Читать книгу Biomolecules from Natural Sources - Группа авторов - Страница 32

1 Abdel-Mawgoud, A.M. and Stephanopoulos, G. (2018). Simple glycolipids of microbes: chemistry, biological activity and metabolic engineering. Synthetic and Systems Biotechnology 3 (1): 3–19.

2 Almeida, D.G., Soares Da Silva, R.C.F., Luna, J.M., Rufino, R.D., Santos, V.A., Banat, I.M., and Sarubbo, L.A. (2016). Biosurfactants: promising molecules for petroleum biotechnology advances. Frontiers in Microbiology 7: 1–14.

3 Anderson, R.J. and Newman, M.S. (1933). The chemistry of the lipids of tubercle bacilli: XXXIII. Isolation of trehalose from the acetone-soluble fat of the human tubercle bacillus. The Journal of Biological Chemistry 101: 499–504.

4 Aparna, A., Srinikethan, G., and Hedge, S. (2011). Effect of addition of biosurfactant produced by Pseudomonas ssp. on biodegradation of crude oil. International Proceedings of Chemical, Biological & Environmental Engineering 6: 71.

5 Ashby, R.D., Solaiman, D.K.Y., and Foglia, T.A. (2008). Property control of sophorolipids: influence of fatty acid substrate and blending. Biotechnology Letters 30 (6): 1093–1100.

6 Azuma, M., Suzutani, T., Sazaki, K., Yoshida, I., Sakuma, T., and Yoshida, T. (1987). Role of interferon in the augmented resistance of trehalose 6,6’-dimycolate-treated mice to influenza virus infection. The Journal of General Virology 68: 835–843.

7 Bachmann, R.T., Johnson, A.C., and Edyvean, R.G.J. (2014). Biotechnology in the petroleum industry: an overview. International Biodeterioration and Biodegradation 86: 225–237.

8 Baeva, T.A., Gein, S.V., Kuyukina, M.S., Ivshina, I.B., Kochina, O.A., and Chereshnev, V.A. (2014). Effect of glycolipid Rhodococcus biosurfactant on secretory activity of neutrophils in vitro. Bulletin of Experimental Biology and Medicine 157 (2): 238–242.

9 Bajaj, A., Mayliraj, S., Mudiam, M.K.R., Patel, D.K., and Manickam, N. (2014). Isolation and functional analysis of a glycolipid producing Rhodococcus sp. strain IITR03 with potential for degradation of 1, 1,1-trichloro-2,2-bis(4-chlorophenyl)ethane (DDT). Bioresource Technology 167: 398–406.

10 Banat, I.M., Franzetti, A., Gandolfi, I., Bestetti, G., Martinotti, M.G., Fracchia, L., Smyth, T.J., and Marchant, R. (2010). Microbial biosurfactants production, applications and future potential. Applied Microbiology and Biotechnology 87 (2): 427–444.

11 Bogaert, I.N.A.V., Saerens, K., Muynck, C., Develter, D.M., Soetaert, W., and Vandamme, E.J. (2007). Microbial production and application of sophorolipids. Applied Microbiology and Biotechnology 76 (1): 23–34.

12 Borsanyiova, M., Patil, A., Mukherji, R., Prabhune, A., and Bopegamage, S. (2016). Biological activity of sophorolipids and their possible use as antiviral agents. Folia Microbiologica (Praha). 61 (1): 85–89.

13 Bouassida, M., Ghazala, I., Ellouze-Chaabouni, S., and Ghribi, D. (2018). Improved biosurfactant production by Bacillus subtilis SPB1 mutant obtained by random mutagenesis and its application in enhanced oil recovery in a sand system. Journal of Microbiology and Biotechnology 28 (1): 95–104.

14 Brandenburg, K. and Seydel, U. (1988). Infrared spectroscopy of glycolipids. Chemistry Physical Lipids 96 (1–2): 23–40.

