Shaanxi BLOOM Tech Co., Ltd. is one of the most experienced manufacturers and suppliers of 3,5-difluoroaniline cas 372-39-4 in China. Welcome to wholesale bulk high quality 3,5-difluoroaniline cas 372-39-4 for sale here from our factory. Good service and reasonable price are available.
3,5-Difluoroaniline is a high-value-added fluorinated aromatic amine organic compound. Its molecular structure precisely connects two fluorine atoms and one amino group to the benzene ring. The molecular formula is C6H5F2N. This unique chemical structure endows it with excellent reactivity and metabolic stability, making it an indispensable core building block in modern chemical industry. This compound is usually presented as white to pale yellow crystalline powder or low-melting-point solid. In the field of pharmaceutical research, it is a key intermediate for synthesizing innovative drugs for treating neurological diseases and cardiovascular diseases; in the field of agricultural chemicals, it is used to create efficient and low-toxic modern pesticides and fungicides; at the same time, it is also widely applied in the manufacturing of high-performance dyes, special engineering plastics, and fluorine-based functional materials, providing a solid foundation for the development of materials science.
Additional information of chemical compound:
|
Chemical Formula |
C6H5F2N |
|
Exact Mass |
129.04 |
|
Molecular Weight |
129.11 |
|
m/z |
129.04 (100.0%), 130.04 (6.5%) |
|
Elemental Analysis |
C, 55.82; H, 3.90; F, 29.43; N, 10.85 |
|
Melting point |
37-41℃(lit.) |
|
Boiling point |
80℃ 20mm |
|
Density |
1,295 g/cm3 |
 |
 |
Neuroscience and Consciousness Control
Neuroscience and consciousness control are cutting-edge fields in modern biology and medicine, involving neurotransmitter regulation, neural network signal transmission, and brain computer interface technology. 3,5-difluoroaniline, as an organic synthesis intermediate, is endowed with unique electronic effects and lipophilicity by the fluorine atoms in its molecular structure, which may affect the interactions of biomolecules. The following is its detailed explanation:
Neurotransmitters are key molecules involved in the transmission of information between neurons, including dopamine, serotonin, glutamate, and others. Its release and receptor binding regulate synaptic plasticity, affecting learning, memory, and emotions. Consciousness control research focuses on regulating neurotransmitter levels through external means, such as transcranial magnetic stimulation (TMS) and deep brain stimulation (DBS). Modern neural regulation techniques include Brain Computer Interface (BCI), optogenetics, and chemogenetics. BCI achieves human-computer interaction by decoding neural signals; Optogenetics uses photosensitive proteins to control neuronal activity; Chemical genetics regulates specific neural circuits by designing drug molecules. These technologies provide experimental tools for consciousness control, but require addressing molecular specificity, biocompatibility, and ethical issues.
Potential mechanisms of action in neuroscience
The fluorine atom of 3,5-difluoroaniline induces changes in the electron cloud distribution of the benzene ring, which may enhance its affinity for neurotransmitter receptors. For example, its derivatives may mimic the structure of dopamine or serotonin, competitively binding to receptors to regulate neural signal transmission. However, there is currently no experimental evidence to support this hypothesis, which needs to be validated through molecular docking simulations and in vitro experiments. Fluorination modification is commonly used in drug design to improve metabolic stability and target selectivity. The fluorine atom of 3,5-difluoroaniline may prolong its half-life in vivo and enhance its ability to regulate specific neural circuits. For example, fluorinated neurotransmitter analogues may be more likely to penetrate the blood-brain barrier and act on the central nervous system. However, attention should be paid to the potential toxicity of fluoride, such as liver damage and neurotoxicity. It can be used as a drug carrier to connect neural regulatory molecules through chemical modification. For example, combining it with photosensitive groups to achieve photo controlled neurotransmitter release; Or it can be combined with magnetic nanoparticles to regulate neural activity through magnetic fields. This design needs to address the biodegradability and targeting of the carrier, avoiding non-specific effects.
