Green and sustainable biocatalytic production of 3,4,5-trihydroxycinnamic acid from palm oil mill effluent

Pinthong, Chatchadaporn; Phoopraintra, Pattamaporn; Chantiwas, Rattikan; Pongtharangkul, Thunyarat; Chenprakhon, Pirom; Chaiyen, Pimchai

doi:10.1016/j.procbio.2017.08.006

Cited by 14 publications

(21 citation statements)

References 29 publications

Supporting

Mentioning

Contrasting

Order By: Relevance

“…[36] 1.1-14.4% e) [35] 33 nr. [22] 29 2.3-5.8% e) [35] 30 20 mg/L c) [32] 11 mg/L c) [22] 30 nr. [22] 29 2.3-5.8% e) [35] 30 20 mg/L c) [32] 11 mg/L c) [22] 30 nr.…”

Section: Kraft Ligninmentioning

confidence: 99%

“…[11] 18 nr. [33,36] 11.6-12.5 mg/L d) [109] 9.1-17.6% e) [35] 31 185 mg/L c) [32] 116 mg/L c) [22] 31 nr. [33,36] 11.6-12.5 mg/L d) [109] 9.1-17.6% e) [35] 31 185 mg/L c) [32] 116 mg/L c) [22] 31 nr.…”

Section: Kraft Ligninmentioning

confidence: 99%

“…[33,36] 3.6-6.1% e) [35] 32 23 mg/L c) [32] 32 nr. a) wt% ¼ one gram of phenolic acid per 100 g of lignin sample [21] ; b) mg/kg ¼ mg of phenolic component per one kg of freeze-dried oil palm phenolics [31] ; c) mg/L ¼ mg of phenolic acid per one liter of palm oil mill effluent [22,32] ; d)mg/L ¼ mg of phenolic acid per one liter of olive oil mill waste [109] ; e) % ¼ relative percentage of peak area of each phenolic acid compared to total phenolic content extracted by methanol at 23 C [35] ; f) mg/g ¼ mg of phenolic acid per one gram of dry material. a) wt% ¼ one gram of phenolic acid per 100 g of lignin sample [21] ; b) mg/kg ¼ mg of phenolic component per one kg of freeze-dried oil palm phenolics [31] ; c) mg/L ¼ mg of phenolic acid per one liter of palm oil mill effluent [22,32] ; d)mg/L ¼ mg of phenolic acid per one liter of olive oil mill waste [109] ; e) % ¼ relative percentage of peak area of each phenolic acid compared to total phenolic content extracted by methanol at 23 C [35] ; f) mg/g ¼ mg of phenolic acid per one gram of dry material.…”

Section: Kraft Ligninmentioning

confidence: 99%

“…[1][2][3][4][5] A variety of high value low-molecular-weight PAs such as vanillic acid (VA), p-hydroxybenzoic acid (pHBA), salicylic acid (SA), gallic acid (GA), cinnamic acid (CiA), p-coumaric acid (pCA), ferulic acid (FA), phenylacetic acid, 3,4-dihydroxyphenylacetic acid, and protocatechuic acid (PCA) can be derived from the chemical, physicochemical, biochemical, and biological depolymerization of different types of lignin [2,3,5,6] in which the abundancy of each PA depends on the unit compositions of the specific plant. Interestingly, many reports have shown that PAs can also be obtained directly as byproducts from agro-industries, [22][23][24][25] increasingly being found in agro-industrial residues and waste. Depolymerization of kraft lignin using chemical, physicochemical, and biological processes can liberate substantial amounts of PAs as summarized in Table 1.…”

Section: Introductionmentioning

confidence: 99%

“…Interestingly, many reports have shown that PAs can also be obtained directly as byproducts from agro-industries, [22][23][24][25] increasingly being found in agro-industrial residues and waste. [22] Table 1 summarizes the types of PAs obtained from various sources of biomass feedstock and their yields of recovery. Agro-industrial waste has been accepted as a sustainable feedstock for biorefinery.…”

