Comparative study of the effects of Tartary buckwheat seed and sprout consumption on the physiological indices and gut microbiota of C57BL/6J mice
Tài liệu tham khảo
M. Arasu. Comparison of flavonoid contents between common and tartary buckwheat (
Fagopyrum) sprouts cultured with/without soil. 2014, 26(18): 5985-5990.
Z. Luthar. Tartary buckwheat in human nutrition. 2021, 10(4): 700.
W. Wiczkowski. Comparison of flavonoids profile in sprouts of common buckwheat cultivars and wild tartary buckwheat. 2014, 49(9): 1977-1984.
X. Huang. Variation of major minerals and trace elements in seeds of tartary buckwheat (
Fagopyrum tataricum Gaertn.). 2014, 61(3): 567-577.
H. Li. Comparative metabolomics study of tartary (
Fagopyrum tataricum (L.) gaertn) and common (
Fagopyrum esculentum moench) buckwheat seeds. 2022, 371: 131125.
J. Ruan. Tartary buckwheat: an under-utilized edible and medicinal herb for food and nutritional security. 2022, 38(4): 440-454.
T. Kuwabara. Tartary buckwheat sprout powder lowers plasma cholesterol level in rats. 2007, 53(6): 501-507.
H. Tomotake. Hypolipidemic activity of common (
Fagopyrum esculentum Moench) and tartary (
Fagopyrum tataricum Gaertn.) buckwheat. 2015, 95(10): 1963-1967.
C. Zhang. Cholesterol-lowering activity of tartary buckwheat protein. 2017, 55(9): 1900-1906.
H. Tomotake. Preparation of tartary buckwheat protein product and its improving effect on cholesterol metabolism in rats and mice fed cholesterolenriched diet. 2010, 72(7): S528-S533.
D.C. Joshi. Strategic enhancement of genetic gain for nutraceutical development in buckwheat: a genomics-driven perspective. 2020, 39: 107479..
F. Zhu. Chemical composition and health effects of tartary buckwheat. 2016, 203: 231-245.
M. Samtiya. Plant food anti-nutritional factors and their reduction strategies: an overview. 2020, 2(1): 1-14.
M.E. Mammo. Anti-nutrients reduce poultry productivity: Influence of trypsininhibitors on pancreas. 2018, 12(1): 14-24.
J. Costa. et al.. 2022, 62(1): 37-63.
W. Srisuwatchari. Clinical and
in vitro cross-reactivity of cereal grains in children with IgE-mediated wheat allergy. 2020, 48(6): 589-596.
H. Yang. Allergen and chow-protein stimulated splenocyte cytokine productions in buckwheat allergic mice. 2003, 23(1): 33-43.
Q. Yang. Effects of germination on the physicochemical, nutritional and
in vitro digestion characteristics of flours from waxy and nonwaxy proso millet, common buckwheat and pea. 2021, 67(21): 102586.
P. Thakur. Effect of soaking and germination treatments on nutritional, anti-nutritional, and bioactive properties of amaranth (
Amaranthus hypochondriacus L.), quinoa (
Chenopodium quinoa L.), and buckwheat (
Fagopyrum esculentum L.). 2021, 4: 917-925.
S. Bhinder. Impact of germination on nutraceutical, functional and gluten free muffin making properties of tartary buckwheat (
Fagopyrum tataricum). 2022, 124(Pt.A): 107268.
R. Randhir. Stimulation of phenolics, antioxidant and antimicrobial activities in dark germinated mung bean sprouts in response to peptide and phytochemical elicitors. 2004, 39(5): 637-646.
G. Zhang. Effects of germination on the nutritional properties, phenolic profiles, and antioxidant activities of buckwheat. 2015, 80(4/5/6): H1111-H1119.
N. Morita. Functional properties of various germinated cereals and their application to food processing. 2011, 215(1): 60-72.
J.J. Sedmak. and versatile assay for protein using Coomassie brilliant blue G250. 1977, 83(2): 544-552.
Q. Wang. Comparison on main chemical composition contents in three variants of gastrodia elata from Southwest China. 2018, 49(11): 2646-2652.
S. Mirsad. Determination of
L-ascorbic acid in pharmaceutical preparations using direct ultraviolet spectrophotometry. 2009, 74(3): 263-268.
M.A. Nassourou. Diallel analyses of soluble sugar content in cowpea (
Vigna unguiculata L. Walp.). 2017, 5(6): 7.
Y. Tsurunaga. Effect of UV-B irradiation on the levels of anthocyanin, rutin and radical scavenging activity of buckwheat sprouts. 2013, 141(1): 552-556.
