Quantitative real-time PCR analysis confirmed microarray data. The report supports that many miRNA expressions were altered in renal carcinoma, whose expression profiling may provide a useful clue for the pathophysiology research. However, further longer-term researches are required to investigate the relationship between miRNA and renal carcinoma as well as their role in carcinogenesis.

Pollutant degradation via periodate (IO 4 − )-based advanced oxidation processes (AOPs) provides an economical, energy-efficient way for sustainable pollution control. Although single-atomic metal activation (SMA) can be exploited to optimize the pollution degradation process and understand the associated mechanisms governing IO 4 − -based AOPs, studies on this topic are rare. Herein, we demonstrated the first instance of using SMA for IO 4 − analysis by employing atomically dispersed Co active sites supported by N-doped graphene (N-rGO-CoSA) activators. N-rGO-CoSA efficiently activated IO 4 − for organic pollutant degradation over a wide pH range without producing radical species. The IO 4 − species underwent stoichiometric decomposition to generate the iodate (IO 3 − ) species. Whereas Co 2+ and Co 3 O 4 could not drive IO 4− activation; the Co−N coordination sites exhibited high activation efficiency. The conductive graphene matrix reduced the contaminants/electron transport distance/resistance for these oxidation reactions and boosted the activation capacity by working in conjunction with metal centers. The N-rGO-CoSA/IO 4 − system exhibited a substrate-dependent reactivity that was not caused by iodyl (IO 3• ) radicals. Electrochemical experiments demonstrated that the N-rGO-CoSA/IO 4 − system decomposed organic pollutants via electron-transfer-mediated nonradical processes, where N-rGO-CoSA/periodate* metastable complexes were the predominant oxidants, thereby opening a new avenue for designing efficient IO 4 − activators for the selective oxidation of organic pollutants.

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The beneficial effects of probiotics have been described in allergic sensitization and diseases; however, many questions remain unanswered, such as characteristics of the most effective strains in modulation of allergic responses and how orally administered probiotics affect the systemic immune system. In the present work, oral administration of five lactic acid bacteria strains showed variable effects on protection against the allergic reaction in a mouse model of food allergy to shrimp tropomyosin (ST). The most effective anti-allergic strain, Bacillus coagulans 09.712 (Bc), greatly improved epithelial barrier function and increased lymphocytes proliferation. Moreover, Bc suppresses ST sensitization by altering Th1/Th2/Treg balance as a result of strong induction of CD4+Foxp3+Tregs in combination with IL-10 producing. Bc-specific induction of CD4+Foxp3+ Tregs also suppresses Th17 pro-inflammatory response in this mouse model. Finally, the intake of Bc suppresses mTOR activation and thus the phosphorylation of downstream factors. Inhibition of mTOR signaling by Bc further results in FOXP3 up-regulation and GATA-3 down-regulation, which, in turn, facilitate to control Th2-predominant and Th17 pro-inflammatory responses caused by ST. Our work provides further characterization of the anti-allergic effects of probiotic LAB strains, and identifies new targets for preventive and curative treatment of food allergies.

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