Objective To construct an"Internet+TCM nursing service"talent cultivation model in Zhejiang Province and to evaluate its application effect.Methods Based on the literature review and expert panels,the"Internet+TCM nursing service"talent cultivation model was constructed in Zhejiang Province.A total of 63 trainees from 63 TCM and integrated traditional Chinese and Western medicine hospitals in the province were selected to carry out for 45 days of theoretical training and 9 days of clinical skills training.After the training,the training effect was evaluated by theoretical knowledge,TCM nursing skills,scenario simulation case assessment,trainees'satisfaction,as well as a survey on the results of practice.Results The constructed talent cultivation model contains course contents including theoretical learning,skill training and emergency home treatment management and corresponding assessment programs.Sixty-three trainees successfully completed the course with the theoretical score of(92.24±3.64),the skill score of(97.13±2.53),and the situational case score of(95.78±3.02).Fifty-five trainees(87.30％)were assessed as"excellent"and 8(12.70％)as"good".The trainees'satisfaction about the overall module design of the project was(4.93±0.23)and 415 cases of"Internet+TCM nursing service"were carried out.Conclusion The"Internet+TCM nursing service"talent cultivation model in Zhejiang Province has strong applicability and remarkable training effect,which can provide references for the implementation of"Internet+TCM nursing service"in other regions.

Reversible phosphorylation plays a crucial role in regulating protein activities and functions. Sexual reproduction directly affects yield of most agricultural crops. As the male reproductive organ, anther generates microspores (pollen), delivering gametes (sperms) to complete double fertilization in higher plants. Here, we took the advantage of Nano UHPLC-MS/MS to analyze maize (Zea mays, B73) early anthers at proteomic and phosphoproteomic levels, to explore the protein and phosphorylation modification regulatory networks controlling maize anther development. Our proteomic analysis identified 3 016 unique peptides, belonging to 1 032 maize proteins. MapMan analysis revealed variously potential proteins associated with maize anther development, such as receptor-like kinases (GRMZM2G082823_P01 and GRMZM5G805485_P01). Using phospho-peptides enriched by TiO2 affinity chromatography, our phosphoproteomic analysis detected 257 phospho-peptides from 210 phosphoproteins, discovering 223 phosphosites. Compared to the 86 maize phosphoproteins collected in the Plant Protein Phosphorylation Data Base (P3DB), we found that 203 phosphoproteins and 218 phosphosites were not revealed before. Further bioinformatics analysis revealed that phosphorylation of 14-3-3 proteins, kinases, phosphatases, transcription factors, cell cycle and chromatin structure related proteins might play important roles in regulating normal anther development in maize. Our findings not only enlarged the maize phosphoproteome data, but also provided information for analyzing the molecular mechanism controlling maize anther development at genetic and biochemical levels.
Crops, Agricultural ; chemistry ; Phosphoproteins ; chemistry ; Phosphorylation ; Plant Proteins ; chemistry ; Pollen ; chemistry ; Proteome ; Tandem Mass Spectrometry ; Zea mays ; chemistry