參考文獻 |
1. Kay, J., et al., The prevalence of childhood atopic eczema in a general population. Journal of the American Academy of Dermatology, 1994. 30(1): p. 35-39.
2. Palmer, C.N., et al., Common loss-of-function variants of the epidermal barrier protein filaggrin are a major predisposing factor for atopic dermatitis. Nature genetics, 2006. 38(4): p. 441-446.
3. Weidinger, S., et al., Loss-of-function variations within the filaggrin gene predispose for atopic dermatitis with allergic sensitizations. Journal of Allergy and Clinical Immunology, 2006. 118(1): p. 214-219.
4. Marenholz, I., et al., Filaggrin loss-of-function mutations predispose to phenotypes involved in the atopic march. Journal of Allergy and Clinical Immunology, 2006. 118(4): p. 866-871.
5. Lee, G.R. and R.A. Flavell, Transgenic mice which overproduce Th2 cytokines develop spontaneous atopic dermatitis and asthma. International immunology, 2004. 16(8): p. 1155-1160.
6. Mjösberg, J. and L. Eidsmo, Update on innate lymphoid cells in atopic and non‐atopic inflammation in the airways and skin. Clinical & Experimental Allergy, 2014. 44(8): p. 1033-1043.
7. Howell, M.D., et al., Cytokine modulation of atopic dermatitis filaggrin skin expression. Journal of Allergy and Clinical Immunology, 2009. 124(3): p. R7-R12.
71
8. Spergel, J.M. and A.S. Paller, Atopic dermatitis and the atopic march. Journal of Allergy and Clinical Immunology, 2003. 112(6): p. S118-S127.
9. Ouwehand, A.C., S. Salminen, and E. Isolauri, Probiotics: an overview of beneficial effects, in Lactic Acid Bacteria: Genetics, Metabolism and Applications. 2002, Springer. p. 279-289.
10. Saavedra, J.M., et al., Feeding of Bifidobacterium bifidum and Streptococcus thermophilus to infants in hospital for prevention of diarrhoea and shedding of rotavirus. The lancet, 1994. 344(8929): p. 1046-1049.
11. Shornikova, A.-V., et al., Bacteriotherapy with Lactobacillus reuteri in rotavirus gastroenteritis. The Pediatric infectious disease journal, 1997. 16(12): p. 1103-1107.
12. Link-Amster, H., et al., Modulation of a specific humoral immune response and changes in intestinal flora mediated through fermented milk intake. FEMS Immunology & Medical Microbiology, 1994. 10(1): p. 55-63.
13. Viljanen, M., et al., Probiotics in the treatment of atopic eczema/dermatitis syndrome in infants: a double‐blind placebo‐controlled trial. Allergy, 2005. 60(4): p. 494-500.
14. Weston, S., et al., Effects of probiotics on atopic dermatitis: a randomised controlled trial. Archives of disease in childhood, 2005. 90(9): p. 892-897.
15. Kalliomäki, M., et al., Probiotics in primary prevention of atopic disease: a randomised placebo-controlled trial. The Lancet, 2001. 357(9262): p. 1076-1079.
72
16. Abrahamsson, T.R., et al., Probiotics in prevention of IgE-associated eczema: a double-blind, randomized, placebo-controlled trial. Journal of Allergy and Clinical Immunology, 2007. 119(5): p. 1174-1180.
17. LEYDEN, J.J., R.R. MARPLES, and A.M. KLIGMAN, Staphylococcus aureus in the lesions of atopic dermatitis. British Journal of Dermatology, 1974. 90(5): p. 525-525.
18. Roll, A., et al., Microbial colonization and atopic dermatitis. Current opinion in allergy and clinical immunology, 2004. 4(5): p. 373-378.
19. Aly, R., H.I. Maibach, and H.R. Shinefield, Microbial flora of atopic dermatitis. Arch dermatol, 1977. 113(6): p. 780-782.
20. David, T. and G. Cambridge, Bacterial infection and atopic eczema. Archives of disease in childhood, 1986. 61(1): p. 20-23.
21. Hanifin, J.M. and J.L. Rogge, Staphylococcal infections in patients with atopic dermatitis. Archives of dermatology, 1977. 113(10): p. 1383-1386.
