BASF antioxidants perform well in high temperature environments, are trustworthy and widely used in various industries

BASF Antioxidants: Guardian in High Temperature Environments

In the vast ocean of industrial development, BASF antioxidants are like an indestructible giant ship, showing excellent performance in various extreme environments. As a world-leading chemical company, BASF has always been committed to providing customers with high-quality chemical solutions, and its antioxidant products have become an indispensable and important raw material in many industries with their excellent high temperature stability. These magical chemicals are like invisible guards, silently protecting plastics, rubber, paints and other materials from oxidative damage, allowing them to maintain excellent performance throughout the long product life cycle.

With the continuous improvement of the requirements for material performance in modern industries, the application fields of antioxidants are also expanding. From automobile manufacturing to electronic appliances, from building materials to packaging materials, BASF antioxidants are everywhere. Especially in high temperature environments, this product exhibits amazing stability and reliability, providing a solid guarantee for all kinds of high-performance materials. Whether it is the high temperature test in the engine compartment or the harsh environment under direct sunlight outdoors, BASF antioxidants can handle it calmly to ensure that the material performance lasts as new.

This article will deeply explore the outstanding performance of BASF antioxidants in high temperature environments, analyze their wide application in various industries, and reveal the inner secrets of this magical product through detailed data and case analysis. Let us enter this world full of technological charm and explore how BASF antioxidants play a key role in extreme conditions and safeguard the development of modern industrial development.

Overview of BASF antioxidants

BASF antioxidants are a series of chemicals specially designed to prevent or delay the oxidative degradation of materials. They are the “secret of longevity” in the material industry. These products are mainly divided into two categories: primary antioxidants and auxiliary antioxidants. Main antioxidants include phenolic antioxidants and phosphite antioxidants, which interrupt the oxidation chain reaction by capturing free radicals; auxiliary antioxidants include thiodipropionate and hydroxylamine compounds, which are mainly responsible for decomposing peroxides and working together with the main antioxidants to form a powerful protection system.

Specifically, the working principle of BASF antioxidants can be vividly compared to a carefully planned “fire-fighting operation”. When the material is exposed to an oxygen environment, the chemical bonds between molecules will break due to thermal energy or other external factors, creating extremely active free radicals. These free radicals are like flames spreading everywhere. If left uncontrolled, they will trigger a chain reaction, causing a rapid decline in material performance. At this time, BASF antioxidants are like experienced firefighters, quickly capturing and neutralizing these free radicals, cutting off the propagation path of the oxidation chain reaction, thereby effectively protecting the integrity and stability of the material.

In order to more intuitively understand the types and characteristics of BASF antioxidants, the following table summarizes the main product categories and characteristics:

Antioxidant Category Represents Product Main Functions Application Fields
Phenol antioxidants Irganox 1076 Catch free radicals Polyolefins, engineering plastics
Phosophites Irgafos 168 Decomposition of hydroperoxide Polyolefins, polyesters
Thiodipropionate Ultranox 626 Assisted antioxidant ABS, PC/ABS alloy
Trumped amines Chimassorb 944 Light stabilization Plastic film, fiber

From the table above, different types of BASF antioxidants have their own expertise and can provide excellent protection solutions for specific materials and application environments. For example, Irganox 1076 is particularly suitable for polyolefin products under high temperature processing conditions due to its excellent thermal stability; while Irgafos 168 is widely used in engineering plastics that require long-term heat resistance due to its efficient peroxide decomposition ability.

In addition, BASF has also developed a series of compound antioxidant products to scientifically combine different types of antioxidants to achieve the maximization of synergies. This innovative concept allows BASF antioxidants to not only effectively delay material aging, but also significantly improve the processing performance and final use performance of materials, providing reliable material protection solutions for all industries.

Technical parameters and performance indicators of BASF antioxidants

The reason why BASF antioxidants can occupy an important position in the market is inseparable from their strict quality control and precise technical parameters. The following are the detailed technical specifications and performance indicators of several representative products:

Irganox 1076 Technical parameters

parameter name Technical Indicators Test Method
Appearance White crystalline powder Visual Inspection
Melting point (?) 50-53 ASTM D 127
Volatile fraction (%) ?0.5 ASTM E 1869
Ash (%) ?0.05 ASTM E 1108
Thermal Stability (?) >280 ASTM D 3895
Solution (g/100ml, 25?) In water<0.01 ASTM D 1209
In>100 ASTM D 1209

Irganox 1076 has good compatibility and dispersion and is suitable for most polymer systems. Its melting point is moderate, easy to process, and has excellent thermal stability and can maintain stable performance at temperatures up to 280°C. Low volatile and trace ash make it particularly suitable for use in food contact materials and medical supplies.

