intermediate for synthetic estersin high-performance lubricants.
• Additive in cutting fluids for metal machining.
• Component in industrial lubricants requiring stable performance under heat and friction.

Its chemical stability and ability to interact with oils make n-decyl alcohol highly effective in demanding industrial environments.

4. Other Industrial Uses of 1-Decanol

Beyond cosmetics, coatings, and lubricants, 1-Decanol (CAS 112-30-1) also plays a role in several other industries:

Surfactants and detergents: Used as a raw material for non-ionic surfactants.

Plasticizers: Acts as an intermediate in plasticizer production, improving flexibility in polymers.

Flavors and fragrances: Adds mild waxy and floral notes in fragrance formulations.

Chemical synthesis: Serves as a versatile intermediate in various organic reactions.

This wide range of applications demonstrates why 1 decanol continues to be a high-demand chemical in the global market.

II. Market Insights and Decanol Price Trends

For manufacturers, procuring 1-Decanol 99% with stable purity is critical. Decanol pricing is influenced by multiple factors, including raw material costs, energy prices, and global demand from industries such as cosmetics and coatings. In recent years, demand for biodegradable fatty alcohols has also driven consumption of 1-Decanol (n-Decanol).

As a specialized supplier, we provide industrial buyers with a stable supply chain, stringent quality control, and competitive pricing.

III. Why Work with a Reliable 1-Decanol Supplier

For industrial customers, choosing the right 1-Decanol supplier is about more than just cost. Partnering with a supplier who understands your industry needs can make a real difference in product performance and business efficiency.

Key advantages we offer:

Consistent Quality: Guaranteed purity levels up to 1-Decanol 99%, tested batch by batch.

Competitive Pricing: Long-term supply with stable decanol price for industrial buyers.

Customized Solutions: Packaging, purity, and application support tailored to your requirements.

Global Export Experience: Compliance with international shipping and safety standards.

By choosing a reliable supplier, you minimize risks, maintain product performance, and strengthen your position in competitive markets.

IV. Conclusion

1-Decanol (CAS 112-30-1) is more than just a chemical intermediate—it is a multifunctional ingredient that supports innovation in cosmetics, enhances durability in coatings, and improves performance in lubricants. Known also as 1-Dec or n-decyl alcohol, this material continues to be in strong demand across industries worldwide.

As a professional 1-Decanol supplier, we provide high-purity 1-Decanol 99 with reliable quality control, flexible packaging options, and competitive decanol price. Whether you are a manufacturer, distributor, or formulator, we are here to ensure your supply needs are met efficiently.

Titanium alkoxides are a group of organometallic compounds widely used in coatings, catalysts, sol-gel processes, and the production of titanium dioxide (TiO₂). Among them, Titanium(IV) Butoxide (CAS 5593-70-4)—also known as Tetrabutyl titanate or Tetra-n-butyl orthotitanate—is one of the most important and commonly applied.

While all titanium alkoxides share a similar backbone, their different alkyl groups give them unique chemical and industrial properties. This article explores the key differences between Titanium(IV) butoxide and other titanium alkoxides, helping industries and researchers understand which option best suits their needs.

I. What is Titanium(IV) Butoxide (CAS 5593-70-4)?

Titanium(IV) butoxide is an organotitanium compound with the molecular formula Ti(OC₄H₉)₄. It is typically a clear to pale yellow liquid that is sensitive to moisture and reacts readily with water through hydrolysis.

1. Key Points:

Chemical Name: Titanium(IV) butoxide

CAS Number: 5593-70-4

Synonyms: Tetrabutyl titanate, Tetra-n-butyl orthotitanate

Appearance: Clear to slightly yellow liquid

Properties: High reactivity, soluble in many organic solvents, controlled hydrolysis rate.

2. Main Applications:

As a precursor for titanium dioxide nanoparticles.

In sol-gel processing for coatings and thin films.

As a catalyst in esterification and transesterification reactions.

In the electronics industry for dielectric and optical coatings.

Because of its balance between reactivity and stability, Titanium(IV) butoxide is one of the most versatile titanium alkoxides used in both research and large-scale industrial production.

II. Common Types of Titanium Alkoxides

Titanium alkoxides form an important class of titanium-based chemicals where titanium is bonded to alkoxy groups (–OR). The properties and applications of these compounds vary significantly depending on the type of alkyl group, which directly affects their reactivity, stability, and suitability for industrial use. Below are the most common types of titanium alkoxides:

1. Titanium(IV) Butoxide (Tetrabutyl Titanate, CAS 5593-70-4)

Features: Moderate reactivity, relatively stable during storage, and offers controlled hydrolysis.

Applications: Widely used in coatings, adhesives, sol-gel processing, and as a precursor for TiO₂ nanoparticles.

Why popular: Its balance between reactivity and stability makes it suitable for both laboratory research and large-scale production.

2. Titanium(IV) Isopropoxide (TTIP)

Features: Much more reactive than butoxide, leading to faster hydrolysis and condensation.

Applications: Used in thin-film deposition (CVD and sol-gel methods), production of photocatalytic TiO₂, and electronics manufacturing.

Notes: Because of its higher reactivity, handling requires careful moisture control.

3. Titanium(IV) Ethoxide

Structure: Contains four ethoxy groups (C₂H₅O).

Features: Intermediate between methoxide and isopropoxide in terms of reactivity and stability.

Applications: High-purity material synthesis, optical coatings, and laboratory-scale research.

Notes: Often selected when purity and controlled reaction speed are critical.

4. Titanium(IV) Methoxide

Structure: Contains four methoxy groups (CH₃O).

Features: The smallest alkyl group gives it very high reactivity and the fastest hydrolysis rate.

Applications: Mostly limited to organic synthesis and specialized research due to handling difficulties.

Notes: Rare in industrial use because it is unstable in moist environments and difficult to store.

5. Mixed Titanium Alkoxides

In addition to the pure forms, mixed alkoxides—where different alkyl groups are bonded to titanium—are sometimes synthesized to fine-tune reactivity and solubility. These are used in specialized research and tailored industrial applications.

Common Titanium Alkoxides Comparison Table

III. General Characteristics of Titanium Alkoxides

Across these types, titanium alkoxides share several important traits:

Moisture sensitivity: They hydrolyze rapidly in contact with water.

Sol-gel applications: All types are excellent precursors for TiO₂ thin films and nanoparticles.

Versatility: Depending on the alkyl group, they can be optimized for fast reactions or for stable, controlled processing.

Choice factors: The decision between Titanium(IV) butoxide (Tetrabutyl titanate) and other alkoxides usually depends on the balance needed between reactivity, processing conditions, and final application.

IV. Why Choose Titanium(IV) Butoxide?

There are several reasons industries often prefer Titanium(IV) butoxide (Tetrabutyl titanate):

Better process control: Slower hydrolysis makes it easier to manage in large-scale industrial settings.

Film-forming ability: Produces high-quality, uniform coatings.

Versatility: Works in multiple industries, from coatings to catalysts.

Availability: Widely supplied by global Tetrabutyl titanate suppliers.

For manufacturers seeking a balance of reactivity and stability, Titanium(IV) butoxide is often the most practical choice compared to other titanium alkoxides.

V. Reliable Tetrabutyl Titanate Suppliers

As a leading Tetrabutyl titanate supplier, we provide high-quality Titanium(IV) butoxide (CAS 5593-70-4) with consistent performance for industrial applications. When choosing a supplier, several factors are critical, and we ensure all are met:

High Purity: Our Titanium(IV) butoxide meets stringent purity standards, ensuring excellent performance in coatings, catalysts, and sol-gel processes.

Consistent Quality: We guarantee batch-to-batch consistency, so large-scale production remains stable and reliable.

Proper Packaging & Handling: Our products are packed in moisture-proof containers to prevent premature hydrolysis and maintain long-term stability.

Technical Support: As experienced Tetrabutyl titanate suppliers, we provide tailored solutions and technical guidance to meet your specific industrial requirements.

Partnering with us ensures you get top-quality Tetrabutyl titanate that minimizes production risks and delivers reliable results across coatings, catalysts, and advanced material applications.

VI. Conclusion

Titanium(IV) butoxide (CAS 5593-70-4) remains a preferred titanium alkoxide due to its controlled reactivity, excellent film-forming properties, and versatile industrial applications. While other titanium alkoxides such as isopropoxide and ethoxide have their specific uses, Tetrabutyl titanate is ideal for industries that require both stability and high performance.

As a trusted Tetrabutyl titanate supplier, we provide high-purity, consistent Titanium(IV) butoxide, backed by technical expertise and reliable supply.

Dinonylnaphthalene Sulfonic Acid (DNNSA), also known as Dinonylnaphthalenesulfonic acid, is a high-performance sulfonic acid widely used across industrial applications. Its CAS number is 25322-17-2, making it easily identifiable in chemical databases and procurement processes.

Dinonylnaphthalenesulfonic acid solution and solid powder are the two commercial forms of DNNSA that are often offered. For blending with oils, coatings, and other liquid compositions, the solution form is especially practical because it offers improved handling and consistent dispersion.

As a chemical additive, DNNSA is valued for its versatility, stability, and compatibility with different systems. It is a key ingredient in lubricants, coatings, fuel additives, corrosion inhibitors, and specialty industrial chemicals.

I. Key Properties of Dinonylnaphthalene Sulfonic Acid

1. Strong surfactant and dispersing ability

The outstanding surface-active property of DNNSA is one of its most significant characteristics. In order to provide uniform dispersion and avoid sedimentation, it efficiently disperses solids such as pigments, fillers, and metallic particles. Because of this, it works very well in coatings and lubricants, where uniform dispersion is essential for reliable performance.

2. Thermal stability and oxidation resistance

DNNSA exhibits outstanding thermal stability, allowing it to perform reliably in high-temperature environments such as engine oils, greases, and industrial coatings. Its oxidation resistance prevents breakdown over time, extending the service life of formulated products.

3. Compatibility with oils, resins, and solvents

Whether used in mineral oils, synthetic oils, or polymer-based systems, DNNSA is highly compatible. This compatibility ensures that it does not separate, react adversely, or reduce the performance of other additives in the formulation.

II. Applications in Lubricants

1. Improving lubrication performance

DNNSA serves as a detergent and dispersant in engine oils and industrial lubricants. By keeping metallic surfaces clean and preventing the formation of sludge and varnish, it ensures smooth engine operation and prolonged equipment life.

2. Use in engine oils and greases

In greases and high-performance engine oils, DNNSA maintains viscosity stability, minimizes friction, and reduces wear and tear. Its presence improves lubricant efficiency, contributing to energy savings and better machinery performance.

3. Corrosion inhibition in metalworking fluids

By creating a protective coating on metal surfaces and lowering the chance of corrosion, DNNSA also contributes significantly to metalworking fluids. This makes it perfect for applications where corrosion prevention and lubrication are essential, such as cutting oils, hydraulic fluids, and industrial greases.

III. Applications in Coatings

1. Dispersant for pigments and fillers

In coatings, DNNSA acts as a powerful dispersant, ensuring pigments and fillers remain evenly suspended. This property is essential for high-quality industrial coatings, protective paints, and decorative finishes, where uniform color and texture are required.

2. Enhancing adhesion and film stability

DNNSA improves adhesion of coatings to a variety of substrates, including metal, plastic, and concrete. It helps maintain film integrity under harsh environmental conditions, such as exposure to heat, UV, or chemical agents.

3. Role in industrial and protective coatings

Due to its long-chain hydrophobic structure, DNNSA enhances the durability and protective performance of coatings used on pipelines, machinery, and heavy equipment. Its use ensures coatings remain effective over extended service periods.

IV. Other Industrial Applications of DNNSA

1. Fuel additives

DNNSA is incorporated in fuel formulations as a detergent-dispersant, helping keep engine parts clean and maintain fuel efficiency.

2. Corrosion inhibitors

Its protective properties make DNNSA a common component in corrosion inhibitors for water treatment, oilfield applications, and cooling systems.

3. Specialty chemical formulations

The application of DNNSA in adhesives, polymer systems, and other specialty industrial chemicals where reliable performance is essential is made possible by its combination of thermal stability, dispersion ability, and chemical compatibility.

V. Why Choose Dinonylnaphthalene Sulfonic Acid Over Other Sulfonic Acids?

1. Comparison with LABSA

Compared to linear alkylbenzene sulfonic acid (LABSA), DNNSA offers better stability and solubility in nonpolar systems, making it more suitable for oils and lubricants.