22. Hoeger, P.H., et al., Staphylococcal skin colonization in children with atopic dermatitis: prevalence, persistence, and transmission of toxigenic and nontoxigenic strains. Journal of Infectious Diseases, 1992. 165(6): p. 1064-1068.
23. Iwamoto, K., et al., Staphylococcus aureus from atopic dermatitis skin alters cytokine production triggered by monocyte-derived Langerhans cell. Journal of dermatological science, 2017. 88(3): p. 271-279.
24. Fleury, O.M., et al., Clumping factor B promotes adherence of Staphylococcus aureus to corneocytes in atopic dermatitis. Infection and immunity, 2017. 85(6): p. e00994-16.
73
25. Hepburn, L., et al., The complex biology and contribution of Staphylococcus aureus in atopic dermatitis, current and future therapies. British Journal of Dermatology, 2017. 177(1): p. 63-71.
26. Williams, M.R. and R.L. Gallo, The role of the skin microbiome in atopic dermatitis. Current allergy and asthma reports, 2015. 15(11): p. 65.
27. Fedenko, E.S., et al., Cytokine gene expression in the skin and peripheral blood of atopic dermatitis patients and healthy individuals. Self/nonself, 2011. 2(2): p. 120-124.
28. Sasaki, T., et al., Effects of staphylococci on cytokine production from human keratinocytes. British Journal of Dermatology, 2003. 148(1): p. 46-50.
29. Son, E.D., et al., Staphylococcus aureus inhibits terminal differentiation of normal human keratinocytes by stimulating interleukin-6 secretion. Journal of dermatological science, 2014. 74(1): p. 64-71.
30. Duncan, M.R. and B. Berman, Stimulation of collagen and glycosaminoglycan production in cultured human adult dermal fibroblasts by recombinant human interleukin 6. Journal of Investigative Dermatology, 1991. 97(4): p. 686-692.
31. Grossman, R.M., et al., Interleukin 6 is expressed in high levels in psoriatic skin and stimulates proliferation of cultured human keratinocytes. Proceedings of the National Academy of Sciences, 1989. 86(16): p. 6367-6371.
32. Keshari, S., et al., Butyric Acid from Probiotic Staphylococcus epidermidis in the Skin Microbiome Down-Regulates the Ultraviolet-Induced Pro-Inflammatory IL-6 Cytokine via Short-Chain Fatty Acid Receptor. International journal of molecular sciences, 2019. 20(18): p. 4477.
74
33. Shu, M., et al., Fermentation of Propionibacterium acnes, a commensal bacterium in the human skin microbiome, as skin probiotics against methicillin-resistant Staphylococcus aureus. PloS one, 2013. 8(2): p. e55380.
34. Meijer, K., P. de Vos, and M.G. Priebe, Butyrate and other short-chain fatty acids as modulators of immunity: what relevance for health? Current Opinion in Clinical Nutrition & Metabolic Care, 2010. 13(6): p. 715-721.
35. Cavaglieri, C.R., et al., Differential effects of short-chain fatty acids on proliferation and production of pro-and anti-inflammatory cytokines by cultured lymphocytes. Life sciences, 2003. 73(13): p. 1683-1690.
36. Tedelind, S., et al., Anti-inflammatory properties of the short-chain fatty acids acetate and propionate: a study with relevance to inflammatory bowel disease. World journal of gastroenterology: WJG, 2007. 13(20): p. 2826.
37. Park, J.-S., et al., Anti-inflammatory effects of short chain fatty acids in IFN-γ-stimulated RAW 264.7 murine macrophage cells: Involvement of NF-κB and ERK signaling pathways. International immunopharmacology, 2007. 7(1): p. 70-77.
38. Davie, J.R., Inhibition of histone deacetylase activity by butyrate. The Journal of nutrition, 2003. 133(7): p. 2485S-2493S.
39. Sanford, J.A., et al., Inhibition of HDAC8 and HDAC9 by microbial short-chain fatty acids breaks immune tolerance of the epidermis to TLR ligands. Science immunology, 2016. 1(4): p. eaah4609.
40. Giraffa, G., Studying the dynamics of microbial populations during food fermentation. FEMS Microbiology Reviews, 2004. 28(2): p. 251-260.
75
41. Ren, T., et al., 16 S rRNA survey revealed complex bacterial communities and evidence of bacterial interference on human adenoids. Environmental microbiology, 2013. 15(2): p. 535-547.
