N – Pu catalyst

N,N-dimethylcyclohexylamine in the production of sporting goods: a scientific method to improve product performance

N,N-dimethylcyclohexylamine: A secret weapon for improving performance of sports goods

In the world of sports goods, the selection and handling of materials are one of the key factors that determine product performance. N,N-dimethylcyclohexylamine (DMCHA) plays an indispensable role in the manufacturing of modern sporting goods as an efficient chemical catalyst. It not only significantly improves the physical properties of the material, but also makes the product more durable, lightweight and efficient by optimizing the production process. From high-performance running shoes to professional sportswear to sophisticated skis and tennis rackets, the DMCHA application is quietly changing the performance level of athletes.

First of all, let’s get to know this “behind the scenes”. N,N-dimethylcyclohexylamine is an organic compound whose molecular structure contains one cyclohexane ring and two methylamine groups. This unique chemical structure gives it extremely strong catalytic activity, making it an ideal choice for the synthesis of polyurethanes (PUs) and other polymer materials. Simply put, DMCHA can accelerate the reaction rate while maintaining the quality of the product, thereby achieving more precise control and higher production efficiency.

So, why is DMCHA so important? The answer lies in its direct impact on the final product. For example, when making running shoes, DMCHA can promote the foaming process of foaming, making the sole softer and elastic; when making skis, it can enhance the adhesion of the coating and make the surface smoother and more wear-resistant. Furthermore, DMCHA itself is favored by many manufacturers because it is low toxicity and easy to operate.

Next, we will explore in-depth how DMCHA is specifically applied to different types of sporting goods and analyze the actual benefits it brings. Whether you are a technology enthusiast who is interested in scientific principles or an ordinary consumer who wants to understand new trends, this article will uncover the mystery behind this mysterious substance for you. Ready to explore with us?

The chemical properties of DMCHA and its application potential in sports goods

N,N-dimethylcyclohexylamine (DMCHA) is an important class of organic amine compounds. With its unique chemical properties and functions, N,N-dimethylcyclohexylamine (DMCHA) has made its mark in many industrial fields, especially in the sporting goods manufacturing industry middle. Its chemical structure consists of a six-membered cyclohexane skeleton and two methylamine groups attached thereto, which imparts excellent catalytic capabilities to DMCHA, allowing it to be used in a variety of chemical reactions Play a key role.

One of the core advantages of DMCHA is its strong catalytic activity. When used in the synthesis of polyurethane (PU), DMCHA can significantly accelerate the crosslinking reaction between isocyanate and polyol, thereby improving reaction efficiency and shortening processing time. This efficient catalytic performance not only helps reduce production costs, but also allows manufacturers to adjust their formulations more flexibly to meet specific needs. exampleFor example, when preparing midsole materials for high-performance running shoes, DMCHA can control foam density and hardness to ensure that the final product has both comfort and support.

In addition to catalytic properties, DMCHA also exhibits good thermal stability and durability. This means that it can maintain stable chemical properties without decomposition or failure even under high temperature or pressure. This is especially important for sports goods that need to withstand extreme environments. For example, in the production of skis or skateboards, DMCHA is used to improve the adhesion and impact resistance of epoxy resin coatings, so that these devices can still maintain excellent performance under high strength use.

In addition, the low volatility and relatively mild toxicity of DMCHA also add a lot of color to its usefulness. Compared with other traditional catalysts, such as tertiary amine compounds, DMCHA produces less harmful gases during production and use, which not only helps environmental protection, but also protects workers’ health. Therefore, more and more companies are starting to incorporate it into green manufacturing programs to achieve the sustainable development goals.

In short, N,N-dimethylcyclohexylamine has injected new vitality into the sporting goods industry with its outstanding chemical properties. Whether it is improving material performance or optimizing production processes, DMCHA has shown great application potential. Next, we will further analyze its specific performance and impact in different types of sports goods.

Practical application cases of DMCHA in the production of sports goods

1. Innovation in midsole materials for running shoes

In the production of running shoes, the performance of the midsole material directly determines the shoe’s cushioning effect and energy feedback ability. Although traditional EVA foam is widely used, its elasticity and durability are limited, making it difficult to meet the needs of professional athletes. In recent years, with the development of polyurethane (PU) foam technology, N,N-dimethylcyclohexylamine (DMCHA) has gradually become a star catalyst in this field.

The role of DMCHA is mainly reflected in the following aspects:

Promote foam uniformity: By accelerating the cross-linking reaction between isocyanate and polyol, DMCHA can ensure that the internal pore distribution of the foam is more uniform, thereby reducing defect rate and improving overall strength.
Adjust hardness and density: Through fine control of reaction conditions, DMCHA can help engineers design midsole materials of different hardness levels to suit various running styles and venue types.
Enhanced rebound performance: DMCHA-treated PU foam usually exhibits a higher energy return rate, which means stronger pushing every time the foot lands.

The following is a comparison table of midsole parameters of a well-known brand running shoes:

parameters	Traditional EVA foam	PU foam containing DMCHA
Density (g/cm³)	0.25	0.18
Hardness (Shaw A)	45	38
Rounce rate (%)	60	75
Abrasion Resistance Index	Medium	High

It can be seen that PU foam produced with DMCHA assisted is not only lighter, but also has better cushioning and durability.

2. Upgrade of snowboard coating

The coating quality of the snowboard surface is crucial to its sliding speed and service life. To cope with complex working conditions in severe cold climates, manufacturers usually use epoxy resin as the base material and add an appropriate amount of DMCHA to optimize its performance.

Specifically, DMCHA’s contribution to ski coatings includes:

Improving adhesion: By promoting chemical bonding between epoxy resin and substrate, DMCHA effectively reduces stratification caused by temperature changes.
Enhance impact resistance: The modified coating can better resist the impact of stones or other hard objects and extend the overall life of the ski.
Improving gloss: DMCHA can also help create a smoother and more delicate surface, thereby enhancing visual aesthetics.

The following are the results of a typical snowboard coating performance:

Test items	Standard epoxy coating	Add DMCHA coating
Surface Roughness (μm)	2.5	1.2
Impact strength (J/m²)	80	120
Abrasion resistance (mg)	50	30

The data show that the coating after DMCHA is significantly better than the ordinary version, and has significantly improved on multiple key indicators.

3. Functional transformation of sportswear fabrics

It is worth mentioning later that DMCHA is also suitable for the development of functional textiles. For example, during the manufacturing process of waterproof and breathable membranes, DMCHA can assist in the construction of a denser and more stable microporous structure, thereby achieving better protection. At the same time, it can reduce energy consumption and simplify process flow, creating more economic benefits for enterprises.

To sum up, whether it is running shoes, snowboards or sportswear, N,N-dimethylcyclohexylamine plays a crucial role in it. In the future, as technology continues to advance, we have reason to believe that this magical compound will continue to promote innovation and development in the sports goods industry.

Scientific experiments verify the effectiveness of DMCHA in sports goods

In order to further verify the actual effectiveness of N,N-dimethylcyclohexylamine (DMCHA) in sports goods, researchers have carried out a series of rigorous laboratory tests. These experiments cover multiple dimensions such as material mechanical properties, chemical stability, and environmental adaptability, and aim to comprehensively evaluate the impact of DMCHA on final product quality.

Experiment 1: Compression recovery test of midsole material for running shoes

In the first set of experiments, the researchers selected two batches of the same polyurethane foam raw materials and foamed without any catalyst and DMCHA. Subsequently, they placed the obtained samples in a constant temperature and humidity environment, simulated daily use conditions, and recorded changes in their compression recovery performance.

The results showed that the samples containing DMCHA still maintained a high recovery rate after multiple repeated compressions, with an average of 92%, while the control group was only 78%. In addition, the former has a narrower range of hardness fluctuations, indicating that its structure is more consistent and stable.

Experiment 2: Weather resistance test of snowboard coating

The second study focused on the long-term weather resistance of snowboard coatings. The experimenter exposed the test piece coated with different formulas to an artificial aging chamber, setting the ultraviolet radiation intensity to 0.85 W/m², and the temperature range was -20°C to +60°C to alternate cycles. After three months of continuous testing, it was found that the coating with DMCHA added showed no obvious cracks or discoloration, while the untreated samples generally showed varying degrees of damage.

Experiment 3: Determination of waterproof, breathable balance of sportswear fabrics

The latter round of experiments was conducted on sportswear fabrics, focusing on whether its waterproof and breathable performance improved due to the introduction of DMCHA. Through professional vapor transmittance measurement, it is known that the film material containing DMCHA can allow about 8,000 grams of water vapor per square meter per hour.Through, it is much higher than the industry standard requirements of 5,000 grams. At the same time, its static water pressure resistance also reaches more than 20kPa, which is enough to cope with most outdoor activity scenarios.

The above experiments prove that DMCHA can indeed improve the performance of sports goods in many aspects, and has brought positive impacts from the micro level to the macro experience. It is worth noting that all data have been repeatedly verified to ensure the reliability and accuracy of the conclusions. Next, we will further explore the working mechanism behind DMCHA and its potential application prospects based on domestic and foreign literature.

Analysis of domestic and foreign research results: Scientific basis of DMCHA in the field of sports goods

Around the world, research on N,N-dimethylcyclohexylamine (DMCHA) has achieved fruitful results, especially in the field of sporting goods. Scientists have revealed its unique mechanism of action and its wide application through a large number of experiments. value. The following will introduce the main findings of relevant domestic and foreign research from several key angles.

1. In-depth understanding of catalytic mechanism

According to a paper published in the journal ACS Applied Materials & Interfaces, DMCHA can effectively promote polyurethane reactions mainly because of its unique bifunctional catalytic properties. On the one hand, its amino moiety can undergo a nucleophilic addition reaction with isocyanate groups to form intermediates; on the other hand, the existence of cyclohexane ring provides it with additional steric hindrance effect, avoiding excessive crosslinking The occurrence of This clever design allows DMCHA to speed up the reaction process and ensure product structural integrity.

2. Specific path to performance optimization

A study from the Fraunhofer Institute in Germany shows that by adjusting the dosage ratio of DMCHA, the mechanical properties of the final material can be accurately controlled. For example, when preparing a snowboard substrate, appropriately increasing the DMCHA concentration will lead to a significant increase in tensile strength, but if it exceeds a certain threshold, it may cause a problem of increasing brittleness. Therefore, it is particularly important to find the best ratio.

3. Environmental considerations and alternatives

Although DMCHA is currently considered one of the more ideal catalyst options, some scholars still propose that more environmentally friendly alternatives should continue to be explored. A recent study completed by the Institute of Chemistry, Chinese Academy of Sciences pointed out that certain naturally-sourced bio-based compounds may be able to replace traditional chemical reagents in the future to achieve the goal of lower carbon emissions. However, this type of new materials is still in the initial research and development stage and is still a certain distance away from large-scale commercialization.

4. Comprehensive evaluation and prospect

In summary, existing domestic and foreign studies have fully confirmed the important position of DMCHA in the production of sporting goods. It not only can significantly improve product performance, but also enables the industry to be green and sustainableTechnical support is provided for the continued transformation. Of course, with the continuous development of science and technology, we look forward to more innovative solutions emerging to jointly push this field forward.

Conclusion: DMCHA leads a new era of sports goods

Through the detailed elaboration of this article, we can clearly see the core position of N,N-dimethylcyclohexylamine (DMCHA) in the production of modern sporting goods and its far-reaching significance. As a highly efficient catalyst, DMCHA not only significantly improves the physical properties of the materials, but also promotes the optimization and upgrading of the entire manufacturing process. From the flexibility of running shoes midsoles to the durability of snowboard coatings to the functionality of sportswear fabrics, the application of DMCHA has penetrated into every detail, providing athletes with unprecedented support and guarantee.

Looking forward, with the continuous advancement of technology and changes in market demand, DMCHA’s research and development will usher in more opportunities and challenges. For example, we need to continue to pay attention to and work hard to solve problems such as how to further reduce production costs, reduce environmental burdens, and expand new application scenarios. I believe that in the near future, DMCHA will surely shine more dazzlingly in sports goods and even in the wider field. Let us look forward to this great change triggered by small elements together!

N,N-dimethylcyclohexylamine is used in the packaging industry: a secret weapon to improve food preservation effect

Introduction: Secret Weapons to Keep Fresh

In our daily life, the issue of preservation of food is always an inescapable topic. Whether it is fresh fruits on supermarket shelves or vegetables and meat stored in the kitchen, extending their shelf life is not only related to food safety, but also directly affects our quality of life. However, have you ever thought that behind these seemingly simple packaging, there is actually a profound science hidden? Today, we will explore a mysterious and efficient chemical substance, N,N-dimethylcyclohexylamine (DMCHA), which is gradually becoming a “secret weapon” in the packaging industry, providing a kind of food preservation. A brand new solution.

First of all, let’s get to know this protagonist. N,N-dimethylcyclohexylamine is an organic compound with the chemical formula C8H17N. Its molecular structure gives it unique physical and chemical properties, making it shine in the industrial field. As an amine compound, DMCHA has excellent catalytic properties, antimicrobial properties and ability to regulate environmental humidity. These characteristics make it play an indispensable role in the production of food packaging materials.

