Abstract: An uplink data parsing method, an electronic device, and a storage medium are provided. The method includes: in an uplink scheduling process, a PHY layer of a baseband processing unit receiving uplink configuration information transmitted by a MAC layer; the PHY layer receiving uplink baseband signals obtained from a plurality of physical cells; the PHY layer determining, according to a first UE record, whether uplink data of a UE to be parsed is correctly parsed in the uplink scheduling process; if yes, the uplink data of the UE to be parsed being not parsed any more in the uplink scheduling process. The first UE record includes an uplink data parsing result of the UE of which uplink data needs to be parsed in the uplink scheduling process.

Abstract: An uplink data parsing method, an electronic device, and a storage medium are provided. The method includes: in an uplink scheduling process, a PHY layer of a baseband processing unit receiving uplink configuration information transmitted by a MAC layer; the PHY layer receiving uplink baseband signals obtained from a plurality of physical cells; the PHY layer determining, according to a first UE record, whether uplink data of a UE to be parsed is correctly parsed in the uplink scheduling process; if yes, the uplink data of the UE to be parsed being not parsed any more in the uplink scheduling process. The first UE record includes an uplink data parsing result of the UE of which uplink data needs to be parsed in the uplink scheduling process.

Abstract: A tobacco arsenic transport gene NtNIP7-1 and a cloning method and application thereof are disclosed. A nucleotide sequence of the tobacco arsenic transport gene NtNIP7-1 is shown as SEQ ID: No. 1, and an encoded amino acid sequence thereof is shown as SEQ ID: No. 2. The cloning method of the tobacco arsenic transport gene NtNIP7-1 includes (S1) extracting RNA in tobacco, performing reverse transcription, and obtaining a first-strand cDNA; and (S2) taking the first-strand cDNA obtained by the reverse transcription as a template, synthesizing a specific primer according to sequences of the NtNIP7-1 gene, performing PCR amplification, recovering and purifying a product of the PCR amplification, and sequencing. In the present invention, inhibition of the expression of the tobacco endogenous gene NtNIP7-1 in tobacco plants is able to significantly reduce the arsenic content of tobacco leaves, and has broad application prospects in the field of low arsenic content breeding.

Abstract: A tobacco arsenic transport gene NtNIP7-1 and a cloning method and application thereof are disclosed. A nucleotide sequence of the tobacco arsenic transport gene NtNIP7-1 is shown as SEQ ID: No. 1, and an encoded amino acid sequence thereof is shown as SEQ ID: No. 2. The cloning method of the tobacco arsenic transport gene NtNIP7-1 includes (S1) extracting RNA in tobacco, performing reverse transcription, and obtaining a first-strand cDNA; and (S2) taking the first-strand cDNA obtained by the reverse transcription as a template, synthesizing a specific primer according to sequences of the NtNIP7-1 gene, performing PCR amplification, recovering and purifying a product of the PCR amplification, and sequencing. In the present invention, inhibition of the expression of the tobacco endogenous gene NtNIP7-1 in tobacco plants is able to significantly reduce the arsenic content of tobacco leaves, and has broad application prospects in the field of low arsenic content breeding.