42. Iwase, T., et al., Staphylococcus epidermidis Esp inhibits Staphylococcus aureus biofilm formation and nasal colonization. Nature, 2010. 465(7296): p. 346.
43. Naik, S., et al., Compartmentalized control of skin immunity by resident commensals. Science, 2012. 337(6098): p. 1115-1119.
44. Kao, M.S., et al., Microbiome precision editing: Using PEG as a selective fermentation initiator against methicillin‐resistant Staphylococcus aureus. Biotechnology journal, 2017. 12(4).
45. Traisaeng, S., et al., A derivative of butyric acid, the fermentation metabolite of Staphylococcus epidermidis, inhibits the growth of a Staphylococcus aureus strain isolated from atopic dermatitis patients. Toxins, 2019. 11(6): p. 311.
46. Cianciaruso, C., et al., Primary human and rat β-cells release the intracellular autoantigens GAD65, IA-2, and proinsulin in exosomes together with cytokine-induced enhancers of immunity. Diabetes, 2017. 66(2): p. 460-473.
47. Kumar, V., et al., Robbins and Cotran pathologic basis of disease, professional edition e-book. 2014: Elsevier health sciences.
48. Bluestone, J.A., K. Herold, and G. Eisenbarth, Genetics, pathogenesis and clinical interventions in type 1 diabetes. Nature, 2010. 464(7293): p. 1293.
49. Dabelea, D., et al., Incidence of diabetes in youth in the United States. Jama, 2007. 297(24): p. 2716-2724.
76
50. Diana, J., et al., Innate immunity in type 1 diabetes. Discovery Medicine, 2011. 11(61): p. 513-520.
51. Atkinson, M.A., et al., How does type 1 diabetes develop?: the notion of homicide or β-cell suicide revisited. Diabetes, 2011. 60(5): p. 1370-1379.
52. Kristiansen, O.P. and T. Mandrup-Poulsen, Interleukin-6 and diabetes: the good, the bad, or the indifferent? Diabetes, 2005. 54(suppl 2): p. S114-S124.
53. Gurr, W., et al., A Reg family protein is overexpressed in islets from a patient with new-onset type 1 diabetes and acts as T-cell autoantigen in NOD mice. Diabetes, 2002. 51(2): p. 339-346.
54. Jin, H., et al., IL-6 Promotes Islet β-Cell Dysfunction in Rat Collagen-Induced Arthritis. Journal of diabetes research, 2016. 2016.
55. Forslund, K., et al., Disentangling type 2 diabetes and metformin treatment signatures in the human gut microbiota. Nature, 2015. 528(7581): p. 262.
56. Musso, G., R. Gambino, and M. Cassader, Interactions between gut microbiota and host metabolism predisposing to obesity and diabetes. Annual review of medicine, 2011. 62: p. 361-380.
57. Wen, L., et al., Innate immunity and intestinal microbiota in the development of Type 1 diabetes. Nature, 2008. 455(7216): p. 1109.
58. Valladares, R., et al., Lactobacillus johnsonii N6. 2 mitigates the development of type 1 diabetes in BB-DP rats. Plos one, 2010. 5(5): p. e10507.
77
59. Matsuzaki, T., et al., Prevention of onset in an insulin‐dependent diabetes mellitus model, NOD mice, by oral feeding of Lactobacillus casei. Apmis, 1997. 105(7‐12): p. 643-649.
60. Calcinaro, F., et al., Oral probiotic administration induces interleukin-10 production and prevents spontaneous autoimmune diabetes in the non-obese diabetic mouse. Diabetologia, 2005. 48(8): p. 1565-1575.
61. Yadav, H., S. Jain, and P. Sinha, Antidiabetic effect of probiotic dahi containing Lactobacillus acidophilus and Lactobacillus casei in high fructose fed rats. Nutrition, 2007. 23(1): p. 62-68.
62. Al-Salami, H., et al., Probiotic treatment reduces blood glucose levels and increases systemic absorption of gliclazide in diabetic rats. European journal of drug metabolism and pharmacokinetics, 2008. 33(2): p. 101-106.
63. Zhang, Q., Y. Wu, and X. Fei, Effect of probiotics on glucose metabolism in patients with type 2 diabetes mellitus: a meta-analysis of randomized controlled trials. Medicina, 2016. 52(1): p. 28-34.