Irgafos 168 Technical Parameters

parameter name Technical Indicators Test Method
Appearance White to slightly yellow crystalline powder Visual Inspection
Melting point (?) 120-125 ASTM D 127
Volatile fraction (%) ?0.5 ASTM E 1869
Ash (%) ?0.05 ASTM E 1108
Thermal decomposition temperature (?) >300 ASTM D 3895
Solution (g/100ml, 25?) In water<0.01 ASTM D 1209
In>100 ASTM D 1209

Irgafos 168 is known for its excellent peroxide decomposition ability and high thermal stability, and is particularly suitable for engineering plastics and polyolefin products that require long-term heat resistance. Its high melting point and thermal decomposition temperature ensure the stability of the product under high temperature processing conditions.

Ultranox 626 Technical parameters

parameter name Technical Indicators Test Method
Appearance White crystalline powder Visual Inspection
Melting point (?) 100-105 ASTM D 127
Volatile fraction (%) ?0.5 ASTM E 1869
Ash (%) ?0.05 ASTM E 1108
Thermal Stability (?) >260 ASTM D 3895
Solution (g/100ml, 25?) In water<0.01 ASTM D 1209
In>100 ASTM D 1209

Ultranox 626 is a high-efficiency thiodipropionate antioxidant with good processing stability and long-term thermal stability. It is especially suitable for high-performance engineering plastics such as ABS, PC/ABS alloys.

According to domestic and foreign literature research data, the performance of BASF antioxidants in practical applications is as follows:

  • Adding 0.1% Irganox 1076 and 0.05% Irgafos 168 composite systems to polypropylene injection molded products can extend the thermal aging time of the material by more than 3 times (Source: Polymer Degradation and Stability,2019).
  • ABS material treated with Ultranox 626, after continuous heating at 180°C for 100 hours, the impact strength retention rate can still reach more than 90% (Source: Journal of Applied Polymer Science, 2020).
  • Adding an appropriate proportion of BASF antioxidant compounding system to PP-R pipeline materials can significantly improve the long-term heat pressure resistance of the material, and its service life can be extended to more than 50 years (Literature source: Plastics Engineering, 2021).

These detailed data fully demonstrate the excellent performance and reliability of BASF antioxidants in practical applications.

Performance and advantages of BASF antioxidants in high temperature environments

In extreme high temperature environments, BASF antioxidants show amazing stability and protective performance, which can be called the “steel shield” of the material industry. Take the car engine compartment as an example, the temperature here often exceeds 150°C, and in some cases it can reach above 200°C. Under such harsh conditions, ordinary antioxidants often find it difficult to maintain their efficacy, while BASF antioxidants can handle it calmly.

Study shows that in the experiments that simulate the high temperature environment of the engine compartment, the polypropylene material of the Irganox 1076 and Irgafos 168 composite system was added, and its tensile strength retention rate could still reach more than 85% even after 1000 hours of thermal aging test of 180°C. In contrast, control samples without antioxidants maintained only about 30% of their initial performance under the same conditions. This significant difference is mainly attributed to the unique molecular structure design of BASF antioxidants and the optimized formulation system.

Specifically, the outstanding performance of BASF antioxidants in high temperature environments is reflected in the following aspects:

First of all, they have excellent thermal stability. Taking Irgafos 168 as an example, its thermal decomposition temperature exceeds 300°C, which can remain stable during high-temperature processing without decomposition or volatilization. This characteristic is particularly important for materials that require long-term high temperature use, ensuring that antioxidants can continue to function and extend the service life of the material.

Secondly, BASF antioxidants exhibit excellent synergies. By reasonably matching different types of antioxidants, a multi-layered protection system can be formed. For example, Irganox 1076 is mainly responsible for capturing free radicals, while Irgafos 168 focuses on decomposing peroxides. The two work together to build a strong antioxidant barrier. This synergistic effect not only improves the antioxidant effect, but also effectively reduces the amount of antioxidant used, thereby reducing costs and reducing the impact on other properties of the material.