2. Better stability in harsh conditions

DNNSA maintains performance under high temperatures, pressure, and oxidative conditions, which is essential in demanding industrial applications.

3. Long-chain hydrophobic properties

The branched nonyl groups in DNNSA provide enhanced hydrophobicity, improving film formation and protection in coatings and lubricants. This feature ensures superior long-term performance compared to other sulfonic acids.

VI. How to Buy Wholesale Dinonylnaphthalene Sulfonic Acid?

1. Choosing a reliable supplier

Selecting a trusted DNNSA supplier is critical to ensure consistent quality and timely delivery. High-quality DNNSA guarantees performance across applications and minimizes production issues.

2. Factors to consider: purity, concentration, packaging

When purchasing DNNSA, pay attention to purity, concentration in solution form, and packaging options. These factors affect how easily the product can be blended into your formulations.

3. Global sourcing and wholesale supply options

For large-scale operations, sourcing Wholesale Dinonylnaphthalene Sulfonic Acid ensures cost efficiency and supply stability. Many global suppliers now offer both solid DNNSA and Dinonylnaphthalenesulfonic acid solution, catering to different industrial needs.

VII. Conclusion

Dinonylnaphthalene Sulfonic Acid (DNNSA, 25322-17-2) is a high-performance chemical that plays a vital role in lubricants, coatings, fuel additives, and corrosion inhibitors. Its excellent dispersing ability, thermal stability, and compatibility make it indispensable in industrial formulations.

As a reliable supplier of Dinonylnaphthalene Sulfonic Acid, we provide high-purity products, flexible packaging options, and wholesale supply solutions to meet your manufacturing needs. Whether you need Dinonylnaphthalenesulfonic acid solution for coatings or solid DNNSA for lubricants, we are your trusted partner for industrial-grade chemical solutions.

When it comes to producing pharmaceuticals, food products, or security equipment, consistency and reliability are everything. Manufacturers need ingredients that are stable, cost-effective, and easy to use at scale. Nonivamide powder (CAS 2444-46-4) has become one of those ingredients that industries around the world rely on.

Also known as n-vanillylnonanamide or synthetic capsaicin, this powder delivers the same heat and pungency as natural chili extracts, but in a far more controlled and standardized way. Instead of worrying about seasonal chili harvests or fluctuating quality, manufacturers can buy nonivamide powder that is pure, consistent, and available all year round.

In this guide, we will explain in simple terms what nonivamide is, how it is used across industries, what makes it attractive to manufacturers, and how you can secure the best nonivamide price from a trusted supplier.

I. What is Nonivamide Powder?

Nonivamide powder is a synthetic vanilloid compound designed to mimic the pungency of natural capsaicin found in chili peppers. Unlike natural extracts, which can vary in potency, nonivamide ensures batch-to-batch stability. This is especially important for B2B manufacturers who need reliable raw materials for large-scale production.

CAS Number: 2444-46-4

Synonyms: N-vanillylnonanamide, N vanillylnonanamide, nonivamide

Appearance: White to off-white crystalline powder

Main Advantage: Strong pungency at very low dosage, stable under different storage and processing conditions.

II. Key Benefits of Using Nonivamide Powder in Industry

Consistency – Uniform pungency and effect, unlike natural chili which fluctuates.

Cost-Effective – Requires smaller amounts to achieve desired effect, reducing formulation costs.

Versatility – Applicable across pharmaceuticals, food, security, and even agricultural uses.

Stability – Long shelf life and resistance to degradation in processing.

III. Nonivamide Powder Industrial Applications

Nonivamide Powder is also widely used in food, medicine and other industrial fields.

1. Pharmaceutical and Healthcare Manufacturing

Nonivamide is widely used in pharmaceutical formulations for its warming and pain-relieving properties:

• Pain relief creams & ointments: Used in arthritis gels, sports injury balms, and muscle relaxants.
• Transdermal patches: Helps deliver controlled heat sensation to reduce nerve and muscle pain.
• Anti-itch creams: Provides soothing relief by stimulating heat receptors in the skin.

For pharmaceutical companies, nonivamide offers predictable dosage control and scalable production advantages, compared to natural capsaicin which is harder to standardize.

2. Food and Flavoring Industry

Food producers often look for a reliable chili substitute that delivers the same kick without the natural variability. Nonivamide is ideal for:

• Instant noodles, snacks, sauces – Adds a spicy punch with precise control over intensity.
• Beverages – Certain health drinks and energy boosters use it for a warming effect.
• Processed foods – Manufacturers appreciate that nonivamide does not alter color or texture, while still enhancing flavor.

By using nonivamide powder, food manufacturers can ensure consistent taste, reduce dependence on seasonal chili supply, and lower overall formulation costs.

3. Personal Care and Cosmetics

Nonivamide is also valued in the cosmetics and personal care industry for its warming properties:

• Massage gels & warming creams – Provides a pleasant heat effect.
• Slimming lotions & anti-cellulite creams – Stimulates blood circulation in targeted areas.
• Sports recovery products – Widely used in formulations aimed at muscle relaxation.

Cosmetic manufacturers benefit from nonivamide’s controlled heat effect and safe dosage range, making it a premium additive in wellness products.

4. Agricultural and Veterinary Applications

• Animal repellents – Nonivamide is used in formulations to deter birds, rodents, and other pests without harmful chemicals.
• Veterinary care – Certain external-use products for livestock incorporate nonivamide for its warming sensation.

For agricultural suppliers, this offers an eco-friendly solution for pest control and animal care.

5. Other Industrial Applications

• Coatings and specialty chemicals – Added for unique sensory or deterrent properties.

These niche uses further highlight nonivamide’s versatility across industries.

IV. Why Choose Us as Your Nonivamide Supplier?

As a professional supplier of nonivamide powder (CAS 2444-46-4), we provide:

• High-purity, stable-grade material suitable for industrial production.
• Bulk supply options with competitive pricing.
• Technical support for formulation and application optimization.
• Global logistics solutions for timely delivery.

Whether you are looking to buy nonivamide, explore new nonivamide uses, or need a trusted nonivamide supplier, we are here to support your business.

V. Conclusion

Nonivamide powder is not just a synthetic chili substitute — it is a versatile industrial ingredient with broad applications in pharmaceuticals, food, security, personal care, agriculture, and specialty chemicals.

By choosing a reliable supplier, manufacturers can benefit from cost efficiency, product consistency, and scalable production advantages. If you are seeking nonivamide for sale, want to compare nonivamide price, or need support in integrating it into your production, we are ready to assist.

In modern industries, advanced raw materials play a key role in improving performance, efficiency, and durability. One such important chemical is titanium butoxide, also known as Tetrabutyl Titanate, Titanium(IV) butoxide, or Tetra-n-butyl orthotitanate (CAS 5593-70-4). This titanium alkoxide compound is widely used in coatings, paints, adhesives, and polymer production due to its strong reactivity and ability to enhance material properties.

In this article, we will explore what titanium butoxide is, its main applications, market trends, and why choosing reliable Tetrabutyl Titanate suppliers is crucial for your business.

I. What is Titanium Butoxide?

Chemical name: Titanium butoxide

Synonyms: Tetrabutyl Titanate, Titanium(IV) butoxide, Tetra-n-butyl orthotitanate

CAS number: 5593-70-4

Chemical formula: Ti(OC₄H₉)₄

Titanium butoxide is a clear to pale yellow liquid that reacts strongly with water. When exposed to moisture, it hydrolyzes rapidly, forming titanium dioxide (TiO₂). This characteristic is the basis of its widespread use in sol-gel chemistry, catalysis, and thin film coatings.

Key Characteristics

High reactivity: Enables fast hydrolysis and condensation, critical in sol-gel processes.

Excellent bonding ability: Strong interaction with inorganic and organic substrates.

Versatility: Used across industries ranging from coatings to polymer catalysis and electronics.

Unlike other titanium alkoxides, Titanium(IV) butoxide offers a balance of reactivity and stability, making it easier to handle while still delivering strong performance.

II. Applications of Titanium Butoxide in Coatings

1. Role in Sol-Gel Coatings

One of the most important applications of Tetrabutyl Titanate is in sol-gel technology. Through controlled hydrolysis and condensation, titanium butoxide serves as a precursor to titanium dioxide films. These films provide:

• High transparency, making them suitable for optical coatings and glass treatments
• Strong adhesion to surfaces, ensuring long-lasting performance
• Hardness and wear resistance for protective coatings

In industries such as construction, electronics, and automotive, sol-gel coatings produced with titanium butoxide help create surfaces that resist scratching, weathering, and corrosion.

2. Titanium Butoxide in Paints and Protective Coatings

Beyond sol-gel films, Titanium(IV) butoxide (CAS 5593-70-4) is widely used in paint and coating formulations. Its benefits include:

• Enhanced gloss and surface finish, giving coatings a smooth, attractive appearance
• Durability against environmental stress, including UV radiation and moisture
• Improved corrosion resistance, critical for metals exposed to harsh conditions
• Thermal stability, allowing coatings to perform even in high-temperature environments

For these reasons, titanium butoxide is frequently added to architectural paints, marine coatings, automotive protective layers, and industrial finishes.

III. Applications of Titanium Butoxide in Polymer Production

1. As a Catalyst in Polymerization

In the field of polymer chemistry, Titanium(IV) butoxide acts as a catalyst in processes such as:

• Polyester synthesis
• Polyolefin production
• Polyurethane modification

Its catalytic activity accelerates polymerization reactions, making production more efficient while also offering greater control over molecular weight distribution. This leads to polymers with predictable properties and improved performance.

2. Enhancing Polymer Material Properties

When incorporated into polymer systems, Tetrabutyl Titanate contributes to:

• Improved flexibility and toughness, especially in engineering plastics.
• Better thermal stability, making polymers suitable for demanding applications.
• Enhanced adhesion and bonding, particularly useful in composites and specialty plastics.

This makes titanium butoxide a valuable additive for manufacturers of packaging materials, automotive parts, and electronic components.

IV. Global Demand Trends

Demand for Titanium(IV) butoxide (CAS 5593-70-4) is growing steadily. According to industry data:

• The coatings and paints sector remains the largest consumer.
• Polymer manufacturers are increasingly adopting titanium butoxide as a catalyst.
• The electronics and renewable energy industries are exploring its use in high-tech thin films and functional coatings.

This steady expansion highlights why businesses need reliable Tetrabutyl Titanate suppliers to ensure a stable supply.

V. Choosing Reliable Tetrabutyl Titanate Suppliers

1. Why Supplier Selection Matters

Since titanium butoxide is highly reactive and sensitive to impurities, working with trusted Tetrabutyl Titanate Suppliers ensures:

• Consistent product purity that meets industrial and laboratory requirements.
• Technical documentation, including Certificates of Analysis (CoA) and safety data sheets.
• Batch-to-batch stability, critical for maintaining production quality.

2. What to Look for in a Supplier

When sourcing Tetra-n-butyl orthotitanate, companies should consider:

• Supplier experience in international markets.
• Capability to provide both bulk and small-scale packaging.
• Competitive and transparent pricing, with no hidden costs.
• Availability of technical support to guide safe handling and applications.

Choosing the right partner helps avoid risks such as inconsistent quality, supply interruptions, or regulatory issues.

VI. Safety, Storage, and Handling of Titanium(IV) Butoxide

1. Storage Recommendations

• Store in a cool, dry place, away from humidity.
• Keep containers tightly sealed to avoid hydrolysis.
• Use stainless steel or coated containers to prevent contamination.

2. Safety Guidelines

Always wear gloves, goggles, and protective clothing when handling.

Work in a well-ventilated area to avoid inhalation of vapors.

In case of spills, absorb with inert material and dispose according to local regulations.

Proper handling not only ensures worker safety but also preserves the integrity of the product.

VII. Why Choose Us as Your Tetrabutyl Titanate Supplier?

As an experienced supplier of Titanium(IV) butoxide, we provide:

• High-purity Tetrabutyl Titanate (CAS 5593-70-4) that meets international quality standards.
• Competitive tetrabutyl titanate price for both small and large orders.
• Custom packaging solutions to protect against moisture and extend shelf life.
• Dedicated customer support for technical guidance and logistics arrangements.

Whether you need bulk shipments for industrial applications or small quantities for research and development, we can deliver tailored solutions that fit your requirements.

VIII.Conclusion

Titanium butoxide (Tetrabutyl Titanate, Tetra-n-butyl orthotitanate, CAS 5593-70-4) is a powerful chemical that enhances the performance of coatings, paints, and polymers. Its ability to act as both a precursor and a catalyst makes it indispensable in industries where quality and durability are critical.

