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JavaScript is disabled on your browser. Please enable JavaScript to use all the features on this page. Skip to main content Skip to article ScienceDirect * Journals & Books * * Corporate sign inSign in / register View PDF * Access through your institution * Purchase PDF ARTICLE PREVIEW * Abstract * Introduction * Section snippets * References (55) * Recommended articles (6) CURRENT OPINION IN FOOD SCIENCE Available online 2 September 2022, 100920 In Press, Journal Pre-proofWhat are Journal Pre-proof articles? COULD FOODOMICS HOLD THE KEY TO UNLOCKING THE ROLE OF PREBIOTICS IN GUT MICROBIOTA AND IMMUNITY?☆ Author links open overlay panelLisa F.M. Lee NenThat11BaojunXu22JessicaPandohee33 Show more Add to Mendeley Share Cite https://doi.org/10.1016/j.cofs.2022.100920Get rights and content Prebiotics research in the last decade has come a long way due to the maturation of omics technologies (genomics, transcriptomics, proteomics, metabolomics and foodomics) and bioinformatics tools. Nowadays prebiotics are not only thought of as oligosaccharides, but several classes of compounds which have been proven to have prebiotic characteristics and thousands of new sources of prebiotics are still under exploration. The discovery of novel prebiotics means that further research is needed to understand their roles in the microbiota and the host. The relationship between the gut microbiota and its host is crucial in determining the host well-being and the ability of the microbiota to thrive. A dysbiosis in this relationship can cause severe illnesses. This review discusses how omics technologies can be used in prebiotics research. INTRODUCTION Prebiotics are biochemical compounds that can be metabolized by the gut microbiota. Although originally thought to be nondigestible carbohydrates, a plethora of biomolecules including prebiotic oligosaccharides, fermentable fibers, polyphenols, non-carbohydrate substrates and fatty acids have been shown to act as prebiotics [1]. Polyphenols, in particular, have been shown to promote the production of short chain fatty acids and the growth of microorganism with prebiotic functions in preclinical studies [2]. These nutraceutical compounds can be found in nature in fruits, vegetables, seeds, honey and cereals or fermented foods such as kimchi [3]. Since prebiotics are the food of the gut microbiota, they play an important role in maintaining a healthy and balanced intestinal micro-organism composition and diversity. In the intestines, prebiotics are digested to short chain fatty acids (SCFAs) that are responsible for enhancing immunity, inflammation and metabolism [4]. Despite their potential for beneficial impacts on human health, the consumption and use of prebiotics are still widely underestimated. Until recently, the development of low-cost sequencing techniques and bioinformatic tools has driven research in the characterization of the microbiota (ensemble of bacteria, archaea, fungi, protozoans, virus and parasites living within the host) and its role in health and disease 5, 6. Discoveries in the search for new prebiotics as well as the ways they affect our body and their mechanism of action have not experienced the same boost until recently because they required an interdisciplinary approach in order to assemble data collected from the profiling of the consumed food, gut microbiota, host metabolome and health status. This was only made possible with new tools and techniques (timeline shown in Fig. 1); foodomics is a new field of research that precisely addresses all the criteria needed. Foodomics involves the study of food and nutrition using omics tools. By using a system-biology approach, it is possible to monitor the fate of food nutrients from consumption to absorption and more importantly to link the metabolites to one’s gut microbiota and health or disease status [7]. This review presents the new discoveries describing further the role of prebiotics on the human health as a result of the recent developments in foodomics. It discusses the implications of different prebiotics and the composition of the gut microbiota in several diseases such as autoimmune disorders. More importantly, the review proposes how the use of prebiotics can improve the subtle relationship between the gut microbiota and the immune system. SECTION SNIPPETS RECENT DEVELOPMENTS IN TOOLS Metabolomics is the youngest of all the current omics technologies and is carried out in two approaches. The first approach consists of untargeted metabolomics, which seeks to detect and characterize all the metabolites present in a sample. Untargeted metabolomics is used as a discovery and exploratory mean to generate a hypothesis. The second approach is targeted metabolomics, which is used for hypothesis testing and understanding the cause of an intervention. Targeted metabolomics focusses on PREBIOTICS Foodomics is applied in several aspects of prebiotics research. Although oligosaccharides such as fructo-oligosaccharides (FOS), galacto-oligosaccharides (GOS), xylo-oligosaccharides (XOS) and inulin are the most common and well-known prebiotics, there is still a need for finding novel prebiotics which makes the application of foodomics and microbiome tools useful and necessary. For example, polyphenols are secondary metabolites produced by plants due to abiotic stress and have antimicrobial THE ROLE OF GUT MICROBIOTA AND GUT INTESTINAL LAYER IN IMMUNITY The gut intestinal layer plays a vital role in preventing invasions from pathogens as the human gastrointestinal tract is constantly exposed to the external environment 36, 37. Therefore, maintaining the integrity of the intestinal barrier is crucial for health as an imbalance in the permeability has led to other health disorders. The gut also harbors a vast and diverse microbial community amounting to 100 trillion and which has developed a mutualistic relationship with its host [38]. This EFFECT OF PREBIOTICS ON THE GUT MICROBIOTA Prebiotics introduced through diet exert many benefits in the gut as they promote bacterial growth and activities in the microbiota [45]. They are fermented by commensal bacteria in the intestine leading to production of SCFAs including formate, acetate, butyrate and propionate [46]. SCFAs are beneficial to the host as they possess antimicrobial properties and maintain the integrity of the gut intestinal layer. Feng, Wang [47] reported the protective role of SCFAs on the gut intestinal layer as CONCLUSIONS With recent advances in techniques targeted at gut microbiota studies, a better understanding and knowledge have been acquired leading to an improved application of prebiotics to alleviate symptoms and improve on health disorders. However, further research is important to discover novel prebiotics and determine their effects on other organs through modulation of the gut microbiota. Moreover, each prebiotic has a singular effect on different population groups which highlights the importance in FUNDING This study is supported by one grant (project code: R202107) from BNU-HKBU United International College DECLARATION OF COMPETING INTEREST The authors declare that they have no known competing financial interests or personal relationships that could have appeared to influence the work reported in this paper. REFERENCES (55) * A. Watanabe et al. SUPPLEMENTATION OF 1-KESTOSE MODULATES THE GUT MICROBIOTA COMPOSITION TO AMELIORATE GLUCOSE METABOLISM IN OBESITY-PRONE HOSTS NUTRIENTS (2021) * T. Takiishi et al. INTESTINAL BARRIER AND GUT MICROBIOTA: SHAPING OUR IMMUNE RESPONSES THROUGHOUT LIFE TISSUE BARRIERS (2017) * A. Rashidinejad et al. CO-ENCAPSULATION OF PROBIOTICS WITH PREBIOTICS AND THEIR APPLICATION IN FUNCTIONAL/SYNBIOTIC DAIRY PRODUCTS CRIT REV FOOD SCI NUTR (2022) * H. Seong et al. 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QIIME ALLOWS ANALYSIS OF HIGH-THROUGHPUT COMMUNITY SEQUENCING DATA NATURE METHODS (2010) P.D. Schloss et al. INTRODUCING MOTHUR: OPEN-SOURCE, PLATFORM-INDEPENDENT, COMMUNITY-SUPPORTED SOFTWARE FOR DESCRIBING AND COMPARING MICROBIAL COMMUNITIES APPL ENVIRON MICROBIOL (2009) K.P. Keegan et al. MG-RAST, A METAGENOMICS SERVICE FOR ANALYSIS OF MICROBIAL COMMUNITY STRUCTURE AND FUNCTION View more references CITED BY (0) RECOMMENDED ARTICLES (6) * Research article ACRYLAMIDE IN SUGAR PRODUCTS Current Opinion in Food Science, Volume 45, 2022, Article 100841 Show abstract Sugar (sucrose) is a naturally occurring carbohydrate that produces a sweet taste, being found in every fruit, vegetable and even nuts. Sugar cane and sugar beet are the main plants from which the greatest amount of sugar is obtained through the application of several processes, including harvesting, clarification, evaporation–concentration, and a centrifugation stage that can be included or not. In the evaporation–concentration stage, a series of complex chemical reactions take place, such as caramelization and the Maillard reaction, which generate the desirable color and aroma, but may be also associated with the formation of potentially toxic compounds such as acrylamide, a chemical contaminant that has been shown to produce neurotoxic and potentially carcinogenic and genotoxic effects. This review aims to present the main advances in relation to the occurrence, formation, influence of processing, mitigation, and exposure of acrylamide in sugars products. * Research article TOXICOLOGY OF FOOD-RELATED COMPOUNDS: UPDATES AND RECENT RESEARCH Current Opinion in Food Science, Volume 24, 2018, pp. iii-iv * Research article SO WHY WOULD MY PAPER BE REJECTED? Injury, Volume 45, Issue 9, 2014, pp. 1285-1286 * Research article SPATIAL HETEROGENEITY OF THE MICROBIOME AND METABOLOME PROFILES OF HIGH-TEMPERATURE DAQU IN THE SAME WORKSHOP Food Research International, Volume 156, 2022, Article 111298 Show abstract High-temperature Daqu, usually used as a fermentation starter for sauce-flavor Baijiu production, plays an essential role in the yield and flavor quality of Baijiu. The environmental heterogeneity of