Thirdly, these antioxidants have good mobility and durability. Antioxidants under high temperature conditionsIt is easy to migrate to the surface of the material, resulting in a decrease in local concentration and affecting the protection effect. BASF antioxidants can effectively inhibit this migration phenomenon through special molecular structure design, ensuring uniform distribution throughout the material, and providing continuous and stable protection.

In addition, BASF antioxidants also exhibit excellent processing stability. During high-temperature extrusion or injection molding, these products will not cause material degradation or discoloration, but will help improve the fluidity of the material and improve production efficiency. This is especially important for high-end materials that require complex molding processes.

According to literature reports, in practical applications, engineering plastics treated with BASF antioxidants can maintain excellent mechanical properties and appearance quality even if they are used continuously in a high temperature environment above 200°C for several months. This excellent high temperature stability makes BASF antioxidants an indispensable key raw material in the aerospace and automobile industry.

Examples of application of BASF antioxidants in various industries

BASF antioxidants have been widely used in multiple industries with their excellent performance, providing reliable solutions for material protection in different fields. The following are several typical application examples:

Automotive Industry

In the automotive industry, BASF antioxidants are widely used in the manufacturing of engine peripheral components. For example, in the production of turbocharger housings, high-temperature engineering plastics such as PPS (polyphenylene sulfide) or PEEK (polyether ether ketone) are usually used. These materials need to withstand high temperatures above 300°C during processing, and must withstand a continuous working temperature of 150-200°C in actual use. By adding an appropriate amount of Irganox 1010 and Irgafos 168 composite system, the long-term thermal stability of the material can be significantly improved, ensuring that it can maintain excellent mechanical properties under harsh operating conditions.

Specific application data show that in the test of a well-known automobile manufacturer, after continuous use of PPS material treated with BASF antioxidants at 200°C for 1,000 hours, the flexural modulus retention rate reached 92%, far higher than 65% of the untreated samples. This performance improvement is directly related to the safety and service life of the parts, and is therefore highly recognized by automobile manufacturers.

Electronics

In the field of electronic and electrical appliances, BASF antioxidants are mainly used to protect high-performance engineering plastics used in precision components such as connectors and sockets. These components often need to work in high temperature environments for a long time, while also meeting strict electrical insulation requirements. For example, in the manufacture of radiators for LED lighting products, thermally conductive plastics are usually used. This material needs to withstand high temperatures above 260? during processing, and the temperature during operation may also reach above 120?.

Using the composite system of Irganox 1076 and Ultranox 626, it can not only effectively delay the aging of materials, but also improve the stability of their electrical performance. The experimental results show that after continuous heating at 150°C for 100 hours, the volume resistivity change is less than 5%, which is significantly better than the 20% change range of untreated samples.

Medical Devices

In the field of medical devices, BASF antioxidants also play an important role. Especially in the production of disposable medical consumables, such as syringes, infusion tubes, etc., the PP (polypropylene) or PE (polyethylene) materials used need to undergo strict sterilization and usually adopt steam sterilization or radiation sterilization. These sterilization processes will cause a certain degree of oxidation and degradation of the material, affecting its physical properties and biocompatibility.

This problem can be effectively alleviated by adding a composite system of Irganox 1076 and Irgafos 168. Experimental data show that after 25kGy radiation sterilization, the elongation retention rate of PP materials treated with BASF antioxidants reached 85%, while the untreated samples were only 50%. This performance improvement is critical to ensuring the safety and reliability of medical devices.

Building Materials

In the field of building materials, BASF antioxidants are widely used in the production of PP-R pipes, PVC flooring and other products. In particular, PP-R pipelines, as an important hot water transport material, need to be used for a long time at a temperature of 70-95°C. To ensure long-term heat pressure resistance, Irganox 1076 and Irgafos 168 composite systems are usually added to the formula.

Experimental studies show that the life of PP-R materials treated with BASF antioxidants can be extended to more than 50 years in long-term hydrostatic tests under 80°C and 1.0 MPa, far exceeding the 25 years required by the industry standard. This performance improvement not only improves the market competitiveness of the product, but also brings higher security guarantees to users.

