Yu Murakami
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Program-specific Assistant Professor
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About
Yu Murakami is a Program-specific Assistant Professor at Kyoto University, Japan. His research focuses on genetic manipulation techniques in medaka fish ( Oryzias latipes ), including the targeted deletion of ecto-5′-nucleotidase and double gene knock-in strategies. He has published recent articles on CRISPR/Cas9 methods for gene editing and the retention of metabolite content in postmortem muscle of medaka.
Recent Grants
Grant: Close
Elucidation of Molecular Mechanisms Underlying Glutamate Metabolism in Fish and Application to Enhancement of Umami Taste
Open Date: 2022-04-01
Close Date: 2025-03-01
Grant: Close
イノシン酸分解機構の制御による呈味向上魚の作出
Open Date: 2020-04-01
Close Date: 2023-03-01
Grant: Close
卵巣移行シグナルを利用した新規遺伝子改変法
Open Date: 2018-04-01
Close Date: 2020-03-01
Grant: Close
Development of basic technology for production of tiger pufferfish with low teeth formation to prevent mutual bite.
Open Date: 2014-04-01
Close Date: 2017-03-01
Grant: Close
Development of new aquaculture using designated nuclease
Open Date: 2014-04-01
Close Date: 2017-03-01
Articles (3)
Summary Homology‐directed repair (HDR)‐mediated genome editing has become a powerful method for altering chromosomal sequences in a seamless and accurate manner. However, the low efficiency of HDR in most cells hinders the establishment of desired strains harboring accurately modified genomes. To enhance HDR‐mediated knock‐in events, we explored two approaches, namely low‐temperature incubation and chemical compound administration using medaka embryos after microinjection. We validated the performance of each method by calculating the knock‐in efficiencies according to the expression area of fluorescent protein in the embryos. The in vivo assay indicated that the reduction in temperature did not promote HDR events, whereas among the nine compounds screened, the small molecule L755507 could enhance the HDR‐mediated targeted integration of reporter cassettes. Additionally, the L755507‐based approach allowed for the simultaneous integration of two different DNA fragments into the two targeted loci, that is, double knock‐in. Our established knock‐in system combining L755507, donor plasmids, and the CRISPR/Cas9 nickase system can reduce the workload for genetically modified strain generation, thus accelerating studies on the molecular mechanisms of biological phenomena.
Year:
2022
Year:
2022
Year:
2020
Collaborators (2)
Masato Kinoshita
准教授 / Associate Professor
Kyoto University
Toru Kobayashi
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