.
Product Name | α-Ethoxyacrylic acid ethyl ester |
Cas Number | 623-50-7 |
Formula | C7H12O3 |
Molar Mass | 144.17 g/mol |
Density | 0.975 g/cm³ |
Boiling Point | 150°C |
Melting Point | -60°C |
Flash Point | 45°C |
Refractive Index | 1.414 |
Solubility | Insoluble in water |
Vapor Pressure | 3 mmHg at 25°C |
Appearance | Colorless liquid |
Odor | Fruity |
Viscosity | 1.19 cP at 25°C |
What is the chemical structure of %C3%A1-ethoxyacrylic acid ethyl ester?
a -ethoxyacrylic acid ethyl ester is an organic compound.A -ethoxyacrylic ester is a compound.
The general formula of an ester is R - COO - R'.The general formula for an ester is R-COO-R'. In the case of a -ethoxyacrylic acid ethyl ester, let's analyze its structure step by step.Let's examine the structure of an -ethoxyacrylic ester.
The "acrylic acid" part indicates a structure based on the acrylic acid framework.The "acrylic" part of the name indicates a structure that is based on an acrylic acid framework. Acrylic acid has the formula CH2=CH - COOH.Acrylic acid is represented by the formula CH2=CH-COOH. When it forms an ester, the - OH group of the carboxylic acid (- COOH) is replaced by an - OR group.When it forms an ester, the OH group (- COOH of the carboxylic acids) is replaced with an OR group. Here, since it's an ethyl ester, the - OR group is - OCH2CH3.The - OR group here is - OCH2CH3, since this is an ethyl ester.
The "a -ethoxy" part means that there is an ethoxy group ( - OCH2CH3) attached to the a -carbon.The "a-ethoxy" part indicates that an ethoxy group is attached to the a-carbon (- OCH2CH3). The a -carbon is the carbon atom adjacent to the carbonyl carbon in the carboxylic acid (or in this case, the carbonyl carbon of the ester - forming part).The a-carbon is the carbonyl atom in the carboxylic acids (or, in this case the carbonyl atom of the ester-forming part).
So, the chemical structure of a -ethoxyacrylic acid ethyl ester can be written as CH3CH2OCH = C(COOCH2CH3)CH3.So, the chemical formula of an -ethoxyacrylic ester is CH3CH2OCH=C(COOCH2CH3)CH3. The double bond is present between the a -carbon (the one with the ethoxy group attached) and the adjacent carbon.The double bond occurs between the a-carbon (the carbon with the ethoxy attached) and the carbon next to it. One end of the double - bonded carbon is connected to the ethoxy group, and the other end is part of the ester - forming chain.The double-bonded carbon has two ends. One is connected to the ethoxy chain, and the second is part of ester-forming chain. The ester group has an ethyl group (- CH2CH3) attached to the oxygen of the - COO - part.The ester group is formed by an ethyl (- CH2CH3) group attached to the oxygen in the - COO- part.
This compound has a relatively simple yet characteristic structure.This compound has a simple, yet distinctive structure. The presence of the double bond makes it reactive and suitable for various chemical reactions, such as addition reactions.Double bonds make it reactive, and therefore suitable for various chemical processes such as addition reactions. The ethoxy and ethyl ester groups also contribute to its physical and chemical properties.The ethoxy group and the ethyl ester groups also contribute to the physical and chemical properties. The ethoxy group can influence the solubility and reactivity of the molecule, and the ethyl ester group affects its volatility and interactions with other substances.The ethoxy groups can affect the solubility, reactivity and volatility of the molecule. The ethyl esters group can affect its interactions with other substances and its volatility. Overall, understanding the chemical structure of a -ethoxyacrylic acid ethyl ester is crucial for predicting its behavior in different chemical and industrial processes.Understanding the chemical structure of an -ethoxyacrylic ester is important for predicting how it will behave in different chemical and industrial processes.
What are the main applications of %C3%A1-ethoxyacrylic acid ethyl ester?
a -ethoxyacrylic acid ethyl ester has several important applications.The ethyl ester of a-ethoxyacrylic acids has many important applications.
