As a leading Ethyl P-(6-Guanidinohexanoyloxy) Benzoate Methanesulfonate supplier, we deliver high-quality products across diverse grades to meet evolving needs, empowering global customers with safe, efficient, and compliant chemical solutions.
What is the chemical structure of Ethyl P- (6-Guanidinohexanoyloxy) Benzoate Methanesulfonate?
Ethyl + P - (6 - Guanidinohexanoyloxy) Benzoate Methanesulfonate is the name of an organic compound. To clarify its chemical structure, its name can be used to analyze it.
"Ethyl", ethyl is also the group of $C_2H_5 - $. "Benzoate" is a benzoate ester structure, and the structure of benzoic acid is a benzene ring-linked carboxyl group ($-COOH $). When the carboxyl group reacts with alcohol to form an ester, a benzoate ester is formed. Here a certain position on the benzene ring of the benzoate ester (represented by P) is connected to a specific side chain.
In "P - (6 - Guanidinohexanoyloxy) ", "6 - Guanidinohexanoyl" means 6 - guanidine hexanoyl group, "Guanidino" is guanidine ($-NH - C (= NH) - NH_2 $), this guanidine group is connected to the hexanoyl group (the remaining part of the hexanoic acid after removing the hydroxyl group, $C_6H_ {11} CO - $) on the No. 6 carbon atom; "oxy" means that this 6 - guanidinohexanoyl group is connected to the benzoate benzene ring through the oxygen atom.
"Methanesulfonate" is methanesulfonate, that is, the cationic part of the compound forms a salt with methanesulfonate ($CH_3SO_3 ^ - $).
Therefore, in general, the chemical structure of Ethyl + P- (6 - Guanidinohexanoyloxy) Benzoate Methanesulfonate is: ethyl is attached to the ester oxygen atom of the benzoate structure, the benzoate benzene ring is connected to the 6-guanidine hexyl group through the oxygen atom, and the overall cationic part forms a salt with methanesulfonate. This compound has a complex structure and has various structural characteristics such as ester, guanidine, phenyl ring and methanesulfonate. It may be of great significance in the fields of organic synthesis and medicinal chemistry.
What are the main uses of Ethyl P- (6-Guanidinohexanoyloxy) Benzoate Methanesulfonate?
Ethyl + P - (6 - Guanidinohexanoyloxy) Benzoate Methanesulfonate has a wide range of uses. In the field of medicine, it is often used as a key raw material for active pharmaceutical ingredients. Due to its unique chemical structure, it can affect the physiological processes of the body through specific pharmacological mechanisms.
In the process of drug development, this compound can help create new drugs or open up new paths for the treatment of specific diseases. With its special chemical properties, it can interact with biological macromolecules in the body, regulate cell metabolism, or intervene in signal transduction pathways, and then achieve the purpose of treating diseases.
In the field of chemical synthesis, it also plays an important role. Due to its structure, it can be used as a reaction substrate to participate in many complex organic synthesis reactions, providing the possibility for the synthesis of more diverse and functional organic compounds. Chemists can use ingenious design of reaction routes to construct compounds with unique structures and properties using Ethyl + P - (6 - Guanidinohexanoyloxy) Benzoate Methanesulfonate as the starting material, laying the foundation for the development of materials science, fine chemistry and other fields.
At the level of scientific research and exploration, it is often used as a research object for researchers to study its chemical properties, reaction mechanism and biological activities in depth. Through detailed study of it, it can deepen the understanding of related chemical and biological phenomena, promote the progress of basic science, and provide theoretical support for subsequent more in-depth application research.
What is the production method of Ethyl P- (6-Guanidinohexanoyloxy) Benzoate Methanesulfonate?
The preparation of ethyl-P- (6-guanidine hexyloxy) benzoate methanesulfonate is very complicated and requires a fine chemical procedure. First take 6-aminocaproic acid and react with guanidine to obtain 6-guanidine hexanoic acid. This reaction needs to be carried out in a suitable temperature and pressure, and in a suitable solvent to ensure a smooth reaction.
Then 6-guanidine hexyloxy acid and p-hydroxybenzoic acid ethyl ester are esterified with the help of a condensing agent. The choice of condensing agent is crucial to ensure that the two can be effectively combined to obtain ethyl-P- (6-guanidine hexyloxy) benzoate.
Finally, ethyl-P- (6-guanidine hexyloxy) benzoate interacts with methanesulfonic acid to form ethyl-P- (6-guanidine hexyloxy) benzoate methanesulfonate. In this process, the proportion of materials, reaction temperature and time must be precisely controlled to obtain high-purity products.