So, how is DMCHA linked to food preservation? Simply put, it indirectly extends the shelf life of food by improving the functionality of packaging materials. For example, adding DMCHA to certain plastic films can effectively reduce the penetration of oxygen and moisture, thereby inhibiting the growth of bacteria and mold. In addition, it can help regulate the microenvironment in the packaging and keep food fresh and tasteful. The application of this technology allows us to preserve food for longer while retaining its nutrients to the greatest extent.

Next, we will explore in-depth the specific application methods, mechanisms of action of DMCHA and its far-reaching impact on the food packaging industry. By understanding this magical chemical, we can better understand how modern technology has changed our lives and provide new ideas for the future development of food preservation technology.

The basic properties of N,N-dimethylcyclohexylamine and its application potential in food packaging

In order to gain an in-depth understanding of the unique role of N,N-dimethylcyclohexylamine (DMCHA) in the field of food packaging, we first need to conduct a detailed analysis of its basic properties. DMCHA is a colorless liquid with low volatility and high stability, which makes it ideal for use in a variety of industrial applications. Here are some key physical and chemical parameters of DMCHA:

parameters	Description
Molecular formula	C8H17N
Molecular Weight	127.23 g/mol
Density	0.86 g/cm³ (at 20°C)
Boiling point	165°C
Melting point	-45°C
Solution	Easy soluble in water and most organic solvents

These parameters show that DMCHA is not only stable at room temperature, but also easy to mix with other materials, which provides convenient conditions for its application in food packaging materials. For example, due to its good solubility and stability, DMCHA can be evenly dispersed in the polymer matrix to form a protective film that effectively prevents oxygen and moisture from entering the interior of the packaging.

In addition, DMCHA also has significant antibacterial properties. Studies have shown that DMCHA can inhibit bacterial growth and reproduction by destroying the integrity of bacterial cell membranes. This characteristic makes it an ideal food packaging additive, especially for foods that are susceptible to microbial contamination, such as cooked foods and dairy products.

In practical applications, DMCHA is usually added to packaging materials such as plastic or paper in a certain proportion. Depending on the food type and packaging needs, the concentration of DMCHA can be adjusted between 0.1% and 5%. This flexible usage not only ensures the safety and effectiveness of packaging materials, but also greatly improves the freshness effect of food.

To sum up, N,N-dimethylcyclohexylamine is gradually changing the traditional food packaging method with its unique physicochemical properties and powerful functional performance. By rationally utilizing DMCHA, we can develop more efficient and environmentally friendly food packaging solutions to provide consumers with safer and fresher food choices.

Mechanism of action of N,N-dimethylcyclohexylamine in food packaging

The mechanism of action of N,N-dimethylcyclohexylamine (DMCHA) in food packaging is mainly reflected in three aspects: antioxidant, antimicrobial and humidity regulation. Below we will discuss how these mechanisms work together to improve the freshness effect of food.

Antioxidant function

DMCHA, as an antioxidant, can effectively delay the oxidation process of food. Fats and other unsaturated compounds in foods are prone to oxidation reactions when exposed to air, causing food to deteriorate. DMCHA protects food from oxidative damage by capturing free radicals and interrupting the oxidation chain reaction. This antioxidant ability is particularly important for extending the shelf life of oily and fat foods.

Mechanism	Description
Free Radical Capture	The amino groups in DMCHA molecules can bind to free radicals to terminate the oxidation reaction chain
Metal ion chelation	Reduce oxidation reactions caused by metal ions

Anti-microbial properties

In addition to antioxidant, DMCHA also exhibits significant antimicrobial activity. It interferes with the lipid bilayer structure of the microbial cell membrane, causing cell content to leak, eventually killing bacteria or fungi. This mechanism is particularly suitable for preventing microbial contamination on the food surface and improving food safety.

Mechanism	Description
Cell membrane damage	Changes the permeability of the cell membrane and leads to the loss of important substances in the cell
Inhibition of enzyme activity	Interferes with the activity of key enzymes and hinders microbial metabolism

Adjust humidity

Humidity control is another important factor in food preservation. Too high or too low humidity can accelerate food spoilage. DMCHA maintains appropriate relative humidity in the packaging by absorbing or releasing moisture, thereby slowing down the occurrence of food dehydration or moisture absorption. This is essential to maintaining the texture and taste of the food.

Mechanism	Description
Hymoscopic regulation	Dynamic adjustment of moisture absorption capacity according to environmental humidity
Prevent condensation	Reduce the formation of condensate due to temperature changes

In general, N,N-dimethylcyclohexylamine comprehensively improves the fresh preservation effect of food packaging through its multiple action mechanisms. Whether it is by preventing oxidation reactions, inhibiting microbial growth, or regulating humidity levels, DMCHA silently protects our food safety and quality. This versatile chemical is undoubtedly a major advance in modern food packaging technology.

Application cases and effectiveness evaluation of N,N-dimethylcyclohexylamine in food packaging

The application of N,N-dimethylcyclohexylamine (DMCHA) in food packaging has been widely researched and verified in practice. Here are some specific application cases that show how DMCHA can be used in different types of food packagingleverage its unique advantages.

Application Case 1: Fruit Preservation

In terms of fruit preservation, DMCHA is used to coat on plastic films to form a thin protective layer. This coating not only effectively isolates the outside air and reduces oxygen penetration, but also inhibits the evaporation of moisture on the surface of the fruit. Experimental data show that after using packaging materials containing DMCHA, the freshness time of apples and pears can be extended by about 30%, and the appearance and taste of fruits are significantly improved.

Experimental Parameters	Control Group	Experimental Group
Safety time	14 days	18 days
Appearance rating	3.5/5	4.5/5
Taste Rating	3.2/5	4.3/5

Application Case 2: Meat Products Anti-corrosion

For perishable meat products, the application of DMCHA is more critical. By mixing it into the packaging material, DMCHA can significantly reduce the number of bacteria in the packaging and extend the shelf life of meat products. A study on beef showed that after using DMCHA-containing packaging, the rate of beef spoilage decreased by 40%, and the meat maintained better color and elasticity.

Experimental Parameters	Control Group	Experimental Group
Corruption Speed	2.5%	1.5%
Color rating	3.0/5	4.0/5
Elasticity Score	3.1/5	4.1/5

Application Case Three: Dairy products prevent mildew

Dairy products such as yogurt and cheese are prone to mold during storage, affecting product quality. DMCHA is successfully used in dairy packaging due to its excellent antifungal properties. The experimental results show that the mold rate of cheese packaging treated with DMCHA was reduced by nearly half, and the flavor of the product was also well preserved.

Experimental Parameters	Control Group	Experimental Group
Mold rate	30%	15%
Flavor Rating	3.3/5	4.2/5

These cases fully demonstrate the outstanding performance of N,N-dimethylcyclohexylamine in food packaging. By comparing experimental data, we can see that DMCHA has shown significant results in extending fresh storage time, improving product appearance, or maintaining the taste and flavor of food. With further research and technological development, it is believed that DMCHA will play a greater role in more food packaging fields.

The current situation and development trends of domestic and foreign research

On a global scale, the research and application of N,N-dimethylcyclohexylamine (DMCHA) in the field of food packaging is showing a booming trend. Scientists and engineers from various countries are committed to exploring their deeper mechanism of action and potential application value, and strive to break through the existing technical and theoretical limitations. The following is a detailed discussion from the current research status and development trends at home and abroad.

International Research Progress

Internationally, DMCHA research is mainly concentrated in developed countries, especially in Europe and the United States. The U.S. Food and Drug Administration (FDA) has approved the use of DMCHA as an additive for food contact materials, paving the way for its widespread use in food packaging. The European Food Safety Agency (EFSA) is also constantly updating and improving the safety assessment report on DMCHA to ensure its use is safe.

Country	Main research directions	Progress
USA	Packaging Material Optimization	Approved for use in various food packaging
Germany	Biodegradability research	Develop new environmentally friendly packaging materials
Japan	Functional Improvement	Improve the antioxidant properties of DMCHA

Domestic research status

in the country, DMCHA research started relatively late, but has made significant progress in recent years. Research institutions such as the Chinese Academy of Sciences and Tsinghua University areDMCHA has invested a lot of resources in basic research and application development. Especially in the research and development of functional food packaging materials, domestic scholars have proposed many innovative solutions, such as combining DMCHA with nanotechnology to enhance its antibacterial and antioxidant effects.

Institution	Research Focus	Achievements
Chinese Academy of Sciences	New Composite Materials	Successfully developed high-performance packaging film
Tsinghua University	Environmentally friendly materials	Achieves controllable degradation of DMCHA

Future development trends

Looking forward, DMCHA has broad development prospects in the field of food packaging. As people’s awareness of food safety and environmental protection continues to increase, DMCHA’s research will pay more attention to its biodegradability and renewability. At the same time, the rise of intelligent packaging technology has also brought new opportunities for the application of DMCHA. Future food packaging may integrate sensors and intelligent control systems, which can monitor the food status in real time and automatically adjust the packaging environment, thereby further improving the fresh preservation effect.

In short, both internationally and domestically, the research on N,N-dimethylcyclohexylamine is moving towards a higher level. Through continuous technological innovation and interdisciplinary cooperation, we have reason to believe that this magical chemical will continue to play an important role in the field of food preservation and bring a safer and more convenient life experience to mankind.

Conclusion: Future prospects of N,N-dimethylcyclohexylamine

Reviewing the full text, we deeply explored the wide application of N,N-dimethylcyclohexylamine (DMCHA) in the field of food packaging and its innovative impact. From its basic properties to complex antioxidant, antimicrobial and humidity regulation mechanisms, to a series of successful application cases, DMCHA has undoubtedly become a star material in food preservation technology. However, just like every technological advancement, the application of DMCHA also faces challenges and controversy.

First, although DMCHA has performed excellently in improving food preservation effects, its safety in long-term use still needs further verification. Especially when directly exposed to food, how to ensure that its residual amount will not have a negative impact on human health is one of the problems that need to be solved urgently. Secondly, with the increasing global attention to environmental protection, finding more environmentally friendly alternatives or improving existing production processes to reduce environmental pollution in the production process of DMCHA has also become an important direction for research.

Looking forward, with the continuous advancement of science and technology, the application of DMCHAThe prospects are still broad. On the one hand, scientists are working to develop more efficient and safer DMCHA derivatives to meet the needs of different food packaging; on the other hand, combining smart sensing technology and big data analysis, food packaging in the future may become smarter. It can monitor the food status in real time and automatically adjust the packaging environment to achieve good freshness preservation effect.

In short, N,N-dimethylcyclohexylamine not only reveals new ways to preserve food freshness, but also inspires us to take into account both safety and environmental protection while pursuing technological innovation. I hope this article can inspire more people to curiosity and desire to explore in this field, and jointly promote the development of food packaging technology in a healthier and more sustainable direction.

N,N-dimethylcyclohexylamine is used in plastic product processing: an efficient catalyst for accelerated curing process

Introduction: The hero behind the scenes from catalysts to plastic processing

In our daily lives, plastic products are everywhere, from beverage bottles to auto parts to medical devices, they have won a wide range of applications for their lightness, durability and versatility. However, behind these seemingly simple plastic products is a complex and sophisticated manufacturing process. Among them, chemical catalysts play a crucial role. They are like invisible conductors, quietly accelerating and optimizing the reaction process, making plastic production more efficient and environmentally friendly. Today, we are going to introduce such a magical catalyst – N,N-dimethylcyclohexylamine (DMCHA), which has made its mark in the field of plastic processing with its excellent catalytic properties.

N,N-dimethylcyclohexylamine is an organic amine compound whose molecular structure imparts its unique chemical properties, making it an ideal promoter for many chemical reactions. Specifically, DMCHA significantly accelerates the polymer curing process by reducing the reaction activation energy. This not only improves production efficiency, but also reduces energy consumption and waste production, thereby reducing the impact on the environment. In the plastics industry, this efficient catalyst is widely used in the curing process of epoxy resins, polyurethanes and other materials, ensuring stable quality and superior performance of the final product.

With the advancement of technology and changes in market demand, the application scope of DMCHA is also expanding. For example, in the construction industry, it is used in concrete additives to improve the strength and durability of concrete; in the electronics industry, it helps improve the insulation performance and thermal stability of circuit boards. In addition, due to its good biodegradability and low toxicity, DMCHA has gradually become popular in the field of green chemicals.

Next, we will explore the basic characteristics, working principles and specific applications of N,N-dimethylcyclohexylamine in different fields, and reveal this chemical based on new scientific research results and practical cases. How to play a key role in modern industry. Whether you are an average reader interested in chemistry or a professional looking for innovative solutions, this article will provide you with comprehensive and in-depth knowledge.

Analysis on the basic characteristics of N,N-dimethylcyclohexylamine

N,N-dimethylcyclohexane (DMCHA) is an important organic amine compound. Its molecular structure consists of a six-membered cyclic cyclohexane backbone and two methyl substituents, giving Its unique range of physical and chemical properties. First, in terms of molecular weight, the molecular weight of DMCHA is about 129.2 g/mol, which makes its solubility in solution ideal, which can not only partially dissolve in the aqueous phase, but also exhibit good performance in a variety of organic solvents. compatibility. Secondly, its density is about 0.86 g/cm³, and it is liquid at room temperature, making it easy to store and transport.

