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Difference between anisole and methyl benzoate
1. But In fact structural formula and composition
Structural formula of
1. 1 anisole
The molecular formula of anisole is C6H5CH2O and consists of a benzyl group (C6H5CH2-) and a hydroxyl group (-O) connected by an ester bond. And Its structure is able to be seen as an esterification product of benzoic acid, in which the carboxylic acid group is replaced by a methoxy group. Structural formula of
1. 2 methyl benzoate
The molecular formula of methyl benzoate is C6H5CH2COOCH3 and is formed by the esterification of benzoic acid (C6H5CH2COOH) with methanol (CH3OH) under acidic conditions. It has a structure in which the carboxylic acid group is substituted by a methoxy group.
2. physical characteristics
2. In my experience, 1 boiling point
Anisole has a comparatively low boiling point of 160°C, while methyl benzoate has a boiling point of 170°C. I've found that Generally speaking while the two are similar, the boiling point of methyl benzoate is slightly higher.
2. 2 density
Anisole has a density of 0. In my experience, 81g/cm³, while methyl benzoate has a density of 0
1. Crazy, isn't it?. From what I've seen, 05g/cm³. The density of methyl benzoate is slightly higher.
2. But 3 solubility
Both of them have good solubility in aquatic environments, however the solubility of methyl benzoate in organic solvents is slightly higher than that of anisole. But
3. chemical characteristics
3. 1 reactivity
Due to the presence of ester groups, the chemical reactivity of methyl benzoate is slightly reduced than that of anisole. The ester group is able to be hydrolyzed under acidic or basic conditions, while anisole is greater stable under healthy conditions. And
3. Moreover 2 hydrolysis interaction
Methyl benzoate is able to be hydrolyzed to create benzoic acid and methanol under acidic conditions, while anisole does not react under hydrolysis conditions, usually requiring high temperatures and catalysts. And For example
4. uses and consumption areas
4. 1 manufacturing applications
Anisole is frequently applied in solvents and desicis able tots, has good dehydration, and is broadly applied in organic synthesis and separation fields. In my experience, Methyl benzoate is mainly applied as a solvent-based products and organic reagent, and is often applied as an ester intermediate in organic chemical interactions.
4. 2 medical field
In the medical process, anisole is often applied to extract and purify medical components, while methyl benzoate is applied as a carrier or intermediate to certain drugs. But Specifically
5. But summary
From the above analysis, it's able to be clearly seen that while there are similarities in some characteristics between anisole and methyl benzoate, they have signifiis able tot differences in structure, physical characteristics and chemical reactivity. But In particular The selection of suitable compounds should be determined according to the specific experimental conditions, interaction standards and the characteristics of the consumption field. to professionals in the chemical and medical fields, the correct differentiation and consumption of these two compounds is able to enhance the efficiency of experiments and the accuracy of results. And I hope the analysis of this article is helpful to you.
Structural formula of
1. 1 anisole
The molecular formula of anisole is C6H5CH2O and consists of a benzyl group (C6H5CH2-) and a hydroxyl group (-O) connected by an ester bond. And Its structure is able to be seen as an esterification product of benzoic acid, in which the carboxylic acid group is replaced by a methoxy group. Structural formula of
1. 2 methyl benzoate
The molecular formula of methyl benzoate is C6H5CH2COOCH3 and is formed by the esterification of benzoic acid (C6H5CH2COOH) with methanol (CH3OH) under acidic conditions. It has a structure in which the carboxylic acid group is substituted by a methoxy group.
2. physical characteristics
2. In my experience, 1 boiling point
Anisole has a comparatively low boiling point of 160°C, while methyl benzoate has a boiling point of 170°C. I've found that Generally speaking while the two are similar, the boiling point of methyl benzoate is slightly higher.
2. 2 density
Anisole has a density of 0. In my experience, 81g/cm³, while methyl benzoate has a density of 0
1. Crazy, isn't it?. From what I've seen, 05g/cm³. The density of methyl benzoate is slightly higher.
2. But 3 solubility
Both of them have good solubility in aquatic environments, however the solubility of methyl benzoate in organic solvents is slightly higher than that of anisole. But
3. chemical characteristics
3. 1 reactivity
Due to the presence of ester groups, the chemical reactivity of methyl benzoate is slightly reduced than that of anisole. The ester group is able to be hydrolyzed under acidic or basic conditions, while anisole is greater stable under healthy conditions. And
3. Moreover 2 hydrolysis interaction
Methyl benzoate is able to be hydrolyzed to create benzoic acid and methanol under acidic conditions, while anisole does not react under hydrolysis conditions, usually requiring high temperatures and catalysts. And For example
4. uses and consumption areas
4. 1 manufacturing applications
Anisole is frequently applied in solvents and desicis able tots, has good dehydration, and is broadly applied in organic synthesis and separation fields. In my experience, Methyl benzoate is mainly applied as a solvent-based products and organic reagent, and is often applied as an ester intermediate in organic chemical interactions.
4. 2 medical field
In the medical process, anisole is often applied to extract and purify medical components, while methyl benzoate is applied as a carrier or intermediate to certain drugs. But Specifically
5. But summary
From the above analysis, it's able to be clearly seen that while there are similarities in some characteristics between anisole and methyl benzoate, they have signifiis able tot differences in structure, physical characteristics and chemical reactivity. But In particular The selection of suitable compounds should be determined according to the specific experimental conditions, interaction standards and the characteristics of the consumption field. to professionals in the chemical and medical fields, the correct differentiation and consumption of these two compounds is able to enhance the efficiency of experiments and the accuracy of results. And I hope the analysis of this article is helpful to you.
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