By choosing reliable Tetrabutyl Titanate suppliers, businesses can secure consistent quality, competitive pricing, and dependable technical support. If you are looking for a trusted source of Titanium(IV) butoxide, contact us today to request samples, check the latest tetrabutyl titanate price, or discuss customized solutions for your project.

In daily life, we often marvel at the fruits and vegetables in supermarkets. They not only look bright but also have a long shelf life. Unlike the fruits and vegetables we just pick from the fields, they wilt and rot shortly after. The mystery behind this is largely attributed to a miraculous preservative – 1-methylcyclopropene.

What is 1-methylcyclopropene CAS 3100-04-7?

1-methylcyclopropene CAS 3100-04-7, also known as 1-MCP, has the chemical formula C4H6 and a molecular weight of 54.09. At normal temperature and pressure, it is a colorless gas, odorless and non-toxic, with a density of approximately 0.838g/cm³. It belongs to the cyclopropene class of compounds. Despite its small molecular structure, its properties are very active and it plays an important role in the field of preservation.

The magical effect of 1-MCP CAS 3100-04-7 in the field of preservation mainly stems from its role as a plant growth regulator, which can precisely inhibit the action of ethylene. Ethylene, as a plant hormone, plays a crucial role in the growth, development, maturation and senescence of plants, promoting the rapid ripening, aging and rotting of fruits and vegetables. The emergence of 1-mcp CAS 3100-04-7 inhibited this process. Its molecular structure is extremely similar to that of ethylene, which enables it to bind tightly to ethylene receptors in advance, and this binding is irreversible. Thus, it effectively blocks the transmission of ethylene signals, inhibits a series of physiological and biochemical reactions related to fruit ripening, greatly delays the ripening and aging process of fruits and vegetables, and achieves the purpose of extending the preservation period. From a microscopic perspective, after 1-MCP CAS 3100-04-7 binds to the ethylene receptor, it will cause a chain reaction on various physiological activities within the cell. It can affect the permeability of cell membranes, regulate the activity of related enzymes, and change the expression of genes, thereby comprehensively inhibiting the ripening and senescence process of fruits

Not only fruits, but 1-methylcyclopropene also has an excellent preservative effect on vegetables and flowers. The stomata on spinach leaves are densely distributed, making them highly susceptible to infection by spoilage bacteria. Even after harvest, they still have a strong respiratory rate and transpiration. During normal temperature storage and transportation, they are prone to water loss, imbalance in reactive oxygen species metabolism, wilting and softening, with a high rate of rotting and yellowing, which seriously affects their commercial value. Spinach treated with 1-methylcyclopropene has a significantly prolonged shelf life at room temperature. The leaves can remain emerald green and upright, and the nutritional components can also be well retained. 1-methylcyclopropene can also prolong the flowering period of flowers, making them bloom for a longer time and adding more beauty and fragrance to our lives.

When using 1-methylcyclopropene, safety is the most concerning issue for everyone. It is actually non-toxic, which means that under normal use, it causes almost no harm to the human body and the environment. In practical applications, 1-methylcyclopropene is mainly treated by fumigation. When in use, simply make the concentration of 1-MCP in the air reach 1ppm (parts per million), and it can achieve a good preservation effect. Moreover, its usage method is relatively simple. It is applicable to both large-scale storage preservation and small-scale packaging preservation of fruits and vegetables.

With the rapid development of cold chain logistics and the continuous improvement of people’s requirements for the quality and freshness of agricultural products, 1-methylcyclopropene, as an efficient and safe preservative, will have a broader market application prospect. Unilong is a professional 1-methylcyclopropene suppliers, can provide high-quality and pure 1-methylcyclopropene. If you need it, please contact us and we will offer you the most favorable price as soon as possible.

The mechanism of action of OMC is mainly based on its ability to absorb and transform UV energy. These compounds have a conjugated large π bond structure, which can be seen as a benzene ring as the core, extending to include the oxygen atom in the substituent methoxy group on one side, and extending to the double bond and ester group in another substituent on the other side. Such a conjugated structure makes methoxycinnamate have the characteristics of absorbing UV light.

Experiments have revealed that methoxycinnamate can absorb UV light in the wavelength range of 280-310nm, and the maximum absorption occurs at 311nm.

Specifically, the aromatic ring and conjugated structure of these compounds can effectively absorb UV radiation. The absorbed UV energy is converted into low-energy heat, which these compounds release through radiation or conduction, thereby preventing UV damage to the skin or materials. In addition, these compounds have high photochemical stability and are not easy to decompose, thus ensuring their effectiveness in long-term use.

Through these mechanisms, methoxycinnamate UV absorbers can effectively prevent UV damage to the skin and materials.

What are the advantages of OMC sunscreen?

1.Highly effective protection: against ultraviolet B band (UVB)

Octyl methoxycinnamate is a highly effective UVB absorber that can absorb ultraviolet rays with a wavelength of 290-320 nanometers. UVB is the main culprit for skin sunburn, erythema and DNA damage. The addition of OMC can significantly reduce the damage of ultraviolet rays to the skin and provide consumers with reliable protection.

2.Strong stability: long-lasting sunscreen effect

Compared with other sunscreen ingredients, OMC shows excellent stability under light and is not easy to decompose or fail. This means that after using sunscreen products containing OMC, consumers do not need to reapply frequently to enjoy long-lasting sunscreen effects, which is especially suitable for outdoor activities or long-term exposure to the sun.

3.Mild and low irritation: suitable for a variety of skin types

OMC has low skin irritation and has been widely considered to be suitable for most skin types, including sensitive skin, after multiple safety assessments. Its mild properties make it a preferred ingredient for children’s sunscreen products and highly sensitive people.

4.Good compatibility: synergistic effect with other ingredients

OMC has good compatibility with other sunscreen ingredients (such as zinc oxide and titanium dioxide), and can synergize to provide more comprehensive UV protection. In addition, it can also act as a solubilizer to help other active ingredients dissolve and penetrate better, thereby enhancing the overall effect of the product.

5.Environmental protection and sustainability: promoting green skin care

With the improvement of environmental awareness, the production and use of OMC are also being optimized. Many brands are exploring more environmentally friendly formulas and production processes to reduce potential impacts on aquatic organisms and the environment, and promote the development of green skin care.

6.Wide application: core ingredient in the sunscreen market

At present, OMC has been widely used in sunscreens, lotions, lipsticks and other products, becoming one of the core ingredients in the sunscreen market. Its high efficiency, safety and stability have won the trust of consumers around the world.

What is potassium myristate CAS 13429-27-1？

Potassium myristate, alias potassiumtetradecanoate, CAS number is 13429-27-1, molecular formula is C14H29KO2, molecular weight reached 268.48. From the point of view of chemical structure, it is an organic salt produced by the reaction of myristic acid and potassium hydroxide. Myristic acid is a saturated fatty acid commonly found in vegetable oils such as coconut oil and palm oil, as well as some animal fats. When myristic acid and potassium hydroxide meet in an acid-base neutralization reaction, the carboxyl group (-COOH) in myristic acid combines with the hydroxide group (OH) in potassium hydroxide to form water, while potassium ion (K +) combines with the myristic ion (C14H27COO⁻) to form potassium myristic acid.

Potassium myristate CAS 13429-27-1 at room temperature and pressure is usually presented as a white to light yellow powder substance, delicate texture, giving a relatively dry intuitive feeling. It has certain solubility characteristics, can show good solubility in water, and can be evenly dispersed in water to form a solution, which makes it play a good role in some water-based system products. However, when it encounters organic solvents, such as common ethanol, ether, etc., the solubility will be greatly reduced and almost insoluble. This is because the molecular structure of potassium myristate determines that it is more inclined to interact with water molecules, and the interaction between organic solvent molecules is weak.

From the point of view of chemical properties, potassium myristate is a strong base and weak acid salt. When it is dissolved in water, a hydrolysis reaction occurs. The myristate ion (C14H27COO⁻) binds to hydrogen ions emitted by hydro electricity (H +). This causes a relative increase in the concentration of the hydroxide ion (OH⁻) in solution which causes the alkaline appearance of the solution. Under general storage conditions, potassium myristate has good stability and can keep its chemical structure and properties unchanged for a long time. However, if it is exposed to high temperature, high humidity or strong acid and alkali environment, its stability will be challenged. The decomposition reaction of potassium myristate may occur in high temperature environment, resulting in the decrease of its active component content. Under strong acid-base conditions, it will chemically react with acid or base to form other substances, thus losing its original properties.

Potassium myristate plays an important role in cleaning

On the big stage of cleaning products, potassium myristate CAS 13429-27-1 plays a key cleaning role. Its cleaning principle is based on its unique chemical structure and surface active properties. The potassium myristate molecule consists of a hydrophilic head (the carboxylate part) and a hydrophobic tail (the long-chain fatty acid part), a special structure that allows it to form micelles in water. When potassium myristicate comes into contact with dirt and oil on the skin surface, its hydrophobic tail is inserted into the oil molecules, while the hydrophilic head is oriented towards the water phase. In this way, potassium myristate can wrap the oil, forming tiny micelles, which can be evenly dispersed in the water and washed away with the water flow, so as to achieve a clean effect.

Potassium myristate is widely used in facial cleansers. Potassium myristate works in concert with other soap-based ingredients to penetrate deep into pores and strongly cleanse the skin of oil, dirt and aged keratin. For people with oily skin, use a facial cleanser containing potassium myristate, which can effectively remove excessive oil from the face and keep the skin fresh and clean. However, due to its strong cleaning power, it may be irritating for people with dry and sensitive skin, and the frequency of use should not be too high.

In body wash products, potassium myristate can quickly combine with dirt, sweat and oil on the surface of the body, by producing a rich foam, these dirty things away from the skin, so that we can feel fresh and clean skin after bathing. At the same time, the shower gel also adds some spice ingredients, while cleaning, to bring users a pleasant fragrance experience.

While potassium myristate is excellent at cleansing, it is not “friendly” to all skin types. For dry skin, due to less skin oil secretion, the moisturizing ability of the skin is relatively weak, and the water content of the stratum corneum is low. While the strong cleaning power of potassium mystate removes the dirt and oil on the skin surface, it will excessively clean the oil secreted by the skin itself, causing the skin’s moisturizing barrier to be damaged to a certain extent, resulting in more dry skin and water shortage, tightness, peeling and other uncomfortable symptoms. For example, some people with dry skin who use a facial cleanser containing potassium myristate can feel as if their face is wrapped in a tight film, and in severe cases, there will be fine dandruff.

The epidermal layer of sensitive skin is thin, the barrier function of the skin is fragile, and the resistance to external stimulation is poor. The alkaline properties of potassium myristate may upset the original acid-base balance on the skin surface, stimulate nerve endings in the skin, and trigger allergic reactions in the skin. For people with sensitive skin, after using cleaning products containing potassium myristate, the skin may quickly appear redness, itching, tingling and other symptoms, seriously affecting the health and comfort of the skin.

If after the use of products containing potassium myristate, the skin appears redness, itching, stinging and other uncomfortable symptoms, this is likely to be the skin has an adverse reaction to the product, at this time should immediately stop using. At the same time, do not scratch the skin with your hands at will, so as not to increase the risk of skin damage and infection. You can gently rinse the skin with water to remove the residual product components on the skin, and then observe the skin condition. If the symptoms continue to not relieve or worsen, be sure to go to the hospital dermatology treatment in time, let a professional doctor for diagnosis and treatment.

When choosing products containing potassium myristate, be sure to maintain a rational and scientific attitude. Know your skin and make decisions based on your needs. If you have oily skin, moderate use of cleansing products containing potassium myristate can help you effectively cleanse your skin and keep it fresh. But if you have dry or sensitive skin, you need to choose carefully or look for other, gentler cleansing ingredients instead. At the same time, in the process of use, strictly follow the use recommendations and precautions to avoid damage to the skin due to improper use. I hope everyone can keep the skin healthy and beautiful through scientific choice and correct use.

Cocoyl chloride CAS 68187-89-3, From the appearance, coconut chloride is a colorless or light yellow transparent oily liquid. This visual feature makes it recognizable among many chemical raw materials. It has a strong pungent smell, which is not only very pungent, but also highly volatile. Once it spreads in the air, it will quickly irritate people’s respiratory tract and eyes, causing discomfort.