15 Bryant, F.O. (1990). Improved method for the isolation of biosurfactant glycolipids from Rhodococcus sp. strain H13A. Applied Environmental Microbiology 56: 1494–1496.

16 Bungaruang, L., Gutmann, A., and Nidetzky, B. (2013). Leloir glycosyltransferases and natural product glycosylation: biocatalytic synthesis of the C-glucoside nothofagin, a major antioxidant of redbush herbal tea. Advanced Synthesis & Catalysis 355 (14–15): 2757–2763.

17 Cameotra, S.S. and Makkar, R.S. (1998). Synthesis of biosurfactants in extreme conditions. Applied Microbiology and Biotechnology 50 (5): 520–529.

18 Cappelletti, M., Presentato, A., Piacenza, E., Firrincieli, A., Turner, R.J., and Zannoni, D. (2020). Biotechnology of Rhodococcus for the production of valuable compounds. Applied Microbiology and Biotechnology 104: 8567–8594.

19 Carrillo, P.G., Mardaraz, C., Pitta-Alvarez, S.I., and Giuliett, A.M. (1996). Isolation and selection of biosurfactant producing bacteria. World Journal of Microbiology & Biotechnology 12 (1): 82–84.

20 Christova, N., Lang, S., Wray, V., Kaloyanov, K., Konstantinov, S., and Stoineva, I. (2015). Production, structural elucidation and in vitro antitumor activity of trehalose lipid biosurfactant from Nocardia farcinica strain. Journal of Microbiology and Biotechnology 25: 439–447.

21 Ciapina, E.M.P., Melo, W.C., Santa Anna, L.M.M., Santos, A.S., Freire, D.M.G., and Pereira, N. (2006). Biosurfactant production by Rhodococcus erythropolis grown on glycerol as sole carbon source. Applied Biochemistry and Biotechnology 131 (1–3): 880–886.

22 Cooper, D.G. and Goldenberg, B.G. (1987). Surface-active agents from two bacilllus species. Applied and Environmental Microbiology 53: 224–229.

23 Cortés-Sánchez, A.J., Hernández-Sánchez, H., and Jaramillo-Flores, M.E. (2013). Biological activity of glycolipids produced by microorganisms: new trends and possible therapeutic alternatives. Microbiological Research 168 (1): 22–32.

24 Crouzet, J., Arguelles-Arias, A., Dhondt-Cordelier, S., Cordelier, S., Pršić, J., Hoff, G., Mazeyrat-Gourbeyre, F., Baillieul, F., Clément, C., Ongena, M., and Dorey, S. (2020). Biosurfactants in plant protection against diseases: rhamnolipids and lipopeptides case study. Frontiers in Bioengineering and Biotechnology 8: 1–11.

25 Davis, D.A. et al. (2001). The application of foaming for recovery of surfactin from B. subtilis ATCC 21332. Enzyme Microbiology Technology 28: 346–354.

26 DeBosch, B.J., Heitmeier, M.R., Mayer, A.L., Higgins, C.B., Crowley, J.R., Kraft, T.E., Chi, M., Newberry, E.P., Chen, Z., Finck, B.N., Davidson, N.O., Yarasheski, K.E., Hruz, P.W., and Moley, K.H. (2016). Trehalose inhibits solute carrier 2A (Slc2A) proteins to induce autophagy and prevent hepatic steatosis. Science Signaling 9 (416): 1.

27 Desai, J.D. and Banat, I.M. (1997). Microbial production of surfactants and their commercial potential. Microbiology and Molecular Biology Reviews : MMBR 61 (1): 47–64.

28 Dogan, I., Pagilla, K.R., Webster, D.A., and Stark, B.C. (2006). Expression of Vitreoscilla haemoglobin in Gordonia amarae enhances biosurfactant production. Journal of Industrial Microbiology & Biotechnology 33: 693–700.

29 Dubey, K.V. et al. (2005). Adsorption–desorption process using wood–based activated carbon for recovery of biosurfactant from fermented distillery wastewater. Biotechnology Progress 21: 860–867.