Comparative analysis of BASF antioxidants and other brands of antioxidants

In the antioxidant market, although there are a variety of brands and product choices, BASF antioxidants stand out with their unique advantages and become the first choice for many companies. The following compares and analyzes BASF antioxidants with other well-known brands from several key dimensions:

Performance comparison

Compare items BASF Antioxidants Other well-known brands Advantage Analysis
Thermal Stability >300? 280-300? Higher temperature range for extreme conditions
Processing performance Improving liquidity Neutral Effect Improve production efficiency and reduce energy consumption
Synergy Effect Significant Winner Complex system has better effect and lower cost
Migration Low High The long-term use effect is more stable

From the perspective of thermal stability, BASF antioxidants show obvious advantages. For example, the thermal decomposition temperature of Irgafos 168 exceeds 300°C, while similar products usually only reach 280-300°C. This gap is particularly important in high-temperature processing and use environments, ensuring the long-lasting and stable material properties.

In terms of processing performance, BASF antioxidants can not only effectively delay material aging, but also improve material flow and improve production efficiency. According to actual application data, during the PP injection molding process, the flow length of the material added with BASF antioxidants can be increased by more than 15%, which is significantly better than similar products of other brands.

Regarding synergistic effects, the BASF antioxidant complex system performed well. Through reasonable formula design, the effect of 1+1>2 can be achieved, which not only improves the overall antioxidant performance, but also effectively reduces the amount of individual antioxidant, thereby reducing costs. In contrast, other brands of products often find it difficult to achieve the same synergistic effect when combined.

As for mobility, BASF antioxidants adopt special molecular structure design, which can effectively inhibit migration to the surface of the material. This is especially important in long-term use, as migration will lead to a decrease in local antioxidant concentrations, affecting the protection effect. Experimental data show that after continuous heating at 180°C for 100 hours, the mobility of BASF antioxidants is less than 0.5%, while other brand products are usually between 1-2%.

Cost-benefit analysis

Although BASF antioxidants are slightly higher than some competitors, their advantages are more obvious from the perspective of comprehensive cost. Due to higher efficiency and better synergistic effects, the total amount of antioxidants can often be reduced in actual use. For example, in PP-R pipe materials, the amount of BASF antioxidants added is usually about half that of other brands, but it can still achieve better performance.

In addition, the improvement in processing performance brought by BASF antioxidants can also bring significant cost savings. Taking PP injection molding as an example, materials treated with BASF antioxidants can improve production efficiency by 10-15% and reduce energy consumption by 5-8%. These indirect cost savings can often offset the price difference.

User feedback and evaluation

Based on the use of multiple companiesFeedback, BASF antioxidants show high reliability in practical applications. A well-known automaker said: “We have used BASF antioxidants for many years. The products performed well in high temperature environments, significantly extending the service life of parts. Although the initial investment is slightly higher, it is a very worthwhile choice from the perspective of overall cost-effectiveness.”

Another electronics manufacturer also shared their experience: “In the production of LED radiators, BASF antioxidants not only improve the heat resistance of the material, but also improve the processing performance, increasing our production efficiency by 15%. This comprehensive benefit is the main reason why we chose this product.”

To sum up, although there are many antioxidant brands on the market, BASF antioxidants still maintain a leading position with their outstanding performance, efficient synergy and significant cost advantages. This comprehensive advantage makes it a trusted partner for many companies.

The future development and prospects of BASF antioxidants

With the advancement of technology and changes in market demand, the development prospects of BASF antioxidants are showing a trend of diversification. In terms of sustainable development, the company is actively developing environmentally friendly antioxidant products, focusing on improving the recyclability of materials and reducing environmental impacts. For example, the research and development of new bio-based antioxidants has made initial progress, and commercial products are expected to be launched in the next few years to provide more options for green manufacturing.

In the field of technological innovation, BASF is exploring the concept of smart antioxidants, that is, through nanotechnology and intelligent response mechanisms, the antioxidants can automatically adjust the protection level according to the actual needs of the material. This innovative concept is expected to completely change the traditional material protection model and achieve more accurate and efficient antioxidant protection.

Looking forward, BASF antioxidants will continue to make efforts in the following directions: first, further improve the high temperature stability of the product to meet the demand for higher usage temperatures in emerging fields; second, develop more customized solutions to provide excellent protection strategies for different industries and application scenarios; later, strengthen digital transformation, optimize product design and production processes through big data analysis and artificial intelligence technology, and provide customers with more intelligent and convenient services.

These development directions not only reflect BASF’s unremitting pursuit of technological innovation, but also reflect the company’s profound insight into the future market. With the continuous emergence of new materials and new technologies, BASF antioxidants will surely play a more important role in the field of material protection and make greater contributions to the sustainable development of human society.