Each step of the reaction requires fine monitoring, or chromatography and spectroscopy to clarify the reaction process and product purity. The separation and purification of the product are also indispensable during each step. Recrystallization and column chromatography are commonly used to remove impurities to obtain pure ethyl-P- (6-guanidine hexyloxy) benzoate methanesulfonate.
How safe is Ethyl P- (6-Guanidinohexanoyloxy) Benzoate Methanesulfonate?
Ethyl + P - (6 - Guanidinohexanoyloxy) Benzoate Methanesulfonate, the safety of this substance is related to many aspects and cannot be ignored.
First of all, its chemical properties, this compound has a unique structure and is composed of specific groups. From the perspective of chemical principles, each group interacts with each other, or affects its stability and reactivity. However, only its structure is known, and it is difficult to determine its exact chemical behavior in different environments. If it is exposed to high temperature, high humidity or special chemical reagents, or triggers unpredictable reactions, it is a threat to safety.
Talk about its toxicological effects, if it enters the organism, or through different pathways. Or oral ingestion, or skin contact, or respiratory inhalation. However, it is not known whether it will accumulate in the body during metabolism, or whether it will accumulate in the body. If it accumulates, or over time, it will cause chronic toxicity to key organs and systems of organisms. In terms of acute toxicity, there is also a lack of relevant information, such as whether high doses will cause acute poisoning symptoms, such as vomiting, diarrhea, coma, etc. It is unknown.
Looking at its environmental impact, if released in the environment, it is unknown whether it will degrade in air, water, and soil. If it is difficult to degrade, or if it remains for a long time, it will affect the ecological balance. Whether it has direct toxic effects on organisms in the environment, such as plants and aquatic organisms, remains to be explored. If it affects plant growth, or is transmitted through the food chain, it will have indirect effects on higher organisms.
In summary, based on the available information, the safety of Ethyl + P- (6 - Guanidinohexanoyloxy) Benzoate Methanesulfonate is still unknown, and it is urgent to study in depth from chemical, toxicological, environmental and other aspects in order to clarify its safety.
What are the Quality Standards for Ethyl P- (6-Guanidinohexanoyloxy) Benzoate Methanesulfonate?
Ethyl P- (6-Guanidinohexanoyloxy) Benzoate Methanesulfonate, that is, p- (6-guanidine hexyloxy) benzoate ethyl methanesulfonate, its Quality Standard usually covers the following aspects:
Properties
This compound is often white to off-white crystalline powder. Looking at its color and morphology, it should be pure and uniform, without obvious color abnormalities or foreign matter mixing. If there is variegation or agglomeration, it may affect its quality and purity.
Identification
1. ** Chemical Identification **: Using exclusive chemical reactions, such as guanidine groups, can undergo color reactions with specific reagents to verify the characteristic functional groups of the compound and confirm the key parts of its molecular structure.
2. ** Spectral Identification **:
- ** Infrared Spectroscopy **: By measuring the infrared absorption spectrum, each functional group has an absorption peak at a specific wave number. Compared with the standard map, the chemical bonds existing in the molecule can be determined, such as carbonyl, benzene ring and other characteristic absorption peaks, to confirm the structure of the compound.
- ** Nuclear Magnetic Resonance Spectroscopy **: The H NMR can determine the number and location of hydrogen atoms in different chemical environments in the molecule, and the C NMR can determine the type and connection of carbon atoms, further confirming the structure of the compound.
Purity
1. ** High Performance Liquid Chromatography **: This method is used to quantitatively analyze its purity, and the compound is separated from impurities with a suitable chromatographic column and mobile phase. Generally, the purity is not less than 98.0%, and the total area of the impurity peak shall not exceed 2.0% of the total area. High purity is the key to ensure its quality and efficacy.
2. ** Related Substances **: The content of impurities that may exist, such as raw materials, intermediates and degradation products that are not completely reacted during the synthesis process, should be strictly controlled. There are corresponding limits for different impurities to ensure the safety and effectiveness of drugs.
Determination of content
Accurately determine the content by titration or high performance liquid chromatography external standard method. Calculated by anhydrous matter, the content should be between 98.5% - 101.5% to ensure stable product quality and meet the requirements of pharmaceutical or other applications.
Loss on drying
Control the loss on drying. Dry to constant weight under specified conditions. The weight loss shall not exceed a certain limit, such as 0.5%, to ensure that the moisture content of the compound meets the requirements and avoid moisture affecting its stability and quality.
Incineration residue
After high temperature incineration, the residual residue shall not exceed a certain proportion, such as 0.1%, to control the residual amount of inorganic impurities and ensure product quality.
