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Usage

Uses

Used in Supramolecular Chemistry:
2,4-Dimethyl-1-(trimethoxymethyl)benzene is used as a host molecule in supramolecular chemistry for its ability to encapsulate smaller guest molecules. Its unique structure and functional groups allow for selective binding and recognition of various molecular species, making it a valuable tool for studying molecular interactions and developing new supramolecular systems.
Used in Biomimetic Catalysis:
In biomimetic catalysis, 2,4-Dimethyl-1-(trimethoxymethyl)benzene is used as a catalyst to mimic the active sites of enzymes. Its functionalized aromatic rings and trimethoxymethyl groups provide a suitable environment for substrate binding and catalysis, enabling the development of efficient and selective catalytic systems that can perform complex chemical transformations.
Used in Drug Delivery:
2,4-Dimethyl-1-(trimethoxymethyl)benzene is used as a carrier molecule in drug delivery systems. Its ability to encapsulate guest molecules allows for the development of targeted drug delivery systems, improving the bioavailability and therapeutic efficacy of various pharmaceutical agents. This application has the potential to revolutionize the treatment of various diseases by enabling more precise and effective drug administration.
Used in Environmental Remediation:
In the field of environmental remediation, 2,4-Dimethyl-1-(trimethoxymethyl)benzene is used for the selective capture and removal of pollutants from contaminated environments. Its ability to encapsulate and bind to various molecular species makes it a promising candidate for the development of advanced materials and technologies aimed at addressing environmental challenges, such as water and soil pollution.
Overall, the unique structure and properties of 2,4-Dimethyl-1-(trimethoxymethyl)benzene make it a versatile and valuable compound in various scientific and industrial applications, ranging from supramolecular chemistry and biomimetic catalysis to drug delivery and environmental remediation. Its potential for molecular recognition and encapsulation of guest molecules opens up new avenues for research and development in these fields.

Upstream product

• 67-56-1 methanol 
• 95-63-6 1,2,4-Trimethylbenzene 
• 56-23-5 tetrachloromethane 
• 124-41-4 sodium methylate 
• 108-38-3 m-xylene 

Downstream Products

• 91362-62-8 3-(2,4-dimethylphenyl)-2,4,10-trioxaadamantane 

Relevant academic research and scientific papers

Anodic Oxidation of Methylbenzenes. Synthetic Routes to Certain Cyclohexa-1,4-dienes

The anodic methoxylation of a series of methylbenzenes (mesitylene, pseudocumene, hemimellitene, pentamethylbenzene, and hexamethylbenzene) afforded chain methoxylated products as well as nuclear-addition products.For nuclear-addition products both cis/trans isomers are possible.In the cyclohexa-1,4-dienes obtained from these substrates the cis/trans ratio found is different.A probable mechanism is provided.

Stereoselective Obtention of trans-3,6-Dimethoxy-1,3,6-trimethylcyclohexa-1,4-diene by Anodic Methoxylation of Pseudocumene

Anodic oxidation of a methanolic solution of pseudocumene (1) in a single-cell apparatus at constant current using sodium methoxide as the supporting electrolyte afforded trans-3,6-dimethoxy-1,3,6-trimethylcyclohexa-1,4-diene (5).This is the first time th

Hydrolysis of trioxaadamantane ortho esters. II. Kinetic analysis and the nature of the rate-determining step

A detailed kinetic study of the hydrolysis of a series of 3-aryl-2,4,10-trioxaadamantanes is reported.These ortho esters equilibrate with the ring-opened dialkoxycarbocation, in a very rapid process which could be studied using temperature-jump spectroscopy for aryl = 2,4-dimethylphenyl.Relaxation rate constants are of the order of 1E4 s-1; these could be analyzed to provide the rate constants for both the ring opening and the ring closing.Product formation from this equilibrating mixture is much slower.In acid solutions (0.01M H+ - 50percent H2SO4), first-order rate constants for product formation initially increase with increasing acidity, but a maximum is reached at 20-35percent H2SO4 and the rate then falls.This behavior is explained by a counterbalancing of two factors.Increasing acidity increases the amount of the dialkoxycarbocation in the initial equilibrium, but, outside the pH region, it decreases the rate of hydrolysis of this cation through a medium effect.Rate constants over a range of pH have been measured for two trioxaadamantanes and for the cation DEt+ derived by treatment of the ortho ester with triethyloxonium tetrafluoroborate.The latter models the cation formed in the ortho ester hydrolysis but it cannot ring close.Rate-pH profiles obtained in these systems are more complex than expected on the basis of rate-determining cation hydration.An interpretation is proposed with a change in rate-determining step between high pH and low pH.Cation hydration is rate determining at high pH but at low pH hemiorthoester decomposition becomes rate determining.Under these conditions the hemiorthoester equilibrates with both the dialkoxycarbocation and with the trioxaadamantane.The change in rate-determining step occurs because acid-catalyzed reversion of the hemiorthoester to dialkoxycarbocation is a faster process than acid-catalyzed hemiorthoester decomposition.This makes the latter rate-determining in acid solutions.Additional pathways available to the decomposition, however, make it the faster process at higher pH.A kinetic analysis furnishes all of the rate and equilibrium constants for the system, and provides support for the mechanistic interpretation.A comparison of these numbers with those obtained for the three stages in the hydrolysis of a simple monoclinic ortho ester underlines the novelty of the trioxaadamantane system.