The fluorine atom of 3,5-difluoroaniline induces changes in the electron cloud distribution of the benzene ring, which may enhance its affinity for neurotransmitter receptors. For example, its derivatives may mimic the structure of dopamine or serotonin, competitively binding to receptors to regulate neural signal transmission. However, there is currently no experimental evidence to support this hypothesis, which needs to be validated through molecular docking simulations and in vitro experiments. Fluorination modification is commonly used in drug design to improve metabolic stability and target selectivity. The fluorine atom of 3,5-difluoroaniline may prolong its half-life in vivo and enhance its ability to regulate specific neural circuits. For example, fluorinated neurotransmitter analogues may be more likely to penetrate the blood-brain barrier and act on the central nervous system. However, attention should be paid to the potential toxicity of fluoride, such as liver damage and neurotoxicity. It can be used as a drug carrier to connect neural regulatory molecules through chemical modification. For example, combining it with photosensitive groups to achieve photo controlled neurotransmitter release; Or it can be combined with magnetic nanoparticles to regulate neural activity through magnetic fields. This design needs to address the biodegradability and targeting of the carrier, avoiding non-specific effects.
What is the impact of this substance on the environment?
3,5-Difluoroaniline, as an organic compound, has a wide range of applications in industrial production and scientific research. However, as its usage increases, its impact on the environment is also receiving increasing attention. The following are its impacts on the environment and propose corresponding environmental protection measures:
Distribution and migration in the environment
Distribution and Migration in the Atmosphere
This substance may be emitted into the atmosphere in the form of gas or steam during production and use. In the atmosphere, it may undergo diffusion and dilution due to meteorological conditions such as wind, temperature, and humidity. At the same time, it may also undergo chemical reactions with other substances in the atmosphere to generate new compounds. These compounds may further affect the quality of the atmosphere and the health of ecosystems.
Distribution and migration in water bodies
This substance may enter water bodies through wastewater discharge, rainwater runoff, and other pathways. In water bodies, it may be affected by factors such as water flow, water temperature, pH value, and undergo processes such as dissolution, precipitation, and adsorption. In addition, it may also undergo chemical reactions with other substances in the water, generating compounds with higher toxicity. These compounds may cause serious harm to aquatic organisms and the entire ecosystem.
Distribution and migration in soil
This substance may enter the soil through methods such as wastewater irrigation and solid waste landfill. In soil, it may undergo processes such as adsorption, desorption, and degradation due to factors such as soil texture, organic matter content, and pH. Meanwhile, it may also enter the groundwater system through soil leaching, causing pollution to the groundwater.
Environmental hazards
Pollution of water bodies
After entering the water, this substance may alter the chemical properties of the water, affecting its self purification capacity and ecological balance. High concentrations may cause acute toxic effects on aquatic organisms, leading to biological death or population reduction. In addition, it may accumulate in aquatic organisms, be transmitted and amplified through the food chain, and pose a threat to higher trophic level organisms. Long term exposure to low concentrations may cause chronic toxic effects on aquatic organisms, affecting their physiological functions such as growth, reproduction, and immune system.
Pollution of soil
After entering the soil, this substance may alter the physical and chemical properties of the soil, affecting soil fertility and plant growth. High concentrations may cause toxic effects on soil microorganisms and disrupt the balance of soil ecosystems. In addition, it may also enter the plant body through the soil plant system, causing toxic effects on plants. Long term exposure to low concentrations may have cumulative effects on soil ecosystems, leading to the decline of soil ecosystem functions and a reduction in biodiversity.
Harm to the ecosystem
Its harm to the ecosystem is mainly reflected in its impact on biodiversity and ecological balance. The pollution of this substance may lead to a decrease in biological populations and loss of biodiversity, disrupting the stability and resistance of ecosystems. In addition, it may also cause greater harm to the entire ecosystem through food chain transmission and amplification. For example, it may enter fish bodies through polluted water and be transmitted to humans through the food chain, posing a potential threat to human health.
Environmental Risk Assessment
To assess the potential environmental risks of this substance, a comprehensive environmental risk assessment is required. This includes determining its exposure pathways, exposure levels, and potential harmful effects in the environment:
Analysis of exposure pathways
Its exposure pathways in the environment mainly include atmospheric exposure, water exposure, and soil exposure. Atmospheric exposure is mainly through inhalation of polluted air or exposure to polluted particulate matter; Water exposure is mainly through drinking contaminated water or contact with contaminated water bodies; Soil exposure is mainly through contact with contaminated soil or consumption of contaminated plants.