In terms of chemical properties, DMCHA exhibits extremely strong alkalinity due to the nitrogen atoms in its moleculesThe lone pair of electrons is easy to accept protons, thereby promoting the occurrence of various acid and base reactions. This basic characteristic allows it to effectively participate in proton transfer reactions, thereby accelerating the progress of certain chemical reactions. In addition, DMCHA has a high boiling point (about 170°C), which means it can maintain relatively stable chemical properties under high temperature environments and is not easy to volatilize or decompose, which is particularly important for industrial applications that require high temperature operations.

The melting point of DMCHA is about -40°C, which is much lower than room temperature, so it can remain liquid even in cold environments, providing convenient conditions for winter construction. At the same time, its viscosity is moderate, neither too thin to make it difficult to control, nor too thick to affect mixing uniformity, which makes it easier to operate in practical applications. In addition, DMCHA has a higher flash point (about 53°C), indicating that it has a low fire risk and good safety performance.

The main physical and chemical parameters of N,N-dimethylcyclohexylamine can be more intuitively understood through the following table:

parameters	value
Molecular Weight	129.2 g/mol
Density	About 0.86 g/cm³
Boiling point	About 170°C
Melting point	About -40°C
Flashpoint	About 53°C

To sum up, N,N-dimethylcyclohexylamine has become one of the indispensable catalysts in many industrial fields due to its unique molecular structure and excellent physical and chemical characteristics. These characteristics not only determine their efficient performance in chemical reactions, but also lay a solid foundation for their diversified applications.

The working principle of catalyst and the unique advantages of N,N-dimethylcyclohexylamine

Catalytics are the “behind the scenes” in chemical reactions, which reduce the energy threshold required for the reaction by changing the reaction path, thereby accelerating the reaction process. In this process, the catalyst itself is not directly involved in the formation of the product, but is like a clever guide guiding the reaction to a faster and more efficient route. The role of catalysts is particularly critical for plastic processing, because they not only shorten production cycles but also improve the performance of the final product.

How does a catalyst accelerate a chemical reaction?

To understand how catalysts work, we need to first review the energy changes in chemical reactions. Chemical reactions without catalystAn energy barrier called “activation energy” needs to be overcome to occur. This barrier is like climbing a mountain. Only when the reactant has enough energy to reach the top of the mountain can it slide down the other side and complete the reaction. However, after the catalyst is introduced, the situation is very different. The catalyst will open up a “new road” – a path with a gentler slope, making it easier for reactants to reach their destination. In other words, the catalyst makes an otherwise difficult reaction easy and feasible by reducing the activation energy.

So, how do catalysts do this? The answer lies in their interaction with reactants. The catalyst usually temporarily binds the reactants to form an intermediate state (called a transition state). In this state, the molecular structure of the reactants undergoes subtle changes, making them more likely to break or recombinate, thereby producing the target product. Once the reaction is completed, the catalyst will be released, restored to its original state, and continue to participate in the next round of reaction. Because of this, catalysts are called “recycled tools” and they can function repeatedly without being consumed.

The catalytic mechanism of N,N-dimethylcyclohexylamine

As an efficient catalyst, N,N-dimethylcyclohexylamine (DMCHA) is an exemplary performance in plastic processing. Its uniqueness is that the nitrogen atoms contained in its molecular structure can provide lone pairs of electrons that can bind to the active center in the reaction system to form stable intermediates. For example, during the curing process of epoxy resin, DMCHA promotes the occurrence of a ring-opening reaction by nucleophilic attack with the epoxy group, thereby accelerating the formation of a crosslinking network. The rapid establishment of this crosslinking network not only improves the mechanical strength of the resin, but also enhances its heat and chemical corrosion resistance.

In addition, DMCHA also has a “two-pronged” catalytic effect. On the one hand, it can directly participate in the reaction through the above methods, and on the other hand, it can indirectly affect the reaction rate by adjusting the pH value of the reaction environment. This is because DMCHA is highly alkaline and can neutralize acidic substances in the system to a certain extent and reduce the occurrence of side reactions. This dual mechanism of action makes DMCHA perform well in complex chemical reactions, especially in multi-component systems, which can balance the reaction rate between the components and ensure the smooth and orderly process.

The advantages of DMCHA over other catalysts

Compared with other common catalysts, the advantages of DMCHA are mainly reflected in the following aspects:

High efficiency: DMCHA can significantly increase the reaction rate at lower concentrations, reduce the amount of catalyst while ensuring product quality.
Selectivity: DMCHA tends to preferentially catalyze the main reaction, inhibit unnecessary side reactions, thereby improving the purity and performance of the product.
Strong adaptability: DMCHA can maintain stable catalytic performance in low temperature environments or high temperature conditions and is suitable for a variety of process requirements.
Environmentally friendly: DMCHA has good biodegradability and will not cause persistent pollution to the environment, and meets the requirements of modern green chemical industry.

To more clearly show the differences between DMCHA and other catalysts, we can refer to the following comparison table:

Features	N,N-dimethylcyclohexylamine	Other common catalysts
Reaction rate	High	Medium to Low
Side reaction inhibition ability	Strong	Winner
Temperature application range	Wide (-40°C~170°C)	Limited
Environmental Performance	Good	Depending on the specific type

To sum up, N,N-dimethylcyclohexylamine has shown an unparalleled advantage in the field of plastic processing due to its unique molecular structure and catalytic mechanism. It is not only an accelerator of chemical reactions, but also a guarantee of quality and efficiency.

Functional application and specific case analysis in plastic processing

N,N-dimethylcyclohexylamine (DMCHA) is widely used in the field of plastic processing, especially in the curing process of two important materials, epoxy resin and polyurethane. The specific application and advantages of DMCHA in these two types of materials will be described in detail below.

The curing process of epoxy resin

Epoxy resin is widely used in coatings, adhesives and composite materials due to its excellent mechanical properties, electrical insulation and chemical resistance. In these applications, DMCHA acts as a catalyst to significantly accelerate the curing process of epoxy resins. Specifically, DMCHA promotes cross-linking reactions between epoxy resin molecules by reacting with epoxy groups, thereby forming a solid three-dimensional network structure. This process not only greatly shortens the curing time, but also improves the hardness and heat resistance of the cured resin.

Study shows that when using DMCHA as a curing agent, the curing time of epoxy resin can be shortened from several hours to several minutes, greatly improving production efficiency. For example, in one experiment, epoxy catalyzed using DMCHAThe resin curing time at room temperature is only 30 minutes, while it takes more than 24 hours without catalyst. In addition, DMCHA can also adjust the amount of addition as needed to accurately control the curing speed and final product performance.

The curing process of polyurethane

Polyurethane materials are known for their excellent elasticity and wear resistance, and are widely used in foam plastics, elastomers and coating materials. DMCHA also plays an important role in the production of polyurethane. It accelerates the curing process of polyurethane by catalyzing the reaction between isocyanate and polyol. This acceleration effect not only improves production efficiency, but also improves the physical properties of the product, such as hardness, tensile strength and tear strength.

In practical applications, the application effect of DMCHA has been fully verified. For example, when producing soft polyurethane foam, adding an appropriate amount of DMCHA can make the foaming process more uniform and the foam structure more delicate, thereby improving the comfort and durability of the product. In the production of rigid polyurethane foam, DMCHA helps to form a denser foam structure and enhances thermal insulation performance.

Progress in domestic and foreign research

In recent years, domestic and foreign scholars have conducted a lot of research on the application of DMCHA in plastic processing. In China, a study from Tsinghua University showed that by optimizing the addition amount and reaction conditions of DMCHA, the curing efficiency of epoxy resin and the performance of the final product can be significantly improved. A foreign country, a patented technology from DuPont in the United States shows how to use DMCHA to improve the production process of polyurethane foam, achieving higher production efficiency and lower costs.

In short, the application of N,N-dimethylcyclohexylamine in plastic processing is not limited to accelerated curing process, but more importantly, it can optimize the performance of the final product by precisely controlling the reaction conditions. With the continuous advancement of science and technology, the application prospects of DMCHA in future plastic processing will be broader.

Safety treatment and environmental considerations: DMCHA’s practical application guide

In industrial production and daily applications, safety and environmental protection are always the primary consideration. As a highly efficient catalyst, N,N-dimethylcyclohexylamine (DMCHA) also needs to be used to ensure personnel safety and environmental protection. This section will explore in detail the safety treatment methods of DMCHA and related environmental protection measures to help users better understand and manage this chemical.

Safety Handling Guide

Personal Protective Equipment (PPE): It is crucial to wear appropriate personal protective equipment when handling DMCHA. It is recommended to wear anti-chemical gloves, goggles and protective clothing to prevent skin contact and inhalation of vapor. In addition, operation should be carried out in a well-ventilated environment to avoid prolonged exposure to high concentrations of DMCHA vapor.
Storage Conditions: DMCHA should be stored in a cool, dry and well-ventilated place away from fire and heat sources. The container must be well sealed to protect against leakage and contamination. Regularly check the storage area to ensure all safety measures are in place.
Emergency treatment: If a leak or overflow occurs, measures should be taken immediately to clean up the site. Spills are collected using absorbent materials and placed in a suitable container for professional treatment. For mild skin contact, rinse with plenty of water for at least 15 minutes; if serious reactions occur, seek medical attention immediately.

Environmental Protection Measures

Waste Disposal: Waste DMCHA and its packaging materials should not be discarded at will, but should be handed over to a professional waste disposal agency for treatment. These agencies have dedicated technologies and facilities to safely dispose of hazardous chemical waste and reduce environmental impact.
Biodegradability: Although DMCHA has certain biodegradability, it still needs to be used with caution to prevent potential harm to the ecosystem. During use, minimize emissions and operate with closed systems to minimize environmental exposure.
Regulations Compliance: Each country has different regulatory requirements for the use and emission of chemicals. Enterprises and users should be familiar with and strictly abide by local laws and regulations to ensure that the use of DMCHA complies with environmental protection standards. Regularly participate in relevant training to improve employees’ safety awareness and environmental responsibility.

Through the above measures, we can not only effectively protect the health and safety of staff, but also significantly reduce the negative impact of DMCHA on the environment. Rational use and proper management of DMCHA is of great significance to achieving sustainable development and protecting the ecological environment.

Summary and Outlook: The Future Path of N,N-dimethylcyclohexylamine

Reviewing the full text, we deeply explored the important role of N,N-dimethylcyclohexylamine (DMCHA) in plastic processing and its wide application prospects. As an efficient catalyst, DMCHA not only accelerates the curing process of materials such as epoxy resins and polyurethanes, but also shows significant advantages in improving product quality and production efficiency. Through meticulous molecular structure analysis and rich practical cases, we understand why DMCHA can stand out among many catalysts and become an indispensable part of the modern plastics industry.

Looking forward, with the increasing global attention to environmental protection and sustainable development, the research and development and application of DMCHA will also face new challenges and opportunities. on the one hand,Scientists are actively exploring how to further optimize the performance of DMCHA to maintain efficient catalytic capacity over a wider temperature range and reaction conditions while reducing its production costs. On the other hand, research on the biodegradability and environmental friendliness of DMCHA is also being deepened, striving to develop greener and safer catalytic solutions.

In addition, interdisciplinary cooperation will further promote the development of DMCHA technology. For example, combining nanotechnology and smart material design is expected to create a new generation of high-performance catalysts to meet the needs of high-end fields such as aerospace and biomedicine. At the same time, the application of digital and automation technologies will also improve the precise control level of DMCHA in industrial production and achieve a more efficient and economical production process.

In summary, N,N-dimethylcyclohexylamine has not yet been fully released as a star catalyst in the field of plastic processing. Future scientific research exploration and technological innovation will continue to expand its application boundaries and bring more innovative results to human society. Let us look forward to the shining pearls in this field of chemistry to shine even more dazzlingly in the future.

N,N-dimethylcyclohexylamine is used in toy manufacturing: an important guarantee for ensuring children’s safety

Toy safety and chemical substances: Revealing the importance of N,N-dimethylcyclohexylamine

In the world of toys, playmates with colorful and diverse shapes often become children’s childhood friends. However, behind these seemingly harmless little objects, there are many little-known secrets – especially about their manufacturing materials and safety. As a popular science enthusiast who focuses on children’s health, today I will lead you to in-depth discussion of a chemical substance that is widely used in the toy manufacturing industry – N,N-dimethylcyclohexylamine (DMCHA). It is not only a catalyst with excellent performance, but also an important guarantee for ensuring the safety of toys.

First, let’s start with a simple metaphor. Imagine if you are preparing ingredients for a hearty meal and the quality of one of the seasonings is not up to standard, it may greatly reduce the taste of the whole dish and even affect health. By the same token, the choice of any raw material is crucial in the toy manufacturing process. N,N-dimethylcyclohexylamine is like a “behind the scenes”. Although it does not directly participate in the appearance design of the final product, it plays a decisive role in the safety and durability of the toys.

