Searching journal content for articles similar to Sarkar et al. 32 (1): 111.

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  1. ..., the molecular mechanisms responsible for settling and maintaining such interactions remain poorly understood. Here, we investigate the well-conserved interactions between heterochromatin loci. In budding yeast, the 32 telomeres cluster in 3–5 foci in exponentially growing cells. This clustering is functionally...
  2. ...address this issue by developing deep learning models to deconvolute degenerate cis-regulatory elements and quantify their positional importance in mediating yeast poly(A) site formation, cleavage heterogeneity, and strength. In S. cerevisiae, cleavage heterogeneity is promoted by the depletion of U...
  3. ...to high homogenization within a single cluster (Ganley and Kobayashi 2011; Hori et al. 2021; Garcia et al. 2024). The complex IGS region, similarly to what is observed in humans and budding yeast (Ganley and Kobayashi 2011; Hori et al. 2021), is composed of tandemly arranged repeats and can undergo...
  4. .... A popular method for studying the genetic basis of trait variation is linkage mapping, which identifies quantitative trait loci (QTLs), regions of the that harbor causative genetic variants. Large-scale linkage mapping in the budding yeast Saccharomyces cerevisiae has found thousands of QTLs affecting...
  5. ...efficiency and that faster elongation reduces cotranscriptional splicing and splicing efficiency in budding yeast, suggesting that splicing is more efficient when cotranscriptional. Moreover, we demonstrate that altering the RNA polymerase II elongation rate in either direction compromises splicing fidelity...
  6. ...@cornell.edu AbstractComplex regulation of gene expression in mammals has evolved from simpler eukaryotic systems, yet the mechanistic features of this evolution remain elusive. Here, we compared the transcriptional landscapes of the distantly related budding and fission yeast. We adapted the Precision Run...
  7. ...effects in humans restrict its usage (Kaeberlein 2014).The budding yeast Saccharomyces cerevisiae has been pivotal in elucidating mechanisms regulating aging. Yeast aging can be studied through two approaches: replicative life span (RLS) and chronological life span (CLS). Replicative lifespan...
  8. ..., but providing limited information about variation across different conditions. To close this gap, we profiled mRNA levels of two related yeast species in hundreds of conditions and used coexpression analysis to distinguish variation in the dynamic pattern of gene expression from variation in expression levels...
  9. ...response and inappropriate repair. In the budding yeast Saccharomyces cerevisiae, these include Rap1 and its cofactors Rif1/Rif2, which are bound to double-stranded DNA (dsDNA) in numbers roughly proportional to TL (Marcand et al. 1997; Levy and Blackburn 2004). In addition, owing to the incomplete...
  10. ...the existence of all predicted truncated proteins by direct methods such as MS and characterize their functional relevance in the particular cell systems studied.N-terminal proteomics approaches showed that downstream in-frame methionines often define alternative N termini in the budding yeast proteome...
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