One of its main uses is in the field of organic synthesis.It is a valuable intermediate in organic synthesis. It serves as a valuable intermediate.It is a valuable intermediary. For example, it can participate in various chemical reactions to build more complex organic molecules.It can be used in a variety of chemical reactions to create more complex organic molecules. Through processes like esterification, condensation reactions, it can be incorporated into larger molecular structures.It can be incorporated in larger molecular structure through esterification and condensation reactions. In the synthesis of heterocyclic compounds, which are crucial in the pharmaceutical and agrochemical industries, a -ethoxyacrylic acid ethyl ester can play a key role.A -ethoxyacrylic ester is a key component in the synthesis heterocyclic compounds that are important for the pharmaceutical and agrochemical industry. It provides a reactive site for the formation of rings and the introduction of specific functional groups, enabling the creation of molecules with unique biological activities.It is a reactive site that allows the formation of rings, and the introduction specific functional groups. This enables the creation of molecules with unique bioactive properties.
In the area of materials science, it can be used in the preparation of certain polymers.In the field of materials science, this can be used to prepare certain polymers. By copolymerizing a -ethoxyacrylic acid ethyl ester with other monomers, polymers with tailored properties can be obtained.Polymers with tailored properties are obtained by copolymerizing an -ethoxyacrylic ester with monomers. These polymers may have enhanced solubility, improved film - forming properties, or specific adhesion characteristics.These polymers can have improved solubility, better film-forming properties, or specific adhesive characteristics. For instance, in the formulation of coatings, such polymers can be used to create thin, durable, and chemically resistant films.In the formulation of coatings such polymers can create thin, durable and chemically resistant film. They can be applied on various substrates like metals, plastics, and glass, protecting them from corrosion, wear, and environmental factors.They can be used on a variety of substrates such as metals, plastics and glass to protect them from corrosion, wear and environmental factors.
It also has applications in the fragrance and flavor industry.It is also used in the fragrance and flavor industries. Due to its chemical structure, it can contribute to the creation of novel aroma compounds.Its chemical structure can be used to create novel aroma compounds. Some derivatives synthesized from a -ethoxyacrylic acid ethyl ester may possess pleasant and unique scents.Some derivatives synthesized using a -ethoxyacrylic ester may have pleasant and unique smells. These aroma compounds can be used in the production of perfumes, colognes, and flavorings for food and beverages.These aroma compounds are used to produce perfumes, colognes and flavorings for foods and beverages. They add new and interesting olfactory and gustatory notes, enhancing the overall sensory experience of the end - products.They enhance the sensory experience by adding new and interesting olfactory notes and gustatory notes.
Moreover, in the agrochemical sector, a -ethoxyacrylic acid ethyl ester can be involved in the synthesis of pesticides and herbicides.In the agrochemical industry, a -ethoxyacrylic ester can also be used in the production of pesticides and weed killers. Its reactivity allows for the construction of molecules that target specific pests or weeds.Its reactivity makes it possible to create molecules that target specific pests and weeds. Compounds derived from it may have unique modes of action, such as interfering with the metabolic processes of the target organisms, thus providing effective and selective control of agricultural pests and unwanted plant growth.Compounds made from it can have unique modes of actions, such as interfering in the metabolic processes of target organisms. This allows for effective and selective control over agricultural pests and unwanted plants. This helps in improving crop yields and quality while minimizing the impact on the environment.This improves crop yields and quality, while minimizing environmental impact.
What are the advantages of using %C3%A1-ethoxyacrylic acid ethyl ester in various industries?
a -ethoxyacrylic acid ethyl ester has several advantages in various industries.A -ethoxyacrylic ester is used in many industries.
In the field of coatings, it can enhance the performance of coatings significantly.It can improve the performance of coatings in a significant way. One key advantage is its good film - forming property.Its good film-forming property is one of its key advantages. When incorporated into coating formulations, it helps to form a continuous and smooth film.It helps form a smooth and continuous film when incorporated into coating formulas. This results in better protection for the substrates, whether they are metals, woods, or plastics.This provides better protection to the substrates whether they are made of wood, metal, or plastic. For example, on metal surfaces, the film formed can prevent corrosion by acting as a physical barrier between the metal and the corrosive environment.On metal surfaces, for example, the film can prevent corrosion by forming a physical barrier. The chemical structure of a -ethoxyacrylic acid ethyl ester also contributes to the durability of the coating.The chemical structure of an -ethoxyacrylic ester also contributes towards the durability of the coating. It can improve the resistance of the coating to abrasion, which means the coated surface can withstand more wear and tear during normal use.It can increase the coating's resistance to abrasion. This means that the surface coated can withstand more wear during normal use.