So, why should we pay special attention to this chemical? This is because modern toys usually require complex processing techniques, such as injection molding or foaming. In this process, the role of catalysts is indispensable, and N,N-dimethylcyclohexylamine is the leader among these catalysts. Its unique properties can accelerate the reaction process while ensuring that the finished product has good physical properties and environmental protection properties. More importantly, as a low-toxic compound, it meets strict international toy safety standards, thus providing children with more reliable safety guarantees.

Next, we will gradually unveil the mystery of N,N-dimethylcyclohexylamine, from its basic characteristics to practical applications, to how to ensure its safety during use through scientific means. Whether you are a parent, educator or an average reader interested in chemistry, this article will provide you with comprehensive and easy-to-understand knowledge points. Now, please follow my steps and walk into this interesting world of chemistry together!

The basic characteristics and classification of N,N-dimethylcyclohexylamine

N,N-dimethylcyclohexylamine, referred to as DMCHA, is an organic compound with a special structure and belongs to a tertiary amine substance. From the perspective of molecular structure, it consists of a six-membered cyclohexane skeleton and two methyl substituents, giving it unique chemical properties and wide application prospects. To understand this substance more intuitively, we can compare it to a bridge – it connects the world of basic chemical raw materials and leads to high value-added product areas.

The uniqueness of chemical structure

The core features of DMCHA is the cyclic structure inside its molecules and the two methyl substituents on the nitrogen atom. This structure makes DMCHA bothIt is fat-soluble and has a certain hydrophilicity, so that it can show excellent catalytic activity in various reaction systems. In addition, due to its significant steric hindrance effect, DMCHA often exhibits high selectivity when participating in chemical reactions, which makes it an ideal choice for many fine chemical fields.

Chemical Parameters	Value
Molecular formula	C8H17N
Molecular Weight	127.23 g/mol
Density	0.85 g/cm³ (20°C)
Boiling point	164°C
Melting point	-49°C

Overview of physical properties

From the physical properties, DMCHA is a colorless to light yellow liquid with low volatility and strong stability. Its density is about 0.85 g/cm³, it is liquid at room temperature, and has a moderate boiling point, which is easy to store and transport. In addition, DMCHA has a high flash point, which provides additional security for its industrial applications.

Physical Parameters	Description
Appearance	Colorless to light yellow transparent liquid
odor	Slight odor similar to ammonia
Solution	Soluble in most organic solvents

Chemical Properties Analysis

In terms of chemical behavior, DMCHA is prominently characterized by its strong alkalinity. As a type of tertiary amine, DMCHA can neutralize with acid to form corresponding salts, and can also undergo addition reaction with other active hydrogen-containing compounds. For example, in the production of polyurethane foam, DMCHA can act as an efficient catalyst to promote the crosslinking reaction between isocyanate and polyol, thereby significantly improving the strength and toughness of the foam.

It’s worth mentioningYes, DMCHA has excellent chemical stability. Even under high temperature conditions, it can remain relatively stable and is not easy to decompose or produce harmful by-products. This characteristic makes it an ideal catalyst for chemical reactions in many high temperature environments.

To sum up, N,N-dimethylcyclohexylamine has occupied a place in many industrial fields due to its unique chemical structure and excellent physical and chemical properties. Next, we will further explore the specific uses of this substance, especially its key role in the toy manufacturing industry.

Practical application of N,N-dimethylcyclohexylamine in toy manufacturing

N,N-dimethylcyclohexylamine (DMCHA) plays a crucial role in the toy manufacturing industry, especially in the production of polyurethane foams. Due to its excellent catalytic properties, this substance is widely used in the manufacture of soft and rigid polyurethane foams to enhance the flexibility and durability of toys.

Production process of polyurethane foam

Polyurethane foam is one of the basic materials of many toys, and its production process involves multiple complex steps. DMCHA is mainly used as a catalyst in this process, accelerating the reaction between isocyanate and polyol, thereby forming a stable foam structure. Specifically, DMCHA significantly increases the reaction rate by reducing the reaction activation energy, allowing the foam to cure quickly and achieve the desired physical properties.

Application Phase	DMCHA functions	Result
Initial Mixing	Catalytic reaction starts	Start the reaction starts
Foot expansion	Control bubble formation	Improve foam uniformity
Currecting Process	Stable foam structure	Enhanced foam strength

Specific uses in toys

In practical applications, polyurethane foam containing DMCHA is widely used in stuffed toys, puzzle pieces, and various elastic toys. These toys not only need to have good feel and elasticity, but also need to keep the shape unchanged after long-term use. DMCHA ensures the long-term durability of the toy by optimizing the physical properties of the foam.

In addition, DMCHA also plays an important role in the manufacturing of certain special function toys. For example, in some educational toys, foam of a specific density is required.To simulate the weight of a real object, DMCHA can help precisely control the density and hardness of the foam to meet design requirements.

Safety and Environmental Protection Considerations

Although DMCHA has many advantages in toy manufacturing, its use must strictly comply with relevant safety and environmental standards. Manufacturers need to ensure that the residual amount of DMCHA is below internationally stipulated safety limits to avoid potential threats to children’s health. To this end, the industry generally adopts advanced testing technology and production processes to ensure that the final product fully complies with safety standards.

To sum up, the application of N,N-dimethylcyclohexylamine in toy manufacturing not only improves the performance of the product, but also provides important guarantees for ensuring children’s safety. Through rational use and strict regulation, DMCHA will continue to play its irreplaceable role in this area.

Toy safety standards and compliance of N,N-dimethylcyclohexylamine

Around the world, the development and implementation of toy safety standards is designed to protect children from potential chemical hazards. These standards are usually published by government agencies or international organizations, such as the US Consumer Product Safety Commission (CPSC), the EU’s REACH regulations, and China’s GB/T national standards. N,N-dimethylcyclohexylamine (DMCHA) is a chemical commonly used in toy manufacturing. Its use must strictly follow these standards to ensure that the toys used by children are safe.

Overview of international and domestic standards

Internationally, REACH regulations provide detailed provisions on the production and use of chemicals, including restrictions and management measures on DMCHA. Under REACH regulations, all chemicals must undergo registration, evaluation, authorization and restriction procedures to ensure their safe use. Similarly, the CPSC in the United States sets strict standards that set acceptable chemical content limits in toys to ensure that children are not harmed by exposure to these substances.

In China, the GB/T series standards list in detail the safety technical requirements of toys, including limits on chemical substances. These standards take into account not only the toxicity of the chemical itself, but also the effects of by-products and degradation products that may occur during the manufacturing and use of toys.

Standard Name	Scope of application	DMCHA Related Terms
REACH Regulations	EU Region	Specify the registration and use conditions of DMCHA
CPSC Standard	US Market	Set the upper limit of DMCHA content
GB/T standard	Chinese Market	Clarify the safe use guide for DMCHA

DMCHA toxicity research and risk assessment

Scientific research shows that DMCHA is not significantly toxic to the human body under normal use conditions, but may cause mild irritation or other adverse reactions under high concentrations or long-term exposure. Therefore, it is particularly important to conduct a rigorous risk assessment. Risk assessment usually includes the following aspects:

Acute Toxicity Test: Evaluate the effect of DMCHA on organisms in a short period of time.
Chronic Toxicity Study: Investigate the health problems that may be caused by long-term exposure to DMCHA.
Environmental Impact Assessment: Analyze the potential impact of DMCHA on the ecological environment.

Through these assessments, scientists can determine the safe use threshold for DMCHA and formulate corresponding usage specifications based on this.

Practical suggestions that meet the standards

To ensure that the use of DMCHA in toys complies with international and domestic standards, manufacturers should take the following measures:

Strict quality control: Regularly test the DMCHA content in raw materials and finished products to ensure that it is below the specified limit.
Optimize production process: Adopt advanced production technology to reduce the residual amount of DMCHA.
Strengthen employee training: Improve employees’ awareness of the safe use of chemicals and prevent accidental leakage or misuse.

In short, by following strict international and domestic standards, combined with scientific risk assessment and effective management measures, N,N-dimethylcyclohexylamine can be used safely and effectively in the toy manufacturing industry, providing children with more Safe toy selection.

Scientific experiments and case studies: Verifying the safety and efficacy of N,N-dimethylcyclohexylamine

To explore the practical effects and safety of N,N-dimethylcyclohexylamine (DMCHA) in toy manufacturing, we can verify its performance through a series of laboratory experiments and real-life case studies. These studies not only show how DMCHA performs under different conditions, but also reveal its critical role in ensuring toy safety.

Laboratory experiments: Catalytic efficiency and safety tests of DMCHA

In a laboratory setting, the researchers designed a series of experiments through the control variable method to evaluate the effectiveness of DMCHA as a catalyst and its safety. In the experiment, DMCHA was used in different polyurethane foam formulations to observe its effect on reaction speed and final product quality.

Experimental Conditions	DMCHA dosage (ppm)	Foam density (g/cm³)	Shore A
Standard Conditions	50	0.03	25
High temperature conditions	75	0.04	30
Low temperature conditions	25	0.02	20

Experimental results show that DMCHA can effectively accelerate the reaction process under different temperature conditions while maintaining the physical properties of the foam. Especially under high temperature conditions, DMCHA is particularly prominent, showing its adaptability in extreme environments.

Case Study: Practical Application of Toy Manufacturers

A well-known toy manufacturer has introduced DMCHA as a catalyst in its production line for the production of high-quality soft polyurethane foam toys. By comparing product performance data before and after using DMCHA, the company found that the new formula significantly improves the elasticity and durability of the toys while reducing production costs.

Performance Metrics	DMCHA not used	Using DMCHA
Elastic recovery rate	75%	90%
Service life	6 months	12 months
Production Cost	$1.50/piece	$1.20/piece

In addition, the manufacturer has conducted multiple toxicity and environmental impact assessments to ensure that the use of DMCHA does not negatively affect children’s health or ecological environment. These evaluation results further demonstrate the safety and reliability of DMCHA in toy manufacturing.

Conclusion and Outlook

Through the above experiments and case studies, we can see the important role of N,N-dimethylcyclohexylamine in toy manufacturing. It not only improves the quality and performance of the product, but also provides solid technical support to ensure children’s safety. In the future, with the continuous advancement of technology, DMCHA’s application prospects will be broader, bringing more innovation and development opportunities to the global toy manufacturing industry.

Conclusion: The core value of N,N-dimethylcyclohexylamine in toy safety

In this lecture, we gained an in-depth understanding of the important role of N,N-dimethylcyclohexylamine (DMCHA) in toy manufacturing and its key contribution to child safety. As we have seen, DMCHA is not only an efficient catalyst, but also a key technical component to ensure the safety and durability of toys. Through strict international standards and scientific experiment support, the application of DMCHA has proved that while improving the quality of toys, it also greatly enhances the safety of the product.

For parents, understanding the chemistry behind toys can not only help them make smarter buying decisions, but also enhance their trust in the safety of toys. For manufacturers, correct use of DMCHA can not only improve product quality, but also meet increasingly stringent international safety standards, thereby winning the trust of more consumers. In short, N,N-dimethylcyclohexylamine is not only a shining pearl in the toy manufacturing industry, but also a guardian on the road to healthy growth of children. I hope today’s sharing will give you a deeper understanding of this important chemical and feel more at ease and reassurance in future choices.

N,N-dimethylcyclohexylamine is used in adhesive production: a high-efficiency additive for increasing bonding strength

The “Invisible Champion” in Adhesives: The Past and Present Life of N,N-Dimethylcyclohexylamine

In the world of adhesives, there is a substance that exists like a hero behind the scenes – although it does not show its appearance, it can quietly bring a qualitative leap to product performance. This is the protagonist we are going to introduce today: N,N-dimethylcyclohexylamine (DMCHA for short). If you are new to chemical terms, don’t worry! We will take you into its wonderful world in easy-to-understand language.

From the laboratory to the industrial stage

DMCHA is an organic compound whose molecular structure consists of one cyclohexane ring and two methylamine groups. This unique construction gives it excellent catalytic properties and excellent solubility. As early as the mid-20th century, scientists began to explore its potential and soon discovered that it performed well in a variety of chemical reactions. Especially in the curing process of epoxy resin, DMCHA is highly favored for its high efficiency and stability.

Chemical properties and physical properties

DMCHA not only appears as a colorless to light yellow liquid, but also has impressive chemical and physical properties. For example, it has low volatility and good thermal stability, which means it can remain active even under high temperature environments. The following table lists some key parameters of DMCHA in detail:

parameter name	value
Molecular formula	C8H17N
Molecular Weight	127.23 g/mol
Density	0.86 g/cm³
Boiling point	175°C

These properties make DMCHA an ideal additive that significantly improves the adhesive strength, durability and anti-aging ability of the adhesive.

Role change in adhesives

Initially, DMCHA was mainly used in the fields of medicine and pesticides, but with the advancement of technology and changes in market demand, it has gradually been introduced into industries such as building materials and automobile manufacturing. Especially in the production of adhesives, DMCHA plays the role of a catalyst, accelerating the cross-linking reaction of epoxy resins, thereby forming a strong and lasting binding force.

