Sodium 4-[(4-{(4-Amino-3-Methylphenyl)(Hydroxy)[4-(Phenylamino)Phenyl]Methyl}Phenyl)Amino]Benzenesulfonate

This is an organic compound and is named 4- [ (4- { (4-amino-3-methylphenyl) (hydroxy) [4- (phenylamino) phenyl] methyl} phenyl) amino] sodium benzenesulfonate. To clarify its chemical structure, it is necessary to analyze it according to the naming rules.
Looking at its name, "sodium benzenesulfonate" indicates that it contains the radical group of benzenesulfonate and forms a sodium salt. " 4- [ (4- { (4-Amino-3-methylphenyl) (hydroxy) [4- (phenylamino) phenyl] methyl} phenyl) amino] "This part is a complex substituent connected to the 4-position of the benzenesulfonate phenyl ring.
Wherein, " (4-amino-3-methylphenyl) " indicates a phenyl group with 4-position amino and 3-position methyl; " (hydroxy) " is a hydroxy group; "[4- (phenylamino) phenyl]" refers to a phenyl group with 4-position phenylamino; these three are connected in "{}" and are connected to another phenyl group with " (4- {} phenyl) ", which is then connected to the amino group of "[ (4- {} phenyl) amino]", and finally connected to the 4-position phenyl ring of benzenesulfonate.
In this way, after layer-by-layer analysis, its chemical structure can be roughly understood. The structure of this compound is complex, with multiple groups connected, and each group has a specific position and role in the molecule.

This is a rather complex chemical substance named "Sodium-4- [ (4- { (4-amino-3-methylphenyl) (hydroxy) [4- (phenylamino) phenyl] methyl} phenyl) amino] benzenesulfonate". Its main uses often exist in many fields.
In the chemical industry, or can be used as an intermediate for special reactions. Due to its unique molecular structure, it can participate in specific organic synthesis reactions, and after clever transformation, it can generate compounds with special properties, laying the foundation for the preparation of high-end chemical products.
In the field of materials science, or contribute greatly to the improvement of the properties of specific materials. For example, adding an appropriate amount of this substance to some polymer materials may optimize the optical and electrical properties of the material, so that the material can exhibit better performance in optoelectronic devices, electronic components and other fields.
The field of medical research should also not be underestimated. It may have potential biological activity, and after in-depth research and development, it may become a lead compound for new drugs. Scientists can modify and optimize this structure in order to obtain innovative drugs with significant efficacy and small side effects for the benefit of patients.
However, it should be noted that due to the complex structure of the substance, its safety and stability must be carefully considered when applying, and its potential impact on the environment and organisms must be fully evaluated.

This compound is named 4- [ (4- { (4-amino-3-methylphenyl) (hydroxy) [4- (phenylamino) phenyl] methyl} phenyl) amino] benzene sulfonate sodium. Its structure is complex and may have applications in many fields such as industry and medicine.
In the industrial field or in the dye industry. Because the structure contains benzene ring, amino group and sulfonic acid group, etc., it can be used as a key raw material for the synthesis of new dyes. The sulfonic acid group gives it water solubility, which is conducive to the uniform dispersion of the dye in water, thereby improving the dyeing effect. The structures such as amino group and benzene ring can participate in chemical reactions and help to build a diverse color system, providing the possibility to create brilliant colors.
There may also be traces in the field of medicine. Structural units such as 4-amino-3-methylphenyl and 4- (phenylamino) phenyl may have specific biological activities. For example, amino groups may interact with targets in organisms, such as binding to proteins, enzymes, etc., and then regulate physiological processes. Therefore, with reasonable design and modification, this compound may become a lead compound with the potential to treat specific diseases, contributing to the development of new drugs.
In addition, in the field of materials science, its special structure may endow materials with unique properties. For example, when introduced into polymer materials, the sulfonic acid group can enhance the hydrophilicity of the material, while the benzene ring structure can improve the stability and mechanical properties of the material, so that the material has better performance in specific environments, such as the preparation of high-performance membrane materials.
This compound has broad application prospects in industry, medicine, materials science and other industries due to its unique structure. With the deepening of scientific research and technological progress, more potential value may be tapped.

This is an organic sulfonate of sodium. Its chemical name is complicated and verbose, and it is composed of many specific groups. The physical properties of this substance can be described from the following aspects.
Its morphology, or solid state, is mostly crystalline or powder state. Because organic sulfonates often have such appearance characteristics, and the intermolecular force makes the structure tend to be regular and orderly, easy to become a solid.
On solubility, because it contains hydrophobic groups such as benzene rings, it may have a certain solubility in non-polar organic solvents, but the sodium salt form of the sulfonic acid group gives it a certain hydrophilicity in water, so it may be soluble in water or polar organic solvents.
In terms of melting point, the molecular structure is complex, the intermolecular force is strong, and the melting point is usually high. Because more energy is required to overcome the intermolecular force, it can be converted from solid to liquid.
In terms of density, it is affected by the type, quantity and arrangement of each atom in the molecule, or it is larger than water, and the group atoms such as the benzene ring are dense, and the sodium atom also increases its relative mass.
The color of this compound is either colorless or yellowish, due to the benzene ring structure containing the conjugated system, or slightly colored under specific conditions. However, if there is no special chromogenic group, the color is generally lighter.
Its odor is either not obvious, or has a weak special odor, because the groups contained in it are not highly volatile or have no special odor groups.
In summary, the physical properties of this sodium organic sulfonate are affected by its complex structure, showing solid state, specific solubility, high melting point, relatively large density, light color and weak odor.

There are three methods for preparing Sodium+4-%5B%284-%7B+%284-Amino-3-Methylphenyl%29%28Hydroxy%29%5B4-%28Phenylamino%29Phenyl%5DMethyl%7DPhenyl%29Amino%5DBenzenesulfonate.
First, 4 - ((4 - amino - 3 - methylphenyl) (hydroxy) (4- (phenylamino) phenyl) methyl) phenyl) amino) benzenesulfonic acid is used as raw material, and the sodium source is reacted with it in an alkaline environment. Common sodium sources, such as sodium hydroxide and sodium carbonate, the reaction temperature needs to be carefully controlled, depending on the characteristics of the raw material and the reaction equipment, or the choice between room temperature and heating, and the stirring rate needs to be appropriate to promote the reaction to be uniform.
Second, the molecular structure can be constructed one by one from the basic raw material by means of organic synthesis steps. First synthesize intermediates containing key functional groups, such as benzene ring derivatives containing specific substituents, respectively, through condensation, substitution and other reactions, orderly splicing of each part. In this process, the strategy of protecting and deprotecting groups is indispensable to ensure that the reaction is carried out accurately, and finally interacts with the sodium source to obtain the target product.
Third, biosynthesis is used. Enzymes or microorganisms with specific catalytic activities can be found, using their metabolic pathways and catalytic properties to start with suitable substrates, and then enzymatic reactions can be used to synthesize the target compound. This method requires screening suitable biological systems, optimizing culture conditions, controlling factors such as temperature and pH value of the reaction environment, so that the biological system can efficiently synthesize products, and attention should be paid to the steps of product separation and purification to obtain high-purity Sodium+4-%5B%284-%7B+%284-Amino-3-Methylphenyl%29%28Hydroxy%29%5B4-%28Phenylamino%29Phenyl%5DMethyl%7DPhenyl%29Amino%5DBenzenesulfonate.