64. Louis, P. and H.J. Flint, Diversity, metabolism and microbial ecology of butyrate-producing bacteria from the human large intestine. FEMS microbiology letters, 2009. 294(1): p. 1-8.
65. Li, X., et al., Effects of Lactobacillus casei CCFM419 on insulin resistance and gut microbiota in type 2 diabetic mice. Beneficial microbes, 2017. 8(3): p. 421-432.
78
66. Li, C., et al., Carrot juice fermented with Lactobacillus plantarum NCU116 ameliorates type 2 diabetes in rats. Journal of agricultural and food chemistry, 2014. 62(49): p. 11884-11891.
67. Chen, P., et al., Oral administration of Lactobacillus rhamnosus CCFM0528 improves glucose tolerance and cytokine secretion in high-fat-fed, streptozotocin-induced type 2 diabetic mice. Journal of functional foods, 2014. 10: p. 318-326.
68. Regard, J.B., et al., Probing cell type–specific functions of G i in vivo identifies GPCR regulators of insulin secretion. The Journal of clinical investigation, 2007. 117(12): p. 4034-4043.
69. Ahren, B., Islet G protein-coupled receptors as potential targets for treatment of type 2 diabetes. Nature reviews Drug discovery, 2009. 8(5): p. 369.
70. Leonard, J.N. and Y. Hakak, Gpr43 and modulators thereof for the treatment of metabolic-related disorders. 2010, Google Patents.
71. Layden, B.T., et al., Regulation of pancreatic islet gene expression in mouse islets by pregnancy. Journal of Endocrinology, 2010. 207(3): p. 265-279.
72. Ulven, T., Short-chain free fatty acid receptors FFA2/GPR43 and FFA3/GPR41 as new potential therapeutic targets. Frontiers in endocrinology, 2012. 3: p. 111.
73. McNelis, J.C., et al., GPR43 potentiates beta cell function in obesity. Diabetes, 2015: p. db141938.
74. Mariño, E., et al., Gut microbial metabolites limit the frequency of autoimmune T cells and protect against type 1 diabetes. Nature immunology, 2017. 18(5): p. 552.
79
75. Bindels, L.B., E.M. Dewulf, and N.M. Delzenne, GPR43/FFA2: physiopathological relevance and therapeutic prospects. Trends in pharmacological sciences, 2013. 34(4): p. 226-232.
76. Wong, V.W.-S., et al., Treatment of nonalcoholic steatohepatitis with probiotics. A proof-of-concept study. Annals of hepatology, 2015. 12(2): p. 256-262.
77. Moayyedi, P., et al., The efficacy of probiotics in the treatment of irritable bowel syndrome: a systematic review. Gut, 2010. 59(3): p. 325-332.
78. Mazloom, Z., A. Yousefinejad, and M.H. Dabbaghmanesh, Effect of probiotics on lipid profile, glycemic control, insulin action, oxidative stress, and inflammatory markers in patients with type 2 diabetes: a clinical trial. Iranian journal of medical sciences, 2013. 38(1): p. 38.
79. Kaur, N., et al., Intestinal dysbiosis in inflammatory bowel disease. Gut microbes, 2011. 2(4): p. 211-216.
80. Grice, E.A. and J.A. Segre, The human microbiome: our second genome. Annual review of genomics and human genetics, 2012. 13: p. 151-170.
81. Leung, D.Y., New insights into atopic dermatitis: role of skin barrier and immune dysregulation. Allergology international, 2013. 62(2): p. 151-161.
82. Chung, C.S., S. Yamini, and P.R. Trumbo, FDA’s health claim review: whey-protein partially hydrolyzed infant formula and atopic dermatitis. Pediatrics, 2012: p. peds. 2012-0333.
83. Eichenfield, L., Consensus guidelines in diagnosis and treatment of atopic dermatitis. Allergy, 2004. 59: p. 86-92.
80
84. Tollefson, M.M. and A.L. Bruckner, Atopic dermatitis: skin-directed management. Pediatrics, 2014: p. peds. 2014-2812.
85. Kong, H.H., et al., Temporal shifts in the skin microbiome associated with disease flares and treatment in children with atopic dermatitis. Genome research, 2012.
86. Kaesler, S., et al., Toll-like receptor 2 ligands promote chronic atopic dermatitis through IL-4–mediated suppression of IL-10. Journal of Allergy and Clinical Immunology, 2014. 134(1): p. 92-99. e6.