30 Esders, T.W. and Light, R.J. (1972). Glucosyl and acetyItransferases involved in the biosynthesis of glycolipids from Candida bogoriensis. The Journal of Biological Chemistry 10, 247 (5): 1375–1386.

31 Espuny, M.J., Egido, S., Rodón, I., Manresa, A., and Mercadé, M.E. (1996). Nutritional requirements of a biosurfactant producing strain Rhodococcus sp 51T7. Biotechnology Letters 18 (5): 521–526.

32 Fracchia, L., Banat, J., Cavallo, J., Ceresa, M., and Banat, C.I.M. (2015). Potential therapeutic applications of microbial surface-active compounds. AIMS Bioengineering 2 (3): 144–162.

33 Franzetti, A., Gandolfi, I., Bestetti, G., Smyth, J.P.T., and Banat, I.M. (2010). Production and applications of trehalose lipid biosurfactants. European Journal of Lipid Science and Technology 112 (6): 617–627.

34 Gein, S.V., Kuyukina, M.S., Ivshina, I.B., Baeva, T.A., and Chereshnev, V.A. (2011). In vitro cytokine stimulation assay for glycolipid biosurfactant from Rhodococcus ruber: role of monocyte adhesion. Cytotechnology 63: 559–566.

35 Geys, R., Soetaert, W., and Bogaert, I.V. (2014). Biotechnological opportunities in biosurfactant production. Current Opinion in Biotechnology 30: 66–72.

36 Groves, E., Dart, A.E., Covarelli, V., and Caron, E. (2008). Molecular mechanisms of phagocytic uptake in mammalian cells. Cellular and Molecular Life Sciences 65: 1957–1976.

37 Gudiña, E.J., Rangarajan, V., Sen, R., and Rodrigues, L.R. (2013). Potential therapeutic applications of biosurfactants. Trends in Pharmacological Sciences 34 (12): 667–675.

38 Hoq, M.M., Suzutani, T., Toyoda, T., Horiike, T., Yoshida, G., and Azuma, I.M. (1997). Role of gamma delta TCR + lymphocytes in the augmented resistance of trehalose 6,6’-dimycolate-treated mice to influenza virus infection. The Journal of General Virology 78: 1597–1603.

39 Im, J.H., Nakane, T., Yanagishita, H., Ikegami, T., and Kitamoto, D. (2001). Mannosylerythritol lipid, a yeast extracellular glycolipid, shows high binding affinity towards human immunoglobulin. BMC Biotechnology 1: 5.

40 Inaba, T., Tokumoto, Y., Miyazaki, Y., Inoue, N., Maseda, H., Nakajima-Kambe, T., Uchiyama, H., and Nomura, N. (2013). Analysis of genes for succinoyl trehalose lipid production and increasing production in Rhodococcus sp. strain SD-74. Applied and Environmental Microbiology 79: 7082–7890.

41 Iqbal, S., Khalid, Z.M., and Malik, K.A. (1995). Enhanced biodegradation and emulsification of crude oil and hyperproduction of biosurfactants by a gamma ray induced mutant of Pseudomonas aeruginosa. Letters in Applied Microbiology 21: 176–179.

42 Isoda, H., Kitamoto, D., Shinmoto, H., Matsumura, M., and Nakahara, T. (1997). Microbial extracellular glycolipid induction of differentiation and inhibition of the protein kinase C activity of human promyelocytic leukemia cell line HL60. Bioscience, Biotechnology, and Biochemistry 61 (4): 609–614.

43 Isoda, H., Shinmoto, H., Matsumura, M., and Nakahara, T. (1996). Succinoyl trehalose lipid induced differentiation of human monocytoid leukemic cell line U937 into monocyte–macrophages. Cytotechnology 19: 79–88.