In terms of density, the density of coconut chloride is about 0.91g/mL (25°C), which means that it is different from the density of water. In scenarios involving mixing with water, stratification and other phenomena will occur due to the density difference. Its boiling point is 193°C (4mmHg). The relatively high boiling point indicates that it can maintain a relatively stable liquid state at room temperature and pressure. The flash point is greater than 230°F, which reflects that coconut oil chloride is relatively difficult to ignite when encountering fire sources such as open flames and high temperatures, and has a certain degree of fire safety. However, it can be dissolved in organic solvents such as ether, and this solubility makes it possible for it to be mixed with other organic compounds in the chemical synthesis process.

Application field：

Daily chemical industry

In the daily chemical industry, coconut oil chloride plays an extremely important role, especially as a surfactant intermediate. In the formulation of shampoo, the surfactant synthesized by coconut oil chloride can effectively clean the grease and dirt on the hair. It has good emulsifying properties, which can make the grease evenly dispersed in the water, so that it can be easily washed away, leaving the hair refreshed and clean. At the same time, this surfactant made from coconut oil chloride also has a mild characteristic, will not over-irritate the scalp, reduce damage to the scalp barrier, and reduce the probability of allergies and other discomfort reactions.

In shower gel, the advantages of coconut oil chloride are also significant. It can produce rich and delicate foam, which not only brings a comfortable bathing experience, but also can more fully contact the skin surface and improve the cleaning effect. In facial cleansers, surfactants synthesized from Cocoyl chloride CAS 68187-89-3 can gently remove facial grease and dust while maintaining skin moisture without making the skin feel tight. As people’s requirements for the quality and safety of daily chemical products continue to increase, cocoyl chloride has an increasingly broad application prospect in the daily chemical industry due to its excellent performance.

Pharmaceutical field

In the pharmaceutical field, cocoyl chloride CAS 68187-89-3 is mainly used for the synthesis of pharmaceutical intermediates. The research and development and production of many drugs are inseparable from cocoyl chloride, a key raw material. For example, in the synthesis process of some antibiotics, the reaction steps in which cocoyl chloride participates can construct a specific chemical structure, which plays a vital role in enhancing the antibacterial activity of antibiotics. In the preparation of some cardiovascular drugs, cocoyl chloride CAS 68187-89-3, as an intermediate, can help introduce specific functional groups, thereby adjusting the properties of drug molecules, making them more effective in the human cardiovascular system, and achieving the purpose of treating diseases.

It can also be used to synthesize some drugs with special therapeutic effects, such as topical drugs for the treatment of skin diseases. The intermediates synthesized from cocoyl chloride can enable drugs to better penetrate into the deep layers of the skin, improve the efficacy of drugs, and bring better therapeutic effects to patients. The pharmaceutical industry has extremely high requirements for product quality and safety. Cocoyl chloride, with its stable chemical properties and reliable reaction performance, occupies an indispensable position in the synthesis of pharmaceutical intermediates, providing strong support for drug research and development and production.

Pesticide field

In the field of pesticides, coconut chloride plays an important role as a pesticide intermediate. The pesticides it participates in synthesizing can effectively prevent and control crop diseases and pests, and ensure the stability and harvest of agricultural production. For example, in the synthesis of some organophosphorus pesticides, coconut chloride reacts with other compounds to form pesticide molecules with specific structures. These pesticide molecules can accurately act on the nervous system or physiological metabolic process of pests, interfere with the normal growth and reproduction of pests, and thus achieve the purpose of killing pests.

Paint industry

In the paint industry, organic compounds synthesized by coconut chloride can be used as film-forming substances for paints, improve the adhesion, water resistance and weather resistance of paints, and enable paints to better protect the surface of coated objects. In the plastics industry, intermediates synthesized by coconut chloride can be used to prepare high-performance plastic materials, improve the processing performance and physical properties of plastics, and broaden the application range of plastics. The wide application of coconut chloride in the field of organic synthesis has provided a foundation for the innovation and upgrading of chemical products and promoted the development of the entire chemical industry.

Precautions for use

Cocoyl chloride is highly irritating. Whether it comes into contact with the skin or the eyes, it may cause serious consequences such as irritation and burns. During the production process, workers need to be fully armed and wear chemical protective gloves to ensure that the skin of the hands does not come into direct contact with coconut chloride; wear goggles to protect the eyes from possible splashing coconut chloride; wear protective clothing to wrap the body tightly to prevent coconut chloride from contacting other parts of the body.

During transportation, coconut chloride must be stored in a sealed container, which can effectively prevent its volatilization and reduce potential harm to the surrounding environment and personnel. The container should be kept away from fire sources, because although coconut chloride has a high flash point, it still poses a safety risk near the fire source; it should also be kept away from oxidants to prevent violent chemical reactions. Transport vehicles need to be equipped with complete emergency treatment equipment, such as leak collection tools, fire extinguishing equipment, etc., to deal with possible leaks, fires and other emergencies.

When using, be sure to operate in a well-ventilated area. Good ventilation can promptly discharge the volatile cocoyl chloride gas, reduce the concentration in the air, and reduce the irritation to the operator’s respiratory tract. Once the vapor is accidentally inhaled, it should be immediately moved to an open area with fresh air to ensure that the respiratory tract can breathe fresh air; if it comes into contact with the eyes, rinse immediately with plenty of water for a long enough time to minimize the damage to the eyes caused by cocoyl chloride, and seek medical treatment as soon as possible and seek professional medical treatment.

Glyceryl Monooleate CAS 111-03-5 is the product of polymerization of oleic acid (octadecenoic acid) and glycerol (glycerol glycerol), which belongs to unsaturated glycerol ester. It can be hydrolyzed under acidic and alkaline conditions, and can also be added to hydrogen and nitrated with nitric acid. According to Bette Chemical: glyceryl monooleate CAS 111-03-5 is a light yellow liquid at room temperature, and compared with ordinary monoglycerides (including molecular distillation monoglycerides), it is easier to disperse and dissolve, can reduce interfacial tension more effectively, and has stronger emulsification ability. Product HLB value 3.8, easy to dissolve in oil, easy to disperse in water.

Health importance of monoolein:

Glyceryl monooleate improves the absorption efficiency of oil-soluble vitamins.

Monoolein has a health function, increasing the content of unsaturated fatty acids in the human body and preventing the risk of cardiovascular and cerebrovascular diseases caused by intake of trans fatty acids.

Glyceryl monooleate CAS 111-03-5 is rich in oleic acid, linoleic acid and a small amount of linolenic acid, of which linoleic acid and linolenic acid can not be synthesized in the human body, and must be supplied by food every day, so it is called essential fatty acid, which is necessary to maintain normal human production and development and health.

Glyceryl monooleate can be completely degraded into oleic acid and glycerol in the body, and participate in the digestion and absorption of the human body, which can reduce the content of bad cholesterol, reduce blood lipids, increase the content of high-density lipoprotein in serum, reduce the generation of thrombosis, protect the health of cardiovascular and cerebrovascular cells, and maintain the normal operation of the growth and development of brain cells, brain nerves and retina.

Glyceryl monooleate is a widely used surfactant product that can be used in industry, food, cosmetics and other fields. The characteristics of UNILONG‘s glycerol monooleate, in addition to insisting on the use of plant-derived premium raw materials, also pay special attention to:

1.Precise design of product molecules

Glycerol has two hydroxyl groups, a- and b. Different hydroxyl groups participate in the reaction, and the product performance varies greatly. For example, compared with b-glycerol monooleate, a-glycerol monooleate has a linear molecule, a longer hydrophilic chain, and better hydrophilic-lipophilic balance. UNILONG can achieve selective control of the reaction of hydroxyl groups and launch products based on a-glycerol monooleate, which have better emulsification and dispersion capabilities.

2.Unique low-freezing point molecular design

Generally, the freezing point of glycerol oleate is ≥8℃, which is very inconvenient to use in winter.

Combined with precise molecular design, UNILONG has specially launched low-freezing point products with a freezing point of ≤-8℃, which can effectively solve the problem of crystallization of conventional products when the weather gets cold. This product is particularly suitable for low-temperature environments and has a wider range of application value in food, industry and other fields.

3.Food-grade specifications with lighter colors

UNILONG has designed a professional food-grade production line to produce glycerol oleate with lighter colors, which is not only suitable for use in the food field, but also in the cosmetics and other industries.

Ethyl Cellulose is a cellulose derivative with a CAS number of 9004-57-3. It is referred to as “EC”. It also has other names such as cellulose ethyl ether and cellulose ethyl ether. By subjecting cellulose to specific chemical modifications, it has a unique chemical structure and properties.

Ethyl cellulose CAS 9004-57-3 generally appears as white granules or fine powder, and is an odorless white or light gray flowing powder. In terms of physical and chemical properties, it has many characteristics. Its density is 1.45g/mL at 20℃, its relative vapor density (compared with air, air = 1) is between 1.07 – 1.18g/mL, and its refractive index is 1.47. Its melting point is in the range of 240 – 255℃, and its vapor pressure is 0.0±2.0 mmHg at 25℃. In terms of solubility, ethyl cellulose can be dissolved in most organic solvents, such as ethyl acetate, butyl acetate, benzene, toluene, xylene, acetone, methanol, ethanol, butanol, 1,2-dichloroethane, carbon tetrachloride, etc., and can be mixed with resins, oil waxes and plasticizers. It has no effect on alkali and dilute acid, but it is insoluble in water.

Uses of ethyl cellulose

Pharmaceutical field

Ethyl cellulose CAS 9004-57-3 plays a vital role in the pharmaceutical field and is a commonly used pharmaceutical excipient. It can be used as a coating agent to put a layer of “protective clothing” on the drug. For example, after wrapping some drugs that are sensitive to gastric acid with a film made of ethyl cellulose, it can pass through the stomach smoothly and reach the intestine for release, avoiding the drug from being destroyed by gastric acid in the stomach, and improving the effectiveness and stability of the drug. At the same time, it can also act as a flavoring agent to improve the taste of the drug and make it easier for patients to accept. In tablet production, ethyl cellulose can also be used as a filler to give the tablet a suitable shape and volume, which is convenient for production and processing and patient administration.

Industrial field

In the coating industry, it is often used as a thickener, adhesive, and film-forming agent. It can be used in the preparation of various coatings such as metal, paper, and rubber. It can make the coating have better adhesion, rheology, and other characteristics, making the coating more uniform, firm, and beautiful.

In electronic paste, it can be used as an organic carrier to prepare electronic paste, providing key material support for the production of electronic components.

In the field of adhesives, it can play a bonding role, allowing different materials to be better bonded together. It is also a member of the advanced insulating materials in the radio industry, used for cable insulation, PCB coating, integrated circuit packaging, etc., to ensure the safe and stable operation of electronic equipment.

Unilong is a professional Ethyl cellulose CAS 9004-57-3 manufacturer, we can provide a variety of product specifications of Organic Chemistry, quality assurance, fast delivery, have in stock.

Glyoxylic Acid CAS 298-12-4 is a hair straightener widely used in styling cosmetics. It came as an excellent alternative to formaldehyde which causes severe damage to human health. Glyoxylic Acid CAS 298-12-4 is not only safer but also more effective. It also works as an anti-static and softening agent. In its raw form, it appears as a transparent liquid that is colorless to light yellow with an obnoxious odor. The chemical formula of Glyoxylic Acid is C2H2O3 and is also known as Oxoacetic acid.

It helps to break and reform disulfide bonds in hair, reducing frizz and curliness, resulting in smoother, shinier hair. Its milder action compared to traditional keratin treatments makes it a popular choice.

Skin care : In skincare, Glyoxylic Acid functions as an exfoliant and a skin-brightening agent.

Glyoxylic Acid is a highly beneficial ingredient in the world of cosmetics.

Hair care : Glyoxylic Acid is used in hair treatments, particularly in hair straightening and smoothing products. It helps to break and reform disulfide bonds in hair, reducing frizz and curliness, resulting in smoother, shinier hair. Its milder action compared to traditional keratin treatments makes it a popular choice

Skin care : In skincare, Glyoxylic Acid functions as an exfoliant and a skin-brightening agent. It helps remove dead skin cells, promoting cell turnover and improving skin texture. Additionally, it can reduce hyperpigmentation and even out skin tone, contributing to a more radiant and youthful appearance

Hair styling ingredient with semi-permanent hair straightening & hair conditioning effect. The carboxylic and aldehyde groups of glyoxylic acid react with the amine groups present in hair keratin resulting in the formation of stable bonds.

