利用废弃碳资源生产鼠李糖脂的研究进展

doi:10.3969/j.issn.1673-5854.2022.05.010

Abstract

Abstract:

Rhamnolipid(RL) was a kind of glycosolipid biosurfactant synthesized by microorganism with excellent surface activity, physical and chemical properties, and broad application prospect. Pseudomonas aeruginosa was the main strain for RL production, which could produce RL by fermentation with a variety of water-soluble carbon sources or hydrophobic carbon sources as substrates. At present, waste and pollution caused by waste carbon resources(WCR) were increasingly serious, based on the characteristics of RL and the substrate preference of producing strain, the production of RL from waste carbon resources had great development potential. In this paper, the research progress of RL production using waste oils(ioly wastewater, food processing waste oil and kitchen waste iol), sugary waste(sugar-containing food processing by-products, sugar-containing fruit and vegetable waste and lignocellulose) and waste plastics was introduced. The effects of different substrates and producing strains for RL yield were mainly highlighted. By analyzing the current status of WCR utilization, it was found that various species, low classification degree, and unbiodegradable ingredients were the main factors restricting the further development of RL production using WCR as substrates, and the future development direction of RL production based on WCR was also pointed out.

Key words: rhamnolipid, waste carbon resources, Pseudomonas aeruginosa, fermentation

CLC Number:

TQ35
TQ423

Shixun LIU, Haojie LIU, Jie ZHOU, Ning XU, Fengxue XIN, Weiliang DONG, Min JIANG. Research Progress of Rhamnolipid Production from Waste Carbon Resources[J]. Biomass Chemical Engineering, 2022, 56(5): 63-71.

Figures/Tables 4

Fig.1

Table 1

Table 2

Fig.2

References 65

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发酵底物 substrates	发酵菌株 fermentation strains	产量/(g·L^-1) yield	参考文献 reference
橄榄油厂废水olive oil factory wastewater	P. sp. A01	0.115	[8]
葵花籽油厂废水、皂脚 sunflower seed oil plant waste water, soap residue	P. aeruginosa LBI	7.3	[10]
大豆油厂废料waste from soybean oil factory	P. aeruginos AT110	9.5	[13]
菜籽油厂废料waste from rapeseed oil factory	P. aeruginosa EBN-8	8.5	[14]
大豆皂脚soybean soap feet	P. aeruginosa LBI	11.7	[15]
大豆皂脚soybean soap feet	P. aeruginosa MR01	25.5	[16]
芒果仁油、葡萄糖mango kernel oil, glucose	P. aeruginosa DR1	2.8	[17]
鱼脂肪fish fat	P. aeruginosa C2	1.39	[18]
废米糠油rice bran oil waste	P. aeruginosa MTCC 2297	7.6	[19]
废菜籽油waste rapeseed oil	P. aeruginosa	3.6	[20]
抽油烟机废油waste oil from range hood	P. aeruginosa WB505	12.3	[21]
煎炸废油、鸡羽肽fry waste oil and chicken feather peptide	P. aeruginosa OG1	13.31	[22]
煎炸废油frying oil	P. aeruginosa	6.3	[23]
煎炸废油frying oil	P. aeruginosa M4	1.12	[24]
煎炸废油frying oil	P. aeruginosa NY3	9.15	[25]
煎炸废油frying oil	P. aeruginosa ATCC 10145	7.5	[26]
煎炸废油frying oil	P. aeruginosa D	3.5	[27]
煎炸废油frying oil	P. aeruginosa SWP-4	13.93	[28]

发酵底物 substrates	发酵菌株 fermentation strains	产量/(g·L^-1) yield	参考文献 ref.
大豆糖蜜soy molasses	P. aeruginosa GS3	0.24	[37]
甜菜糖蜜beet molasses	P. luteola B17	0.53	[38]
糖蜜molasses	P. aeruginosa ATCC 10145	11.7	[40]
压榨甘蔗渣crush bagasse	P. aeruginosa	9.1	[41]
酿酒糖蜜废水brewing molasses wastewater	P. aeruginosa GIM32	2.6	[42]
酿酒糖蜜废水brewing molasses wastewater	P. aeruginosa BS2	0.92	[43]
乳清whey	P. aeruginosa SR17	2.7	[44]
乳清、葡萄糖whey, glucose	P. aeruginosa SR17	4.8	[44]
乳清whey	P. aeruginosa ATCC 10145	9.6	[45]
橙皮orange peel	P. aeruginosa MTCC 2297	9.18	[46]
小麦秸秆水解糖wheat straw hydrolyzes sugar	P. aeruginosa NCIIM 2036	9.38	[47]
大麦纸浆barley pulp	P. putida IBS036, P. pachastrellae LOS20	2.4~9.3	[48]
椰子纤维水解液、甘油coconut fiber hydrolysate, glycerin	P. aeruginosa ATCC 27583	0.57~1.25	[49]
玉米秸秆稀酸解液dilute acidolysis solution of corn straw	P. aeruginosa PC-1	19.3	[50]

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Research Progress of Rhamnolipid Production from Waste Carbon Resources

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