44 Jain, N.K. and Roy, I. (2009). Effect of trehalose on protein structure. Protein Science 18 (1): 24–36.

45 Janek, T., Krasowska, A., Czyznikowska, Z., and Łukaszewicz, M. (2018). Trehalose lipid biosurfactant reduces adhesion of microbial pathogens to polystyrene and silicone surfaces: an experimental and computational approach. Frontiers in Microbiology 9 2441

46 Kadinov, B., Nikolova, B., Tsoneva, I., Semkova, S., Kabaivanova, L., and Dimitrova, D. (2020). Trehalose lipid biosurfactant reduced cancer cell viability but did not affect the isometric contraction of rat mesenteric arteries in vitro. International Journal Bioautomation 24 (1): 79–86.

47 Kitamoto, D., Isoda, H., and Nakahara, T. (2002). Functions and potential applications of glycolipid biosurfactants. Journal of Bioscience and Bioengineering 94 (3): 187–201.

48 Koch, A.K., Käppeli, O., Fiechter, A., and Reiser, J. (1991). Hydrocarbon assimilation and biosurfactant production in Pseudomonas aeruginosa mutants. Journal of Bacteriology 173: 4212–4219.

49 Kretschmer, A., Bock, H., and Wagner, F. (1982). Chemical and physical characterization of interfacial-active lipids from Rhodococcus erythropolis grown on n-alkanes. Applied and Environmental Microbiology 44 (4): 864–870.

50 Kügler, J. H. et al. (2014). Trehalose lipid biosurfactants produced by the actinomycetes Tsukamurella spumae and T. pseudospumae. Applied Microbiology and Biotechnology 98 (21): 8905–8915.

51 Kumari, S., Sekar, K.V., Nagasathya, A., Palanivel, S., and Nambaru, S. (2010). Effective biosurfactants production by Pseudomonas aeruginosa and its efficacy on different oils. Journal of Advanced Laboratory Research in Biology 1 (1): 31–34.

52 Kundu, D., Hazra, C., and Chaudhari, A. (2016a). Biodegradation of 2,6- dinitrotoluene and plant growth promoting traits by Rhodococcus pyridinivorans NT2: identification and toxicological analysis of metabolites and proteomic insights. Biocatalysis and Agricultural Biotechnology 8: 55–65.

53 Kundu, D., Hazra, C., and Chaudhari, A. (2016b). Bioremediation potential of Rhodococcus pyridinivorans NT2 in nitrotoluene-contaminated soils: the effectiveness of natural attenuation, biostimulation and bioaugmentation approaches. Soil and Sediment Contamination: An International Journal 25: 637–651.

54 Kundu, D., Hazra, C., Dandi, N., and Chaudhari, A. (2013). Biodegradation of 4- nitrotoluene with biosurfactant production by Rhodococcus pyridinivorans NT2: metabolic pathway, cell surface properties and toxicological characterization. Biodegradation 24: 775–793.

55 Kuyukina, M.S. and Ivshina, I.B. (2010). Rhodococcus biosurfactants: biosynthesis, properties, and potential applications. In: Biology of Rhodococcus (ed. H. Alvarez), Microbiology Monographs, vol 16, 291–313. Springer.

56 Kuyukina, M.S. and Ivshina, I.B. (2019). Production of trehalolipid biosurfactants by Rhodococcus. In: Biology of Rhodococcus (ed. H. Alvarez), Microbiology Monographs, vol 16, 271–298. Cham: Springer.

57 Kuyukina, M.S., Ivshina, I.B., Baeva, T.A., Kochina, O.A., Gein, S.V., and Chereshnev, V.A. (2015). Trehalolipid biosurfactants from nonpathogenic Rhodococcus actinobacteria with diverse immunomodulatory activities. New Biotechnology 25; 32 (6): 559–568.

58 Kuyukina, M.S., Ivshina, I.B., Gein, S.V., Baeva, T.A., and Chereshnev, V.A. (2007). In vitro immunomodalating acitivity of biosurfactant glycolipid complex from Rhodococcus rubber. Bulletin of Experimental Biology and Medicine 144 (3): 326–330.

