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Risk evaluation of splenic hilar lymph node metastasis and survival analysis of patients with advanced gastric cancer
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作者 Guang-Cai Niu you-long zhu Xuan-Xuan Xiong 《Oncology and Translational Medicine》 2023年第5期219-224,共6页
Background:There is no consensus regarding the influence of prophylactic no.10 lymph node(LN)dissection in patients with advanced gastric cancer(AGC).We aimed to evaluate whether patients with AGC could benefit from n... Background:There is no consensus regarding the influence of prophylactic no.10 lymph node(LN)dissection in patients with advanced gastric cancer(AGC).We aimed to evaluate whether patients with AGC could benefit from no.10 LN dissection and to explore the clinicopathological indicators of no.10 LN metastasis.Methods:We analyzed the data of 218 patients with AGC who underwent standard D2 lymphadenectomy(SD2;n=108)or modified D2 lymphadenectomy(MD2;n=110)between January 2017 and January 2021.In addition,we examined factors influencing no.10 LN metastasis in the SD2 group.Results:Differentiation,tumor location,and no.4 positive LNs were significantly correlated with no.10 LN metastasis(P<0.05).Borrmann classification,differentiation,depth of invasion,LN metastasis(N),and tumor size were found to correlate with survival in univariate analyses.Age,sex,extent of gastrectomy,tumor location,and extent of lymphadenectomy were not associated with survival(P>0.05).The median survival times were 72.23 and 68.56months for the SD2 andMD2 groups,respectively(P=0.635).Postoperative major morbidity and mortality rates were 37.96%and 3.70%in the SD2 group,and 23.64%and 1.82%in the MD2 group,respectively.Conclusions:Based on our findings,prophylactic no.10 lymphadenectomy may be recommended in patients with AGC who exhibit positive no.4 LN status,poor differentiation,and tumors located on the greater curvature. 展开更多
关键词 Advanced gastric cancer(AGC) COMPLICATION No.10 lymphadenectomy Survival time
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Multifunctional Templating Strategy for Fabrication of Fe,N-Codoped Hierarchical Porous Carbon Nanosheets 被引量:2
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作者 Yu-heng Lu You-chen Tang +4 位作者 Ru-liang Liu Chuan-fa Li Shao-hong Liu you-long zhu Ding-cai Wu 《Chinese Journal of Polymer Science》 SCIE EI CAS CSCD 2022年第1期2-6,共5页
Due to the unique physical and chemical merits including excellent electrical conductivity,superior chemical stability,and tunable carbon framework,two-dimensional(2 D)porous carbon nanosheets have drawn increasing re... Due to the unique physical and chemical merits including excellent electrical conductivity,superior chemical stability,and tunable carbon framework,two-dimensional(2 D)porous carbon nanosheets have drawn increasing research interest and demonstrated promising potentials in various applications.However,regulating the nanostructure of 2 D porous carbon nanosheets by facile and efficient strategies remains a great challenge.Herein,we develop a new strategy to construct Fe,N-codoped hierarchical porous carbon nanosheets(Fe-N-HPCNS)by using 2 D Fe-Zn layered double hydroxides(Fe-Zn-LDH)as multifunctional templates.Fe-Zn-LDH could functionalize not only as 2 D structure directing agents but also as ternary hierarchical porogens for micro-,meso-and macropores and in situ Fe dopants.This multifunctional templating strategy toward 2 D porous carbon nanosheets can improve the utilization of templates and shows great advantages against conventional procedures that additional porogens and/or dopants are often needed. 展开更多
关键词 Carbon nanosheets Multifunctional templates Hierarchical pores Heteroatom doping
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力学自适应性电学高分子的简介、设计及其应用
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作者 李梦雪 吴海平 +1 位作者 朱有龙 王朝 《高分子学报》 SCIE CAS CSCD 北大核心 2019年第3期247-260,M0004,共15页
力学自适应性高分子是指能够适应外力作用而几乎不产生力学损伤的一类高分子材料.而力学自适应性电学高分子是具有良好的传导电荷或离子能力的一种高分子材料,同时还能够适应力学损伤,由于这类材料同时具有良好的电学和力学性能,有望在... 力学自适应性高分子是指能够适应外力作用而几乎不产生力学损伤的一类高分子材料.而力学自适应性电学高分子是具有良好的传导电荷或离子能力的一种高分子材料,同时还能够适应力学损伤,由于这类材料同时具有良好的电学和力学性能,有望在可穿戴电子器件、能源和生物医药领域产生广泛的应用前景.本综述主要介绍了力学自适应性电学高分子的设计原则,合成/制备路线和应用前景.力学自适应电学高分子设计原则的核心是结合分子化学和超分子化学的理念,通过把动态化学键引入到高分子体系中,使其同时具有电学和力学适应性.通过将材料设计理念引入到高分子制备中,力学自适应性离子导体和电子导体得以成功制备.力学自适应性电学高分子有望在可穿戴电子器件,储能器件和人工肌肉等领域带来新的突破. 展开更多
关键词 力学自适应 电学高分子 自修复 能量耗散 动态化学键 超分子化学
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