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Furthermore, PADI4 could have a major role in tumorigenesis by regulating p53 expression in certain cancer cell lines. On the other hand, the native structure of PADI4 was strongly pH-dependent both in the absence or presence of Ca2+, and showed two pH-titrations at basic and acidic pH values. Thus, there was a narrow pH range (from 6.5 to 8.0) where the protein was dimeric and had a native structure, supporting its role in histones citrullination. Kaempferide Thermal denaturations were always two-state, but guanidinium-induced ones showed that PADI4 unfolded through at least one intermediate. Our simulation results suggest that the thermal melting of PADI4 structure was rather homogenous throughout its sequence. The overall results are discussed in terms of the functional role of PADI4 in the development of cancer.Seneca Valley virus (SVV) is related to vesicular disease in pigs, and its clinical symptoms are indistinguishable from other notifiable clinical symptoms of vesicular disease such as foot-and-mouth disease. The rapid and accurate detection of SVV is essential to confirm the pathogenic factors and initiate the implementation of control measures. The development of a rapid, simple, convenient, and low-cost molecular (nucleic acid amplification) test that can be used at the sample collection point has been identified as a key component for controlling SVV. This study describes the development and demonstration of recombinase polymerase amplification (RPA) test targeting the conserved regions of SVV for detection of SVV. The Primers and probes designed by us have shown good sensitivity and specificity in RPA test, which is helpful for RPA to be an effective tool for rapid diagnosis of SVV.T follicular helper (Tfh) cells are defined by a Bcl6+CXCR5hiPD-1hi phenotype, but only a minor fraction of these reside in germinal centers (GCs). Here, we examined whether GC-resident and -nonresident Tfh cells share a common physiology and function. Fluorescently labeled, GC-resident Tfh cells in different mouse models were distinguished by low expression of CD90. CD90neg/lo GCTfh cells required antigen-specific, MHCII+ B cells to develop and stopped proliferating soon after differentiation. In contrast, nonresident, CD90hi Tfh (GCTfh-like) cells developed normally in the absence of MHCII+ B cells and proliferated continuously during primary responses. The TCR repertoires of both Tfh subsets overlapped initially but later diverged in association with dendritic cell-dependent proliferation of CD90hi GCTfh-like cells, suggestive of TCR-dependency seen also in TCR-transgenic adoptive transfer experiments. Furthermore, the transcriptomes of CD90neg/lo and CD90hi GCTfh-like cells were enriched in different functional pathways. Thus, GC-resident and nonresident Tfh cells have distinct developmental requirements and activities, implying distinct functions.The Th17 cell-lineage-defining cytokine IL-17A contributes to host defense and inflammatory disease by coordinating multicellular immune responses. The IL-17 receptor (IL-17RA) is expressed by diverse intestinal cell types, and therapies targeting IL-17A induce adverse intestinal events, suggesting additional tissue-specific functions. Here, we used multiple conditional deletion models to identify a role for IL-17A in secretory epithelial cell differentiation in the gut. Paneth, tuft, goblet, and enteroendocrine cell numbers were dependent on IL-17A-mediated induction of the transcription factor ATOH1 in Lgr5+ intestinal epithelial stem cells. Although dispensable at steady state, IL-17RA signaling in ATOH1+ cells was required to regenerate secretory cells following injury. Finally, IL-17A stimulation of human-derived intestinal organoids that were locked into a cystic immature state induced ATOH1 expression and rescued secretory cell differentiation. Our data suggest that the cross talk between immune cells and stem cells regulates secretory cell lineage commitment and the integrity of the mucosa.Psychological adaptation to thermal environments might play an important role in the human thermal comfort. However, effects of psychological thermal adaptation on thermal comfort have been rarely studied. To investigate building occupants' psychological adaptation to indoor climates in hot summer and cold winter, a long-term tracking survey within a year in a naturally ventilated building was conducted on a group of occupants from a college class in Nanjing situated in the Hot Summer and Cold Winter zone. Indoor and outdoor environment parameters were measured, and at the same time occupants' clothing insulation, physical activity level, and thermal sensation were investigated using questionnaires. Results indicate building occupants adapted to their hot environments in summer and cold environments in winter by psychological adaptation. Occupants' neutral skin temperature was elevated in summer while lowered in winter due to psychological adaptive processes. The thermal sensitivity to skin/operative temperature change is influenced by psychological adaptation, and the higher the psychological adaptation, the lower the sensitivity to skin/operative temperature change. Furthermore, psychological adaptation is affected by both the indoor climate and outdoor climate to which occupants are exposed.Acute myocardial ischemia/reperfusion (MI/R) is a major determinant of prognosis in myocardial infarction patients, while effective therapies are currently lacking. Nuclear receptor co-repressor 1 (NCoR1) is emerging as a critical regulator of cell survival and death signaling in mammals. However, the role of NCoR1 in the pathogenesis of acute MI/R injury remains unknown. Here, we observed that NCoR1 was highly expressed in the mouse heart and significantly downregulated