In particular, glyoxylic acid produces semi-permanent hair straightening without breaking the cystine disulfide bridge. It provides long lasting relaxing effect of hair fibres, without causing damage to the hair and scalp irritations typical of alkaline chemical and other straightening agents.

Glyoxylic acid from UNILONG is high purity cosmetic grade without glyoxal and without formaldehyde.

Glyoxylic acid finds use in hair straightening formulations to smooth wavy & tightly curly hair. When applied with flat iron it softens natural curls providing shiny silk appearance and improving hair maneageability.

Glyoxylic acid (GA) is widely used as a straight perming agent for hair care products; it penetrates deeply to repair, nourish, and reshape the hair shaft, allowing an intense and long-lasting smoothing action. Its molecules are activated by heat and create a protective net around the hair, keeping it smooth for up to 3 months from the date of application of treatment.

Unilong is a professional Glyoxylic acid manufacturer, we can provide a variety of product specifications of Organic Chemistry, quality assurance, fast delivery, have in stock.

PLGA is copolymerized by lactic acid (LA) and glycolic acid (GA), which can make full use of the advantages of PLA and PGA and make up for their respective shortcomings. The obtained PLGA has good degradability, biocompatibility and outstanding mechanical properties, heat resistance, and degradation controllability, making it the first batch of degradable medical polymer materials certified by (FDA), and is widely used in drug controlled release, medical fiber materials, bone tissue engineering scaffolds and other fields.

PLGA is usually a white solid with a glass transition temperature between 40 and 60 °C. It is in a glassy state at room temperature. The molecular chain shows strong rigidity and is generally an amorphous or semi-crystalline polymer.

The degradation performance of PLGA mainly depends on the copolymer monomer ratio, crystallinity, relative molecular mass, pH value, heat treatment conditions and mechanical load.

Since the GA unit is more hydrophilic than the LA unit, the higher the GA content in the copolymer, the faster the degradation rate. Gentile. summarized the degradation cycle of PLGA with different copolymer monomer ratios. As shown in Table 1, it can be seen that the degradation cycle of PLGA increases exponentially with the increase of LA content. When LA∶GA=50∶50, the degradation rate is the fastest, which is nearly 10 times faster than pure PLA.

What Is PLGA CAS 26780-50-7 Used For?

PLGA has become one of the most widely used degradable medical polymer materials due to its good biocompatibility, degradability and mechanical properties. In practical applications, by controlling the synthesis method and aggregate structure, the degradation rate of PLGA can be effectively regulated to obtain PLGA products that meet the actual application needs, so that it has a broader application prospect in the fields of drug controlled release, medical surgical sutures, bone tissue engineering scaffolds, etc.

‌Dipropyleneglycol Dimethyl Ether (DMM or DME)  is a multi-purpose environmentally friendly solvent with a weak ether odor, moderate evaporation rate, excellent stability and solubility, and high safety for people. Its chemical formula is C8H18O3, molecular weight is 162.13, and it is a colorless and transparent liquid.

Dipropylene Glycol Dimethyl Ether (DPDM) is a low-toxic, moldable, hydrophilic, non-ionic, multi-purpose, environmentally friendly solvent with a slight ether odor, a moderate evaporation rate, excellent chemical stability, extremely excellent solubility, and high safety for people. The United States and the European Union list it as a green solvent for Non HAP/NAP. It is usually used in water-based and curing coatings and chemicals such as medicines and pesticides. It is widely used in cleaning agents, co-solvents, organic synthesis reaction solvents, additives and wetting solvents. It can replace N-methylpyrrolidone for cleaning agents in the electronics industry. In addition, it can also be used to synthesize polyurethanes.

Main uses:

1.  Water-based and curing coatings: Dipropylene glycol dimethyl ether is often used in water-based and curing coatings as a solvent and diluent.
2.  Polyurethane: It can be used to synthesize materials such as polyurethane.
3.  Printing inks and enamels: Dipropylene glycol dimethyl ether is also used as a solvent for printing inks and enamels.
4.  Cutting oils and working oils: It is used as a solvent and detergent in cutting oils and working oils.
5.  Household and industrial cleaners: It is used in household and industrial cleaners, metal cleaners and hard surface cleaners.
6.  Agricultural pesticides: It is used as a stabilizer for agricultural pesticides.
7.  Cosmetics: It is used as a coupling agent and skin care agent in cosmetics.

Unilong is a professional Dipropylene glycol dimethyl ether with CAS 111109-77-4 manufacturer, we can provide a variety of product specifications of Organic Chemistry, quality assurance, fast delivery, have in stock. If you need any help, please contact us.

Poly (p-styrene sulfonic acid)(PSSA) is a polymer used as a hole-injection electrode in polymer-based light-emitting devices. Because of its low toxicity, high water solubility, high conductivity and other advantages, it is mainly used as a conductive polymer for antistatic coatings, polyelectrolytes, electrorecording and electrophotographic substrates and conductive and antistatic resins.

Polystyrene sulfonic acid CAS 28210-41-5 is a kind of polymer material obtained by sulfonic acid treatment based on polystyrene. Its structure makes it have good stability and excellent hydrophilicity, so it can show strong performance in many fields.

What Is Polystyrene sulfonic acid CAS 28210-41-5 Used For?

1.Water treatment

Polystyrene sulfonic acid is particularly widely used in the water treatment industry. It can be used as a flocculant to effectively remove suspended solids and impurities from water. Make the sewage clear and transparent, polystyrene sulfonic acid has a great role.

2.Plastics industry

In the plastics industry, polystyrene sulfonic acid is widely used as a plasticizer. It can improve the processing properties of plastics and make plastic products more flexible and durable.

3.The field of medicine

The application of polystyrene sulfonic acid in the field of medicine is also remarkable. It is used as a carrier in the drug delivery system to help drugs be released into the body more efficiently.

4.Electronics industry

In the electronics industry, polystyrene sulfonic acid is used as a conductive material. Its excellent electrical conductivity makes it an ideal choice for many electronic components.

5.Textile industry

As a highly effective antistatic agent, polystyrene sulfonic acid can significantly reduce the surface resistance of the material and effectively prevent the generation and accumulation of static electricity.

Advantages:

1. widely used in conductive materials, antistatic agent industry

2. low toxicity, high water solubility, high conductivity

3. conductive polymer

If you need Polystyrene Sulfonic Acid CAS 28210-41-5, please contact us.

PVP polyvinylpyrrolidone with CAS 9003-39-8. ‌Its molecular formula is (C6H9NO)n, ‌where n represents the degree of polymerization, ‌that is, the molecular weight of the polymer. ‌PVP has specific chemical structure and physical properties, ‌making it widely used in many fields.

With the increasing severity of global environmental problems, reducing plastic pollution and promoting sustainable development have become urgent issues to be solved. Biodegradable plastics are of great significance to environmental protection because of their ability to degrade in the natural environment and reduce long-term plastic waste. Such materials can be broken down by microorganisms under certain conditions and eventually converted into carbon dioxide, water and biomass, reducing the damage to the ecosystem. However, biodegradable plastics still need to be further optimized in terms of mechanical properties and degradation rate.

‌ The application of polyvinylpyrrolidone  in biodegradable plastics is mainly reflected in its application as a modifier, which significantly improves the mechanical properties and degradation rate of the material by combining with other biodegradable materials. ‌

PVP is a synthetic water-soluble polymer with high solubility, adhesion and chemical stability. Due to its good film formation and chemical stability, PVP can be used as a modifier to combine with other biodegradable materials such as polyvinyl alcohol (PVA) to significantly improve the overall environmental performance of the material. For example, studies have shown that PVP can increase the hydrolysis rate of PVA, thus accelerating the biodegradation process of plastics‌. In addition, the introduction of PVP can also increase the toughness and elasticity of the material, making it more durable and reliable in practical applications‌.

PVP is used as a catalyst to accelerate the degradation of plastics. Compared with traditional plastic degradation technology, PVP catalytic degradation technology has the following advantages:

(1) Low cost: PVP, as a common and cheap polymer, has a relatively low cost of degradation reaction, which is convenient for large-scale application;
(2) Efficient degradation: PVP catalyst can effectively decompose plastics, accelerate the degradation process, so that the degradation rate can be improved, and the degradation effect is more significant;
(3) Environmental protection and sustainable: PVP catalytic degradation technology can achieve efficient degradation of plastics, and will not produce toxic and harmful substances, more friendly to the environment.

The combination of PVP and PVA is a typical successful case. PVA/PVP hydrogels prepared by γ-ray irradiation have demonstrated excellent biodegradability and antimicrobial properties, which makes them have wide application potential in medical and agricultural fields. Specific case studies have shown that the degradation rate of PVA/PVP hydrogels in soil is significantly increased, helping to reduce the environmental impact of agricultural waste‌.

The advantages of PVP as a modifier lie in its high solubility, excellent film formation and chemical stability, which enable it to enhance the mechanical properties and degradation rate of biodegradable plastics. However, PVP is not a fully biodegradable material on its own, so it needs to be combined with other biodegradable materials when used. In addition, PVP is heavily used in aquaculture as a polymer that is difficult to biodegrade and may cause long-term pollution to the environment.

In summary, the application of PVP in biodegradable plastics is mainly through combining with other biodegradable materials to significantly improve the performance and environmental adaptability of materials.‌

‌Cellulose acetate butyrate (CAB)‌ is a cellulose ester produced by the esterification reaction of acetic acid and butyric acid. It is usually white floc or granular material, similar to cellulose acetate‌. Cellulose acetate butyrate has good solubility in polar solvents, especially those containing hydroxyl groups‌. It has good weather resistance and cold resistance, suitable for outdoor use‌. In addition, it also has good thermal stability, with a melting temperature of 140°C and a heat distortion temperature between 45 and 94°C.

Modification research: Cellulose acetate butyrate can be modified to improve its properties. For example, water-soluble resin made of acrylate-grafted cellulose acetate butyrate is synthesized through solution polymerization method, which can significantly improve its hardness, adhesion and other properties‌. In addition, by using maleic anhydride to modify cellulose acetate butyrate, a photocurable coating with good water resistance and high hardness can be obtained‌. These modification methods further expand the application scope of cellulose acetate butyrate.

As we all know, there are many types of CAB. Let us sort the differences between different popular models:

CAB-381-0.1

CAB-381-0.1 product features: low viscosity, faster drying, no yellowing, no cracking.

Application: Adding it to metal coatings can accelerate the release of solvents from the paint film and shorten the touch-drying time; adding it to plastic coatings can enhance wear resistance, color stability, and increase toughness.

CAB-381-0.5

CAB 381-0.5 is a cellulose ester with medium butyryl content and low viscosity. It was designed for use where low-application viscosities at relatively high solids levels is needed. It is soluble in a wide range of solvents and compatible with many other resins. It will also tolerate the use of solvent blends currently exempt from certain air pollution regulations. It is supplied as a dry, free-flowing powder.

CAB-381-0.5 can improve the drying speed, polishing and fluidity of automotive varnishes, thereby bringing a better appearance and improving the coating efficiency of auto repair shops. In wood coatings, it can make the coating resistant to yellowing. In coil coatings, it can improve the matting efficiency, pigment dispersion and co-dispersant of the coating. In printing, it has good leveling and adhesion.

 CAB-381-2

CAB-381-2 product features: excellent weather resistance and UV resistance; excellent flexibility; excellent miscibility, leveling and anti-“runny nose”.

Application: automotive paint, plastic paint, wood paint, ink, leather paint, paper paint to increase drying speed.

 CAB-551-0.01

CAB-551-0.01 has many unique properties that allow it to be used in many different coating applications. It has the lowest Tg (glass transition temperature) and M (n) of the CAB group, which makes it compatible with other coating components. It is compatible with many cross-linking resins and has a low solution viscosity.

In coatings, CAB-551-0.01 provides clear films, reduces surface tack and spotting, minimizes cratering, improves flow and thermal reflow, and provides inter-coat adhesion and good UV stability. Its good compatibility with a variety of curing resin systems and its solubility in a variety of solvents and solvent combinations make it useful as an additive in digital coating compositions. It is often used in gravure printing, inkjet, printing inks, metal coatings, packaging and carton coatings, etc.

CAB-551-0.2

CAB-551-0.2 is a cellulose ester with high butyryl content and low relative molecular weight. It is compatible with many cross-linked resins and can obtain lower viscosity. In coatings, cellulose acetate butyrate (CAB-551-0.2) has good transparency, reduces surface spots, reduces shrinkage, improves fluidity, provides interlayer adhesion and good UV resistance. This product can improve the durability of cross-linked systems. Due to its excellent compatibility and solubility, it can be used as a useful additive in a variety of coating systems.