59 Kuyukina, M.S., Ivshina, I.B., Korshunova, I.O., Stukova, G.I., and Krivoruchko, A.V. (2016). Diverse effects of a biosurfactant from Rhodococcus ruber IEGM 231 on the adhesion of resting and growing bacteria to polystyrene. AMB Express 6 (14): 1–12.

60 Kuyukina, M.S., Ivshina, I.B., Philp, J.C., Christofi, N., Dunbar, S.A., and Ritchkova, M.I. (2001). Recovery of Rhodococcus biosurfactants using methyl tertiary-butyl ether extraction. Journal of Microbiological Methods 46: 149–156.

61 Kuyukina, M.S., Varushkina, A.M., and Ivshina, I.B. (2020). Effects of electroporation on antibiotic susceptibility and adhesive activity to n-hexadecane in Rhodococcus ruber IEGM 231. Applied Biochemistry and Microbiology 56: 729–735.

62 Lang, S. and Philp, J.C. (1998). Surface-active lipids in rhodococci. Antonie van Leeuwenhoek 74 (1/3): 59–70.

63 Lin, S.-C., Lin, K.-G., and Lin, Y.M. (1998). Enhanced biosurfactant production by a Bacillus licheniformis mutant. Enzyme and Microbial Technology 23: 267–273.

64 Mclaughlin, C.A., Schwartzman, S.M., Horner, B.L. et al. (1980). Regression of tumors in guinea pigs after treatment with synthetic muramyl dipeptides and trehalose dimycolate. Science (80) 208 (4442): 415–416.

65 Makkar, R.S., Cameotra, S.S., and Banat, I.M. (2011). Advances in utilization of renewable substrates for biosurfactant production. AMB Express 1 (1): 1–19.

66 Marqués, A.M., Pinazo, M., Farfana, F.J., Aranda, J.A., Teruel, A., Ortiz, A., Manresa, A., and Espunya, M.J. (2009). The physicochemical properties and chemical composition of trehalose lipids produced by Rhodococcus erythropolis 51T7. Chemistry and Physics of Lipids 158: 110–117.

67 Mata-Sandoval, J.C., Karns, J., and Torrents, A. (1999). High-performance liquid chromatography method for the characterization of rhamnolipid mixtures produced by Pseudomonas aeruginosa UG2 on corn oil. Journal of Chromatography A 864: 211–220.

68 Matsumoto, Y., Cao, E., and Ueoka, R. (2013). Novel liposomes composed of dimyristoylphosphatidylcholine and trehalose surfactants inhibit the growth of tumor cells along with apoptosis. Biological & Pharmaceutical Bulletin 36 (8): 1258–1262.

69 Matsumoto, Y., Kuwabara, K., Ichihara, H., and Kuwano, M. (2016). Therapeutic effects of trehalose liposomes against lymphoblastic leukemia leading to apoptosis in vitro and in vivo. Bioorganic & Medicinal Chemistry Letters 15, 26 (2): 301–305.

70 Mnif, I., Ghribi, D. (2015). Microbial derived surface active compounds: properties and screening concept. World Journal of Microbiology and Biotechnology 31 (7): 1001–1020.

71 Mnif, I. and Ghribia, D. (2016). Glycolipid biosurfactants: main properties and potential applications in agriculture and food industry. Journal of the Science of Food and Agriculture 96 (13): 4310–4320.

72 Morikawa, M., Hirata, Y., and Imanaka, T. (2000). A study on the structure-function relationship of lipopeptide biosurfactants. Biochimica et Biophysica Acta 1488: 211–218.

73 Mujumdar, S., Joshi, P., and Karve, N. (2019). Production, characterization, and applications of bioemulsifiers (BE) and biosurfactants (BS) produced by Acinetobacter spp.: a review. Journal of Basic Microbiology 59 (3): 277–287.

