Participants
| Role | Name | HCID | Charge |
|---|
| Reactant | Adipic Acid | HCID 196 | — |
| Reactant | Benzoic Acid | HCID 243 | — |
| Reactant | Styrene | HCID 7501 | — |
| Reactant | 2-Propenoic acid, 3-phenyl-, methyl ester | HCID 7644 | — |
| Reactant | Cyclohexene | HCID 8079 | — |
| Reactant | Suberic acid | HCID 10457 | — |
| Reactant | 1-Cyclooctene | HCID 13609 | — |
| Reactant | Cinnamic Acid | HCID 444539 | — |
| Solvent | Water | HCID 962 | — |
| Product | 1-Decene | HCID 13381 | — |
| Product | 1-Nonene | HCID 31285 | — |
| Product | 2-Nonene, (2E)- | HCID 5364590 | — |
Reaction Steps
The results of the oxidation of the simple alkyl aromatic olefins to carboxylic acids using the process of the present invention are shown in Table 1 and FIGS. 7a and 7b. The process of the present invention oxidized both cis- and trans-stilbene (1 and 2) to two equivalents of benzoic acid (1a) in 95% yield. Trans-cinnamic acid (3), styrene (4), and methyl cinnamate (5) were also easily oxidized by the process of the present invention to 1a in 97%, 94% and 96% yields, respectively. Cyclohexene (6) was oxidized by the process of the present invention to the desired adipic acid (6a) but in a reduced yield, 50%, presumably due to its water solubility. However, cyclooctene (7) was easily oxidized by the process of the present invention to suberic acid (7a) with a yield of 82%. Additionally, simple alkyl olefins such as 1-decene (8), 1-nonene (9), and trans-2-nonene (10), all provided the appropriate alkyl carboxylic acids 8a, 9a, and 10a, respectively, in 93%, 90%, and 93% yields, respectively. Similarly, methyl oleate (11) provided a clean conversion to nonanoic acid (8a) and nonanedoic acid monomethyl ester (11a).
Provenance & Evidence
| DOI | 10.6084/m9.figshare.5104873.v1 |
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| Patent number | US06787671B2 |
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| Source dataset | uspto-grants-2004_09 |
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| ORD ID | ord-0cb21f81977948eea06ab5c88083e6eb |
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| Source note | uspto-grants-2004_09 |
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