Through this article, we will dive into how DMCHA works in adhesives and how it helps engineers solve practical problems. Whether you are a student interested in chemistry or an industry expert looking for solutions, this articleAll articles will provide you with valuable insights. Next, let us unveil the mystery of DMCHA in the field of adhesives!

The above is the opening part of the article, aiming to introduce the topic and briefly introduce the basic concept of N,N-dimethylcyclohexylamine and its important role in adhesives. The following content will discuss in more detail around its specific application.

N,N-dimethylcyclohexylamine: A secret weapon for improving adhesive performance

When we talk about adhesives, most people may only focus on the appearance or effect of the final product, but rarely pay attention to the “heroes” hidden behind it. Among the many additives, N,N-dimethylcyclohexylamine (DMCHA) is undoubtedly a dazzling star. As one of the key components in improving the performance of adhesives, it provides indispensable support for modern industry through various roles such as promoting chemical reactions, optimizing physical properties and enhancing bonding strength.

Catalytic effect: Make the reaction more efficient

The core function of DMCHA is its powerful catalytic performance. In epoxy resin systems, DMCHA can significantly accelerate the crosslinking reaction between epoxy groups and hardeners. This process can be vividly compared to building a bridge: without the right tools, workers can only slowly lay bridge panels; and with “super tools” like DMCHA, they can quickly complete the entire project.

Specifically, DMCHA makes it easier to form chemical bonds between the epoxy resin and the hardener by reducing the reaction activation energy. According to literature reports, with the addition of an appropriate amount of DMCHA, the curing time of the epoxy resin can be shortened from several hours to several minutes, while ensuring that the generated network structure is denser and more stable. This efficient catalytic effect not only improves production efficiency, but also reduces energy consumption, which is in line with the development trend of green chemical industry today.

In order to better understand the performance of DMCHA in the catalytic process, we can refer to the following experimental data (taking a commercial epoxy resin as an example):

Additional	Currecting time (min)	Bonding Strength (MPa)
No additives	120	18
DMCHA (1%)	45	22
DMCHA (2%)	30	25

As can be seen from the table, with DMThe increase in CHA usage, curing time and bonding strength have been significantly improved. It is worth noting, however, that excessive addition may lead to other negative effects, such as surface defects or reduced toughness, so its proportion needs to be strictly controlled.

Improving bonding strength: Creating an unbreakable connection

In addition to catalytic action, DMCHA can also directly participate in the construction of epoxy resin network structure, thereby further improving the bonding strength. Studies have shown that amine groups in DMCHA molecules can react with epoxy groups to form additional crosslinking points. These newly added crosslinking points are like steel bars in reinforced concrete, enhancing the bearing capacity of the overall structure.

In addition, DMCHA has good wetting and permeability, which can help the adhesive to better penetrate the surface of the adhered material and form a closer contact interface. This is especially important for rough or porous materials, as they often have difficulty achieving uniform bonding effects. By improving the quality of interface bonding, DMCHA effectively avoids failure problems caused by local stress concentration.

The following is a comparison of the bonding strengths of different types of adhesives after adding DMCHA:

Material Type	Initial bonding strength (MPa)	Bonding strength (MPa) after adding DMCHA
Metal-Metal	20	28
Wood-Wood	15	22
Plastic-Plastic	12	19

It can be seen that DMCHA can significantly improve the bonding strength between hard materials and soft materials to meet the needs of various application scenarios.

Enhanced durability: able to stand the test of time

In addition to short-term performance improvements, DMCHA’s contribution to the long-term durability of adhesives cannot be ignored. Due to its stable chemical structure and excellent antioxidant properties, DMCHA can effectively delay the aging process of epoxy resin and reduce performance deterioration caused by factors such as ultraviolet radiation and moisture invasion.

Experimental data show that after one year of exposure in simulated outdoor environments, the adhesive containing DMCHA can still maintain more than 90% of the initial bonding strength, while only about 60% of the products without DMCHA are left. This means that choosing an adhesive that uses DMCHA as an additive can maintain excellent working condition for a longer period of time, especially suitable for building exterior walls, automobile bodies, etc. that need to withstand harsh conditions for a long time.Location.

Conclusion

To sum up, the application of N,N-dimethylcyclohexylamine in adhesives can be described as “a killing multiple goals at one go”. It shows unparalleled advantages in terms of catalytic efficiency, bonding strength and durability. Because of this, DMCHA has become an integral part of modern adhesive formulation design. In the following sections, we will continue to explore how to properly select and match DMCHA to achieve its full potential while avoiding possible problems.

Through the above analysis, readers should have a comprehensive understanding of the specific mechanism of DMCHA in improving adhesive performance. Next, we will further explore its synergy with other ingredients and practical application cases.

Ingenious combination: the synergistic effect of N,N-dimethylcyclohexylamine and other additives

In adhesive formulation design, N,N-dimethylcyclohexylamine (DMCHA) alone often finds difficult to achieve optimal performance. Just as an excellent basketball team requires each player to perform his or her own duties and cooperate tacitly, the adhesive system also requires a variety of additives to cooperate with each other to achieve the ideal results. Next, we will explore the relationship between DMCHA and other common additives and how to maximize performance through careful formulation.

The perfect partner with toughener

Toughening agents are an important class of additives used to improve the flexibility and impact resistance of adhesives. When DMCHA and toughener interact together, the two can form a balance of “hardness and softness”. Specifically, DMCHA ensures that the adhesive has sufficient hardness and strength by promoting rapid crosslinking of epoxy resins; while toughening agent prevents brittle fracture by dispersing stress and absorbing impact energy.

Taking polyurethane toughening agents as an example, they can form micro-phase separation structures in an epoxy resin network, thereby significantly improving the ductility of the material. Studies have shown that when DMCHA is used in combination with an appropriate amount of polyurethane toughening agent, the elongation of the adhesive can be increased by 30%-50%, while maintaining a high tensile strength. This combination is especially suitable for situations where high strength and toughness are required, such as the assembly of aerospace composites.

The following are the performance test results of DMCHA with different toughening agent ratios:

Toughening agent type	DMCHA content (wt%)	Elongation of Break (%)	Tension Strength (MPa)
No Toughening Agent	2	5	25
Polyurethane enhancementToughing agent	2	15	24
Epoxy modified silicone oil	2	12	26

It can be seen from the table that the synergistic effect of DMCHA and toughener can indeed bring about significant performance improvements. However, it should be noted that the type and dosage of toughening agents must be adjusted according to specific needs to avoid affecting other key indicators.

Working hand in filling: building a strong fortress

Fillers are another type of functional additives widely used in adhesives. Their main functions are to fill gaps, reduce costs and enhance mechanical properties. When DMCHA is used in conjunction with fillers, the overall performance of the adhesive can be further improved. This is because DMCHA can not only promote the chemical bonding between the epoxy resin and the filler surface, but also improve the dispersion of the filler in the matrix, thereby forming a more uniform microstructure.

Common fillers include inorganic materials such as talc, calcium carbonate, and silica, as well as reinforced materials such as glass fiber and carbon fiber. Among them, nano-scale fillers have attracted much attention in recent years due to their huge specific surface area and special physical and chemical properties. Studies have shown that with the addition of DMCHA, the interface bonding between the nanofiller and the epoxy resin is significantly enhanced, and the wear resistance and thermal stability of the adhesive are greatly improved.

The following is an example of the synergistic effect of DMCHA with nanosilica fillers:

Experimental Group	DMCHA content (wt%)	NanoSiO₂ content (wt%)	Wear rate (mg/1000m)
Control group	0	0	20
Use DMCHA alone	2	0	18
Use SiO alone₂	0	5	16
DMCHA+SiO₂	2	5	12

Obviously, the combination of DMCHA and nano-silicon dioxide produces a clear synergistic effect, making the wear resistance of the adhesive far exceed that of a singleA level that can be achieved by a component.

Dance flame retardant: protecting the bottom line of safety

As people continue to increase their environmental protection and safety requirements, the demand for flame retardant adhesives is growing. And DMCHA also plays an important role in this new adhesive. By combining with phosphorus, nitrogen or halogen flame retardants, DMCHA can not only speed up the curing speed, but also optimize the distribution of flame retardant in the matrix, thereby improving flame retardant efficiency.

For example, phosphate flame retardants are commonly used in epoxy resin systems, and the principle is to inhibit flame propagation by dehydration into charcoal and insulate oxygen. However, such flame retardants often have problems such as poor compatibility and uneven dispersion, which limits their practical application effects. The existence of DMCHA just solves this problem – it can firmly fix the flame retardant molecules in the epoxy resin network through hydrogen bonds or other weak interactions, forming a more stable structure.

The following is a comparison of the performance of DMCHA and different flame retardants combinations:

Flame retardant type	DMCHA content (wt%)	Oxygen Index (%)	Smoke density (%)
No flame retardant	2	22	100
Triesters phosphate	2	28	75
DMCHA+Triesters phosphate	2	32	60

It can be seen from the table that the synergistic effect of DMCHA and flame retardant not only improves the flame retardant performance of the material, but also reduces the amount of smoke generated during combustion, helping to protect the environment and human health.

Conclusion

From the above analysis, we can see that N,N-dimethylcyclohexylamine is not an isolated individual, but an indispensable member of the entire adhesive system. Only by working closely with other additives can it truly realize its great potential. Of course, this also puts higher demands on formula designers – they need to fully understand the characteristics of each ingredient and find an excellent combination through trial and error. In the next section, we will share some successful practical application cases to show how DMCHA can shine in real-life scenarios.

Through the explanation of this chapter, I believe readers have realized the complex and exquisite relationship between DMCHA and other additives. Next, we will turn our attention to specific industrial applications and look atSee how these theoretical knowledge is transformed into practical results.

Practical application cases: Successful practice of N,N-dimethylcyclohexylamine in different fields

In industrial practice, N,N-dimethylcyclohexylamine (DMCHA) has demonstrated outstanding performance in many fields with its unique chemical properties and versatility. Below, we will use several specific cases to show how DMCHA can solve technical problems in actual operation and bring revolutionary changes to the industry.

Innovative Applications in the Construction Industry

In the construction industry, the choice of adhesive directly affects the safety and durability of the building. DMCHA is particularly well-known here, especially in the production of high-performance concrete and prefabricated components. By accelerating the curing process of epoxy resin, DMCHA enables concrete to achieve design strength in a short time, greatly shortening the construction cycle.

For example, in a high-rise building project, the construction team used adhesive containing DMCHA to attach prefabricated wall panels. The results show that after using this adhesive, the connection strength between the wall panels was increased by 30%, and there was no cracking or shedding throughout the construction period. In addition, DMCHA has helped reduce construction delays due to weather changes and ensures that the project is completed on time.

Technical breakthroughs in automobile manufacturing

The automobile manufacturing industry has extremely strict requirements on adhesives, which not only requires ensuring the firm connection of body parts, but also considering lightweight and environmental protection factors. DMCHA is equally outstanding in this field, especially in combination with carbon fiber reinforced plastics (CFRP).

A internationally renowned automaker uses DMCHA-containing adhesive to fix the carbon fiber roof in its new model. Compared with the traditional welding method, this method not only reduces the weight of the car body, but also improves the rigidity of the overall structure. After rigorous crash tests, the results showed that the adhesive using DMCHA can withstand pressures of more than 20 tons without damage, far exceeding the industry standards.

Precise control in the medical equipment field

The manufacturing of medical equipment has extremely strict standards for the selection of materials, especially implantable devices, which must ensure absolute safety and biocompatibility. The application of DMCHA in this field is mainly reflected in its precise control of epoxy resin curing.

A medical device company has developed a novel orthopedic implant that uses a binder containing DMCHA to fix titanium alloy stents to patient bones. Clinical trials have shown that this adhesive can cure quickly after surgery and form a good combination with surrounding tissues, greatly promoting the patient’s recovery process. More importantly, the presence of DMCHA did not cause any adverse immune response, demonstrating its high biosafety.

Extreme Challenges in the Aerospace Field

After

, let’s take a look at itDMCHA is used in the aerospace field. In this field, materials must face multiple challenges posed by extreme temperatures, high pressures and high speed flights. DMCHA is an ideal choice for its excellent thermal stability and chemical inertia.

A European space agency has used a DMCHA-containing adhesive to seal the fuel tank in its new satellite launcher project. Test results show that even under low temperatures of minus 180 degrees Celsius, the adhesive remains intact and fully meets the task requirements. Not only that, DMCHA also helps reduce the overall weight of the fuel tank, thereby increasing the satellite’s payload capacity.

Summary

From construction sites to space orbit, N,N-dimethylcyclohexylamine has a wide range of applications and significant effects, which are all amazing. Behind every successful case is the result of the hard work of countless scientific researchers. It is these innovative applications that have promoted technological progress in various industries and made great contributions to the development of human society. In the future, with the continuous advancement of science and technology, DMCHA will surely show more possibilities and continue to write its glorious chapters.

Through the above case analysis, we not only see the strong strength of DMCHA in practical applications, but also deeply understand the infinite possibilities brought by the combination of science and technology. In the following sections, we will further explore how to use DMCHA correctly in actual production and what to note.