CAB-551-0.2 has little odor and excellent oil resistance. It can be used for printing inks, paper and fabric coating, and UV resistance. It is widely used in the coating industry and has its uniqueness, which is difficult to be replaced by other chemicals; in the automotive and furniture industries, it has excellent weather resistance and UV resistance.

N-Acetyl-D-Glucosamine CAS 7512-17-6 occupies an important position in biological cells. It is the basic component unit of many important polysaccharides, especially the exoskeleton of crustaceans. Its chemical formula is C8H15NO6 and its molecular weight is 221.21. It appears as a white powder.

N-Acetyl-D-Glucosamine CAS 7512-17-6 plays an important role in the medical field. It is widely used to treat joint diseases such as rheumatic and rheumatoid arthritis. It can relieve joint pain, improve joint mobility, and help slow the progression of joint degeneration.

N-Acetyl-D-Glucosamine CAS 7512-17-6 is widely utilized in pet food, pet nutritional supplements, and pet skincare products due to its notable effects in treating arthritis, preventing urinary infections, reducing hair shedding, boosting immunity, and regulating gut microbiota balance.

In the field of cosmetics, N-Acetyl-D-Glucosamine CAS 7512-17-6 is used to improve skin quality. It can promote the synthesis of collagen, help maintain skin elasticity and moisture, improve skin dryness and aging, and has moisturizing and anti-aging effects.

N-Acetyl-D-Glucosamine, as a novel plant immune inducer, has shown significant effects in disease resistance, yield enhancement, and pesticide mitigation for economically important crops such as tea, fruits, and staple crops like rice.

If you need N-Acetyl-D-Glucosamine CAS 7512-17-6, please contact us.

Polycaprolactone (PCL) is a high molecular weight organic polymer produced by ring-opening polymerization of ε-caprolactone monomer under the catalysis of metal anion complex catalyst. It is a semi-crystalline linear aliphatic polyester.

Polycaprolactone with cas 24980-41-4 has good processing characteristics and can adapt to a variety of processing methods such as extrusion, injection molding, and film blowing. This makes it highly flexible in the production process and can be processed into products of various shapes and sizes according to different needs.

Polycaprolactone exhibits excellent biocompatibility. It has good compatibility with biological cells in the body, cells can grow normally on its scaffold, and can be degraded into CO₂ and H₂O. This property makes polycaprolactone have a wide range of application prospects in the medical field, such as being used as a controlled release drug carrier, cell and tissue culture medium frame, and fully degradable plastic surgical sutures.

Under the background of global “plastic ban”, polycaprolactone has become a rising star in the field of biodegradable plastics with its good biodegradability. As people’s awareness of environmental protection continues to increase, the demand for biodegradable materials will continue to grow.

As a biodegradable green and environmentally friendly material, polycaprolactone has broad application prospects and huge potential in future sustainable development. With the continuous advancement of technology and the continuous expansion of application fields, polycaprolactone will surely play a more important role in various fields.

In today’s rapidly changing science and technology, all kinds of magical substances continue to emerge, bringing many surprises to our lives. And sodium hyaluronate, this seemingly strange term, has quietly entered our lives and become a messenger of beauty and hope.

What is Sodium hyaluronate？

Sodium hyaluronate, also known as hyaluronic acid, CAS 9067-32-7, is a substance that occurs naturally in the human body. It has a powerful moisturizing function, can absorb its own weight of water thousands of times, inject full of water vitality into the skin. In the field of beauty, sodium hyaluronate is a shining star. It is widely used in skin care products, cosmetics and medical cosmetics, bringing beauty and confidence to people.

What is the effect of sodium hyaluronate

1. Moisturizing, nourishing, promoting skin repair and healing, anti-wrinkle and other effects.

2. Sodium hyaluronate has the functions of moisturizing, nourishing and repairing in cosmetics.

3. Efficacy and function of sodium hyaluronate in the fields of medical cosmetology and joint health care.

What is the application of sodium hyaluronate?

Since ancient times, the pursuit of beauty has never stopped. Since ancient times, people have been using a variety of natural substances to maintain the skin. And now, with the development of science and technology, the emergence of sodium hyaluronate has added new impetus to our beauty road. It is like a magic magician, can instantly make the skin become hydrated and smooth, glow with youth. When we have healthy and beautiful skin, we will be more leisurely to face the challenges of life and show the best side of ourselves. Sodium hyaluronate in cream, cream, honey, milk, facial mask, shampoo and other cosmetics as a moisturizing agent, keep skin and hair moisture, increase the role of luster.

However, the significance of sodium hyaluronate is much more than that. In the medical field, it also plays an important role. Sodium hyaluronate can be used to treat joint diseases, relieve pain, and improve joint function. It is like a gentle guardian, bringing hope and comfort to patients. In addition, sodium hyaluronate can also be used in eye surgery, wound healing and other aspects of human health has made a great contribution.

The progress of science and technology has brought us countless possibilities, and sodium hyaluronate is one of them. Its emergence, let us see the pace of human beings in the pursuit of health and beauty on the road. In the future, with the continuous development of science and technology, it is believed that sodium hyaluronate will play a greater role and bring more surprises to our lives.

At the same time, we should also understand and use sodium hyaluronate correctly. In the pursuit of beauty and health, we can not blindly follow the trend, but should choose the right products and methods according to their actual situation. Only in this way can we truly bring out the advantages of sodium hyaluronate and let it bring more beauty to our lives.

What is nonivamide？

Nonivamide, also known as capsaicin, is the active ingredient of the red pepper plant. It is irritating to mammals, including humans, and can create a burning sensation in the skin. The molecular formula of capsaicin is C17H27NO3, molecular weight is 293.4, cas 2444-46-4. This compound has water-repellent lipophilic properties and is colorless and odorless crystalline or waxy compound. Nonivamide is not only found in red pepper, but also widely used in food, medicine and other industrial fields, and has attracted attention for its unique spicy taste and physiological activity. In addition, Nonivamide has some potential health benefits, such as helping with weight loss, which makes it an important object for scientific research and technological development.

Nonivamide is a natural alkaloid. It is a highly volatile, lipophilic and hydrophobic white crystalline powder 85% to 95% of nonivamide can be rapidly absorbed through the gastrointestinal tract. After absorption, nonivamide is mainly metabolized by liver cytochrome enzyme P450, and a small part is hydrolyzed in the small intestine. Metabolites are excreted mainly through the kidneys, and a small part is excreted in the form of prototype feces and urine. After systemic administration, capsaicin concentrations were higher in the brain, spinal cord and liver.

What is nonivamide used for?

Pharmaceutical field: The application of nonivamide in the pharmaceutical field includes analgesia without addiction, inhibition of bacteria and fungi, and promotion of blood circulation. Nonivamide can be made into a rub, tincture, cream, patch and other forms.

Agricultural field: nonivamide as an expelling agent, the use of its strong tear-jerking effect, used in the manufacture of tear-jerking and other expelling equipment, personal defense articles, widely used in agriculture to expel pests and wildlife.

Marine antifouling field: nonivamide is used as a biological antifouling agent, has been used in Marine antifouling coatings, coated on ships and Marine buildings in contact with the seawater to prevent the attachment of algae, shellfish, mollusks and other Marine organisms, in order to prevent the accumulation of aquatic organisms in the hull of the purpose of replacing the traditional organotin antifouling coatings.

Cosmetics and health care products: nonivamide is widely used in food, health care products, cosmetics and other fields, its tear-inducing properties make it an ideal ingredient in these fields.

In addition, nonivamide also has pharmacological effects such as analgesic, anti-inflammatory, frostbite, antipruritic, bactericidal, drug rehabilitation, etc. It should be stored at low temperature, and long-term exposure to air will lead to reduced content.

We are a nonivamide supplier, nonivamide products for a long time in stock supply, can provide different specifications of packaging options, and according to demand for sub-packaging. Unilong is a domestic high-quality chemical supplier, some products can even be delivered on the same day, and the transportation is convenient and fast, and the global delivery, if you need, please feel free to contact me.

Zirconium dicarbonate, ZBC, CAS No. 36577-48-7, zirconium dicarbonate is a white or colorless chemical that is soluble in acid and delixable, requiring airtight storage. Zirconium dicarbonate ZBC is a processing agent used in the production of high-grade paints, coatings and fibers. Let’s take a look at zirconium dicarbonate.

Properties of Zirconium dicarbonate:

Melting point: zirconium dicarbonate has a melting point of 135°C‌.

Solubility: zirconium dicarbonate is insoluble in water and common organic solvents, but soluble in acidic aqueous solutions. It can be dissolved in acetic acid, caprylic acid, capric acid and other organic acids to produce the corresponding organozirconium compounds, and can be dissolved in potassium carbonate and ammonium carbonate to produce the corresponding zirconium carbonate derivative compounds.

Chemical stability: zirconium dicarbonate is easily converted into zirconium oxide at high temperatures and is sensitive to heat sources. At high temperatures, it will decompose and release a molecule of carbon dioxide to produce the corresponding zirconia, so it is also the most economical raw material for the production of ultrafine zirconia ‌.

Storage precautions: zirconium dicarbonate is stored in a cool, ventilated warehouse. The storage temperature should not exceed 37°C.

We are professional zirconium dicarbonate manufacturers, can provide different zirconium carbonate:

What are the applications of zirconium dicarbonate?

‌Industrial uses: Zirconium dicarbonate is used in the manufacture of ternary catalysts, zirconium compound intermediates, chemical reagents ‌.

‌Automotive industry: Zirconium dicarbonate is also used as a catalyst for automotive exhaust gas treatment, playing a key role in reducing harmful substances in automotive exhaust emissions.

Paints and paints: Zirconium dicarbonate plays an important role in the production of high-grade paints and coatings, enhancing the performance and durability of coatings.‌

Fiber treatment agent: In addition, ZBC is used as a fiber treatment agent to improve the physical and chemical properties of the fiber and make it more suitable for specific application scenarios.

In summary, because of its unique physical and chemical properties, zirconium dicarbonate ZBC plays an important role in a number of industrial fields, from automobile exhaust treatment to the manufacture of high-grade coatings, to fiber treatment agents, are inseparable from the application of zirconium dicarbonate.

Polyethyleneimine (PEI) is a cationic polymer with multiple amino groups, CAS number 9002-98-6. PEI has a wide range of applications in various fields due to its unique chemical and physical properties. The diversity and multifunctionality of polyethyleneimine make it a very useful industrial chemical. Next, we will mainly understand the application of polyethyleneimine in the field of polymers. PEI, due to its unique chemical structure and functional properties, can be used as a compatibilizer between polymers. Mainly by forming hydrogen bonds or ionic bonds to interact with different polymer substrates, the compatibility of polymer mixtures is improved. What are the main factors we consider when choosing polyethyleneimine as a compatibilizer?

1. Solubility: PEI with lower molecular weight usually has better solubility, which may help improve its dispersibility in polymer mixtures.

2. Reactivity: PEI with higher molecular weight may have higher reactivity and can react more effectively with other polymer chains to form stronger chemical bonds.

3. Compatibility: The choice of molecular weight also affects the compatibility of PEI with the target polymer. Sometimes, PEI with medium molecular weight may provide the best compatibility and compatibilization effect.

However, polyethyleneimine should be noted that factors such as the concentration, molecular weight, and reaction conditions of polyethyleneimine can affect its effectiveness as a compatibilizer. Different applications may require PEI with different molecular weights. For example, in water treatment or gas purification applications, higher molecular weight PEI may be required to enhance its adsorption performance. In practical applications, it may be necessary to determine the most suitable PEI molecular weight for a specific polymer system through experiments. Usually, suppliers will provide PEI products with different molecular weights to meet the needs of different customers.

At the same time, cost-effectiveness should also be considered. PEI with higher molecular weight may have higher costs. In practical applications, polyethyleneimine may be necessary to determine the most suitable PEI molecular weight for a specific polymer system through experiments. Usually, polyethyleneimine suppliers will provide polyethyleneimine PEI products with different molecular weights to meet the needs of different customers. When selecting the appropriate PEI molecular weight, reference can be made to the technical data sheet (TDS) and safety data sheet (SDS) provided by the Unilong, as well as relevant research literature and experimental data.

In addition, as the specific recommended molecular weight may depend on specific polymer systems and application requirements, polyethyleneimine is recommended to collaborate with materials scientists or chemical engineers to conduct detailed experiments and analysis to determine the optimal PEI molecular weight.

