17 research outputs found

    Three-dimensional imaging of thoracic diseases with multidetector row CT

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    The benefits of multi-detector row CT (MDCT) relative to single-detector row helical CT are considerable. Multi-detector row CT allows shorter acquisition times, greater coverage, and superior image resolution. These factors substantially increase the diagnostic accuracy of the examination. Three-dimensional (3D) volume data from MDCT provides various unique applications on thoracic diseases. These includes isotropic viewings, use of multi planar reformation (MPR), maximum and minimum intensity projections (MIP and min IP), and volume rendering performed from external and internal perspectives allowing the user to “fly around” and “fly through” the structures. Recent advances in 3D volume rendering put real-time, interactive virtual reality guidance of the procedures such as bronchoscopy and surgery into practice

    Two cases of retroperitoneal hematoma caused by combination of anticoagulant therapy and 5-fluorouracil

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    We reported two cases of retroperitoneal hematoma in patients who received a combination of anticoagulant therapy and5-fluorouracil (5-FU). We should be aware of the possible interaction of this combination therapy and monitor prothrombin time (PT) prolongation. CT is useful for evaluation of the disease

    【報告】地元特産の各務原にんじんを活用した若い世代への食育活動の推進 ―中高生のための各務原にんじん料理教室―\n

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    A complex dominance hierarchy is controlled by polymorphism of small RNAs and their targets

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    In diploid organisms, phenotypic traits are often biased by effects known as Mendelian dominant–recessive interactions between inherited alleles. Phenotypic expression of SP11 alleles, which encodes the male determinants of self-incompatibility in Brassica rapa, is governed by a complex dominance hierarchy1–3. Here, we show that a single polymorphic 24 nucleotide small RNA, named SP11 methylation inducer 2 (Smi2), controls the linear dominance hierarchy of the four SP11 alleles (S44 > S60 > S40 > S29). In all dominant–recessive interactions, small RNA variants derived from the linked region of dominant SP11 alleles exhibited high sequence similarity to the promoter regions of recessive SP11 alleles and acted in trans to epigenetically silence their expression. Together with our previous study4, we propose a new model: sequence similarity between polymorphic small RNAs and their target regulates mono-allelic gene expression, which explains the entire five-phased linear dominance hierarchy of the SP11 phenotypic expression in Brassica
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