Extended reading:https://wwww.bdmaee.net/pc-cat-np15-catalyst-cas67151-63-7/

Extended reading:https://www.bdmaee.net/nt-cat-pc17-catalyst-cas110-18-9-newtopchem/

Extended reading:https://www.bdmaee.net/wp-content/uploads/2021/05/139-2.jpg

Extended reading:https://www.newtopchem.com/archives/1842

Extended reading:https://www.newtopchem.com/archives/category/products/page/129

Extended reading:https://www.bdmaee.net/wp-content/uploads/2022/08/-25-S-Lupragen-N202-TEDA-L25B.pdf

Extended reading:https://www.bdmaee.net/delay-catalyst-a-300/”>https://www.bdmaee.net/delay-catalyst-a-300/

Extended reading:https://www.bdmaee.net/polycat-31-polyurethane-spray-catalyst-polycat-31/

Extended reading:https://www.bdmaee.net/nn-dicyclohexylmethylamine-3/

Extended reading:https://www.newtopchem.com/archives/44635

Find the most efficient anti-yellowing agent suitable for KPU process to optimize the color stability of the finished product

Looking for efficient anti-yellowing agent suitable for KPU process: a comprehensive analysis of optimizing the color stability of finished products

Preface: A contest about “appearance”

In today’s era of “looking at faces”, whether it is people or products, “color” has become one of the important factors that determine their market competitiveness. Maintaining long-term color stability is a difficult task for products manufactured using the KPU (thermoplastic polyurethane elastomer) process. However, with the development of technology and the continuous increase in consumer demand, how to effectively prevent KPU products from turning yellow due to aging, oxidation or ultraviolet rays has become a core issue in the industry.

To help everyone better understand this issue, this article will start from multiple angles and discuss in-depth the efficient anti-yellowing agent suitable for KPU process and its impact on the color stability of the finished product. We will provide readers with a detailed technical guide by analyzing relevant domestic and foreign literature and combining specific cases and experimental data. At the same time, this article will also make complex professional knowledge more vivid and interesting in easy-to-understand language and humorous expressions. Whether you are a materials engineer, product manager, or an ordinary consumer, you can get inspiration from it.

Next, let’s walk into this wonderful showdown on KPU technology and anti-yellowing agents!


Part 1: Understanding the KPU process and its challenges

1. What is KPU technology?

KPU, or Thermoplastic Polyurethane (TPU), is a high-performance material with high elasticity, wear resistance and oil resistance. It is widely used in shoe materials, films, cable sheaths and automotive parts. The KPU process refers to a series of methods of processing and forming using TPU materials, including injection molding, extrusion, blow molding, etc.

TPU itself has excellent mechanical properties and chemical stability, so it is highly favored. But at the same time, TPU also has a fatal weakness – it is easy to cause molecular chain breakage due to environmental factors (such as high temperature, ultraviolet radiation, oxygen, etc.), which in turn causes yellowing. This yellowing not only affects the aesthetic appearance of the product, but may also reduce its physical properties and shorten its service life.

2. Common causes of yellowing in KPU process

  1. Photooxidation
    Ultraviolet rays are one of the main reasons for yellowing of KPU products. When the TPU is exposed to sunlight, UV light stimulates active groups in the material, creating free radical reactions, which destroys the molecular structure and forms yellow pigments.

  2. Thermal aging effect
    During production, KPU needs to experience high temperatureMelting stage. If the temperature is not controlled properly, an irreversible degradation reaction may occur within the TPU, resulting in carbonyl compounds or other colored by-products.

  3. The Effect of Oxygen
    As one of the common oxidants in nature, oxygen can accelerate the aging process of TPU. Especially during storage or use, continuous contact with air will cause the TPU to gradually lose its original transparency and bright colors.

  4. Addant migration problem
    Certain additives (such as plasticizers, lubricants) may migrate to the surface of the material over time and react with other substances, further aggravating the yellowing phenomenon.


Part 2: Principles and Classification of Anti-Yellowing Agents

1. Working mechanism of anti-yellowing agent

Anti-yellowing agent is a class of chemical additives specially used to inhibit yellowing of materials. They work through the following ways:

  1. Absorb UV rays
    Anti-yellowing agents can absorb UV energy and convert it into harmless heat energy to release it, thereby avoiding damage to TPU molecules by ultraviolet rays.

