反应 #4131575
相关文献 (1)
openreactiondata ↗doi:10.1039/C8SC04228D
反应条件: temp:0.00; pressure:0.00; stir:
来源 ID: ord-075472dfd2c44edf8910b2601205e4a5暂无可渲染的结构数据
CC1=C(C=CC(=C1)O)O产品信息
2-甲基对苯二酚(CAS 95-71-6)的产品身份、结构标识及相关反应资料,供化学中间体检索、研发和采购评估使用。
可能的应用方向
仅供专业研发与工业用途
数据库编号 7253
安全提示
仅供专业研发与工业用途。操作前请依据供应商提供的安全数据表完成风险评估。
合成路线数据
12 条反应 · 12 篇文献
反应条件: temp:0.00; pressure:0.00; stir:
来源 ID: ord-075472dfd2c44edf8910b2601205e4a5反应条件: temp:0.00; pressure:0.00; stir:
来源 ID: ord-fd0216fe2f0948e680058a1c872f2c50反应条件: temp:0.00; pressure:0.00; stir:
来源 ID: ord-3bf53055c5714813b9680b039d99cf1d反应条件: temp:0.00; pressure:0.00; stir:; See reaction.notes.procedure_details.
实验步骤: Into an autoclave (inner volume: 4.5 ml, made of SUS 316, without manometer) were charged 0.016 g of hydroquinone, 1.355 g of methanol and 2.5 mg of calcium oxide (manufactured by Wako Pure Chemical Ind., Ltd.). The reaction was started by elevating the temperature up to425° C. with sand bath. After 8 minutes, the autoclave was quickly cooled and the reaction solution was taken out from the autoclave when the temperature was cooled back to the room temperature. The measurement according to the process described above revealed that the conversion of hydroquinone was 87% by mole, the selectivity of monomethylhydroquinone was 30% by mole, the selectivity of dimethylhydroquinone was 42% by mole and the selectivity of trimethylhydroquinone was 18% by mole. As byproducts, tetramethylhydroquinone was produced with a selectivity of 3% by mole. the autoclave was quickly cooled
来源 ID: ord-e5892577487542c3aee56a62eb3928f9反应条件: temp:0.00; pressure:0.00; stir:; See reaction.notes.procedure_details.
实验步骤: Into an autoclave (inner volume: 4.5 ml, made of SUS 316, without manometer) were charged 0.031 g of hydroquinone, 1.370 g of methanol and 0.063 mg of lithium hydroxide monohydrate (manufactured by Wako Pure Chemical Ind., Ltd.). The reaction was started by elevating the temperature up to 420° C. with sand bath. After 7 minutes, the autoclave was quickly cooled and the reaction solution was taken out from the autoclave when the temperature was cooled back to the room temperature. The measurement according to the process described above revealed that the conversion of hydroquinone was 72% by mole, the selectivity of monomethylhydroquinone was 34% by mole, the selectivity of dimethylhydroquinone was 42% by mole and the selectivity of trimethylhydroquinone was 18% by mole. As byproducts, tetramethylhydroquinone and p-methoxyphenol were produced with selectivities of 2% by mole and 1% by mole, respectively. up to 420° C. the autoclave was quickly cooled
来源 ID: ord-1f60ddf478334f48af70da27ac33a8d0反应条件: temp:0.00; pressure:0.00; stir:; See reaction.notes.procedure_details.
实验步骤: Into an autoclave (inner volume: 9 ml, made of SUS 316, equipped with a manometer) were charged 0.098 g of methylhydroquinone, 3.491 g of methanol and 7 mg of lanthanum oxide (manufactured by High Purity Chemicals Co.). The reaction was started by elevating the temperature up to 350° C. with sand bath. The pressure during the reaction was 18 MPa. After 2 hours, the autoclave was quickly cooled and the reaction solution was taken out from the autoclave when the temperature was cooled back to the room temperature. The measurement according to the process described above revealed that the conversion of methylhydroquinone was 32% by mole, the selectivity of dimethylhydroquinone was 80% by mole, the selectivity of trimethylhydroquinone was 10% by mole and no tetramethylhydroquinone was produced. equipped with a manometer) up to 350° C. the autoclave was quickly cooled
来源 ID: ord-67e836e63e8a45298e2acbd8917caeef反应条件: temp:0.00; pressure:0.00; stir:; See reaction.notes.procedure_details.
实验步骤: Into an autoclave (inner volume: 9 ml, made of SUS 316, equipped with a manometer) were charged 0.092 g of methylhydroquinone, 3.895 g of methanol and 7.2 mg of zinc powders (manufactured by High Purity Chemicals Co.). The reaction was started by elevating the temperature up to 350° C. with sand bath. The pressure during the reaction was 17 MPa. After 2 hours, the autoclave was quickly cooled and the reaction solution was taken out from the autoclave when the temperature was cooled back to the room temperature. The measurement according to the process described above revealed that the conversion of methylhydroquinone was 23% by mole, the selectivity of dimethylhydroquinone was 92% by mole, the selectivity of trimethylhydroquinone was 8% by mole and no tetramethylhydroquinone was produced. equipped with a manometer) up to 350° C. the autoclave was quickly cooled
来源 ID: ord-2e8d7521a058424daad922cc8427032b反应条件: temp:0.00; pressure:0.00; stir:; See reaction.notes.procedure_details.