87. Chakravortty, D., et al., The inhibitory action of butyrate on lipopolysaccharide-induced nitric oxide production in RAW 264.7 murine macrophage cells. Journal of endotoxin research, 2000. 6(3): p. 243-247.
88. Vinolo, M.A., et al., Regulation of inflammation by short chain fatty acids. Nutrients, 2011. 3(10): p. 858-876.
89. Di Domenico, E., et al., Inflammatory cytokines and biofilm production sustain Staphylococcus aureus outgrowth and persistence: a pivotal interplay in the pathogenesis of Atopic Dermatitis. Scientific reports, 2018. 8(1): p. 9573.
90. Navarini, A.A., L.E. French, and G.F. Hofbauer, Interrupting IL-6–receptor signaling improves atopic dermatitis but associates with bacterial superinfection. Journal of Allergy and Clinical Immunology, 2011. 128(5): p. 1128-1130.
91. Fujita, T., et al., A GPR40 agonist GW9508 suppresses CCL5, CCL17, and CXCL10 induction in keratinocytes and attenuates cutaneous immune inflammation. Journal of Investigative Dermatology, 2011. 131(8): p. 1660-1667.
81
92. Wang, Y., et al., Propionic acid and its esterified derivative suppress the growth of methicillin-resistant Staphylococcus aureus USA300. Beneficial microbes, 2014. 5(2): p. 161-168.
93. Hobdy, E. and J. Murren, AN-9 (Titan). Current opinion in investigational drugs (London, England: 2000), 2004. 5(6): p. 628-634.
94. Wang, Y., et al., Staphylococcus epidermidis in the human skin microbiome mediates fermentation to inhibit the growth of Propionibacterium acnes: implications of probiotics in acne vulgaris. Applied microbiology and biotechnology, 2014. 98(1): p. 411-424.
95. Busbee, P.B., M. Nagarkatti, and P.S. Nagarkatti, Natural indoles, indole-3-carbinol (I3C) and 3, 3’-diindolylmethane (DIM), attenuate staphylococcal enterotoxin B-mediated liver injury by downregulating miR-31 expression and promoting caspase-2-mediated apoptosis. PloS one, 2015. 10(2): p. e0118506.
96. Iwamoto, K., et al., Staphylococcus aureus in atopic dermatitis: Strain-specific cell wall proteins and skin immunity. Allergology International, 2019.
97. Cogen, A.L., et al., Selective antimicrobial action is provided by phenol-soluble modulins derived from Staphylococcus epidermidis, a normal resident of the skin. Journal of Investigative Dermatology, 2010. 130(1): p. 192-200.
98. Yang, A.-J., et al., A Microtube Array Membrane (MTAM) Encapsulated Live Fermenting Staphylococcus epidermidis as a Skin Probiotic Patch against Cutibacterium acnes. International journal of molecular sciences, 2019. 20(1): p. 14.
82
99. Nakatsuji, T., et al., Antimicrobials from human skin commensal bacteria protect against Staphylococcus aureus and are deficient in atopic dermatitis. Science translational medicine, 2017. 9(378): p. eaah4680.
100. Paller, A.S., et al., The microbiome in patients with atopic dermatitis. Journal of Allergy and Clinical Immunology, 2019. 143(1): p. 26-35.
101. Jin, W., et al., Topical Application of JAK1/JAK2 Inhibitor Momelotinib Exhibits Significant Anti-Inflammatory Responses in DNCB-Induced Atopic Dermatitis Model Mice. International journal of molecular sciences, 2018. 19(12): p. 3973.
102. Maeda, N., et al., Therapeutic application of human leukocyte antigen-G1 improves atopic dermatitis-like skin lesions in mice. International immunopharmacology, 2017. 50: p. 202-207.
103. Kao, M.-S., et al., The mPEG-PCL copolymer for selective fermentation of Staphylococcus lugdunensis against Candida parapsilosis in the human microbiome. Journal of microbial & biochemical technology, 2016. 8(4): p. 259.
104. Chen, Z.-X. and T.R. Breitman, Tributyrin: a prodrug of butyric acid for potential clinical application in differentiation therapy. Cancer Research, 1994. 54(13): p. 3494-3499.
105. Rabizadeh, E., et al., Rapid alteration of c-myc and c-jun expression in leukemic cells induced to differentiate by a butyric acid prodrug. FEBS letters, 1993. 328(3): p. 225-229.
