Objective:To understand the effect of standardized residency training for residents with different identity types, and put forward targeted optimization and improvement measures to achieve the homogenization of training effect.Methods:Combined with literature review and expert consultation results, a self-designed questionnaire was conducted for 324 residents who completed their courses in 2019 and 2020. The effective recovery rate of the questionnaire was 87.65%. By comparing the passing rate of first-time medical admission and completion examination of different identity types, and the training standards of six core competencies, the training effect conclusion was drawn. T-test and Fisher exact probability test were also made by SPSS 21.0. Results:The passing rates of first-time doctors and completion examinations were higher in professional masters and units than in the general population, with the highest passing rates reaching 100% (10/10) and 97.3% (72/74) respectively. There was no statistical difference between the passing rates of residents with different identity types. The overall standard of the six core competencies of the integrated professional masters was better than that of the society and unit personnel. There were statistical differences between the groups in the training standards of the four abilities of the residents with different identity types in professional literacy ( P=0.048), patient management ( P=0.030), communication and cooperation ( P=0.026) and learning promotion ( P=0.003). There was no significant difference in professional ability ( P=0.131) and teaching ability ( P=0.061). Conclusion:There is no difference in the passing rate of residents with different identity types in a military hospital, which achieves the goal of homogenization training to a certain extent. However, there are obvious differences in the standards of the six core competencies, and further optimization measures need to be explored.

Astrocytes are the largest glial population in the mammalian brain. However, we have a minimal understanding of astrocyte development, especially fate specification in different regions of the brain. Through lineage tracing of the progenitors of the third ventricle (3V) wall via in-utero electroporation in the embryonic mouse brain, we show the fate specification and migration pattern of astrocytes derived from radial glia along the 3V wall. Unexpectedly, radial glia located in different regions along the 3V wall of the diencephalon produce distinct cell types: radial glia in the upper region produce astrocytes and those in the lower region produce neurons in the diencephalon. With genetic fate mapping analysis, we reveal that the first population of astrocytes appears along the zona incerta in the diencephalon. Astrogenesis occurs at an early time point in the dorsal region relative to that in the ventral region of the developing diencephalon. With transcriptomic analysis of the region-specific 3V wall and lateral ventricle (LV) wall, we identified cohorts of differentially-expressed genes in the dorsal 3V wall compared to the ventral 3V wall and LV wall that may regulate astrogenesis in the dorsal diencephalon. Together, these results demonstrate that the generation of astrocytes shows a spatiotemporal pattern in the developing mouse diencephalon.
Mice ; Animals ; Astrocytes ; Neuroglia/physiology* ; Diencephalon ; Brain ; Neurons ; Mammals