ObjectiveTo summarize the research progress of tibial transverse transport in the treatment of diabetic foot.MethodsThe domestic and foreign literature on the tibial transverse transport for diabetic foot in recent years was summarized, and the advantages and disadvantages of the technique were analyzed.ResultsThe tibial transverse transport was an innovation based on Ilizarov technique. At present, the treatment of diabetic foot by the tibial transverse transport is in the initial stage and has achieved good results, but there are also problems such as ulcer recurrence and re-fracture. And its biological mechanism to promote tissue regeneration, clinical technical points (such as the selection of incision and bone window size), the technical parameters of postoperative removal program, and the postoperative effectiveness are still in dispute and exploration. More clinical studies and practices are needed in the future to develop a standard protocol for this technique.ConclusionTibial transverse transport is a hot spot for microcirculation reconstruction of lower extremity. Significant progress has been made in the treatment of diabetic foot, which provides a new direction for limb salvage treatment. However, the technique is not mature, there are still many disputes and difficulties to be further studied clearly.
Fear emotion is a typical negative emotion that is commonly present in daily life and significantly influences human behavior. A deeper understanding of the mechanisms underlying negative emotions contributes to the improvement of diagnosing and treating disorders related to negative emotions. However, the neural mechanisms of the brain when faced with fearful emotional stimuli remain unclear. To this end, this study further combined electroencephalogram (EEG) source analysis and cortical brain network construction based on early posterior negativity (EPN) analysis to explore the differences in brain information processing mechanisms under fearful and neutral emotional picture stimuli from a spatiotemporal perspective. The results revealed that neutral emotional stimuli could elicit higher EPN amplitudes compared to fearful stimuli. Further source analysis of EEG data containing EPN components revealed significant differences in brain cortical activation areas between fearful and neutral emotional stimuli. Subsequently, more functional connections were observed in the brain network in the alpha frequency band for fearful emotions compared to neutral emotions. By quantifying brain network properties, we found that the average node degree and average clustering coefficient under fearful emotional stimuli were significantly larger compared to neutral emotions. These results indicate that combining EPN analysis with EEG source component and brain network analysis helps to explore brain functional modulation in the processing of fearful emotions with higher spatiotemporal resolution, providing a new perspective on the neural mechanisms of negative emotions.