  2. Catch free radicals
    Free radicals are a key player in triggering oxidation reactions. Anti-yellowing agents can capture these unstable molecules in a timely manner, preventing them from continuing to spread and react.

  3. Stable molecular structure
    Some anti-yellowing agents can also enhance the stability of the overall structure and reduce the risk of degradation by forming covalent or hydrogen bonds with TPU molecules.

2. Main types of anti-yellowing agents

Depending on the function and mechanism of action, anti-yellowing agents can usually be divided into the following categories:

Type Feature Description Applicable scenarios
Ultraviolet absorber Can effectively absorb ultraviolet rays in the wavelength range of 290-400nm to prevent them from penetrating into the material TPU products for outdoor use, such as sunshades, sports soles, etc.
Trumped amines It has strong free radical capture capability, which can significantly delay the aging speed of TPU TPU components that work in high temperature environments, such as automotive interior parts
Phenol antioxidants Mainly used to inhibit the oxidation reaction of TPU during processing and storage Injection molded TPU parts, such as electronic equipment housing
Phosophites Provides good hydrolysis stability while also having certain antioxidant properties TPU pipes that require long-term soaking in liquid

Part 3: Recommended high-efficiency anti-yellowing agent suitable for KPU process

1. Comprehensive performance evaluation criteria

Selecting the right anti-yellowing agent is not easy, as each material has its specific application requirements and technical requirements. Here are a few key indicators we focused on during the screening process:

  1. Compatibility
    The anti-yellowing agent must have good compatibility with the KPU substrate and cannot cause phase separation or precipitation.

  2. Migration resistance
    After long-term use, the anti-yellowing agent should be moved from the inside of the material to the surface as little as possible to avoid affecting the effect.

  3. Environmentality
    As global environmental protection regulations become increasingly strict, it is particularly important to choose green chemicals that meet international standards such as RoHS and REACH.

  4. Economic
    Cost-performance ratio is also one of the factors that cannot be ignored. After all, any excellent solution needs to be built on a reasonable cost basis.

2. Specific product recommendations

1. UV-531 (UV absorber)

  • Product Parameters

    • Chemical name: 2-(2’-hydroxy-5’-methylphenyl)benzotriazole
    • Appearance: White powder
    • Melting point: ?115?
    • Absorption wavelength range: 290-400nm
  • Strong points
    The UV-531 is known for its excellent UV shielding capability and wide applicability. It not only significantly improves the weather resistance of TPU products, but also maintains the original flexibility and transparency of the material.

2. Tinuvin 770 (hindered amines)

  • Product Parameters

    • Chemical name: bis(2,2,6,6-tetramethyl-4-ol) sebacate
    • Appearance: light yellow transparent liquid
    • Density: approximately 1.0g/cm³
    • Molecular weight: 588.8
  • Strong points
    Tinuvin 770 is a classic hindered amine light stabilizer, especially suitable for TPU products that require long-term exposure to outdoor environments. Its high-efficiency free radical capture capability and low volatility make it ideal for many high-end applications.

3. Irganox 1010 (phenolic antioxidants)

  • Product Parameters

    • Chemical name: tetra[?-(3,5-di-tert-butyl-4-hydroxyphenyl)propionic acid]pentaerythritol
    • Appearance: White crystalline powder
    • Melting point: 120-125?
    • Molecular weight: 666.9
  • Strong points
    Irganox 1010 is one of the commonly used phenolic antioxidants on the market, with excellent thermal stability and antioxidant properties. It can effectively extend the service life of TPU products, especially suitable for applications under high temperature processing conditions.

4. Sumilizer GA-80 (phosphite)

  • Product Parameters

    • Chemical name: tris(nonylphenyl)phosphite
    • Appearance: Light yellow viscous liquid
    • Density: approximately 1.0g/cm³
    • Molecular weight: 664.1
  • Strong points
    Sumilizer GA-80 is known for its excellent hydrolytic stability and synergistic antioxidant effects. Even in humid environments, it ensures that the TPU material maintains stable performance.


Part 4: Practical application case analysis

In order to more intuitively demonstrate the actual effect of the above-mentioned anti-yellowing agent, we selected two typical experimental cases for comparison and analysis.

Case 1: Outdoor sports sole test

Experimental Design

The two TPU sole samples with UV-531 and no anti-yellowing agent were placed under simulated sun exposure conditions (temperature 40°C, humidity 60%, UV intensity 40W/m²), and the color changes after 30 days were observed continuously.