Section: Introductionmentioning

confidence: 99%

See 4 more Smart Citations

Biotransformation of Plant-Derived Phenolic Acids

et al. 2018

Self Cite

View full text Add to dashboard Cite

Phenolic acids are abundant biomass feedstock that can be derived from the processing of lignin or other byproducts from agro-industrial waste. Although phenolic acids such as p-hydroxybenzoic acid, p-coumaric acid, caffeic acid, vanillic acid, cinnamic acid, gallic acid, syringic acid, and ferulic acid can be used directly in various applications, their value can be significantly increased when they are further modified to high value-added compounds. This review summarizes and discusses the new advances in cell-free and whole-cell biocatalysis technologies for reactions important for conversion of phenolic acids including esterification, decarboxylation, amination, halogenation, hydroxylation, and ring-breakage reactions. The products of these reactions are useful for the pharmaceutical, cosmetic, food, fragrance, and polymer industries. Production of phenolic acids is sustainable, and these processes for their biotransformation are clean technologies that do not produce toxic waste and use less energy than conventional physical and chemical methods. Thus, biotransformation of phenolic acids provides an economically viable and sustainable means for producing useful materials for society.

show abstract

“…[36] 1.1-14.4% e) [35] 33 nr. [22] 29 2.3-5.8% e) [35] 30 20 mg/L c) [32] 11 mg/L c) [22] 30 nr. [22] 29 2.3-5.8% e) [35] 30 20 mg/L c) [32] 11 mg/L c) [22] 30 nr.…”

Section: Kraft Ligninmentioning

confidence: 99%

Section: Kraft Ligninmentioning

confidence: 99%

Section: Kraft Ligninmentioning

confidence: 99%

Section: Introductionmentioning

confidence: 99%

Section: Introductionmentioning

confidence: 99%

See 3 more Smart Citations

Biotransformation of Plant-Derived Phenolic Acids

et al. 2018

Self Cite

View full text Add to dashboard Cite

show abstract

Creating Flavin Reductase Variants with Thermostable and Solvent‐Tolerant Properties by Rational‐Design Engineering

et al. 2020

Self Cite

View full text Add to dashboard Cite

Scheme1.The C 1 -catalyzed reaction thatg enerates FMNH À for monooxygenase-catalyzed reactions.The NADH-regenerating systemm ightb e, for example, glucose/glucose dehydrogenase, glucose 6-phosphate/glucose 6phosphate dehydrogenase, [41,42] or formate/formate dehydrogenase. [43,44] The monooxygenases mightb e, for example, C 2 or bacterialluciferase. Figure 6. Distances between A58/P58 and I14:A )int he wild type, and B) in the A58P variant over 6nsM Ds imulation,a ttemperatures varying from 300-500 K. The interactions between A58/P58 of C) the wild type, and D) the A58P variant and other residues after 6-ns MD simulations.

show abstract

Identification and cultivation of hydrogenotrophic methanogens from palm oil mill effluent for high methane production

et al. 2020

Self Cite

View full text Add to dashboard Cite

By means of biorefinery, biogas production through anaerobic digestion is one of the most common treatments of wastewater in the palm oil industry. After biogas production, the treated palm oil mill effluent (POME) is generally discharged into the environment. However, certain level of hazardous compounds still exists in the treated wastewater, which can lead to the pollution of water bodies. In this study, we have investigated the dynamics of volatile organic acids dwelling in consecutive POME treatment lagoons as well as identified, and categorized, microbial species responsible for the treatment process. Bacteria and methanogens, both hydrogenotrophic and acetoclastic, related to methane production were identified using mcrA and 16S rRNA genes specific primers. Two hydrogenotrophic methanogens, Methanoculleus marisnigri and Methanoculleus chikugoensis, were found abundant in accordance with high formate concentration throughout the process of anaerobic digestion. This study has also isolated eight consortia of microbes that yielded different methane productions by utilizing formate as the substrate in the synthetic medium. The consortia of a group, containing M. marisnigri, M. chikugoensis, uncultured bacteria, Aminobacterium sp., and Ruminobacillus xylanolyticum, produced the highest methane yield of 259 mL/g COD after 25 days of incubation in the laboratory. The findings from this study are contributing to optimize and increase biogas production in POME, which will allow higher efficiency in palm oil mill wastewater treatment.

show abstract

Green and sustainable biocatalytic production of 3,4,5-trihydroxycinnamic acid from palm oil mill effluent

Cited by 14 publications

References 29 publications

Biotransformation of Plant-Derived Phenolic Acids

Biotransformation of Plant-Derived Phenolic Acids

Creating Flavin Reductase Variants with Thermostable and Solvent‐Tolerant Properties by Rational‐Design Engineering

Identification and cultivation of hydrogenotrophic methanogens from palm oil mill effluent for high methane production

Contact Info

Product

Resources

About