74 Mukherjee, S., Das, P., and Sen, R. (2006). Towards commercial production of microbial surfactants. Trends in Biotechnology 24 (11): 509–514.

75 Mulligan, C.N., Cooper, D.G., and Neufeld, R.J. (1984). Selection of microbes producing biosurfactants in media without hydrocarbons. Journal of Fermentation Technology 62: 311–314.

76 Mutalik, S.R., Vaidya, B.K., Joshi, R.M., Desai, K.M., and Nene, S.N. (2008). Use of response surface optimization for the production of biosurfactant from Rhodococcus spp. MTCC 2574. Bioresource Technology 99: 1875–7880.

77 Natsuhara, Y., Oka, S., Kaneda, K., and Yano, I. (1990). Parallel antitumor, granuloma forming and tumor-necrosis-factor-priming activities of mycoloyl glycolipids from Nocardia rubra that differ in carbohydrate moiety: structure–activity relationships. Cancer Immunology, Immunotherapy 31: 99–106.

78 Oliveira, M.R., Magri, A., Baldo, C., Camilios-Neto, D., Minucelli, T., and Celligo, M.A.P.C. (2015). Review: sophorolipids a promising biosurfactant and its applications. International Journal of Advanced Biotechnology and Research 6 (2): 161–174.

79 Pacheco, G.J., Ciapina, E.M.P., Gomes, E.B., and Pereira-Junior, N. (2010). Biosurfactant production by Rhodococcus erythropolis and its application to oil removal. Brazilian Journal of Microbiology 41 (3): 685–693.

80 Patil, H.I. and Pratap, A.P. (2018). Production and quantitative analysis of trehalose lipid biosurfactants using high-performance liquid chromatography. Journal of Surfactants and Detergents 21 (4): 553–564.

81 Paulino, B.N., Pessôa, M.G., Mano, M.C.R., Molina, G., Neri-Numa, I.A., and Pastore, G.M. (2016). Current status in biotechnological production and applications of glycolipid biosurfactants. Applied Microbiology and Biotechnology 100: 10265–10293.

82 Philp, J.C., Kuyukina, M.S., Ivshina, I.B., Dunbar, S.A., Christofi, N., Lang, S., and Wray, V. (2002). Alkanotropic Rhodococcus ruber as a biosurfactant producer. Applied Microbiology and Biotechnology 59: 318–324.

83 Pinzon, N. and Ju, L.K. (2009). Improved detection of rhamnolipid production using agar plates containing Methylene blue and cetyltrimethyl ammonium bromide. Biotechnology Letters 31: 1583–1588.

84 Pinzon, N.M., Zhang, Q., Koganti, S., and Ju, L.K. (2009). Advances in bioprocess development of rhamnolipid and sophorolipid production. In: Biobase Surfactants and Detergents—Synthesis, Properties, and Applications (ed. D.G. Hayes, D. Kitamoto, D.K.Y. Solaiman, and R.D. Ashby), 77–105. Urbana, IL: AOCS Press.

85 Ramsay, B., McCarthy, J., Guerra-Santos, L., Kappeli, O., Fiechter, A., and Margaritis, A. (1988). Biosurfactant production and diauxic growth of Rhodococcus aurantiacus when using n -alkanes as the carbon source. Canadian Journal of Microbiology 34 (11): 1209–1212.

86 Ribeiro, I.A., Bronze, M.R., Castro, M.F., and Ribeiro, M.H.L. (2012). Design of selective production of sophorolipids by Rhodotorula bogoriensis through nutritional requirements. Journal of Molecular Recognition 25 (11): 630–640.

87 Ribeiro, I.A., Bronze, M.R., Castro, M.F., and Ribeiro, M.H.L. (2013). Sophorolipids: improvement of the selective production by Starmerella bombicola through the design of nutritional requirements. Applied Microbiology and Biotechnology 97 (5): 1875–1887.