In the adhesive industry, this compound offers enhanced adhesion properties.This compound is used in the adhesive industry to improve adhesion. It can form strong bonds with different materials.It can form strong bonds between different materials. When used in adhesives, it allows for better adhesion between dissimilar substrates.It allows for better adhesion when used in adhesives. For instance, it can effectively bond rubber to metal or glass to plastic.It can, for example, bond rubber to metal and glass to plastic. This is due to its ability to interact chemically with the surfaces of these materials, creating intermolecular forces that hold the substrates together firmly.It is able to interact chemically on the surfaces of these materials and create intermolecular forces which hold the substrates firmly together. The flexibility of the adhesive formed from a -ethoxyacrylic acid ethyl ester is also notable.The adhesive made from a -ethoxyacrylic ester is flexible. It can adapt to the movement and deformation of the bonded materials without easily breaking the bond, making it suitable for applications where some degree of flexibility is required.It can adapt to movement and deformation without breaking the bond. This makes it suitable for applications that require some degree of flexibility.
In the field of pharmaceuticals and fine chemicals, a -ethoxyacrylic acid ethyl ester serves as an important intermediate.In the fields of fine chemicals and pharmaceuticals, a -ethoxyacrylic ester is an important intermediate. Its unique chemical structure provides a platform for further chemical reactions to synthesize complex molecules.Its unique structure allows for further chemical reactions that synthesize complex molecules. Chemists can use it to introduce specific functional groups into target compounds.It can be used by chemists to introduce functional groups into a target compound. This is crucial in the development of new drugs, as it allows for the precise modification of molecular structures to achieve desired pharmacological activities.It is essential in the development and testing of new drugs as it allows the precise modification of molecule structures to achieve desired pharmacological activity. In fine chemical synthesis, it enables the production of high - value - added products with specific properties, such as specialty fragrances or dyes, by serving as a key building block in multi - step synthetic routes.It is used in fine chemical synthesis to produce high-value-added products with specific properties such as specialty dyes or fragrances.
In polymer synthesis, it can be copolymerized with other monomers.It can be copolymerized in polymer synthesis with other monomers. This copolymerization can impart unique properties to the resulting polymers.This copolymerization gives unique properties to the polymers that result. For example, it can adjust the glass transition temperature of the polymer, which affects its physical state and performance at different temperatures.It can, for example, adjust the polymer's glass transition temperature, which impacts its physical state and performance when exposed to different temperatures. By controlling the ratio of a -ethoxyacrylic acid ethyl ester in the copolymerization process, manufacturers can tailor - make polymers with specific mechanical, thermal, and chemical properties to meet the requirements of different applications, such as in the production of engineering plastics or flexible packaging materials.By controlling the ratios of a ethoxyacrylic ester and -ethoxyacrylic acids in the copolymerization, manufacturers can tailor-make polymers with specific mechanical properties, thermal properties, and chemical characteristics to meet the needs of different applications.
What are the potential risks or side effects associated with %C3%A1-ethoxyacrylic acid ethyl ester?
Alpha - ethoxyacrylic acid ethyl ester is a chemical compound.Alpha-ethoxyacrylic Acid ethyl Ester is a chemical compound. However, specific information regarding its potential risks and side effects might be limited as it may not be as commonly studied or well - known as some more mainstream chemicals.It is not as well-known or studied as other chemicals, so it may be difficult to get specific information about its side effects and potential risks.
In general, esters like alpha - ethoxyacrylic acid ethyl ester can pose certain health risks. One of the potential risks is related to skin and eye irritation.One of the possible risks is skin and eye irritation. When the compound comes into contact with the skin, it may cause redness, itching, and a burning sensation.When the compound is in contact with the skin it can cause redness, itchiness, and a feeling of burning. This occurs because the chemical can disrupt the normal functioning of the skin cells.The chemical can disrupt normal skin cell function. Similarly, if it gets into the eyes, it can lead to severe eye irritation, potentially damaging the cornea and causing pain, watering, and reduced vision.If it gets in the eyes, this can cause severe irritation. It may damage the cornea, cause pain, watering and reduce vision.
Inhalation of its vapors can also be a concern.Inhalation can also cause respiratory irritation. If present in high concentrations in the air, breathing in the vapors of alpha - ethoxyacrylic acid ethyl ester might irritate the respiratory tract.Inhaling the vapors from alpha-ethoxyacrylic acids ethyl esters in high concentrations could irritate respiratory tracts. This could result in coughing, shortness of breath, and a feeling of tightness in the chest.This could cause coughing, shortness-of-breath, and a tightness in the chest. Prolonged or repeated exposure through inhalation may even lead to more serious respiratory problems over time, such as bronchitis or other lung - related disorders.Inhaling the fumes repeatedly or for a long time can lead to respiratory problems such as bronchitis and other lung-related disorders.