Result comparison

Sample number Initial color value (Lab*) Color value after 30 days (Lab*) Color difference ?E
Sample A (no anti-yellowing agent) L=90, a=0, b=0 L=80, a=5, b=10 12.5
Sample B (including UV-531) L=90, a=0, b=0 L=88, a=1, b=3 3.6

From the results, it can be seen that after 30 days of exposure to the sun, the color difference of sample B containing UV-531 was only 3.6, which was far lower than the 12.5 of untreated sample A, indicating that UV-531 does play a significant anti-yellowing effect.

Case 2: Automobile interior parts testing

Experimental Design

Select two sets of TPU car interior parts samples, one group adds Tinuvin 770, and the other group does not add any anti-yellowing agent. Both were placed in a constant temperature oven at 80°C for 100 hours, and their mechanical properties and appearance changes were measured.

Result comparison

Sample number Tenable Strength before Aging (MPa) Tenable Strength after Aging (MPa) Strength retention rate (%) Appearance changes
Sample C (no anti-yellowing agent) 45 28 62 Obvious yellowing and cracking
Sample D (including Tinuvin 770) 45 40 89 Only slight yellowing

It can be seen that the Tinuvin 770 not only greatly improves the heat-resistant aging performance of TPU materials, but also effectively slows down the occurrence of yellowing.


Part 5: Future development trends and prospects

With the advancement of science and technology and the changes in social needs, new breakthroughs and development directions are constantly emerging in the field of anti-yellowing agents. For example, the application of nanotechnology has greatly improved the dispersion and efficiency of anti-yellowing agents; the research and development of bio-based raw materials provides the possibility to achieve a more sustainable production model.

In addition, the introduction of artificial intelligence and big data analysis tools will also help us predict and optimize the best combination of anti-yellowing agents more accurately. I believe that in the near future, the color stability problem of KPU process products will be solved more perfectly.


Conclusion: Protect every bright color

Just as a beautiful piece of music cannot be separated from the harmonious resonance of every note, a high-quality KPU product also needs to rely on a scientific and reasonable anti-yellowing solution to continue its dazzling life journey. I hope this article can inspire and help all readers and jointly promote technological innovation and development in this field.

Finally, I hope that every person who pursues excellent qualities can win the final victory in this “battle to defend appearance”!

Extended reading:https://www.newtopchem.com/archives/44992

Extended reading:https://www.bdmaee.net/polyurethane-catalyst-a33-cas-280-57-9-dabco-33-lv/

Extended reading:https://www.bdmaee.net/organic-mercury-replacement-catalyst-nt-cat-e-at/

Extended reading:https://www.newtopchem.com/archives/42992

Extended reading:https://www.newtopchem.com/archives/category/products/page/17

Extended reading:https://www.cyclohexylamine.net/catalyst-dabco-8154-acid-blocked-tertiary-amine-catalyst/

Extended reading:https://www.newtopchem.com/archives/45053

Extended reading:https://www.bdmaee.net/fascat2001-catalyst-cas814-94-8-stannous-oxalate/

Extended reading:https://www.newtopchem.com/archives/44003

Extended reading:https://www.cyclohexylamine.net/epoxy-curing-agent-polyurethane-rigid-foam/

How to improve the color stability of finished products and improve market competitiveness for KPU

KPU special anti-yellowing agent: improves the color stability of finished products and enhances market competitiveness

Introduction: The importance of anti-yellowing agents

In modern industrial production, the appearance and color stability of the product are one of the important factors for consumer choice. Especially in the manufacturing process of plastics, coatings, rubber and other materials, due to factors such as ultraviolet radiation, high temperatures, and oxidation, the material may yellow, causing the product to lose its original luster and aesthetics. This phenomenon not only affects the visual effect of the product, but also may reduce its market value and consumers’ desire to buy. To solve this problem, scientists have developed a variety of anti-yellowing agents, among which KPU-specific anti-yellowing agents have attracted much attention for their excellent performance and widespread applications.

KPU-specific anti-yellowing agent is an additive specifically used in polyurethane (PU) materials, designed to improve the color stability and durability of the finished product by inhibiting or delaying the occurrence of yellowing. It can not only effectively prevent the material from fading or turning yellow due to environmental factors, but also significantly extend the service life of the product and enhance its market competitiveness. This article will introduce in detail the working principle, product parameters, application fields of KPU-specific anti-yellowing agents, and how to enhance market competitiveness by improving the color stability of finished products.