106. Perrine, S.P., et al., Isobutyramide, an orally bioavailable butyrate analogue, stimulates fetal globin gene expression in vitro and in vivo. British journal of haematology, 1994. 88(3): p. 555-561.
83
107. Raafat, D. and H.G. Sahl, Chitosan and its antimicrobial potential–a critical literature survey. Microbial biotechnology, 2009. 2(2): p. 186-201.
108. Larsen, J.M., The immune response to Prevotella bacteria in chronic inflammatory disease. Immunology, 2017. 151(4): p. 363-374.
109. Mombelli, M., et al., Histone deacetylase inhibitors impair antibacterial defenses of macrophages. Journal of Infectious Diseases, 2011. 204(9): p. 1367-1374.
110. Steliou, K., et al., Butyrate histone deacetylase inhibitors. BioResearch open access, 2012. 1(4): p. 192-198.
111. Chriett, S., et al., Prominent action of butyrate over β-hydroxybutyrate as histone deacetylase inhibitor, transcriptional modulator and anti-inflammatory molecule. Scientific reports, 2019. 9(1): p. 742.
112. Finnin, M.S., et al., Structures of a histone deacetylase homologue bound to the TSA and SAHA inhibitors. Nature, 1999. 401(6749): p. 188.
113. Warren, S. and H.F. Root, The pathology of diabetes, with special reference to pancreatic regeneration. The American journal of pathology, 1925. 1(4): p. 415.
114. Gepts, W., Pathologic anatomy of the pancreas in juvenile diabetes mellitus. Diabetes, 1965. 14(10): p. 619-633.
115. Junker, K., et al., An autopsy study of the islets of Langerhans in acute‐onset juvenile diabetes mellitus. Acta Pathologica Microbiologica Scandinavica Section A Pathology, 1977. 85(5): p. 699-706.
116. Pipeleers, D. and Z. Ling, Pancreatic beta cells in insulin‐dependent diabetes. Diabetes/metabolism reviews, 1992. 8(3): p. 209-227.
84
117. Kukreja, A. and N.K. Maclaren, Autoimmunity and diabetes. The Journal of Clinical Endocrinology & Metabolism, 1999. 84(12): p. 4371-4378.
118. Eizirik, D.L., S. Sandler, and J.P. Palmer, Repair of pancreatic β-cells: a relevant phenomenon in early IDDM? Diabetes, 1993. 42(10): p. 1383-1391.
119. Goldberg, R.B., Cytokine and cytokine-like inflammation markers, endothelial dysfunction, and imbalanced coagulation in development of diabetes and its complications. The Journal of Clinical Endocrinology & Metabolism, 2009. 94(9): p. 3171-3182.
120. Brugman, S., et al., Antibiotic treatment partially protects against type 1 diabetes in the Bio-Breeding diabetes-prone rat. Is the gut flora involved in the development of type 1 diabetes? Diabetologia, 2006. 49(9): p. 2105-2108.
121. Morrison, D.J. and T. Preston, Formation of short chain fatty acids by the gut microbiota and their impact on human metabolism. Gut microbes, 2016. 7(3): p. 189-200.
122. den Besten, G., et al., The role of short-chain fatty acids in the interplay between diet, gut microbiota, and host energy metabolism. Journal of lipid research, 2013. 54(9): p. 2325-2340.
123. Bhutia, Y.D. and V. Ganapathy, Short, but smart: SCFAs train T cells in the gut to fight autoimmunity in the brain. Immunity, 2015. 43(4): p. 629-631.
124. Soret, R., et al., Short-chain fatty acids regulate the enteric neurons and control gastrointestinal motility in rats. Gastroenterology, 2010. 138(5): p. 1772-1782. e4.
125. Priyadarshini, M., et al., SCFA receptors in pancreatic β cells: novel diabetes targets? Trends in Endocrinology & Metabolism, 2016. 27(9): p. 653-664.
85
126. Sun, M., et al., Microbiota metabolite short chain fatty acids, GPCR, and inflammatory bowel diseases. Journal of gastroenterology, 2017. 52(1): p. 1-8.
127. Scheppach, W., Effects of short chain fatty acids on gut morphology and function. Gut, 1994. 35(1 Suppl): p. S35-S38.