实验步骤: Into an autoclave (inner volume: 9 ml, made of SUS 316, equipped with a manometer) were charged 0.115 g of methylhydroquinone, 3.268 g of methanol and 4.6 mg of chromium oxide (manufactured by High Purity Chemicals). The reaction was started by elevating the temperature up to 350° C. with sand bath. The pressure during the reaction was 18 MPa. After 2 hours, the autoclave was quickly cooled and the reaction solution was taken out from the autoclave when the temperature was cooled back to the room temperature. The measurement according to the process described above revealed that the conversion of methylhydroquinone was 17% by mole, the selectivity of dimethylhydroquinone was 74% by mole and the selectivity of trimethylhydroquinone was 2% by mole. No tetramethylhydroquinone was produced. equipped with a manometer) up to 350° C. the autoclave was quickly cooled
来源 ID: ord-e89f99fbd2f24f859f6b97f987213038反应条件: temp:0.00; pressure:0.00; stir:; See reaction.notes.procedure_details.
实验步骤: Into an autoclave (inner volume: 9 ml, made of SUS 316, equipped with a manometer) were charged 0.104 g of methylhydroquinone, 3.4078 g of methanol and 8.3 mg of iron powders (manufactured by Wako Pure Chemical Ind., Ltd.). The reaction was started by elevating the temperature up to 350° C. with sand bath. The pressure during the reaction was 20 MPa. After 2 hours, the autoclave was quickly cooled and the reaction solution was taken out from the autoclave when the temperature was cooled back to the room temperature. The measurement according to the process described above revealed that the conversion of methylhydroquinone was 16% by mole, the selectivity of dimethylhydroquinone was 82% by mole and the selectivity of trimethylhydroquinone was 3% by mole. No tetramethylhydroquinone was produced. equipped with a manometer) up to 350° C. the autoclave was quickly cooled
来源 ID: ord-af2687bb1220432cb1ed01fbda9f5006反应条件: temp:0.00; pressure:0.00; stir:; See reaction.notes.procedure_details.
实验步骤: Into an autoclave (inner volume: 9 ml, made of SUS 316, equipped with a manometer) were charged 0.105 g of hydroquinone (manufactured by Wako Pure Chemical Ind., Ltd.), 3.602 g of methanol and 1.3 mg of manganese dioxide (manufactured by High Purity Chemicals Co.). The reaction was started by elevating the temperature up to 350° C. with sand bath. The pressure during the reaction was 15 MPa. After 8 hours, the autoclave was quickly cooled and the reaction solution was taken out from the autoclave when the temperature was cooled back to the room temperature. The measurement according to the process described above revealed that the conversion of hydroquinone was 41% by mole, the selectivity of monomethylhydroquinone was 43% by mole, the selectivity of dimethylhydroquinone was 13% by mole and the selectivity of trimethylhydroquinone was 1% by mole. No tetramethylhydroquinone was produced. equipped with a manometer) up to 350° C. the autoclave was quickly cooled
来源 ID: ord-5abd543ba6784fc094a7622f13858cfe反应条件: temp:0.00; pressure:0.00; stir:; See reaction.notes.procedure_details.
实验步骤: Into an autoclave (inner volume: 9 ml, made of SUS 316, equipped with a manometer) were charged 0.111 g of methylhydroquinone, 3.463 g of methanol and 4.6 mg of manganese dioxide (manufactured by High Purity Chemicals Co.). The reaction was started by elevating the temperature up to 350° C. with sand bath. The pressure during the reaction was 16 MPa. After 2 hours, the autoclave was quickly cooled and the reaction solution was taken out from the autoclave when the temperature was cooled back to the room temperature. The measurement according to the process described above revealed that the conversion of methylhydroquinone was 45% by mole, the selectivity of dimethylhydroquinone was 64% by mole, the selectivity of trimethylhydroquinone was 17% by mole and no tetramethylhydroquinone was produced. As byproducts, methyl ethers of dimethylquinone and trimethylquinone, represented by the formulae shown above, were formed with a selectivity of 6% and 2%, respectively. equipped with a manometer) up to 350° C. the autoclave was quickly cooled
来源 ID: ord-533eb576f3e7470292d5e0346157de96反应条件: temp:0.00; pressure:0.00; stir:; See reaction.notes.procedure_details.
实验步骤: Into an autoclave (inner volume: 9 ml, made of SUS 316, equipped with a manometer) were charged 0.108 g of methylhydroquinone, 3.573 g of methanol and 0.2 mg of sodium methylate. The reaction was started by elevating the temperature up to 350° C. with sand bath. The pressure during the reaction was 16 MPa. After 4 hours, the autoclave was quickly cooled and the reaction solution was taken out from the autoclave when the temperature was cooled back to the room temperature. The measurement according to the process described above revealed that the conversion of methylhydroquinone was 86% by mole, the selectivity of dimethylhydroquinone was 38% by mole, the selectivity of trimethylhydroquinone was 37% by mole and no tetramethylhydroquinone was produced. As byproducts, methyl ethers of monomethylhydroquinone, dimethylhydroquinone and trimethylhydroquinone, represented by the formulae shown above, were formed with a selectivity of 6%, 4% and 3%, respectively. equipped with a manometer) up to 350° C. the autoclave was quickly cooled
来源 ID: ord-2f89a487dff242c6bbc0ea7b9ebf3e32PubChem References
以下资料来自该化合物的公开数据库参考记录。
相关产品
12 related records
CAS 488-87-9
CAS 2819-86-5
CAS 527-35-5
CAS 488-17-5
CAS 17324-04-8
CAS 496-78-6
CAS 4463-03-0
CAS 95-87-4
CAS 527-60-6
CAS 95-48-7
CAS 608-25-3
CAS 608-43-5