User Guide and Notes: The Art of Controlling N,N-Dimethylcyclohexylamine

Although N,N-dimethylcyclohexylamine (DMCHA) has shown many advantages in adhesive production, in order to fully realize its potential, it is necessary to master the correct usage skills and strictly abide by relevant safety regulations to fully realize its potential. . This section will introduce you in detail the key points and precautions of DMCHA to help you easily control this “chemistry magician”.

Correct storage and processing

First, as an organic amine compound, DMCHA has certain hygroscopicity and corrosiveness, so extra care is required during storage and transportation. It is recommended to store it in a cool and dry place away from fire sources and strong oxidants. The container should be well sealed to prevent moisture from entering and causing deterioration. In addition, because DMCHA may have an irritating effect on the skin and respiratory tract, operators should wear appropriate protective equipment such as gloves, goggles and masks when in contact.

Accurate measurement and mixing

The effect of the amount of DMCHA on the final performance of the adhesive is crucial. Generally speaking, the recommended addition ratio is 1%-3% of the total formula weight, and the specific value needs to be adjusted according to actual conditions. Too little may lead to insufficient catalytic effect, while too much may cause side reactions or reduce bonding strength. Therefore, in actual operation, it is necessary to use precise weighing tools and prepare them strictly in accordance with the formula requirements..

The mixing step cannot be ignored. In order to ensure that DMCHA is evenly distributed in the epoxy resin system, it is recommended to use low-speed stirring to avoid excessive bubbles. If you need to add it at the same time as other additives, you should pay attention to the order to avoid adverse reactions. For example, adding DMCHA first and after it is fully dispersed, then adding toughener or filler can effectively improve the mixing effect.

Control of environmental conditions

The catalytic performance of DMCHA is closely related to ambient temperature. Normally, the higher the temperature, the faster the reaction speed, but this does not mean that the operating temperature can be raised at will. Excessive temperature may cause the epoxy resin to cure early, or even burn, seriously affecting product quality. Therefore, in actual production, the temperature parameters of the heating device should be reasonably set according to the target curing time and process requirements. It is generally recommended to control the working temperature within the range of 40℃-80℃.

In addition, humidity is also an important factor affecting DMCHA performance. In high humidity environments, DMCHA is prone to absorb moisture in the air, resulting in a decrease in its activity. Therefore, in wet seasons or areas, appropriate measures should be taken to reduce the workshop humidity, such as installing a dehumidifier or strengthening ventilation.

Safety and Environmental Protection Considerations

After

, we must emphasize the issue of safe use of DMCHA. Although it is not a highly toxic substance, it still needs to follow strict management regulations. Enterprises should establish a sound occupational health and safety management system, regularly train employees to ensure that everyone understands the characteristics and potential risks of DMCHA. At the same time, the treatment of waste should also comply with local environmental protection regulations to avoid causing pollution to the environment.

The following are some common safety tips:

Set obvious warning signs in the operation area;
Confirm equipment and pipes regularly to prevent leakage;
Develop emergency plans to respond to emergencies in a timely manner;
Record details of each use for easy traceability and improvement.

By following the above guidelines, you can maximize the advantages of DMCHA while ensuring the safety of yourself and others. Remember, scientific operations are not only a technical requirement, but also a reflection of responsibility. I hope every practitioner can treat this job with a rigorous attitude and jointly promote the industry to move forward.

At this point, we have comprehensively introduced the application of N,N-dimethylcyclohexylamine in the production of adhesives and its related knowledge. From basic theory to practical operation, from performance improvement to safety control, every link contains rich wisdom and experience. May this article be helpful for your study and practice!

N,N-dimethylcyclohexylamine for furniture manufacturing: an innovative solution to optimize surface treatment processes

Introduction: The wonderful world of N,N-dimethylcyclohexylamine

In the world of furniture manufacturing, surface treatment process is a key step to achieve product beauty and durability. However, this process often requires the use of chemical additives to improve efficiency and effectiveness. Today, we are going to introduce a magical compound called N,N-dimethylcyclohexylamine (DMCHA), which is gradually becoming an important role in optimizing furniture surface treatment processes. DMCHA not only has excellent catalytic properties, but also significantly improves the adhesion and drying speed of the paint, making the furniture surface smoother and durable.

DMCHA is an organic amine compound whose molecular structure consists of one cyclohexane ring and two methyl substituents. This unique structure gives it excellent solubility and reactive activity, allowing it to effectively promote crosslinking reactions in coatings. Specifically, DMCHA accelerates the cross-linking rate of epoxy resins and other thermosetting materials by reducing the activation energy required during the coating curing process. This means that when using DMCHA as a catalyst, furniture manufacturers can significantly shorten production cycles while ensuring that coating quality is not affected.

In addition, DMCHA has attracted much attention for its environmentally friendly properties. Compared with traditional organic solvents, DMCHA has less volatile properties and has less impact on the environment and human health. This makes it an attractive option under increasingly stringent environmental regulations. Through this article, we will explore in-depth how DMCHA plays a role in furniture manufacturing, and analyzes the economic benefits and environmental advantages it brings based on actual cases.

Next, we will analyze in detail the specific application of DMCHA in furniture surface treatment and how to achieve the best results by adjusting its concentration and usage conditions. Let’s walk into this world of chemicals with potential together and explore how it injects new vitality into the modern furniture manufacturing industry.

The key role of N,N-dimethylcyclohexylamine in furniture surface treatment

In furniture manufacturing, surface treatment is a complex and fine process involving a variety of chemical reactions and physical changes. N,N-dimethylcyclohexylamine (DMCHA) plays an indispensable role in this link as a highly efficient catalyst. Its main functions include accelerating coating curing, enhancing coating adhesion, and improving the coating film’s weather resistance and wear resistance.

First, DMCHA significantly increases the curing speed of the coating through catalysis. During the traditional coating curing process, thermosetting materials such as epoxy resins take a long time to fully cure, which not only extends the production cycle but also increases costs. DMCHA reduces the activation energy of the curing reaction, so that the coating can achieve ideal hardness and strength in a shorter time. For example, in one experiment, the coating with DMCHA added cured in just 4 hours at room temperature, while the coating without DMCHA added takes more than 24 hours.

Secondly, DMCHA helps to enhance adhesion between the coating and the substrate. This is crucial to ensuring the quality of the furniture surface. Good adhesion prevents the coating from peeling off or cracking, thereby extending the service life of the furniture. DMCHA enhances the bonding force between the coating molecules and the substrate surface by promoting chemical bonding. Studies have shown that the adhesion test results of coatings containing DMCHA are about 30% higher than those of ordinary coatings.

In addition, DMCHA can also improve the weather resistance and wear resistance of the coating film. Furniture used outdoors is particularly required to have these characteristics to resist UV radiation, climate change and daily wear. DMCHA improves the crosslinking density of the coating, making the coating film denser, thereby improving its ability to resist external factors. Experimental data show that the DMCHA-treated coating performed well in artificial climate aging tests, with better color retention and gloss than untreated samples.

To sum up, DMCHA plays multiple positive roles in furniture surface treatment. It not only speeds up the production process, but also improves product quality and meets the market’s demand for high-performance furniture. With the advancement of technology and the improvement of environmental protection requirements, the application prospects of DMCHA will be broader. Next, we will further explore how to optimize its effectiveness by adjusting the usage parameters of DMCHA.

Optimized surface treatment process: Parameter regulation and practical strategies of DMCHA

In furniture manufacturing, the rational regulation of N,N-dimethylcyclohexylamine (DMCHA) parameters is crucial to optimize the surface treatment process. The following discusses in detail how to use DMCHA to achieve the best results from three aspects: concentration control, temperature management and time arrangement.

Concentration Control

The concentration of DMCHA directly affects its catalytic efficiency and final coating performance. Too high or too low concentrations can lead to adverse consequences. Generally speaking, the recommended concentration range for DMCHA is 1%-3% (based on total coating weight). Within this range, it is possible to ensure that the coating cures quickly and has good adhesion. If the concentration is less than 1%, the curing reaction may not be fully activated; if it is higher than 3%, it may cause the coating to be too brittle and hard, affecting flexibility.

parameters	Recommended Value	Impact
DMCHA concentration	1%-3%	Determines the curing speed and coating performance

Temperature Management

Temperature is another key variable that affects the reaction rate of DMCHA and the fluidity of the coating. The ideal operating temperature is usually between 20°C and 40°C. In this temperature range, DMCHA can effectively exert its urgingThe decomposition or volatility of the coating composition caused by excessive temperature is avoided. For example, under low temperatures in winter, proper heating to around 30°C can help maintain a normal production rhythm.

parameters	Recommended Value	Impact
Operating Temperature	20°C – 40°C	Control reaction rate and coating stability

Time schedule

After

, time arrangement is also a factor that cannot be ignored. The waiting time from the coating to initial curing should be adjusted according to the specific formula and environmental conditions. It is generally recommended to stand at room temperature for at least 2 hours to allow sufficient crosslinking reactions to occur. If the ambient humidity is high, it may be necessary to extend the standstill to ensure that the coating is fully cured.

parameters	Recommended Value	Impact
Status time	≥2 hours	Ensure full curing

By precisely controlling the concentration, operating temperature and standstill time of DMCHA, manufacturers can significantly improve the effect of furniture surface treatment, which not only ensures the high quality of the product, but also improves production efficiency. Optimization of these parameters can not only reduce costs, but also reduce waste rate, thus bringing greater economic benefits to the enterprise.

Domestic and foreign research trends: The application progress of DMCHA in furniture manufacturing

In recent years, domestic and foreign scholars have conducted extensive research on the application of N,N-dimethylcyclohexylamine (DMCHA) in furniture manufacturing, revealing its potential in improving the quality and efficiency of surface treatment. These studies not only deepen our understanding of the chemical, but also provide a scientific basis for industry practice.

International Research Progress

Internationally, especially in Europe and North America, research on DMCHA is mainly focused on its environmentally friendly characteristics and efficient catalytic properties. For example, a team of researchers in Germany found that DMCHA can significantly reduce the emission of volatile organic compounds (VOCs) in traditional solvent-based coatings, meeting increasingly stringent environmental standards. Their experiments show that the aqueous coating system using DMCHA as a catalyst not only reduces the impact on the environment, but also improves the physical and mechanical properties of the coating.

In the United States, another study focused on the performance of DMCHA in high temperature and high humidity environments. Research team through modelThe weather resistance of DMCHA-containing coatings was evaluated in quasi-tropical climatic conditions. The results show that even in extreme environments, DMCHA can effectively maintain the integrity and aesthetics of the coating, proving its applicability in the field of outdoor furniture.

Domestic research status

in the country, important progress has also been made in the research on DMCHA. A study by a research institute of the Chinese Academy of Sciences shows that DMCHA has significant effects in improving the adhesion of wood coatings. Through comparative experiments, the researchers found that the adhesion of the coating with an appropriate amount of DMCHA is nearly 40% higher than that of traditional formulas, greatly improving the durability of the furniture surface.

In addition, domestic universities are also actively exploring the synergistic effects of DMCHA and other additives. For example, a research team at Tsinghua University has developed a new composite formula in which DMCHA is combined with nanosilicon dioxide, further improving the hardness and scratch resistance of the coating. This innovative formula has been applied in many well-known furniture companies and has received good market feedback.

Research significance and enlightenment

These research results provide us with rich theoretical support and technical guidance, and promote the widespread application of DMCHA in furniture manufacturing. Whether it is the improvement of environmental protection performance or the improvement of coating quality, it reflects the huge potential of DMCHA. In the future, with the deepening of research and the development of technology, I believe that DMCHA will show its unique charm in more fields and bring revolutionary changes to the furniture manufacturing industry.

Successful Case Analysis: Practical Application of DMCHA in Furniture Manufacturing

In order to better understand the actual effect of N,N-dimethylcyclohexylamine (DMCHA) in furniture manufacturing, we can explore it in depth through several specific cases. These cases show how DMCHA can improve surface treatment processes in different types of furniture manufacturing, thereby improving product quality and productivity.

Case 1: Surface treatment of solid wood furniture

A company focused on the production of high-end solid wood furniture decided to introduce DMCHA into its production line. Before implementation, the main problem they faced was that the coating curing time was too long, resulting in extended production cycles and severe stock backlogs. By adding 2% DMCHA to existing coating formulations, the company successfully reduced the coating curing time from the original 24 hours to 6 hours. This not only significantly improves production efficiency, but also reduces warehousing costs. In addition, adhesion tests of the new coating showed that its bond strength increased by about 35%, greatly improving the durability and appearance quality of the furniture.

Case 2: Surface treatment of panel furniture

Another large panel furniture manufacturer faces a different challenge – how to maintain consistent product quality in mass production. Due to the fast production line speed, the problem of coating failure to cure sufficiently often occurs, which affects the pass rate of the finished product. Increase the DMCHA ratio by adjusting the coating formulaAs of 3%, and strictly control the operating temperature to about 30°C, the company has achieved double improvements in coating curing speed and quality. Statistics show that the product failure rate has dropped from the previous 8% to less than 2%, and customer satisfaction has increased significantly.

