cas 84 74 2 di n butyl phthalate dibutyl dbp number
# Di - n - Butyl Phthalate (DBP): An In - Depth Exploration# Di n - Butyl Phthalate: An In – Depth Exploration
Di - n - butyl phthalate (DBP), with the CAS number 84 - 74 - 2, is a widely - known organic compound within the realm of phthalates.Di n-butyl phthalate, with the CAS number of 84 74 2, is an organic compound that is widely known in the world of phthalates. It is a colorless to light - yellow viscous liquid that is soluble in many organic solvents but has limited solubility in water.It is a colorless or light-yellow viscous liquid. It is soluble in most organic solvents, but not in water.

## Chemical Structure and PropertiesChemical Structure and Properties
DBP has a molecular formula of C16H22O4.DBP's molecular formula is C16H22O4. Its structure consists of a central phthalate core, which is a benzene ring with two adjacent carboxyl groups esterified with n - butyl groups.Its structure is composed of a central phthalate ring, which is a two adjacent carboxyl group esterified with butyl groups. This molecular architecture endows DBP with specific physical and chemical properties.DBP's molecular structure confers specific physical and chemcial properties. Its relatively high boiling point, around 340 degC, makes it suitable for applications where stability at elevated temperatures is required.Its relatively high melting point of 340 degC makes it ideal for applications that require stability at high temperatures. The viscosity of DBP also plays a crucial role in its functionality in various products.DBP's viscosity is also crucial to its functionality in different products.

## Industrial Applications## Industrial Applications
One of the primary uses of DBP is as a plasticizer.Plasticizers are one of the most common uses of DBP. Plasticizers are substances added to polymers to increase their flexibility, workability, and durability.Plasticizers are substances that are added to polymers in order to increase their flexibility and durability. In the production of polyvinyl chloride (PVC), DBP is often incorporated.DBP is commonly used in the production of PVC. PVC is a versatile polymer used in a vast array of products, from pipes and flooring to cables and upholstery.PVC is a versatile material that can be used for a wide range of products from cables and upholstery to pipes and flooring. By adding DBP, the PVC becomes more malleable during manufacturing processes, allowing for easier shaping into the desired forms.PVC is made more malleable by adding DBP during the manufacturing process, allowing it to be shaped into the desired shapes. This not only improves the production efficiency but also enhances the final product's quality in terms of flexibility and ease of use.This improves not only the efficiency of production but also the quality of the final product in terms of flexibility.

DBP is also utilized in the production of paints, coatings, and adhesives.DBP is used in the production paints, adhesives, and coatings. In paints, it acts as a coalescing agent.In paints, DBP acts as a coagulation agent. It helps the paint particles to fuse together during the drying process, resulting in a smooth and continuous film.It helps the paint to fuse together when drying, resulting in an even and continuous film. This improves the paint's performance, including its adhesion to the substrate, abrasion resistance, and gloss.This improves paint performance, such as adhesion, abrasion resistant, and gloss. In adhesives, DBP can modify the viscosity and tack of the adhesive formulation, enabling better bonding between different materials.DBP can be used to modify the viscosity of adhesives and their tack, allowing for better bonding.

## Environmental and Health ConcernsEnvironmental and Health Concerns
Despite its widespread industrial applications, DBP has raised significant environmental and health concerns.DBP is widely used in industry, but it has also raised serious environmental and health concerns. In the environment, DBP can enter water bodies, soil, and air through various routes such as industrial discharges, waste disposal, and volatilization from products.DBP can enter the environment through a variety of routes, including industrial discharges, waste disposal and volatilization. Once in the environment, it can persist for a certain period.Once it is in the environment, DBP can persist for some time. In water, it may pose risks to aquatic organisms.In water, aquatic organisms may be at risk. Studies have shown that DBP can affect the growth, reproduction, and development of fish, invertebrates, and other aquatic species.DBP has been shown to affect the growth, development, reproduction and reproduction of fish, invertebrates and other aquatic species. For example, it may disrupt the endocrine systems of fish, leading to abnormal reproductive behaviors and changes in hormone levels.It may disrupt the endocrine system of fish, causing abnormal reproductive behavior and changes in hormones.

Regarding human health, DBP is considered an endocrine - disrupting chemical.DBP is a chemical that disrupts the endocrine system. Endocrine - disrupting chemicals have the potential to interfere with the normal functioning of the endocrine system, which is responsible for regulating hormones in the body.Endocrine-disrupting chemicals can interfere with the normal function of the endocrine, which regulates hormones in the human body. Exposure to DBP can occur through multiple pathways, including ingestion, inhalation, and dermal contact.DBP exposure can occur in several ways, including through ingestion, inhalation and dermal contact. Ingestion can happen when people consume food or water contaminated with DBP.Ingestion occurs when people consume food and water that are contaminated with DBP. Inhalation may occur in occupational settings where DBP is used in large quantities, such as in factories producing PVC products.Inhalation can occur in workplaces where DBP is used heavily, such as factories that produce PVC products. Dermal contact can take place when people come into contact with products containing DBP, like certain types of plastics or cosmetics.When people come into contact DBP-containing products, such as certain types of cosmetics or plastics, they can experience dermal contact.

Some studies have associated DBP exposure with adverse health effects in humans.DBP has been linked to adverse health effects on humans in some studies. In males, it has been linked to reduced sperm quality, including lower sperm count and motility.It has been associated with reduced sperm motility and count in males. In pregnant women, exposure to DBP may have implications for fetal development, potentially increasing the risk of birth defects and developmental disorders.Exposure to DBP during pregnancy may affect fetal development and increase the risk of birth defect and developmental disorders. There are also concerns about its possible role in the development of certain cancers, although more research is needed to establish a definitive causal relationship.There are also concerns over its possible role in certain cancers. However, more research is required to establish a causal relationship.

## Regulatory Measures## Regulatory Measures
Due to these concerns, many countries and international organizations have implemented regulatory measures regarding DBP.Many countries and international organizations have taken regulatory measures to address DBP in response to these concerns. The European Union has restricted the use of DBP in various consumer products.The European Union has limited the use of DBP on various consumer products. For example, it is prohibited in toys and childcare articles intended for children under three years of age.It is, for example, prohibited in toys and articles of childcare intended for children younger than three years. In the United States, the Environmental Protection Agency (EPA) has set limits on the allowable levels of DBP in drinking water to protect public health.To protect public health, the Environmental Protection Agency in the United States has set limits for the amount of DBP that can be present in drinking water. These regulatory efforts aim to minimize human and environmental exposure to DBP, while also encouraging industries to seek alternative, less - harmful substances for their manufacturing processes.These regulatory efforts are designed to minimize DBP exposure for humans and the environment, while encouraging industries to use less harmful alternatives in their manufacturing processes.

In conclusion, Di - n - butyl phthalate (DBP) has been an important industrial chemical with diverse applications.Di - n – butyl phthalate has a wide range of industrial applications. However, the growing awareness of its potential environmental and health risks has led to increased scrutiny and regulatory actions.The growing awareness of the potential health and environmental risks has led to increased regulatory action and scrutiny. As the scientific understanding of DBP continues to evolve, it is essential for industries to explore and adopt safer alternatives to ensure the well - being of both the environment and human populations.As scientific understanding of DBP evolves, it is important for industries to explore safer alternatives in order to ensure the well-being of both the human and environmental populations.