Exposure assessment
Exposure assessment is a crucial step in determining its actual exposure level in the environment. This requires monitoring and analyzing data on the concentration, distribution, and accumulation of the substance in the environment. Meanwhile, it is also necessary to consider the interactions and impacts between different exposure pathways.
Hazard Effect Assessment
Hazard effect assessment is an important step in determining its potential harmful effects on the environment and organisms. This requires evaluating the toxic and ecological effects of the substance on aquatic organisms, soil microorganisms, plants, and humans through laboratory research, field investigations, and data analysis methods.
Risk characterization and management
After completing exposure pathway analysis, exposure level assessment, and hazard impact assessment, it is necessary to characterize and manage its environmental risks. This 3,5-Difluoroaniline includes determining risk levels, developing risk management measures, and implementing monitoring and evaluation. Risk management measures may include restricting its production and use, strengthening wastewater treatment, and solid waste management. At the same time, it is necessary to establish a long-term monitoring and evaluation mechanism to promptly identify and solve environmental problems.
Environmental protection measures and suggestions
In order to reduce the pollution and harm of this substance to the environment, a series of environmental protection measures and suggestions need to be taken:
For wastewater containing this substance, effective wastewater treatment methods need to be used for purification treatment. This can include methods such as physical treatment (such as precipitation, filtration, etc.), chemical treatment (such as neutralization, oxidation, etc.), and biological treatment (such as aerobic biological treatment, anaerobic biological treatment, etc.). By treating wastewater, its concentration can be reduced and the pollution to water bodies can be minimized.
For solid waste containing this substance, strict solid waste management measures need to be taken. This can include aspects such as classified collection, safe storage, and harmless disposal. Through solid waste management, it is possible to prevent it from entering water bodies and soil through rainwater runoff and other pathways, reducing environmental pollution.
In order to reduce the production and usage of 3,5-Difluoroaniline from the source, it is necessary to promote clean production technology. This can include adopting advanced production processes and equipment, improving resource utilization, and reducing energy consumption. Through clean production technology, its emissions and pollution levels can be reduced, and its negative impact on the environment can be minimized.
In order to ensure the effective implementation of environmental protection measures, it is necessary to strengthen environmental supervision and law enforcement. This can include establishing a sound environmental regulatory system, strengthening environmental law enforcement and punishment measures, and other aspects. Through environmental supervision and law enforcement efforts, companies can be urged to comply with environmental regulations and standards, reducing the emissions and pollution levels of such pollutants.
In order to enhance public awareness and participation in environmental protection, it is necessary to strengthen environmental education and publicity work. This can include organizing environmental knowledge popularization activities, hosting environmental lectures and training, and other aspects. By strengthening public environmental awareness and education, we can guide the public to actively participate in environmental actions and jointly maintain a good ecological environment.
FAQ
1. What fields does 3,5-difluorobenzenamine mainly apply to?
This compound is a crucial intermediate in the fields of medicine, pesticides and high-performance materials. It is used in pharmaceutical research to synthesize innovative drugs for treating neurological and cardiovascular diseases, and in the agrochemical sector to develop highly effective crop protectants. It is also widely applied in the manufacturing of special dyes, fluorinated polymers and functional materials.
2. What are the normal storage conditions for this compound?
To ensure its stability and quality, 3,5-difluorobenzenamine should be stored in a sealed manner in a dry, well-ventilated and cool environment. The recommended storage temperature is 2-8°C. At the same time, it is recommended to store it away from food, feed and strong oxidants.
3. What are the key physical parameters of it?
The molecular formula of 3,5-difluorobenzenamine is C6H5F2N, with a molecular weight of approximately 129.11 g/mol. Its melting point ranges from 37 to 41°C, and its boiling point is 80 to 82°C (at 20 mmHg). Under normal conditions, it appears as a white to pale yellow crystalline powder or a low-melting-point solid.
Hot Tags: 3,5-difluoroaniline cas 372-39-4, suppliers, manufacturers, factory, wholesale, buy, price, bulk, for sale, CAS 1385826 87 8, CAS 859745 06 5, 4 4 5 5 tetramethyl 2 3 triphenylen 2 yl phenyl 1 3 2 dioxaborolane, dibenzo b d furan 1 ylboronic acid, 3-Bromophenanthrene, CAS 215527 70 1