Abstract: A method for predicting matching degree between a resume and a post, and a related device are provided in this disclosure. In the method for predicting the matching degree between the resume and the post, and the related device according to this disclosure, firstly the semi-structured keys and values in post information and resume information and their source are obtained. Then, the matching degree between the resume information and the post information is predicted by a prediction model including a cascaded pre-trained language model, a Transformer encoder and a single label classification model, based on the keys and values of a respective post information and resume information attribute, and corresponding source representations. Thus, by comprehensively searching internal interaction and external interaction of semi-structured multivariate attributes in person-post matching, the matching result is more accurate.

Abstract: A transparent top electrode composite film for organic optoelectronic devices includes a substrate, an MoOx film layer coated on the substrate, a doped Ag-based film layer coated on the MoOx film layer and an HfOx film layer coated on the doped Ag-based film layer. A preparation method of the transparent top electrode composite film, which is achieved under vacuum and low temperature, includes steps of (A) depositing an MoOx film layer on a substrate through thermal evaporation process or electron beam evaporation process without heating the substrate; (B) depositing a doped Ag-based film layer on the MoOx film layer through sputtering process or evaporation process; and (C) depositing an HfOx film layer on the doped Ag-based film layer through reactive sputtering process, thereby obtaining the transparent top electrode composite film. The composite film is able to be used as a top electrode material for organic optoelectronic devices.

Abstract: A sodium channel protein Nav1.4-targeting polypeptide is disclosed, which has an amino acid sequence of SEQ ID NO:1. The polypeptide includes a first disulfide bond between Cys-3 and Cys-17, a second disulfide bond between Cys-4 and Cys-23, and a third disulfide bond between Cys-12 and Cys-24. The polypeptide has a complex coiled structure consisting of a main chain and disulfide bonds, in which three key residues LYS10, ARG18, and ARG22 could interact with Nav1.4 and be essential to block its penetrability of sodium. The polypeptide can target sodium channel protein Nav1.4 to form a stable protein complex; compared with naturally extracted drugs, the polypeptide Nav1.4 is superior in terms of yield, production, and cost saving, making it a promising Nav-targeting drug with broad application prospects.

Abstract: A sodium channel protein Nav1.4-targeting polypeptide is disclosed, which has an amino acid sequence of SEQ ID NO:1. The polypeptide includes a first disulfide bond between Cys-3 and Cys-17, a second disulfide bond between Cys-4 and Cys-23, and a third disulfide bond between Cys-12 and Cys-24. The polypeptide has a complex coiled structure consisting of a main chain and disulfide bonds, in which three key residues LYS10, ARG18, and ARG22 could interact with Nav1.4 and be essential to block its penetrability of sodium. The polypeptide can target sodium channel protein Nav1.4 to form a stable protein complex; compared with naturally extracted drugs, the polypeptide Nav1.4 is superior in terms of yield, production, and cost saving, making it a promising Nav-targeting drug with broad application prospects.

Abstract: A transparent top electrode composite film for organic optoelectronic devices includes a substrate, an MoOx film layer coated on the substrate, a doped Ag-based film layer coated on the MoOx film layer and an HfOx film layer coated on the doped Ag-based film layer. A preparation method of the transparent top electrode composite film, which is achieved under vacuum and low temperature, includes steps of (A) depositing an MoOx film layer on a substrate through thermal evaporation process or electron beam evaporation process without heating the substrate; (B) depositing a doped Ag-based film layer on the MoOx film layer through sputtering process or evaporation process; and (C) depositing an HfOx film layer on the doped Ag-based film layer through reactive sputtering process, thereby obtaining the transparent top electrode composite film. The composite film is able to be used as a top electrode material for organic optoelectronic devices.