Project description:N6-methyladenoisne (m6A) plays critical roles in many biological processes. However, the function of m6A at the early phase of mammalian development remains poorly understood. Here we show that m6A reader Ythdc1 is required for the proliferation of mouse embryonic stem cells (mESCs) in an m6A-dependent manner and its deletion resets mESCs back to a 2C-like state.
Project description:N6-methyladenoisne (m6A) plays critical roles in many biological processes. However, the function of m6A at the early phase of mammalian development remains poorly understood. Here we show that m6A reader Ythdc1 is required for the proliferation of mouse embryonic stem cells (mESCs) in an m6A-dependent manner and its deletion resets mESCs back to a 2C-like state.
Project description:N6-methyladenoisne (m6A) plays critical roles in many biological processes. However, the function of m6A at the early phase of mammalian development remains poorly understood. Here we show that m6A reader Ythdc1 is required for the proliferation of mouse embryonic stem cells (mESCs) in an m6A-dependent manner and its deletion resets mESCs back to a 2C-like state.
Project description:N6-methyladenoisne (m6A) plays critical roles in many biological processes. However, the function of m6A at the early phase of mammalian development remains poorly understood. Here we show that m6A reader Ythdc1 is required for the proliferation of mouse embryonic stem cells (mESCs) in an m6A-dependent manner and its deletion resets mESCs back to a 2C-like state.
Project description:N6-methyladenoisne (m6A) plays critical roles in many biological processes. However, the function of m6A at the early phase of mammalian development remains poorly understood. Here we show that m6A reader Ythdc1 is required for the proliferation of mouse embryonic stem cells (mESCs) in an m6A-dependent manner and its deletion resets mESCs back to a 2C-like state.
Project description:We applied YTHDC1-RIP-seq in SKOV3 cells to identify RNAs directly bound to YTHDC1. A total of 9522 potential candidate targets of YTHDC1 were revealed, and 86.39% of them were mRNA