Ethylene carbonate is an organic solvent with excellent properties, which can dissolve various polymers. It can also be used as an organic intermediate, can replace ethylene oxide for dioxylation reaction, and is the main raw material for the production of dimethyl carbonate by transesterification. Ethylene carbonate has a wide range of uses, including as an organic solvent, synthetic intermediate, and solvent for lithium battery electrolyte.

What is ethylene carbonate？

Ethylene carbonate EC, CAS number 96-49-1. EC is a clear colorless liquid with the chemical formula C4H6O3, with a flavor similar to ester, with a melting point of -47 ° C and a boiling point of 126~127 ° C. Ethylene carbonate is non-flammable, insoluble in water, and volatile, and can dissolve in alcohols, ethers, and aromatic hydrocarbons. Ethylene carbonate is a compound widely used in polyester, cosmetics and industry due to its excellent stability and optical transparency and excellent solubility in various media.

Is ethylene carbonate toxic?

Ethylene carbonate (‌EC) ‌is a common chemical raw material in ethylene carbonate (‌EC) ‌ with high boiling point, ‌odorless, and ‌having high solubility to high polymers. Ethylene carbonate itself is exposed to air for crystallization ‌does not cause great harm. The low toxicity of ethylene carbonate means that has less effect on human body when used and treated with ethylene carbonate than some other chemicals. ‌However, to be safe, ‌is still required to avoid contact with skin and eyes, ‌and take appropriate protective measures.

What is ethylene carbonate used for?

Application of Ethylene carbonate in the manufacture of polyester ethylene carbonate plays an important role in manufacturing polyester materials. Polyester materials are widely used in food packaging, beverage bottles, chemical fibers, automotive parts and other fields. Ethylene carbonate is an important intermediate in the production of polyester. Through polymerization reaction, Ethylene carbonate can be combined with ethylene glycol to form polyester chain to form polyester material. Polyester has many properties such as high hardness, good strength and UV radiation resistance, so it is widely used.

Application of ethylene carbonate in industrial applications

Ethylene carbonate also plays an important role in industrial production. As a catalyst for the synthesis of polymers and coatings, Ethylene carbonate can be used to produce various functional polyamides, epoxy resins and aliphatic polyesters. In addition, Ethylene carbonate can also be used as an intermediate of furan resin to accelerate the hardening reaction of the material and improve process parameters and product quality. Ethylene carbonate can be used as pharmaceutical ingredient and raw material, fiber finishing agent, water glass slurry, etc. In addition, it can also be used as a solvent to remove acid gas and as an additive to concrete.

Use of ethylene carbonate in cosmetics and personal care products

Ethylene carbonate is also widely used in cosmetics and personal care products such as lipstick, nail polish, sunscreen and shampoo. Ethylene carbonate can be used to increase the opacity of cosmetics, improve surface gloss, and enhance the durability of ink coatings. Ethylene carbonate can also be used to manufacture artificial pearls and increase the stability of the material.

Application of ethylene carbonate to lithium battery

Ethylene carbonate is an excellent solvent for lithium-ion battery electrolyte in the battery industry, especially in lithium-ion batteries, where its electrolyte composition with high permittivity is crucial for improving battery performance. In order to reduce the viscosity and melting point of the electrolyte, other components such as dimethyl carbonate and methyl ethyl carbonate can be added.

To sum up, vinyl carbonate not only has a variety of applications in the chemical industry, but also plays an important role in new energy fields such as the production of lithium battery electrolytes. With the continuous development of new energy technologies, the demand for vinyl carbonate is expected to grow further. Our company is a professional manufacturer of ethylene carbonate with rich experience in the chemical industry. As we produce and market ethylene carbonate by ourselves, we have advantages in ethylene carbonate bulk price. At the same time, I hope this article can help you understand the product ethylene carbonate.

Glyoxylic acid monohydrate is an important chemical intermediate which is mainly used in pharmaceutical, pesticide, dye and plastic industries. The synthesis process of Glyoxylic acid monohydrate has been optimized to reduce environmental pollution and improve production efficiency. At present, the market demand for this compound is steadily growing, especially in the field of green chemistry, as it can be used as a feedstock for biodegradable polymers, in line with the sustainable development trend.

What is glyoxylic acid monohydrate?

Glyoxylic acid monohydrate has the formula C2H4O4, molecular weight ‌ 92.05, cas 563-96-2. ‌Glyoxylic acid monohydrate exhibits stable chemical properties at room temperature and pressure ‌but it decomposes when heated or in contact with strong acids and ‌ bases, ‌forming acetaldehyde and carbon dioxide. ‌In addition, ‌glyoxylic acid monohydrate can be formed into complexes with metal ions, ‌can also be esterified, ‌ these properties make it a commonly used intermediate in organic synthesis.

Glyoxylic acid monohydrate has the properties of both aldehydes and acids, ‌which makes it play an important role in chemical synthesis. ‌The compound is also widely found in nature ‌ it is found both in immature fruits and in the tender green leaves. ‌

What is glyoxylic acid monohydrate used for? ‌

Medical field

Glyoxylic acid hydrate can be used as pharmaceutical raw material ‌especially in the preparation of some drugs has many uses in medicine, can be directly used, ‌can also be used as an additive, can be used as a cosmetic additive in light chemical industry, ‌can be used as a plant growth regulator in agriculture.

Industrial field

Glyoxylic acid hydrate can also be used as raw material for some fine chemical products, such as automotive paint additive.

Fragrance synthesis

Glyoxylic acid hydrate can be used to synthesize vanillin, ‌ethyl vanillin and other fragrances, ‌these fragrances are widely used in cosmetics, soap, ‌cigarettes, pastries, ‌ confectionery and baked goods, ‌is one of the most widely used fragrances. ‌

Field of pesticide production

In the field of pesticides, glyoxylic acid hydrate can be used to produce products such as glyphosate. ‌

Other applications

Glyoxylic acid hydrate can also be used to synthesize compounds such as p-hydroxyphenylacetic acid, ‌these compounds are also widely used in a variety of industries.

Because of its unique chemical properties, ‌ plays an important role in many fields such as medicine, ‌fine chemical industry, ‌spices and pesticides. Due to a wide range of uses, the market demand is relatively large, glyoxylic acid monohydrate price is also uneven, so we must pay attention to the selection of procurement. We are a professional glyoxylic acid monohydrate manufacturer, engaged in chemical production for more than 10 years, with a professional R & D team and advanced machinery and equipment, any question about the product, welcome to consult, look forward to working with you.

What is polyethyleneimine?

Polyethyleneimine (PEI), cas 9002-98-6 is a polymer compound with rich functional groups, which is widely used in chemistry, materials, biology and other fields. Polyvinylimide is a water-soluble polymer produced by the polymerization of ethylene imide. It is not a completely linear polymer, but a partially branched-chain polymer containing primary, secondary and tertiary amines. Polyvinylimide and other low molecular weight amines have a variety of chemical reactivity, and can be modified. Characteristics of Polyethyleneimine: Cation density in existing material, very high activity, water soluble ability.

Polyethyleneimine is a kind of synthetic material with a wide range of uses, which plays an important role in many fields. Polyethyleneimine has excellent properties and various application characteristics, making it one of the indispensable materials in industrial production and scientific research.

What is the use of polyethyleneimine?

1. Textile industry

Polyethyleneimine plays an important role in the textile industry. PEI can be used as a dyeing aid for textiles, which can improve the adsorption performance and color fixation of dyes, so that the dyeing effect is more bright and lasting. In addition, PEI can also be used as an antistatic agent for textiles, which can effectively reduce the electrostatic friction between textiles and the human body or other objects and prevent the adverse effects of static electricity.

2. Water treatment industry

Polyethyleneimine is also widely used in the water treatment industry. Due to its excellent adsorption capacity and ion exchange properties, polyvinylimide is widely used in water treatment for pollutant removal and wastewater treatment. PEI can absorb and remove pollutants such as heavy metal ions, organic matter and suspended matter in water, and improve the purification effect of water quality. At the same time, polyethylene imide can also be used as an auxiliary agent of water treatment agent, which can improve the stability and effect of water treatment agent.

3. Medical field

PEI is also widely used in medicine. PEI can be used as a sustained release agent and a controlled release agent of drugs, which can extend the release time of drugs and improve the stability of drugs to achieve better therapeutic effects. Polyethyleneimine can also be used to make drug carriers and drug delivery systems to treat systemic diseases, etc.

4. Electronics industry

PEI is also widely used in the electronics industry. Polyethyleneimine can be used as encapsulation material and insulation material for electronic components to improve the stability and reliability of electronic components. PEI can also be used as a thermal conductivity material and heat dissipation material for electronic equipment, which can effectively improve the heat dissipation performance of electronic equipment and prevent failure and damage caused by overheating.

In addition to these areas, polyethyleneimine has many other applications. For example, PEI can be used as a reinforcer for paper and a thickener for coatings, which can improve the strength of paper and the adhesion of coatings. Polyethyleneimine can also be used as an oil field production agent and oil exploration agent to improve the production rate and exploration efficiency of reservoirs.

PEI is a versatile synthetic material that plays an important role in textiles, water treatment, medicine, electronics and many other fields. Polyethyleneimine’s excellent performance and diverse application characteristics make it one of the important materials in industrial production and scientific research. With the development and innovation of science and technology, the application prospect of Polyethyleneimine will be broader.

Unilong is a professional polyethyleneimine manufacturer, with advanced production equipment and production lines, and is equipped with professional R&D team and technical personnel. Adhering to the purpose of “quality first, integrity management”, the company constantly improves the quality of products and has developed into a leader in the industry.

Brushing teeth is something people do every day, and for the sake of oral health, people have to brush their teeth twice a day in the morning and evening. So how should we choose toothpaste? The main function of toothpaste is to clean teeth. Toothpaste is essentially a cleaning agent, and its basic function is to clean the oral cavity. If it has whitening, cavity prevention, desensitization, hemostasis and other effects, it is only auxiliary. At present, the common toothpaste additive in toothpaste is SMFP. Let’s take a look at SMFP.

What is SMFP?

SMFP is actually sodium monofluorophosphate, CAS number 10163-15-2. It is a white powdery solid with a melting point of about 626 ℃. It is easily soluble in water and has strong hygroscopicity. SMFP is a dental toothpaste abrasive, anti caries agent, and desensitizer used to protect the source of fluoride toothpaste treatment, with a total cost of 0.8%. It also serves as a raw material for preparing monofluorophosphates for fluoride content in drinking water and metal surface cleaning agents.

SMFP is a widely used toothpaste additive worldwide, used as an anti caries agent and toothpaste desensitizer. In addition, it is also used as a preservative and bactericide. The conventional addition amount in toothpaste is 0.76% by weight.

Is SMFP safe?

SMFP is an inorganic compound, and sodium monofluorophosphate can play a role in preventing tooth decay and improving tooth sensitivity in toothpaste. For pregnant women, sodium monofluorophosphate toothpaste can be used, but attention should be paid to the amount used to avoid excessive intake. For children, especially those under 6 years old, it is not recommended to use toothpaste containing sodium monofluorophosphate, as children may swallow toothpaste and long-term ingestion may cause fluorosis, leading to tooth deformities, softening, loss of enamel luster, and other problems.

Overall, SMFP toothpaste is beneficial for dental health, but caution should be exercised when using it in moderation, especially for special populations such as children and pregnant women.

What is SMFP used for?

SMFP application in toothpaste

Sodium monofluorophosphate is widely used in fluoride toothpaste, which can promote tooth remineralization and prevent tooth decay. It has good therapeutic effects on people with sensitive teeth and does not irritate teeth after use.

SMFP application in Food

Sodium monofluorophosphate can be used as a food additive in food as a source of fluorine. Some of the chewing gums we are familiar with include sodium monofluorophosphate in the raw materials, which makes these gums have functions such as caries prevention, desensitization, antibacterial and sterilization.

SMFP application in medical field

Sodium monofluorophosphate can promote bone cell differentiation and diffusion, leading to an increase in bone mass. Sodium fluoride also has the same function, but when taking equal amounts of both substances, sodium monofluorophosphate nitrocellulose promotes more bone mass growth. This chemical raw material can also be used to regulate blood lipids and lipoprotein metabolism in postmenopausal women.

In general, sodium monofluorophosphate (SMFP) is a high value-added fluorine containing inorganic fine chemical, mainly used as an anti-caries fluoride toothpaste additive, but also can be used as a preservative, fungicide, co-solvent, metal surface oxide cleaning agent, food additives, corrosion inhibitors, drinking water fluoridation, relieve osteoporosis and so on.