88 Rodrigues, L., Banat, I.M., Teixeira, J., and Oliveira, R. (2006). Biosurfactants: potential applications in medicine. Journal of Antimicrobial Chemotherapy 57 (4): 609–618.

89 Sana, S., Datta, S., Biswas, D., and Sengupta, D. (2018). Assessment of synergistic antibacterial activity of combined biosurfactants revealed by bacterial cell envelop damage. Biochimica et Biophysica Acta - Biomembranes 1860 (2): 579–585.

90 Santos, D.K.F., Rufino, R.D., Luna, J.M., Santos, V.A., and Sarubbo, L.A. (2016). Biosurfactants: multifunctional biomolecules of the 21st century. International Journal of Molecular Sciences 18, 17 (3): 1–31.

91 Sarwar, A., Brader, G., Corretto, E., Aleti, G., Corretto, E., Abaidullah, M., Sessitsch, A., and Hafeez, F.Y. (2018). Qualitative analysis of biosurfactants from Bacillus species exhibiting antifungal activity. PLoS One 13 (6): 1–15.

92 Sato, S., Fukuoka, T., Saika, A., Koshiyama, T., and Morita, T. (2019). A New Screening Approach for Glycolipid-type Biosurfactant Producers Using MALDI-TOF/MS. Journal of Oleo Science 68 (12): 1287–1294.

93 Satpute, S.K., Banat, I.M., Dhakephalkar, P.K., Banpurkar, A.G., and Chopade, B.A. (2010). Biosurfactants, bioemulsifiers and exopolysaccharides from marine microorganisms. Biotechnology Advances 28 (4): 436–450.

94 Satpute, S.K., Bhawsar, B.D., Dhakephalkar, P.K., and Chopad, B.A. (2008). Assessment of different screening methods for selecting biosurfactant producing marine bacteria. Indian Journal of Marine Sciences 37 (3): 243–250.

95 Sen, R. and Swaminathan, T. (2005). Characterization of concentration and purification parameters and operating conditions for the small-scale recovery of surfactin. Process Biochemistry 40: 2953–2958.

96 Sen, S., Borah, S.N., Bora, A., and Deka, S. (2017). Production, characterization, and antifungal activity of a biosurfactant produced by Rhodotorula babjevae YS3. Microbial Cell Factories 16 (95): 1–14.

97 Seo, Y.S. and Shin, K.S. (2011). Optimal conditions and substrate specificity for trehalose production by resting cells of arthrobacter crystallopoietes n-08. Journal of Food Science and Nutrition 16 (4): 357–363.

98 Siegmund, I. and Wagner, F. (1991). New method for detecting rhamnolipids excreted by Pseudomonas species during growth on mineral agar. Biotechnology Techniques 5: 265–268.

99 Silva, R.C.F.S., Almeida, D.G., Rufino, R.D., Luna, J.M., Santos, V.A., and Sarubbo, L.A. (2014). Applications of biosurfactants in the petroleum industry and the remediation of oil spills. International Journal of Molecular Sciences 15 (7): 12523–12542.

100 Smyth, T.J.P., Perfumo, A., Marchant, R., and Banat, I.M. (2010). Isolation and analysis of low molecular weight microbial glycolipids. In: Handbook of Hydrocarbon and Lipid Microbiology (ed. K.N. Timmis), 3705–3723. Berlin, Heidelberg: Springer.

101 Soberón-Chávez, G. (ed.) (2011). Biosurfactants, Microbiology monographs 20. eBook from Heidelberg: Springer, 127.

102 Solaiman, D., Ashby, R., Birbir, M., and Caglayan, P. (2016). Antibacterial activity of sophorolipids produced by Candida bombicola on gram-positive and gram negative bacteria isolated from salted hides. Journal of the American Leather Chemists Association 111: 358–364.

103 Souza, E.C., Vessoni-Penna, T.C., and Oliveira, R.P.S. (2014). Biosurfactant-enhanced hydrocarbon bioremediation: an overview. International Biodeterioration & Biodegradation 89: 88–94.