after acute MI/R injury. Cardiomyocyte-specific NCoR1 deletion led to significantly increased infarct size and exacerbated cardiac dysfunction compared to wild-type littermates. Moreover, cardiomyocyte-specific NCoR1 deficiency exacerbated MI/R-induced mitochondrial dysfunction and apoptotic pathway activation. Transcriptomic profiling results indicated that cardiomyocyte-specific NCoR1 deficiency pivotally promoted activation of inflammatory pathways. Through integrated omics analysis, signal transducer and activator of transcription 1 (STAT1) was identified as a downstream target trans-repressed by NCoR1. STAT1 activation played a key mediating role in the detrimental effects of NCoR1 deficiency in MI/R injury. Collectively, our findings provided the first evidence that cardiomyocyte-expressed NCoR1 functioned as a crucial cardioprotective factor against acute MI/R injury by targeting the STAT1 pathway in heart.Myocardial injury leads to an irreversible loss of cardiomyocytes (CM). The implantation of human engineered heart tissue (EHT) has become a promising regenerative approach. Previous studies exhibited beneficial, dose-dependent effects of human induced pluripotent stem cell (hiPSC)-derived EHT patch transplantation in a guinea pig model in the subacute phase of myocardial injury. Yet, advanced heart failure often results from a chronic remodeling process. Therefore, from a clinical standpoint it is worthwhile to explore the ability to repair the chronically injured heart. In this study human EHT patches were generated from hiPSC-derived CMs (15 × 106 cells) and implanted epicardially four weeks after injury in a guinea pig cryo-injury model. Cardiac function was evaluated by echocardiography after a follow-up period of four weeks. Hearts revealed large transmural myocardial injuries amounting to 27% of the left ventricle. EHT recipient hearts demonstrated compact muscle islands of human origin in the scar region, as indicated by a positive staining for human Ku80 and dystrophin, remuscularizing 5% of the scar area. Echocardiographic analysis demonstrated no significant functional difference between animals that received EHT patches and animals in the cell-free control group (fractional area change 36% vs. 34%). Thus, EHT patches engrafted in the chronically injured heart but in contrast to the subacute model, grafts were smaller and EHT patch transplantation did not improve left ventricular function, highlighting the difficulties for a regenerative approach.
To evaluate the effect of fascial therapy on the perceived quality of life, pain intensity, and joint health in people with hemophilia.
Single-blind randomized controlled trial.
Hemophilia Patient Associations.
Patients with hemophilia (N=69) were randomly allocated to an experimental group (fascial therapy protocol) or to a control group (no intervention whatsoever).
The fascial therapy intervention lasted 3 consecutive weeks with one 45-minute weekly session.
The variables evaluated were perceived quality of life (Short Form Health Survey-36), pain intensity (visual analog scale) and joint health (Hemophilia Joint Health Score) at baseline and at 3 and 12 weeks.
The mean values of the physical (38.64±9.41 and 41.92±12.16) and mental (45.77±6.25 and 55.02±9.73) components of the Short Form Health Survey-36 improved after the intervention in the experimental group, as well as those for pain intensity and joint health (P<.001). There were differences (P<.001) in the intergroup effect in the physical role variables (F=49.22), emotional role (F=229.71), mental component (F=9.86), intensity of pain (F=24.74), and joint health (F=55.31).
A fascial therapy protocol for patients with hemophilic elbow arthropathy can improve their perceived quality of life. Elbow pain intensity improved in patients treated with fascial therapy. This technique can improve elbow joint health.
A fascial therapy protocol for patients with hemophilic elbow arthropathy can improve their perceived quality of life. Elbow pain intensity improved in patients treated with fascial therapy. This technique can improve elbow joint health.N6-methyladenosine (m6A) is an abundant RNA modification that plays critical roles in RNA regulation and cellular function. Global m6A profiling has revealed important aspects of m6A distribution and function, but to date such studies have been restricted to large populations of cells. Here, we develop a method to identify m6A sites transcriptome-wide in single cells. We uncover surprising heterogeneity in the presence and abundance of m6A sites across individual cells and identify differentially methylated mRNAs across the cell cycle. Additionally, we show that cellular subpopulations can be distinguished based on their RNA methylation signatures, independent from gene expression. These studies reveal fundamental features of m6A that have been missed by m6A profiling of bulk cells and suggest the presence of cell-intrinsic mechanisms for m6A deposition.Non-covalent complexes of glycolytic enzymes, called metabolons, were postulated in the 1970s, but the concept has been controversial. Here we show that a c-Myc-responsive long noncoding RNA (lncRNA) that we call glycoLINC (gLINC) acts as a backbone for metabolon formation between all four glycolytic payoff phase enzymes (PGK1, PGAM1, ENO1, and PKM2) along with lactate dehydrogenase A (LDHA). The gLINC metabolon enhances glycolytic flux, increases ATP production, and enables cell survival under serine deprivation. Furthermore, gLINC overexpression in cancer cells promotes xenograft growth in mice fed a diet deprived of serine, suggesting that cancer cells employ gLINC during metabolic reprogramming. We propose that gLINC makes a functional contribution to cancer cell adaptation and provide the first example of a lncRNA-facilitated metabolon.