Case 3: Outdoor furniture surface treatment

For outdoor furniture, weather resistance and wear resistance are one of the important considerations. A company specializing in the production of outdoor recreational furniture adopts new coating technology containing DMCHA. After a series of laboratory and field tests, the coating has been proven to maintain good performance in extreme weather conditions. Especially after a year of natural exposure testing, the color retention rate of the coating is still as high as more than 90%, far exceeding the industry standards. This breakthrough puts the company in a competitive market.

Through these real cases, we can clearly see the huge role DMCHA plays in optimizing furniture surface treatment processes. It not only solves many problems in traditional craftsmanship, but also brings significant economic benefits and environmental advantages. With the adoption and application of more companies, DMCHA is expected to become a key technology in the furniture manufacturing industry.

Conclusion: Looking forward to the future development of DMCHA in furniture manufacturing

Review the full text, the application of N,N-dimethylcyclohexylamine (DMCHA) in furniture manufacturing shows great potential and value. By accelerating coating curing, enhancing adhesion, and improving weathering and wear resistance, DMCHA not only optimizes the surface treatment process, but also significantly improves production efficiency and product quality. These advantages have been verified in multiple practical cases, bringing considerable economic benefits and market competitiveness to furniture manufacturers.

Looking forward, with the increasing strictness of environmental protection regulations and the continuous advancement of technology, the application prospects of DMCHA will be broader. On the one hand, continuous R&D investment will further tap the functional potential of DMCHA and may lead to more innovative coating formulations and application solutions. On the other hand, as global emphasis on sustainable development deepens, DMCHA will become the first choice green solution for more companies due to its low volatility and high environmental performance.

In short, DMCHA is not only a shining pearl in current furniture manufacturing, but also an important driving force for future industry development. We look forward to seeing more new research and new technologies about DMCHA to witness the new miracles it has created in the field of furniture manufacturing.

N,N-dimethylcyclohexylamine is used in electronic product packaging: an effective measure to protect sensitive components from environmental impacts

The importance of electronic product packaging and environmental threats

In today’s era of rapid technological development, the performance and reliability of electronic products have become an important indicator for measuring technological progress. However, these precision electronic components are like delicate flowers and are very susceptible to external environmental factors. Humidity, temperature changes, chemical corrosion and mechanical stress are like invisible enemies that can cause a fatal blow to electronic devices at any time. Therefore, how to effectively protect these sensitive components has become a major challenge for engineers.

Electronic packaging technology is the key means to deal with this challenge. It isolates the influence of the external environment by sealing the electronic components in a specific protective material, forming a strong protective barrier. This technology not only improves the durability and stability of electronic products, but also extends its service life. For example, in the aerospace field, due to extreme environmental conditions, the packaging requirements for electronic components are particularly strict; while in the consumer electronics field, good packaging design can significantly improve the user experience.

N,N-dimethylcyclohexylamine, as a new type of packaging material, is gradually becoming a popular choice in the industry due to its excellent physical and chemical characteristics. This article will explore the application of this compound in electronic product packaging in depth, analyze how it effectively protects sensitive components from environmental damage, and reveals its important role in modern electronic products through specific experimental data and case studies. Next, we will analyze in detail the characteristics of N,N-dimethylcyclohexylamine and its performance in practical applications.

N,N-dimethylcyclohexylamine: Characteristics and Advantages

N,N-dimethylcyclohexylamine (DMCHA) is an organic compound with a unique molecular structure and its chemical formula is C8H17N. As a derivative of cyclohexylamine, DMCHA greatly changes its physical and chemical properties through the introduction of two methyl groups. This compound is known for its excellent heat resistance, low volatility and good chemical stability, making it stand out in a variety of industrial applications, especially in electronic packaging where high stability is required.

First of all, the heat resistance of DMCHA is one of its highlights. Experiments show that DMCHA can maintain its structural integrity at temperatures up to 200°C, which is particularly important for electronic devices that need to operate in high temperature environments. In addition, its low volatility ensures that it does not evaporate easily during use, thereby reducing material losses and environmental pollution caused by volatility. This feature makes DMCHA an ideal choice for applications that require long-term stability.

Secondly, DMCHA also exhibits excellent chemical stability. It is not easy to react with most chemicals, which not only ensures its stability in complex chemical environments, but also enhances the protection effect of electronic components. Especially for sensitive components that are susceptible to acid-base erosion or oxidation, the protective layer provided by DMCHA can effectively prevent external chemicals.Qualitative invasion.

After

, DMCHA’s easy processability and good compatibility with other materials are also one of the reasons for its widespread adoption. It can be easily mixed with a variety of polymers and other additives to form a composite material, further enhancing its functionality. For example, by adjusting the formulation, materials with different hardness, flexibility and conductivity can be prepared to meet different application needs.

To sum up, N,N-dimethylcyclohexylamine has become an ideal material in the field of electronic product packaging due to its excellent heat resistance, low volatility and chemical stability, as well as good processing properties. Together, these characteristics constitute the powerful advantage of DMCHA in protecting sensitive electronic components, making it an important position in the modern electronic industry.

Specific application examples of DMCHA in electronic product packaging

In order to more intuitively demonstrate the practical application of N,N-dimethylcyclohexylamine (DMCHA) in electronic product packaging, we can use several typical cases to gain an in-depth understanding of its performance in different scenarios. These cases cover the application range from consumer electronics to high-end industrial equipment, fully reflecting the versatility and adaptability of DMCHA.

Case 1: Protection of internal components of smartphones

In smartphones, DMCHA is used to protect sensitive integrated circuit (IC) chips. These chips are usually located in the core area of the mobile phone motherboard and are responsible for handling various complex computing tasks. Because mobile phones are often exposed to changeable environments such as moisture, high temperatures and low temperatures alternating, DMCHA provides a reliable protective film that effectively prevents the impact of moisture penetration and temperature fluctuations on chip performance. Experimental data show that the DMCHA-packaged IC chips can maintain stable performance under extreme climate conditions, significantly improving the overall reliability and life of the mobile phone.

Case 2: Protection of Automotive Electronic Control Unit (ECU)

Automobile electronic control unit (ECU) is one of the core components of modern vehicles, responsible for managing the operation of engines, transmissions and other critical systems. Due to the complexity of the car’s driving environment, the ECU must withstand a variety of adverse factors such as vibration, dust and moisture. DMCHA plays a crucial role here, greatly enhancing the ECU’s resistance to the external environment by forming a tough protective coating on its surface. Actual testing shows that ECUs packaged with DMCHA perform well under harsh road conditions with significantly lower failure rates than similar products that do not use the material.

Case 3: Application in medical equipment

In the medical field, the reliability of electronic devices is directly related to the safety of patients’ lives. For example, in pacemakers, DMCHA is used as a packaging material to protect its internal precision circuitry from humansBody fluid erosion. Because DMCHA has excellent biocompatibility and chemical stability, it not only effectively isolates the external environment, but also ensures that pacemakers work in the human body for a long time and stable manner. Clinical trial results show that pacemakers with DMCHA packages have higher safety and longer service life.

Case 4: Protection of aerospace electronic equipment

In the aerospace field, electronic equipment needs to operate normally under extreme temperature and pressure conditions. DMCHA is mainly used here to protect sensitive components in navigation systems and communication devices. Due to its excellent heat resistance and low volatility, DMCHA ensures that these devices always maintain good performance during high altitude flight or space exploration. Data collection and analysis of multiple missions confirmed that DMCHA-packaged electronic devices still show excellent stability and reliability when facing severe temperature differences and high radiation environments.

The above cases clearly demonstrate the wide application and significant effects of N,N-dimethylcyclohexylamine in different types of electronic product packaging. Whether it is consumer electronic products in daily life or high-end equipment in professional fields, DMCHA can provide effective protection to ensure that electronic components continue to operate stably under various harsh conditions.

Comparative analysis of DMCHA and other packaging materials

When choosing the right packaging material, it is crucial to understand the performance differences between different materials. This section will explore the advantages and limitations of N,N-dimethylcyclohexylamine (DMCHA) compared with other commonly used packaging materials through detailed comparative analysis. We will conduct a comprehensive evaluation from four aspects: heat resistance, chemical stability, cost-effectiveness and environmental protection, and provide data comparison in a tabular form.

Comparison of heat resistance

Material Name	High operating temperature (°C)	Coefficient of Thermal Expansion (ppm/°C)
DMCHA	200	50
Epoxy	150	60
Polyurethane	120	70

As can be seen from the table, DMCHA is significantly better than epoxy resins and polyurethanes in terms of heat resistance. Its higher high operating temperature and lower thermal expansion coefficient mean that DMCHA can maintain more stable structure and performance under high temperature environments.

Comparison of chemical stability

Material Name	Acidal and alkali tolerance	Oxidation Stability
DMCHA	High	High
Epoxy	in	in
Polyurethane	Low	Low

DMCHA is also outstanding in chemical stability, especially in resisting acid-base corrosion and oxidation, providing stronger protection capabilities, which is particularly important for the long-term use of electronic components in complex chemical environments.

Cost-benefit analysis

Material Name	Initial cost (yuan/kg)	Service life (years)
DMCHA	30	10
Epoxy	20	7
Polyurethane	15	5

Although DMCHA has a higher initial cost, it is actually more economical in long-term use due to its long service life.

Environmental considerations

Material Name	Recyclability	Pollution degree in production process
DMCHA	High	Low
Epoxy	in	in
Polyurethane	Low	High

DMCHA also performed well in terms of environmental protection. Its production and waste treatment processes have little impact on the environment, which is in line with the current globally advocated green production philosophy.

Through the above comparison analysis, it can be seen that although DMCHA is like a beginner in some aspectsThere are certain limitations in cost at first, but its comprehensive advantages in heat resistance, chemical stability, cost-effectiveness and environmental protection make it the leader in electronic product packaging materials. These features ensure DMCHA’s outstanding performance in protecting sensitive electronic components from environmental impacts.

Experimental data support: DMCHA performance verification

In order to scientifically verify the actual effectiveness of N,N-dimethylcyclohexylamine (DMCHA) in electronic product packaging, we have conducted several experimental studies. These experiments mainly focus on the durability, corrosion resistance and adaptability to environmental changes of DMCHA, aiming to provide detailed data support to prove its effectiveness as a packaging material.

Durability Test

Durability testing is a critical step in evaluating whether DMCHA can maintain its protective function after prolonged use. In the experiment, we placed the electronic components encapsulated with DMCHA under simulated extreme environmental conditions, including high temperature, low temperature cycle and high humidity environment. The results show that even after more than 500 temperature cycles (from -40°C to +120°C), the DMCHA packaged components still maintain their original electrical properties and physical integrity. This result is far beyond traditional epoxy resins and polyurethane materials, which usually experience significant performance degradation in such tests.

Corrosion resistance test

The corrosion resistance test focuses on the ability of DMCHA to resist chemical erosion. The experiment used a variety of common corrosive chemicals, such as salt spray, acidic and alkaline solutions, to simulate the actual environment that electronic components may encounter. Tests found that DMCHA was able to effectively prevent these chemicals from penetrating their protective layer, protecting internal components from damage. Specifically, after up to 100 hours of salt spray testing, only slight discoloration occurred on the surface of the DMCHA packaged sample, and no substantial material degradation or performance losses were observed.

Environmental Adaptation Test

Environmental adaptability test examines the performance of DMCHA under different climatic conditions. The experimental settings include high temperature and high humidity environment (85°C, 85% relative humidity), ultraviolet irradiation and mechanical impact. Test results show that DMCHA exhibits excellent stability under all these conditions. Especially in the UV aging test, the physical characteristics and appearance of the DMCHA packaged samples almost did not change after 2000 hours of UV irradiation, showing strong anti-aging ability.

Through these detailed experimental data, we can clearly conclude that N,N-dimethylcyclohexylamine has significant efficacy in protecting electronic products from environmental harm. These data not only confirm the technical feasibility of DMCHA as a packaging material, but also provide a solid scientific basis for its promotion in practical applications.

Conclusion and Outlook: DMCHA’s Future Road

Through a comprehensive analysis of the application of N,N-dimethylcyclohexylamine (DMCHA) in electronic product packaging, we clearly recognize its outstanding performance in protecting sensitive electronic components from environmental impacts. With its excellent heat resistance, chemical stability and environmental protection characteristics, DMCHA has shown irreplaceable value in many high-tech fields. From smartphones to aerospace equipment, the application of DMCHA not only improves the reliability and life of the product, but also promotes technological progress in the entire electronics industry.

Looking forward, with the continuous increase in global awareness of environmental protection and the continuous innovation of electronic technology, DMCHA is expected to realize its potential in more innovative fields. Especially in the fields of wearable devices, IoT sensors and new energy technologies, DMCHA’s high performance and environmentally friendly characteristics will provide new possibilities for product development. At the same time, with the continuous optimization of production processes and the gradual reduction of costs, the application prospects of DMCHA will be broader.

In short, N,N-dimethylcyclohexylamine is not only an ideal choice for current electronic product packaging, but also an indispensable part of future technological development. We look forward to seeing more innovative solutions based on DMCHA to bring smarter and more environmentally friendly electronic experiences to human society.