N-vinylcaprolactam physical properties

N-vinylcaprolactam is a white to light yellow solid with good solubility and thermal stability. These physical properties make it widely applicable in the preparation of polymer materials.

N-vinylcaprolactam product performance

Ethylene caprolactam (CAS No. 2235-00-9) is an olefin monomer. Its unsaturated double bond activity is high, and homopolymers and copolymers have inherent characteristics such as high polarity, water solubility, chemical stability, low toxicity, and cationic activity. In the field of radiation curing, it can improve the adhesion of coatings and inks, and has good adhesion to different substrates. It is a high value-added, environmentally friendly adhesive monomer. Meanwhile, it is also an ethylene based monomer suitable for UV curing reactions, which can be used in UV coatings UV ink UV polymerization reactions of various unsaturated systems such as UV adhesives. L is suitable for free radical curing systems.

Vinyl groups, N-vinylcaprolactam molecules contain vinyl groups, which give it strong activity and can participate in many important chemical reactions, such as polymerization and crosslinking reactions.

N-vinylcaprolactam product structure

N-vinylcaprolactam is an important organic compound with the molecular formula C10H17N02. Its structure contains a caprolactam ring and a vinyl group, which gives it unique properties and applications.

N-vinylcaprolactam features and applications:

Summary: It is a solid at room temperature, with a melting point of 34 degrees and good adhesion. Due to its unique structure and properties, N-vinylcaprolactam has important application value in fields such as medicine, cosmetics, food packaging, inks, coatings, etc. It can be used for the preparation of biomedical materials, modification of water-based coatings, etc

1. High performance UV ink. Especially in inkjet, it exhibits good curing speed, adhesion, and dilution performance, making it a mainstream UV raw material

2. High performance UV adhesive

Adhesion: Balanced hardness and toughness, exhibiting excellent adhesion on various metal substrates.

Elucibility: At 50 degrees, the viscosity is 2.88mpa. s, with good dilution performance, recommended for UV inkjet UV screen printing ink.

In general, N-vinylcaprolactam produced by Unilong has a unique molecular structure and a variety of application characteristics, which has an important position and broad application prospect in the field of chemical engineering and materials science.

Octadecanethiol is an organic sulfur compound with the chemical formula C18H38S. Octadecanethiol is liquid clear, transparent and oily at temperatures above 35 degrees Celsius, and solid white wax at temperatures below 35 degrees Celsius.

Octadecanethiol is mainly used in electroplating additives, surfactants, etc., as a protective agent for nickel, copper, tin, gold, silver plating, improving salt spray and functionality. The coating layer is uniform and not easy to yellow, the surface washing ability is good, and the corrosion resistance of sulfide is strong. Octadecanethiol is a master of metal protection and has significant effects in protecting metals. When exposed to air, metals are often vulnerable to oxidation, which leads to corrosion. And octadecanethiol is like a “metal bodyguard”, it can form a protective film with the metal surface, blocking oxygen in the air, so as to effectively resist the damage of corrosion. It is like putting a strong suit of armor on the metal to protect it from the claws of corrosion.

Mercaptan is one of the widely used film forming agents in water-soluble gold and silver protective agents. In fact, research on the protection of silver faces dates back to the 1930s. There are two main protection methods adopted at the earliest. One is to use thiazole, imidazole, mertan and other organic substances to react with silver surface to form an organic film, which covers the silver surface to play a protective role. The other is the use of aluminum chloride, lithium chloride and other salts, using their own hydrolysis reaction, the formation of colloids to fill the silver gap, so as to achieve protection. In recent years, through the study of polymer chemistry, the selection of emulsifiers, and the screening of organic membrane components, the performance of silver surface protectants has reached a good effect.

In many experiments, dodecyl mercaptan, tetradecyl mercaptan, hexadecyl mercaptan and octadecanethiol  have been proved to be more effective mercaptan. Among the mature formulations, hexadecylmercaptan and octadecylmercaptan are more commonly used. UNILONG is a professional manufacturer of mercaptan series products such as octadecanethiol, specializing in the research and development and sales of plating brightener intermediates and plating additives, and independently producing silver plating brightener intermediates. In the application of metal environmental protection agent core materials, we have specially prepared special octadecanethiol  and 1-Docosanethiol according to the performance of protective agent film formation, which has shown excellent performance in new energy silver plating anti-vulcanization test and sulfuric acid boiling test.

The 1-Docosanethiol chemical formula is C22H46S. 1-Docosanethiol is liquid clear, transparent and oily at temperatures above 50 degrees Celsius, and solid white wax at temperatures below 45 degrees Celsius. 1-Docosanethiol can make up for the deficiency of octadecanethiol, the film natural curing fast, good surface washing, strong corrosion resistance. It has good application in coating and mechanical polishing protection of silver jewelry.

Of course, in addition to metal protection can play a vital role, as an important raw material for organic sulfide synthesis, it is also used in industrial production, daily chemical supplies and other fields.

For example, in cosmetics, octadecanethiol can be used as a beauty and skin care ingredient, with multiple effects such as antioxidant, moisturizing and soothing inflammation. At the same time, it is also a natural sunscreen, it has good light absorption properties, can effectively absorb ultraviolet rays, protect the skin from damage. In addition, octadecanethiol can also be used to prepare soft rubber products, so that it has better elasticity and wear resistance.

In addition, as a common organic sulfur compound, octadecanethiol is also widely used in the field of cleaning agents. Due to its strong solubility and decontamination effect, it is widely used in cleaning agents and descaling agents. In industrial production, octadecanethiol cleaners can be used to remove oil stains on machinery and equipment, candle stains and other difficult to clean dirt. In daily life, octadecanethiol cleaners can be used to clean surfaces such as kitchen utensils and bathroom facilities, effectively removing stubborn stains and maintaining cleanliness.

Finally, octadecanethiol is also very important in chemical experiments. Due to its low volatility and extremely low toxicity, it is ideal for many industrial and laboratory applications. In chemical synthesis, octadecanethiol can be used as a solvent to dissolve and catalyze the reaction substance, promote the reaction, accelerate the reaction speed, and improve the efficiency of chemical synthesis. In addition, it can also be used as an extractant to separate and purify organic compounds, thus playing an important role in chemical research and industrial production.

In short, the unique properties of octadecanethiol make it an indispensable and important substance in metal protection, chemical synthesis, industrial production and daily chemical products. With the continuous development of science and technology, we can foresee that the application of octadecanethiol in more fields will continue to expand and deepen.

POLYETHYLENEIMINE (PEI), cas number 9002-98-6, is an important synthetic polymer material with a variety of special properties and a wide range of applications. It is a linear polymer that is synthesized from ethylene imide monomer by polymerization. POLYETHYLENEIMINE has high molecular weight, high branching, abundant amine groups, etc., which makes it have a wide application prospect in the field of electronics, opto-electronics, and aviation.

POLYETHYLENEIMINE is a polymer with good solubility that dissolves in a variety of solvents. It has a high solubility in water and can form a stable colloidal solution with water. This dissolution property makes PEI have good processability and controllability, and can be prepared by solution method, thermoforming, spraying and other methods of different shapes and sizes of materials.

What are the characteristics of POLYETHYLENEIMINE?

1. Waterproof: POLYETHYLENEIMINE has good waterproof performance, which can effectively prevent water penetration and leakage.

2. Heat insulation: POLYETHYLENEIMINE has good heat insulation performance and can effectively prevent the transfer of heat energy.

3. Freshness/POLYETHYLENEIMINE has strong airtight performance, which can effectively maintain the freshness of food and other items and extend the shelf life.

4. Corrosion resistance: POLYETHYLENEIMINE has high corrosion resistance and is able to resist the attack of certain chemicals.

5. High strength: POLYETHYLENEIMINE has high strength and is able to effectively resist pull, pull, squeeze and other forces.

What is the use of POLYETHYLENEIMINE?

1. Electronics.

POLYETHYLENEIMINE is an excellent insulating material with excellent electrical insulation properties and high temperature resistance. Therefore, it is widely used in the insulation layer of electronic components, circuit boards, cables and other fields. In the semiconductor manufacturing process, PEI is also used as a thin film substrate for the manufacture of high-density integrated circuits.

2. Photoelectric field

POLYETHYLENEIMINE has excellent transparency and high temperature resistance, so it is widely used in the field of photoelectricity. For example, it can be used as a substrate material for solar panels, and it can also be used to make LED packaging materials.

3. Aerospace

POLYETHYLENEIMINE has excellent physical properties such as light weight, high strength and high temperature resistance, so it is widely used in the aerospace field. For example, it can be used as thermal insulation material, thermal conductivity material, protective material, etc.

4. Medical field

POLYETHYLENEIMINE has excellent biocompatibility and high temperature resistance, so it is widely used in the medical field. For example, it can be used as medical dressings, surgical instruments, medical packaging materials, etc.

5. Other areas

POLYETHYLENEIMINE can also be used to make materials in hot environments like hot tape, hot cables, hot pipes, etc. In addition, PEI can also be used to manufacture high-strength fibers, high-performance composite materials and so on.

In summary, POLYETHYLENEIMINE is an excellent polymer material that can be used in a wide range of applications. POLYETHYLENEIMINE has the characteristics of water proofing, heat insulation, and freshness, which makes PEI widely used in many fields such as construction, power, chemical industry, and medical treatment. It is believed that with the development of materials science, the role and application field of PEI will continue to expand.

Product name: Instant boron, foliar fertilizer, disodium octaborate tetrahydrate
Chemical formula: Na2B8O13.4H2O
Product boron content: 20%-21%
CAS: 12280-03-4
HS code: 2840190000

High-content disodium octaborate tetrahydrate—-Foliar spray boron fertilizer is a high-efficiency instant boron fertilizer. It is specially designed to speed up the growth of roots, stems, flowers, buds and ears of crops such as rapeseed, cotton, fruits and vegetables, fruit trees, flowers and other crops by spraying boron fertilizer quickly. After use, the above-mentioned crops can increase their stems, flowers and buds, making their fruits and grains fuller. It has a certain effect on physiological diseases caused by boron deficiency and achieves the purpose of increasing yield.

What is the Features of Disodium octaborate tetrahydrate?

1. High content: pure boron content ≥21%, sodium borate content ≥99.9%.
2. Fast dissolution: even at low temperatures, it can quickly dissolve into water or more viscous liquids.
3. Easy to absorb: After application, it can be quickly absorbed and utilized by plant leaves, stems, flowers and fruits, and has obvious top dressing effect on crops.
4. Good mixability: the aqueous solution is close to neutral and can be mixed with most chemical pesticides for application.
5. The yield increase effect is obvious: In areas where the soil is deficient in boron, the application of this product has an obvious yield increase effect and significantly improves crop quality. Low investment, quick results, improved quality, and improved crop stress resistance.
6. Convenient and safe application: it can be quickly dissolved and sprayed at any temperature, and has no residual toxicity to soil and crops.

What is the Application of Disodium octaborate tetrahydrate?

Fertilizer: Plant growth regulator, foliar boron deficiency.
Wood protection: Prevents wood from rotting due to microbial attack.
Fungicides: Fungicides, insecticides, fungus protection.
Water treatment: Water treatment chemicals to make water suitable for drinking.
Soap/Surfactant: Compounds with surface-activating or detergent properties.
Solvent: A liquid mixture that dissolves other substances.
Pheromones: Insect sex attraction hormones used to interfere with mating and selectively kill specific insect species.
Defoliant: Defoliating broad-leaved plants, commonly used to remove leaves before cotton harvest.
Industry: Flame retardant, anti-corrosion, cleaning products.
Disodium octaborate tetrahydrate other applications
Water treatment: Water treatment chemicals to make water suitable for drinking.
Soap/Surfactant: Compounds with surface-activating or detergent properties.
Solvent: A liquid mixture that dissolves other substances.
Pheromones: Insect sex attraction hormones used to interfere with mating and selectively kill specific insect species.
Defoliant: Defoliating broad-leaved plants, commonly used to remove leaves before cotton harvest.
Industry: Flame retardant, anti-corrosion, cleaning products.

Spraying method

Mix 1g of product with 100ml of water to dissolve.
One acre of land uses 45g of product (actually adjusted according to the environment).
Sow seeds three times a year: once for sowing, once for flowering, and once for fruiting.

Packaging method

20kg/bag, plastic inner and outer braid, 5kg/bag, aluminum foil bag