different locations in the workshop during fermentation led to the final production of Daqu with three different types (i.e., white, yellow, and black Daqu). How to use these three types of Daqu in Baijiu production mainly depends on the workers’ experience so far. Here, we aimed to reveal the potential functions of different types of Daqu by comparing enzyme activity, volatile metabolites, and microbiota characteristics. White_Qu exhibited the highest liquefaction and saccharification enzyme activities, while the highest neutral proteinase and cellulase enzyme activities were detected in black_Qu. The total volatile content of yellow_Qu and black_Qu was roughly double that of white_Qu, and multivariate analysis revealed distinct volatile dissimilarities across different types of Daqu. Significant differences in bacterial and fungal community structures, assembly patterns, and potential functional profiles were discovered among different types of Daqu. At the genus level, Oceanobacillus and Thermomyces dominated the white_Qu microbiota, and the abundant microbes in yellow_Qu and black_Qu were scattered in Kroppenstedtia and Thermoascus. Bacterial and fungal communities were dominated by deterministic and stochastic assembly processes, respectively, suggesting that bacteria may be more affected by abiotic environmental factors and species interaction than fungi. Co-occurrence network analysis showed positive correlations characterized Daqu microbial networks, and network topological features indicated stronger interactions between bacterial taxa compared with fungal community. The Spearman correlation analysis revealed that four bacterial genera (Kroppenstedtia, Virgibacillus, Scopulibacillus, and Staphylococcus) and two fungal genera (Thermoascus and Aspergillus) exhibited positive correlations with almost all of the abundant volatiles. This work reveals that spatially varying environments lead to the microbiome and metabolome heterogeneity of high-temperature Daqu in the same workshop. * Research article SIMULTANEOUS QUANTIFICATION OF PROTEIN EXPRESSION AND MODIFICATIONS BY TOP-DOWN TARGETED PROTEOMICS: A CASE OF THE SARCOMERIC SUBPROTEOME Molecular & Cellular Proteomics, Volume 18, Issue 3, 2019, pp. 594-605 Show abstract Determining changes in protein expression and post-translational modifications (PTMs) is crucial for elucidating cellular signal transduction and disease mechanisms. Conventional antibody-based approaches have inherent problems such as the limited availability of high-quality antibodies and batch-to-batch variation. Top-down mass spectrometry (MS)-based proteomics has emerged as the most powerful method for characterization and quantification of protein modifications. Nevertheless, robust methods to simultaneously determine changes in protein expression and PTMs remain lacking. Herein, we have developed a straightforward and robust top-down liquid chromatography (LC)/MS-based targeted proteomics platform for simultaneous quantification of protein expression and PTMs with high throughput and high reproducibility. We employed this method to analyze the sarcomeric subproteome from various muscle types of different species, which successfully revealed skeletal muscle heterogeneity and cardiac developmental changes in sarcomeric protein isoform expression and PTMs. As demonstrated, this targeted top-down proteomics platform offers an excellent ‘antibody-independent’ alternative for the accurate quantification of sarcomeric protein expression and PTMs concurrently in complex mixtures, which is generally applicable to different species and various tissue types. * Research article INVESTIGATE THE MICROSCOPIC PROPERTIES AND THE NON-THERMAL EFFECT OF THE ELECTROLYTE SOLUTION UNDER MICROWAVE IRRADIATION Chemical Physics Letters, Volume 607, 2014, pp. 15-20 Show abstract Non-equilibrium molecular dynamics (NMD) simulations are performed to investigate the microscopic properties and the non-thermal effect of microwave irradiation on NaCl electrolyte solution at different temperatures using the SPC/E model. The electromagnetic wave propagates in the z-axis direction with a frequency of 2.45 GHz, and the intensity of the E/H field is 3.4 × 104 V/m. The results indicate that as the concentration of the electrolyte solution increased, the electrical conductivity gradually increased, but the hydrogen bonds number and the coordination number decreased. In addition, the change of conductivity decreases with the increase of temperature when electromagnetic field is applied. ☆ Given the role as Guest Editor, Baojun Xu had no involvement in the peer-review of this article and has no access to information regarding its peer-review. Full responsibility for the editorial process for this article was delegated to Alejandro Gregorio Marangoni, Editor in Chief; 1 https://orcid.org/0000-0003-0808-4547 2 https://orcid.org/0000-0003-0739-3735 3 https://orcid.org/0000-0003-4343-7192 View full text © 2022 Elsevier Ltd. 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