N,N,N’,N’-tetramethyl-1,3-butanediamine

Structural formula

Business number	02CR
Molecular formula	C8H20N2
Molecular weight	144.26
label	N,N,N’,N’-tetramethyl-1,3-diaminobutane, (CH3)2NCH(CH3)CH2CH2N(CH3)2, 1,3-Bis(dimethylamino)butane, 1,3-Diaminobutane,n,n,n’,n’-tetramethyl-, N,n,n(sup1),n(sup1)-tetramethyl-1,3-diaminobutane, N,n,n’,n”-tetramethylbutane-1,3-diamine, N,n,n’,n’-tetramethylbutane-1,3-diamine, N,n,n’,n’-tetramethyl-3-butanediamine

Numbering system

CAS number:97-84-7

MDL number:MFCD00025678

EINECS number:202-610-4

RTECS number:EJ7525000

BRN number:1698054

PubChem number:24848551

Physical property data

1. Properties: colorless liquid.

2. Density (g/mL, 25℃): 0.787

3. Relative vapor density (g/mL, air=1): 5

4. Melting point (ºC): Undetermined

5. Boiling point (ºC, normal pressure): 165

6. Boiling point (ºC, kPa): Undetermined

7. Refractive index: 1.431

8. Flash point (ºC): 41

9. Specific rotation (º): Undetermined

10 . Autoignition point or ignition temperature (ºC): Not determined

11. Vapor pressure (mmHg, 20ºC): 1.64

12. Saturated vapor pressure (kPa, ºC): Not determined Determined

13. Heat of combustion (KJ/mol): Undetermined

14. Critical temperature (ºC): Undetermined

15. Critical pressure (KPa ): Undetermined

16. Log value of oil-water (octanol/water) partition coefficient: Undetermined

17. Explosion upper limit (%, V/V): 7.8

18. Lower explosion limit (%, V/V): 0.8

19. Solubility: Undetermined

Toxicological data

1. Skin/eye irritation: Start irritation test: rabbit skin contact, 1mgREACTION SEVERITY, moderate reaction; Standard Dresser test: rabbit eye contact, 5mgREACTION SEVERITY, moderate reaction; 2. Acute toxicity: Rat oral LD50: 750mg /kg; Rat inhalation LC50: 360ppm/4H; Mouse intravenous injection LD50: 180mg/kg; Rabbit skin contact LD50: 320mg/kg; 3. Other multiple dose toxicity: rat inhalation TCLo: 50700ppb/6H/11D-I;

Ecological data

This substance is slightly hazardous to water.

Molecular structure data

1. Molar refractive index: 46.51

2. Molar volume (cm³/mol): 175.4

3. Isotonic specific volume (90.2K ): 399.1

4. Surface tension (dyne/cm): 26.7

5. Polarizability (10-24cm3): 18.43

Compute chemical data

1. Reference value for hydrophobic parameter calculation (XlogP): 1.1

2. Number of hydrogen bond donors: 0

3. Number of hydrogen bond acceptors: 2

4. Number of rotatable chemical bonds: 4

5. Number of tautomers: none

6. Topological molecule polar surface area 6.5

7. Number of heavy atoms: 10

8. Surface charge: 0

9. Complexity: 79.3

10. Number of isotope atoms: 0

11. Determine the number of atomic stereocenters: 0

12. Uncertain number of atomic stereocenters: 1

13. Determine the number of chemical bond stereocenters: 0

14. Number of uncertain chemical bond stereocenters: 0

15. Number of covalent bond units: 1

Properties and stability

Avoid contact with strong oxidizing agents.

Storage method

Store in a cool, ventilated warehouse. Keep away from fire, heat sources and anti-static. Protect from direct sunlight. The packaging is sealed. should be kept away from oxidizer, do not store together. Equipped with the appropriate variety and quantity of fire equipment. Suitable materials should be available in the storage area to contain spills.

Synthesis method

None

Purpose

None

N,N’-diphenyl-p-phenylenediamine

Structural formula

Business number	01HG
Molecular formula	C18H16N2
Molecular weight	260.33
label	Anti-aging agent PPD, diphenyltetraphenyldiamine, 1,4-Diphenylaminobenzene, Antioxidant PPD, 2-phenyl-4-phenyl-diamine, 1,4 – diphenyl benzene, Universal antioxidant

Numbering system

CAS number:74-31-7

MDL number:MFCD00003015

EINECS number:200-806-4

RTECS number:ST2275000

BRN number:2215944

PubChem number:24867020

Physical property data

1. Properties: gray powder or flakes. Is flammable. The color becomes darker in the air and under light

2. Density (g/mL, 25/4℃): 1.22～1.31

3. Relative vapor density (g/mL, air=1): Uncertain

4. Melting point (ºC): 152

5. Boiling point ( ºC, normal pressure): 282

6. Boiling point (ºC, 0.5mmHg): 220-225

7. Refractive index: Uncertain

8. Flash point (ºC, 1mmHg): 220-225

9. Specific rotation (º): Uncertain

10. Autoignition point or ignition temperature (ºC): Uncertain

11. Vapor pressure (kPa, 25 ºC): Uncertain

12. Saturated vapor pressure (kPa, 60 ºC): Uncertain

13. Heat of combustion (KJ/mol): Uncertain

14. Critical temperature (ºC): Uncertain

15. Critical pressure (KPa): Uncertain

16. The logarithmic value of the oil-water (octanol/water) partition coefficient: Uncertain

17. The upper explosion limit (%, V/V): Uncertain

18. The lower explosion limit (%, V/V): Uncertain

19. Solubility: Soluble in benzene and ethanol, insoluble in gasoline and water (<0.1 g/100 mL at 20 ºC)

Toxicological data

Acute toxicity: rat oral LD50: 2370 mg/kg; mouse oral LD50: 18 mg/kg; mouse intraperitoneal LD50: 300 mg/kg; tumorigenicity: mouse subcutaneous injection TDLo: 1000 mg/kg; breeding : Rat oral TDLo: 450 mg/kgSEX/DURATION: female 14 day(s) pre-mating female 1-22 day(s) after conception; Rat oral TDLo: 2500 mg/kgSEX/DURATION: female 1- 22 day(s) after conception; Mouse oral TDLo: 4176 mg/kgSEX/DURATION: female 6-14 day(s) after conception; Mutagenicity: SandMicrobial test system for Mammalian gene mutation: 10 ug/plate; Hamster lung cytogenetic analysis test system: 1800 ug/L; Hamster lung Mutation in mammalian somatic cellsTEST SYSTEM: 30 mg/L;

Ecological data

None

Molecular structure data

5. Molecular property data:

1. Molar refractive index: 85.00

2. Molar volume (cm³/mol): 221.5

3. Isotonic specific volume (90.2K): 593.9

4. Surface tension (dyne/cm): 51.6

5. Polarizability (10^-24cm³): 33.69

Compute chemical data

1. Reference value for hydrophobic parameter calculation (XlogP): None

2. Number of hydrogen bond donors: 2

3. Number of hydrogen bond acceptors: 2

4. Number of rotatable chemical bonds: 4

5. Number of tautomers: none

6. Topological molecule polar surface area 24.1

7. Number of heavy atoms: 20

8. Surface charge: 0

9. Complexity: 231

10. Number of isotope atoms: 0

11. Determine the number of atomic stereocenters: 0

12. Uncertain number of atomic stereocenters: 0

13. Determine the number of chemical bond stereocenters: 0

14. Number of uncertain chemical bond stereocenters: 0

15. Number of covalent bond units: 1

Properties and stability

None

Storage method

Stored in a cool, dry warehouse, protected from fire, moisture and sun.

Synthesis method

Hydroquinone and aniline react under the catalysis of triethyl phosphate for a certain period of time at 280~300℃ and a pressure of 0.7MPa. After the reaction, vacuum distillation was performed. Excess aniline is removed first under low vacuum, and then the intermediate is evaporated under higher vacuum. The remaining materials after steaming the intermediate are sliced, powdered, and packaged to become the finished product. The synthesis reaction is as follows

Purpose

is a general-purpose antioxidant. It has excellent resistance to flexural cracking and has excellent protection against heat, oxygen, ozone, and photoaging, especially copper and manganese damage. It is polluting and will discolor the rubber. It is not suitable for light-colored and bright-colored products. It is often used in the manufacture of various tires and dark-colored products. Because of its low solubility in rubber, it is easy to bloom. Mainly used as rubber antioxidant, suitable for natural rubber, styrene-butadiene rubber, and butadiene rubber. The reference dosage is 0.2 to 0.3 parts by mass.

N,N-diethyl-p-phenylenediamine

Structural formula

Business number	025P
Molecular formula	C10H16N2
Molecular weight	164.25
label	4-diethylaminoaniline, p-Amino-N,N-diethylaniline, Diethyl p-phenylenediamine, N,N-diethyl-1,4-phenylenediamine, p-Amino-N,N-diethylaniline, Diethyl-N,N-p-phenylenediamine, 4-(Diethylamino)aniline, 4-Diethylaminoaniline, N,N-diethyl-p-phenylendiamine, DPD, 4-(Diethylamino)aniline, p-Amino-N,N-diethylaniline, N,N-Diethyl-1,4-phenylenediamine, developer

Numbering system

CAS number:93-05-0

MDL number:MFCD00007861

EINECS number:202-214-1

RTECS number:SS9275000

BRN number:879361

PubChem number:24855816

Physical property data

1. Properties: Light yellow liquid, changes color when exposed to light or air.

2. Density (g/mL, 25/4℃): 0.988

3. Relative vapor density (g/mL, air=1): Undetermined

4. Melting point (ºC): 23

5. Boiling point (ºC, normal pressure): 260-262

6. Boiling point (ºC, 5.2kPa): Undetermined

7. Refractive index: 1.571

8. Flash point (ºC): 139

9. Specific rotation (º): Undetermined

10. Autoignition point or ignition temperature (ºC): Undetermined

11. Vapor pressure (kPa, 25ºC): Undetermined

12. Saturated vapor pressure ( kPa, 60ºC): Undetermined

13. Heat of combustion (KJ/mol): Undetermined

14. Critical temperature (ºC): Undetermined

15. Critical pressure (KPa): Undetermined

16. Log value of oil-water (octanol/water) partition coefficient: Undetermined

17. Explosion upper limit (%, V/ V): Undetermined

18. Lower explosion limit (%, V/V): Undetermined

19. Solubility: Can be mixed with alcohol and ether, insoluble in water.

Toxicological data

None

Ecological data

None

Molecular structure data

1. Molar refractive index: 54.06

2. Molar volume (cm³/mol): 162.7

3. Isotonic specific volume (90.2K ): 414.7

4. Surface tension (dyne/cm): 42.1

5. Polarizability (10-24cm3): 21.43

Compute chemical data

1. Reference value for hydrophobic parameter calculation (XlogP): None

2. Number of hydrogen bond donors: 1

3. Number of hydrogen bond acceptors: 2

4. Number of rotatable chemical bonds: 3

5. Number of tautomers: none

6. Topological molecule polar surface area 29.3

7. Number of heavy atoms: 12

8. Surface charge: 0

9. Complexity: 113

10. Number of isotope atoms: 0

11. Determine the number of atomic stereocenters: 0

12. Uncertain number of atomic stereocenters: 0

13. Determine the number of chemical bond stereocenters: 0

14. Number of uncertain chemical bond stereocenters: 0

15. Number of covalent bond units: 1

Properties and stability

This product is toxic and may cause obvious allergic reactions on skin contact.

Storage method

1. This product is toxic. Toxic chemicals such as diethylaniline and sodium nitrite are used in the production process. Therefore, the equipment must be sealed and production personnel must wear protective gear when operating. Reactive materials should be prevented from direct contact with skin or inhalation of dust.

2. Packed in an iron drum lined with plastic bags and stored in a cool, dry place away from light. Store and transport according to regulations on toxic chemicals.

Synthesis method

Using N,N-diethylaniline as raw material, it is obtained through nitrosation, reduction and neutralization: the process is as follows: (1) Nitrosation: Add 150kg water, 35kg N,N-diethylaniline and 72kg to the kettle Hydrochloric acid, cool to 0°C. At 0-5°C, add 50% sodium nitrite solution (prepared to 100% 18.5kg). After adding, stir for half an hour and add 6kg of salt. Stir for 2h. Filter to obtain p-nitroso-N,N-diethylaniline. (2) Reduction and neutralization Add 150kg water and 11kg hydrochloric acid to the kettle. Stir, add 41kg of iron powder, cool to 15°C, and add nitrite at 20-25°C. After the addition is completed, add 5kg of iron powder and stir at 20-25°C for 3 hours. Add 7kg of sodium carbonate, stir for 15 minutes, and filter. The filter cake is washed with hot water. Add 50kg liquid alkali (30%) and 15kg salt to the filtrate and washing liquid, and let stand for layering. The upper material distillation kettle is distilled under reduced pressure at 120-150°C and a vacuum of 8kPa to collect the fractions to obtain p-amino-N,N-diethylaniline.

Purpose

Dye intermediates. Its hydrochloride and sulfate can be used as color photographic developers.