Peri-implant phenotype, calprotectin and MMP-8 levels in cases diagnosed with peri-implant disease.

Objectives: The purpose of this prospective cohort study is to evaluate the effect of peri-implant phenotype (PPh) on the severity of peri-implant diseases and the results of non-surgical mechanical treatment (NSMT), along with calprotectin (CLP) and MMP-8(matrix metalloproteinase-8) levels.

Materials And Methods: 77 implants from 39 patients were included. The implants were categorized Group-1(peri-implant mucositis), Group-2(peri-implantitis).

The Circadian Protein Nocturnin Regulates Metabolic Adaptation in Brown Adipose Tissue.

Fine-tuning of transcriptional responses can be critical for long-term outcomes in response to an environmental challenge. The circadian protein Nocturnin belongs to a family of proteins that include exonucleases, endonucleases, and phosphatases and is most closely related to the CCR4 family of deadenylases that regulate the cellular transcriptome via control of poly(A) tail length of RNA transcripts. In this study, we investigate the role of Nocturnin in regulating the transcriptional response and downstream metabolic adaptations during cold exposure in brown adipose tissue.

Rhythms of metabolism in adipose tissue and mitochondria.

Circadian clocks synchronize the daily functions of organisms with environmental cues like light-dark cycles and feeding rhythms. The master clock in the suprachiasmatic nucleus in the hypothalamus of the brain and the many clocks in the periphery are organized in a hierarchical manner; the master clock synchronizes the peripheral clocks, and the peripheral clocks provide feedback to the master clock in return. Not surprisingly, it has been shown that circadian rhythms and metabolism are closely linked.

Correction: D-cycloserine improves synaptic transmission in an animal mode of Rett syndrome.

[This corrects the article DOI: 10.1371/journal.pone.

D-cycloserine improves synaptic transmission in an animal model of Rett syndrome.

Rett syndrome (RTT), a leading cause of intellectual disability in girls, is predominantly caused by mutations in the X-linked gene MECP2. Disruption of Mecp2 in mice recapitulates major features of RTT, including neurobehavioral abnormalities, which can be reversed by re-expression of normal Mecp2. Thus, there is reason to believe that RTT could be amenable to therapeutic intervention throughout the lifespan of patients after the onset of symptoms.