128. McNabney, S. and T. Henagan, Short chain fatty acids in the colon and peripheral tissues: a focus on butyrate, colon cancer, obesity and insulin resistance. Nutrients, 2017. 9(12): p. 1348.
129. Cani, P.D., et al., Metabolic endotoxemia initiates obesity and insulin resistance. Diabetes, 2007. 56(7): p. 1761-1772.
130. Lin, H.V., et al., Butyrate and propionate protect against diet-induced obesity and regulate gut hormones via free fatty acid receptor 3-independent mechanisms. PloS one, 2012. 7(4): p. e35240.
131. Gao, Z., et al., Butyrate improves insulin sensitivity and increases energy expenditure in mice. Diabetes, 2009.
132. Khan, S. and G. Jena, Protective role of sodium butyrate, a HDAC inhibitor on beta-cell proliferation, function and glucose homeostasis through modulation of p38/ERK MAPK and apoptotic pathways: study in juvenile diabetic rat. Chemico-biological interactions, 2014. 213: p. 1-12.
133. Jakobsdottir, G., et al., High-fat diet reduces the formation of butyrate, but increases succinate, inflammation, liver fat and cholesterol in rats, while dietary fibre counteracts these effects. PloS one, 2013. 8(11): p. e80476.
134. Yadav, H., et al., Beneficial metabolic effects of a probiotic via butyrate induced GLP-1 secretion. Journal of biological chemistry, 2013: p. jbc. M113. 452516.
86
135. de Goffau, M.C., et al., Aberrant gut microbiota composition at the onset of type 1 diabetes in young children. Diabetologia, 2014. 57(8): p. 1569-1577.
136. Endesfelder, D., et al., Towards a functional hypothesis relating anti-islet cell autoimmunity to the dietary impact on microbial communities and butyrate production. Microbiome, 2016. 4(1): p. 17.
137. Kluytmans, J., A. Van Belkum, and H. Verbrugh, Nasal carriage of Staphylococcus aureus: epidemiology, underlying mechanisms, and associated risks. Clinical microbiology reviews, 1997. 10(3): p. 505-520.
138. Round, J.L., et al., The Toll-like receptor 2 pathway establishes colonization by a commensal of the human microbiota. Science, 2011: p. 1206095.
139. Furman, B.L., Streptozotocin‐induced diabetic models in mice and rats. Current protocols in pharmacology, 2015. 70(1): p. 5.47. 1-5.47. 20.
140. King, A.J., The use of animal models in diabetes research. British journal of pharmacology, 2012. 166(3): p. 877-894.
141. Somboonwong, J., S. Traisaeng, and S. Saguanrungsirikul, Moderate-intensity exercise training elevates serum and pancreatic zinc levels and pancreatic ZnT8 expression in streptozotocin-induced diabetic rats. Life sciences, 2015. 139: p. 46-51.
142. Akiba, Y., et al., FFA2 activation combined with ulcerogenic COX inhibition induces duodenal mucosal injury via the 5-HT pathway in rats. American Journal of Physiology-Gastrointestinal and Liver Physiology, 2017. 313(2): p. G117-G128.
87
143. Huang, H.-H., et al., Exercise increases insulin content and basal secretion in pancreatic islets in type 1 diabetic mice. Experimental diabetes research, 2011. 2011.
144. Wei, S.-H., Y.-P. Chen, and M.-J. Chen, Selecting probiotics with the abilities of enhancing GLP-1 to mitigate the progression of type 1 diabetes in vitro and in vivo. Journal of Functional Foods, 2015. 18: p. 473-486.
145. Johanningsmeier, S., et al., Effects of Leuconostoc mesenteroides starter culture on fermentation of cabbage with reduced salt concentrations. Journal of food science, 2007. 72(5): p. M166-M172.
146. Seo, B., et al., Evaluation of Leuconostoc mesenteroides YML003 as a probiotic against low‐pathogenic avian influenza (H9N2) virus in chickens. Journal of applied microbiology, 2012. 113(1): p. 163-171.
147. Allameh, S.K., et al., Isolation, identification and characterization of Leuconostoc mesenteroides as a new probiotic from intestine of snakehead fish (Channa striatus). African Journal of Biotechnology, 2012. 11(16): p. 3810-3816.
148. Kekkonen, R.A., et al., Probiotic Leuconostoc mesenteroides ssp. cremoris and Streptococcus thermophilus induce IL-12 and IFN-γ production. World journal of gastroenterology: WJG, 2008. 14(8): p. 1192.