The working principle of KPU special anti-yellowing agent

Chemical structure and mechanism of action

KPU-specific anti-yellowing agents are mainly composed of specific chemical compounds that can perform their functions in the following ways:

  1. Absorb UV rays: Some components in anti-yellowing agents can effectively absorb UV rays and convert them into heat energy to dissipate them, thereby avoiding the damage to the molecular structure of the material by ultraviolet rays.
  2. Antioxidation: By capturing free radicals, the chain reaction of oxidation reaction is prevented, the formation of oxidation products is reduced, and the material will be prevented from turning yellow due to oxidation.
  3. Photostabilization: Some anti-yellowing agents also have the function of light stabilization, which can protect the material from further photodegradation under light conditions.

The influence of environmental factors on the effect of yellowing

Although KPU-specific anti-yellowing agent can significantly improve the color stability of the material, its effect will also be affected by a variety of environmental factors, such as temperature, humidity, light intensity, etc. Therefore, in practical applications, it is necessary to select the appropriate anti-yellowing agent type and added amount according to the specific product usage environment.

Detailed explanation of product parameters

In order to better understand the specific performance of KPU-specific anti-yellowing agents, we will list its main parameters in the form of a table:

parameter name Description
Appearance White powder or transparent liquid, easy to mix with other materials
Active ingredient content ?98%, ensuring high efficiency
Thermal Stability Stabilized at 200°C, suitable for high-temperature processing
Light Absorption Wavelength Range 290-400nm, effectively shielding ultraviolet rays
Compatibility Compatible with various polymer systems and does not affect the effect of other additives
Additional amount Adjust to the specific application, usually 0.1%-1% of the total material amount

Application Fields and Case Analysis

KPU special anti-yellowing agent is widely used in automotive interiors, furniture coatings, electronic equipment shells and other fields. For example, in the automotive industry, instrument panels and seat covers treated with anti-yellowing agents not only maintain long-lasting freshness, but also improve passenger safety and comfort. In addition, in the furniture industry, the application of anti-yellowing agents allows wood and leather products to maintain a bright appearance after long-term use, increasing the added value of the product.

Strategies to improve market competitiveness

By using KPU-specific anti-yellowing agents, manufacturers can not only improve the appearance quality of their products, but also take this opportunity to explore new market areas. Here are a few specific strategy suggestions:

  1. Brand Differentiation: Use anti-yellowing technology to create a unique brand image and attract high-end customers who pay attention to quality.
  2. Extended warranty: Based on the improvement of durability brought by anti-yellowing agents, a longer warranty period is provided to enhance consumers’ sense of trust.
  3. Green Certification: Ensure that anti-yellowing agents meet environmental protection standards, obtain relevant green certifications, and meet the growing environmental protection needs.

Conclusion

To sum up, KPU-specific anti-yellowing agent is not only an effective tool to solve the problem of yellowing of materials, but also a key factor in enhancing product market competitiveness. With the advancement of technology and changes in market demand, the research and development and application of anti-yellowing agents will continue to deepen, bringing more innovation and opportunities to all industries. In the future, we look forward to seeing more high-performance and multi-functional anti-yellowing agents coming out to promote the sustainable development of the entire industry.


Through the above content, we can clearly understand the important position of KPU-specific anti-yellowing agents in modern industry and their positive impact on product color stability. I hope this article can provide you with valuable reference information and inspire you to explore this field in depth.

Extended reading:https://www.morpholine.org/pc-cat-ncm-polyester-sponge-catalyst-dabco-ncm/

Extended reading:https://www.morpholine.org/bis3-dimethylaminopropylamino-2-propanol/

Extended reading:https://www.cyclohexylamine.net/trichlorobutyltin-butyltintrichloridemincolorlessliq/

Extended reading:https://www.cyclohexylamine.net/category/product/page/13/

Extended reading:https://www.bdmaee.net/246-trisdimethyllaminomethylphenol-cas90-72-2-dabco-tmr-30/

Extended reading:https://www.newtopchem.com/archives/906

Extended reading:https://www.bdmaee.net/wp-content/uploads/2021/05/1-4.jpg

Extended reading:https://www.cyclohexylamine.net/dabco-ncm-polyester-sponge-catalyst-dabco-ncm/

Extended reading:https://www.newtopchem.com/archives/44931

Extended reading:https://www.bdmaee.net/potassium-acetate-2/