There is also a possibility of systemic effects if the compound is absorbed into the body, either through the skin, inhalation, or ingestion.If the compound is absorbed through the skin, by inhalation or ingestion, it can also have systemic effects. Once in the bloodstream, it could potentially affect various organs.Once it enters the bloodstream, this compound could potentially affect different organs. For example, it might have an impact on the liver and kidneys, which are responsible for filtering and detoxifying substances in the body.It could, for example, have an effect on the kidneys and liver, which are responsible to filter and detoxify substances in the body. If these organs are impaired, it can lead to a range of health issues, including abnormal liver function tests or problems with kidney filtration.These organs can be impaired and cause a variety of health problems, such as abnormal liver function tests or kidney filtration problems.
From an environmental perspective, if alpha - ethoxyacrylic acid ethyl ester is released into the environment, it may have an impact on aquatic life.If alpha-ethoxyacrylic acids ethyl esters are released into the environment it could have an impact on aquatic animals. It could be toxic to fish, invertebrates, and other organisms in water bodies, disrupting the ecological balance of the aquatic ecosystem.It could be toxic for fish, invertebrates and other organisms living in water bodies. This would disrupt the ecological balance in the aquatic ecosystem. Additionally, in soil, it might affect soil microorganisms that play crucial roles in nutrient cycling and plant growth.In soil, it could also affect soil microorganisms, which play a crucial role in nutrient cycles and plant growth. However, more research would be needed to accurately determine the extent of these environmental impacts.More research is needed to determine the exact extent of these impacts.
How is %C3%A1-ethoxyacrylic acid ethyl ester typically synthesized or produced?
a -ethoxyacrylic acid ethyl ester can be synthesized through several methods.Synthesis of a -ethoxyacrylic ester is possible by several methods. One common approach involves the reaction of ethyl formate with ethyl acetate in the presence of a base.One common method involves the reaction between ethyl formate and ethyl anacetate in presence of a basic.
In this process, ethyl formate and ethyl acetate react under basic conditions.Under basic conditions, ethyl formate reacts with ethyl anacetate. A strong base such as sodium ethoxide is often used.A strong base, such as sodium ethoxide, is often used. The base first deprotonates the ethyl acetate, creating an enolate ion.The base deprotonates ethyl formate first, creating an enolate anion. This enolate ion then attacks the carbonyl carbon of ethyl formate.This enolate attack then attacks the carbonyl atom of ethyl formate. This reaction leads to the formation of an intermediate compound.This reaction results in the formation of a compound intermediate. Subsequently, through a series of steps including elimination reactions, the a -ethoxyacrylic acid ethyl ester is formed.The a-ethoxyacrylic ester is then formed through a series steps, including elimination reactions.
Another possible synthetic route is via the reaction of an appropriate aldehyde or ketone with a reagent containing an ethoxy group and a carboxylic acid ester functionality.A second possible route to synthesize a product is by reacting an aldehyde with a reagent that contains an ethoxy and carboxylic acid ester functionality. For example, reacting a suitable aldehyde with a compound that can introduce both the ethoxy and the ester groups simultaneously, under the influence of specific catalysts or reaction conditions.Reacting an aldehyde under the influence specific catalysts and reaction conditions with a compound capable of introducing both the ethoxy group and the ester group simultaneously. The reaction might involve steps like nucleophilic addition followed by dehydration to form the double bond in the acrylic acid ester structure.The reaction may involve nucleophilic addition, followed by dehydration, to form the double bonds in the acrylic acid ester structure.
The choice of synthesis method depends on various factors.The choice of synthesis depends on a number of factors. Availability of starting materials is a crucial factor.The availability of starting materials is crucial. If ethyl formate and ethyl acetate are easily accessible and cost - effective, the first - mentioned method might be preferred.If ethyl formate and ethyl anacetate are readily available and cost-effective, the first-mentioned method may be preferred. Additionally, reaction conditions such as temperature, reaction time, and the presence of solvents also play important roles.Also, the reaction conditions, such as temperature, time and solvents, play a role. Mild reaction conditions are often desirable as they can reduce the formation of side - products and make the process more environmentally friendly and cost - efficient.Mild conditions can be desirable because they reduce the formation of unwanted side-products and make the process cost-efficient and environmentally friendly. Catalysts or bases used need to be carefully selected to ensure high reaction yields and selectivity towards the formation of a -ethoxyacrylic acid ethyl ester.Selecting the catalysts or bases to use is important to ensure high yields and selectivity for the formation of an -ethoxyacrylic ester. Overall, optimizing these factors is key to achieving a successful and efficient synthesis of this compound.Optimizing these factors will lead to a successful and efficient synthesis.