Q. Li. Antioxidant activity of flavonoids from tartary buckwheat bran. 2016, 98(3/4): 429-438.
P. Yao. FtMYB6, a light-induced SG7R2R3-MYB transcription factor, promotes flavonol biosynthesis in tartary buckwheat (
Fagopyrum tataricum). 2020, 68(47): 13685-13696.
L. Wang. Effect of additives on flavonoids,
D-chiroinositol and trypsin inhibitor during the germination of tartary buckwheat seeds. 2013, 58(2): 348-354.
X. Zhang. Variation of phytic acid and inorganic P contents in wheat grain and their relationship with test weight and 1000-kernel weight. 2014, 5: 8-12.
D.M. Roy. Effect of soy protein, casein and trypsin inhibitor on cholesterol, bile acids and pancreatic enzymes in mice. 1981, 111(5): 878-885.
S.S. Percival. Long term pancreatic response to feeding heat damaged casein in rats. 1979, 109(9): 1609-1614.
T. Magoc. Flash: fast length adjustment of short reads to improve genome assemblies. 2011, 239(21): 2957-2963.
R.C. Edgar. Search and clustering orders of magnitude faster than BLAST. 2011, 26(19): 2460-2461.
K.J. Steadman. Minerals, phytic acid, tannin and rutin in buckwheat seed milling fractions. 2001, 81(11): 1094-1100.
A. Coulibaly. Phytic acid in cereal grains: structure, healthy or harmful ways to reduce phytic acid in cereal grains and their effects on nutritional quality. 2011, 1(1): 1-22.
O. Kanauchi. Effect of germinated barley foodstuff administration on mineral utilization in rodents. 2000, 35(3): 188-194.
J. Ruan. Molecular cloning and structure–function analysis of a trypsininhibitor from tartary buckwheat and its application in combating phytopathogenic fungi. 2018, 8(4): 1-12.
G. Pickert. Wheat consumption aggravates colitis in mice via amylase trypsin inhibitor–mediated dysbiosis. 2020, 159(1): 257-272.
P. Chen. Nutrient evaluation of buckwheat seedling. 2003, 30(6): 739-741.
B.F.J. Goodwin. Food allergies associated with cereal products. 1983, 111(4): 321-338.
X. Chen. An adjuvant free mouse model of oral allergenic sensitization to rice seeds protein. 2011, 11(1): 62.
H. Gao. Development and validation of a mouse-based primary screening method for testing relative allergenicity of proteins from different wheat genotypes. 2019, 464: 95-104.
G. Bouchaud. Perinatal exposure to GOS/inulin prebiotics prevent food allergy by promoting tolerance and protecting intestine. 2016, 46: 98.
D. Norbäck. A review on epidemiological and clinical studies on buckwheat allergy. 2021, 10(607): 607.
A.B. Oyedeji. Potential for enhanced soy storage protein breakdown and allergen reduction in soy-based foods produced with optimized sprouted soybeans. 2018, 98: 540-545.
S. Nkhata. Fermentation and germination improve nutritional value of cereals and legumes through activation of endogenous enzymes. 2018, 6(8): 2446-2458.
S. Ramos. Impact of diet on gut microbiota. 2021, 37: 83-90.
Z. Wei. Gut bacteria selectively altered by sennoside a alleviate type 2 diabetes and obesity traits. 2020, 2020: 1-16.
M. Vacca. The controversial role of human gut lachnospiraceae. 2020, 8(4): 573.
I. Martnez. Gut microbiome composition is linked to whole grain-induced immunological improvements. 2013, 7(2): 269-280.
D. Porras. Protective effect of quercetin on high-fat diet-induced non-alcoholic fatty liver disease in mice is mediated by modulating intestinal microbiota imbalance and related gut-liver axis activation. 2017, 102: 188-202.
A. Zhang. The effects of GABA-rich adzuki beans on glycolipid metabolism, as well as intestinal flora, in type 2 diabetic mice. 2022, 9: 849529.
X. Liu. Aronia berry polyphenols have matrix-dependent effects on the gut microbiota. 2021, 359: 1-10.
M.D. Angelis. Diet influences the functions of the human intestinal microbiome. 2020, 10(1): 4247.
K. Berger. Xylooligosaccharides increase bifidobacteria and lachnospiraceae in mice on a high-fat diet, with a concomitant increase in short-chain fatty acids, especially butyric acid. 2021, 69(12): 3617-3625.
J. Ye. Pu-erh tea ameliorates obesity and modulates gut microbiota in high fat diet fed mice. 2021, 144: 1-13.