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Keyword Connections - gut microbiome Keywords

Connection Type	Connection
Journals	Nutrients food and chemical toxicology : an international journal published for the british industrial biological research association medicinal research reviews Journal of microbiological methods Diabetes research and clinical practice Indian journal of pediatrics european journal of nutrition Frontiers in immunology the british journal of nutrition Cell reports Journal of translational medicine gastroenterology advances in nutrition (bethesda, md)
Research Groups	No Research Group Connected
Bibliographies	[1] Perspective: Guiding Principles for the Implementation of Personalized Nutrition Approaches That Benefit Health and Function. [2] Long-term effects of low doses of Chlorpyrifos exposure at the preweaning developmental stage: A locomotor, pharmacological, brain gene expression and gut microbiome analysis. [3] Type 2 Diabetes Variants in the SLC16A11 Coding Region Are Not Loss-of-Function Mutations. [4] How should we store avian faecal samples for microbiota analyses? Comparing efficacy and cost-effectiveness. [5] Expert insights: The potential role of the gut microbiome-bile acid-brain axis in the development and progression of Alzheimer's disease and hepatic encephalopathy. [6] The impact of food additives, artificial sweeteners and domestic hygiene products on the human gut microbiome and its fibre fermentation capacity. [7] Acid Hydrolyzed Silk Peptide Consumption Improves Anti-Diabetic Symptoms by Potentiating Insulin Secretion and Preventing Gut Microbiome Dysbiosis in Non-Obese Type 2 Diabetic Animals. [8] Alterations in Gut Microbiota of Patients With COVID-19 During Time of Hospitalization. [9] Lack of type 1 diabetes involvement in SARS-COV-2 population: Only a particular coincidence? [10] Probiotics and COVID-19: Think about the link. [11] sample storage conditions induce post-collection biases in microbiome profiles [12] nlrx1 modulates immunometabolic mechanisms controlling the host–gut microbiota interactions during inflammatory bowel disease [13] micrornas-based inter-domain communication between the host and members of the gut microbiome [14] experimental evolution on a wild mammal species results in modifications of gut microbial communities [15] cesarean or vaginal birth does not impact the longitudinal development of the gut microbiome in a cohort of exclusively preterm infants [16] an improved methodology to overcome key issues in human fecal metagenomic dna extraction [17] proteomic indicators of oxidation and hydration state in colorectal cancer [18] consumption of goats’ milk protects mice from carbon tetrachloride-induced acute hepatic injury and improves the associated gut microbiota imbalance [19] linking the gut microbial ecosystem with the environment: does gut health depend on where we live? [20] a common origin for immunity and digestion [21] strongyle infection and gut microbiota: profiling of resistant and susceptible horses over a grazing season [22] Chronic Liver Disease - What's New? [23] High Fat Diet Enriched with Bilberry Modifies Colonic Mucus Dynamics and Restores Marked Alterations of Gut Microbiome in Rats. [24] Fecal Metaproteomic Analysis Reveals Unique Changes of the Gut Microbiome Functions After Consumption of Sourdough Bread. [25] Gut microbiome of pre-adolescent children of two ethnicities residing in three distant cities [26] The Role of the Gut Microbiome in Mediating Neurotoxic Outcomes to PCB Exposure. [27] Using data science for medical decision making case: role of gut microbiome in multiple sclerosis [28] Gut microbiome response to a modern Paleolithic diet in a Western lifestyle context. [29] Reply to the Letter: Increased bioavailability of plasma polyphenols via the intestinal fermentation of soybean fibers: a role for gut microbiome? [30] Increased bioavailability of plasma polyphenols via the intestinal fermentation of soybean fibers: a role for gut microbiome? [31] Erratum: Gut Microbiome-Based Metagenomic Signature for Non-invasive Detection of Advanced Fibrosis in Human Nonalcoholic Fatty Liver Disease (Cell Metabolism (2017) 25(5) (1054–1062.e5), (S1550413117302061), (10.1016/j.cmet.2017.04.001)) [32] Dysbiosis of the gut microbiome is associated with CKD5 and correlated with clinical indices of the disease: a case-controlled study. [33] Design and Development of a Novel Anticancer Peptide from Human Gut Microbiome by Using Recombinant Protein Engineering [34] Integrating Pathophysiology in Migraine: Role of the Gut Microbiome and Melatonin. [35] Vancomycin-resistance gene cluster, vanC, in the gut microbiome of acute leukemia patients undergoing intensive chemotherapy. [36] Long-term effects of low doses of Chlorpyrifos exposure at the preweaning developmental stage: A locomotor, pharmacological, brain gene expression and gut microbiome analysis. [37] The Role of the Gut Microbiome on Skeletal Muscle Mass and Physical Function: 2019 Update [38] Expert insights: The potential role of the gut microbiome-bile acid-brain axis in the development and progression of Alzheimer's disease and hepatic encephalopathy. [39] Species-specific transcriptional profiles of the gut and gut microbiome of Ceratitis quilicii and Ceratitis rosa sensu stricto. [40] Gut Microbiome of Chinese Forest Musk Deer Examined across Gender and Age. [41] The impact of food additives, artificial sweeteners and domestic hygiene products on the human gut microbiome and its fibre fermentation capacity. [42] The Gut Microbiome in Inflammatory Bowel Diseases: Diagnostic and Therapeutic Implications. [43] Disruption of the Gut Microbiome: Clostridium difficile Infection and the Threat of Antibiotic Resistance [44] Acid Hydrolyzed Silk Peptide Consumption Improves Anti-Diabetic Symptoms by Potentiating Insulin Secretion and Preventing Gut Microbiome Dysbiosis in Non-Obese Type 2 Diabetic Animals. [45] Structural changes in gut microbiome after Ramadan fasting: a pilot study. [46] Interactions between the aging gut microbiome and common geriatric giants: polypharmacy, frailty and dementia. [47] Identification of the Key Molecular Drivers of Phosphorus Utilization Based on Host miRNA-mRNA and Gut Microbiome Interactions [48] Recovery of the Gut Microbiome following Fecal Microbiota Transplantation [49] Recovery of the gut microbiome following fecal microbiota transplantation [50] Identification of the Key Molecular Drivers of Phosphorus Utilization Based on Host miRNA-mRNA and Gut Microbiome Interactions [51] evaluation of fecal dna extraction protocols for human gut microbiome studies [52] aging and serum mcp-1 are associated with gut microbiome composition in a murine model [53] minimizing confounders and increasing data quality in murine models for studies of the gut microbiome [54] comparative genomic analysis of the human gut microbiome reveals a broad distribution of metabolic pathways for the degradation of host-synthetized mucin glycans and utilization of mucin-derived monosaccharides [55] individuality and temporal stability of the human gut microbiome [56] micrornas-based inter-domain communication between the host and members of the gut microbiome [57] a new alignment-free whole metagenome comparison tool and its application on gut microbiomes of wild giant pandas [58] corrigendum: the human neonatal gut microbiome: a brief review [59] cesarean or vaginal birth does not impact the longitudinal development of the gut microbiome in a cohort of exclusively preterm infants [60] metabolic modeling of common escherichia coli strains in human gut microbiome [61] the human neonatal gut microbiome: a brief review [62] Phage-mediated horizontal gene transfer and its implications for the human gut microbiome.