149. Kim, J.E., et al., Enhancing acid tolerance of Leuconostoc mesenteroides with glutathione. Biotechnology letters, 2012. 34(4): p. 683-687.
150. Fuller, M., et al., The short-chain fatty acid receptor, FFA2, contributes to gestational glucose homeostasis. American Journal of Physiology-Endocrinology and Metabolism, 2015. 309(10): p. E840-E851.
88
151. Eleazu, C.O., et al., Review of the mechanism of cell death resulting from streptozotocin challenge in experimental animals, its practical use and potential risk to humans. Journal of Diabetes & Metabolic Disorders, 2013. 12(1): p. 60.
152. Duckworth, W.C., R.G. Bennett, and F.G. Hamel, Insulin degradation: progress and potential. Endocrine reviews, 1998. 19(5): p. 608-624.
153. Jin, C.J., et al., Supplementation of sodium butyrate protects mice from the development of non-alcoholic steatohepatitis (NASH). British Journal of Nutrition, 2015. 114(11): p. 1745-1755.
154. Raso, G.M., et al., Effects of sodium butyrate and its synthetic amide derivative on liver inflammation and glucose tolerance in an animal model of steatosis induced by high fat diet. PloS one, 2013. 8(7).
155. Matis, G., et al., Effects of oral butyrate application on insulin signaling in various tissues of chickens. Domestic animal endocrinology, 2015. 50: p. 26-31.
156. Kozakova, H., et al., Colonisation of germ-free mice with probiotic lactobacilli mitigated allergic sensitisation in murine model of birch pollen allergy. Clinical and translational allergy, 2014. 4(2): p. P26.
157. Zarrinpar, A., et al., Antibiotic-induced microbiome depletion alters metabolic homeostasis by affecting gut signaling and colonic metabolism. Nature communications, 2018. 9(1): p. 1-13.
158. Pingitore, A., et al., Short chain fatty acids stimulate insulin secretion and reduce apoptosis in mouse and human islets in vitro: Role of free fatty acid receptor 2. Diabetes, Obesity and Metabolism, 2019. 21(2): p. 330-339.
89
159. Pace, B.S., et al., Short-chain fatty acid derivatives induce fetal globin expression and erythropoiesis in vivo. Blood, 2002. 100(13): p. 4640-4648.
160. Matheus, V., et al., Butyrate reduces high-fat diet-induced metabolic alterations, hepatic steatosis and pancreatic beta cell and intestinal barrier dysfunctions in prediabetic mice. Experimental Biology and Medicine, 2017. 242(12): p. 1214-1226.
161. Han, J., et al., Extracellular high-mobility group box 1 acts as an innate immune mediator to enhance autoimmune progression and diabetes onset in NOD mice. Diabetes, 2008. 57(8): p. 2118-2127.
162. Zhang, S., et al., HMGB1, an innate alarmin, in the pathogenesis of type 1 diabetes. International journal of clinical and experimental pathology, 2010. 3(1): p. 24.
163. Abdel-Moneim, A., H.H. Bakery, and G. Allam, The potential pathogenic role of IL-17/Th17 cells in both type 1 and type 2 diabetes mellitus. Biomedicine & Pharmacotherapy, 2018. 101: p. 287-292.
164. Oh, Y.S., et al., Interleukin‐6 treatment induces beta‐cell apoptosis via STAT‐3‐mediated nitric oxide production. Diabetes/metabolism research and reviews, 2011. 27(8): p. 813-819.
165. Guo, Y., et al., Sodium butyrate ameliorates streptozotocin-induced type 1 diabetes in mice by inhibiting the HMGB1 expression. Frontiers in endocrinology, 2018. 9: p. 630.
166. Hansen, A.H., et al., Development and characterization of a fluorescent tracer for the free fatty acid receptor 2 (FFA2/GPR43). Journal of medicinal chemistry, 2017. 60(13): p. 5638-5645.
90
167. Lehuen, A., et al., Immune cell crosstalk in type 1 diabetes. Nature Reviews Immunology, 2010. 10(7): p. 501-513.
168. Shi, G., et al., FFAR2, a candidate target for T1D, induces cell apoptosis through ERK signaling. Journal of molecular endocrinology, 2014: p. JME-14-0065. |