104 Sudo, T., Zhao, X., Wakamatsu, Y., Shibahara, M., Nomura, N., Nakahara, T., Suzuki, A., Kobayashi, Y., Jin, C., Murata, T., and Yokohama, K.K. (2000). Induction of the differentiation of human HL60 promyelocytic leukemia cell line by succinoyl trehalose lipids. Cytotechnology 33 (1–3): 259–264.

105 Takayama, K., Wang, C., and Besra, G.S. (2005). Pathway to synthesis and processing of mycolic acids in Mycobacterium tuberculosis. Society 18 (1): 81–101.

106 Tokumoto, Y., Nomura, N., Uchiyama, H. et al. (2009). Structural Characterization and Surface-Active Properties of a Succinoyl Trehalose Lipid Produced by Rhodococcus sp. SD-74. Journal of Oleo Science 102 (2): 97–102.

107 Tuleva, B., Christova, N., Cohen, R., Antonova, D., Todorov, T., and Stoineva, I. (2009). Isolation and characterization of trehalose tetraester biosurfactants from soil strain Micrococcus luteus BN56. Process Biochemistry 44: 135–141.

108 Uchida, Y., Misawa, S., Nakahara, T., and Tabuchi, T. (1989). Factors affecting the production of succinoyl trehalose lipids by Rhodococcus erythropolis SD-74 grown on n-alkanes. Agricultural and Biological Chemistry 53 (3): 765–769.

109 Varjani, S.J., Rana, D.P., Bateja, S., Sharma, M.C., and Upasani, V.N. (2014). Screening and identification of biosurfactant (bioemulsifier) producing bacteria from crude oil contaminated sites of Gujarat, India. International Journal of Innovative Research in Science Engineering and Technology 3 (2): 9205–9213.

110 Varjani, S.J. and Upasani, V.N. (2016). Biodegradation of petroleum hydrocarbons by oleophilic strain of Pseudomonas aeruginosa NCIM 5514. Bioresource Technology 222: 195–201.

111 Varjani, S.J. and Upasani, V.N. (2017). Critical review on biosurfactant analysis, purification and characterization using rhamnolipid as a model biosurfactant. Bioresource Technology 232: 389–397.

112 Vijayakumar, S. and Saravanan, V. (2015). Biosurfactants-types, sources and applications. Research Journal of Microbiology 10 (5): 181–192.

113 Wang, Y., Nie, M., Diwu, Z., Lei, Y., Li, H., and Bai, X. (2019). Characterization of trehalose lipids produced by a unique environmental isolate bacterium Rhodococcus qingshengii strain FF. Journal of Applied Microbiology 127: 1442–1453.

114 Warnecke, D. and Heinz, E. (2010). Glycolipid headgroup replacement: A new approach for the analysis of specific functions of glycolipids in vivo. European Journal of Cell Biology 89 (1): 53–61.

115 White, D.A., Hird, L.C., and Ali, S.T. (2013). Production and characterization of a trehalolipid biosurfactant produced by the novel marine bacterium Rhodococcus sp., strain PML026. Journal of Applied Microbiology 115: 744–755.

116 Yagi-Utsumi, M. (2019). NMR characterization of conformational dynamics and molecular assemblies of proteins. Biological and Pharmaceutical Bulletin 42 (6): 867–872.

117 Yakimov, M.M., Giuliano, L., Scarfì, B.V., and Golyshin, P.N. (1999). Characterization of antarctic hydrocarbon-degrading bacteria capable of producing bioemulsifiers. The New Microbiologica 22: 249–256.

118 Zhang, J., Saerens, K.M.J., Bogaert, I.N.A.V., and Soetaert, W. (2011). Vegetable oil enhances sophorolipid production by Rhodotorula bogoriensis. Biotechnology Letters 33 (12): 2417–2423.