|
|
|
题名
|
作者
|
年代
|
出处
|
被引量
|
| 1 | Surface Analysis and Phase Transition of Gel-Derived VO 2 Thin Films显示文摘 | Songwei Lu Lisong Hou Fuxi Gan | 1999 | Thin Solid Films1999,353,: | 1 |
| 2 | Surface analysis and phase transition of gel - derived VO2 thin films显示文摘 | Lu Songwei Hou Lisong Gan Fuxi | 1999 | Thin Solid Films1999,353,: | 1 |
| 3 | Synthesis and photoluminescence enhancement of Mn^2 + doped ZnS nanocrystals显示文摘 | Lu Songwei Lee Burtrand I Wang Zhonglin | 2001 | J Lumin2001,92,: | 1 |
| 4 | Synthesis and phase transition of Cu2+ ion doped VO2 thin films显示文摘 | Lu Songwei Hou Lisong Fuxi G | 1996 | Journal of Materials Science Letters1996,15,10: | 1 |
| 5 | Structure and optical property changes of sol-gel derived VO2 thin films 显示文摘 | Lu Songwei Hou Lisong Gan Fuxi | 1997 | Advanced Materials1997,9,3: | 1 |
| 6 | Synthesis and phase transition of Cu2+ ion doped VO2 thin films显示文摘 | Songwei Lu Lisong Hou Fuxi Gan | 1996 | Journal of Materials Science Letters1996,,10: | 1 |
| 7 | Surface Analysis and Phase Transition of Gel-derived VO2 Thin films显示文摘 | Songwei Lu | 1999 | Thin Solid Films1999,35,3: | 1 |
| 8 | Efficient conversion of CO2 to formic acid by formate dehydrogenase immobilized in a novel alginate-silica hybrid gel显示文摘 | Lu Yang Jiang Zhongyi Xu Songwei | 2006 | Catalysis Today2006,115,: | 1 |
| 9 | Surface Analysis and Phase Transition of Gel-Derived VO2 Thin Films显示文摘 | Lu Songwei Hou Lisong Gan Fuxi | 1999 | Thin Solid Films1999,,353: | 1 |
| 10 | Building a Highly Stable Ultrathin Nanoporous Layer Assisted by Glucose for Desalination显示文摘Although nanoporous membranes are of great interest in desalination,it is still challenging to construct highly permeable nanoporous membranes with excellent rejections for an efficient desalination process.In this work,highly permeable nanoporous membranes were built from renewable resources,assisted by the versatile functions of glucose and dopamine,with coupling reactive groups via interfacial reaction with 1,3,5-benzenetricarbonyl trichloride(TMC).The small molecules(0.66 nm)of glucose,which have high hydrophilicity,can diffuse into the membrane for an effective reaction to ensure structural integration.Our novel ultrathin(~44 nm)nanofiltration(NF)membrane exhibits ultra-high Na_(2)SO_(4)flux and excellent rejection of Na_(2)SO_(4)(66.5 L·m^(-2)·h^(-1),97.3%)and MgSO4(63.0 L·m^(-2)·h^(-1),92.1%)under a pressure of 5 bar(1 bar=10^(5)Pa)which is much superior to the performance of natural-product NF membranes.The membrane demonstrates excellent long-term stability,as well as tremendous acid-base and alkali-base stability and high anti-pollution capacity.The designed membrane materials and architecture open a new door to biopolymer-based separation membranes beyond existing membrane materials. | Yanqiu Zhang Fan Yang Hongguang Sun Yongping Bai Songwei Li Lu Shao | 2022 | Engineering2022,,9: | 0 |
| 11 | Pesticide wastewater treatment using the combination of the microbial electrolysis desalination and chemical-production cell and Fenton process显示文摘The combination of the microbial electrolysis desalination and chemical-production cell(MEDCC)and Fenton process for the pesticide wastewater treatment was investigate in this study.Real wastewater with several toxic pesticides,1633 mg/L COD,and 200 in chromaticity was used for the investigation.Results showed that desalination in the desalination chamber of MEDCC reached 78%.Organics with low molecular weights in the desalination chamber could be removed from the desalination chamber,resulting in 28%and 23%of the total COD in the acid-production and cathode chambers,respectively.The desalination in the desalination chamber and organic transfer contributed to removal of pesticides(e.g.,triadimefon),which could not be removed with other methods,and of the organics with low molecular weights.The COD in the effluent of the MEDCC combined the Fenton process was much lower than that in the perixo-coagulaiton process(<150 vs.555 mg/L).The combined method consumed much less energy and acid for the pH adjustment than that the Fenton. | Songwei Lin Yaobin Lu Bo Ye Cuiping Zeng Guangli Liu Jieling Li Haiping Luo Renduo Zhang | 2020 | Frontiers of Environmental Science & Engineering2020,14,1: | 0 |
| 12 | Performances of a prototype point-contact germanium detector immersed in liquid nitrogen for light dark matter search显示文摘The CDEX-10 experiment searches for light weakly interacting massive particles, a form of dark matter, at the China Jinping Underground Laboratory, where approximately 10 kg of germanium detectors are arranged in an array and immersed in liquid nitrogen. Herein, we report on the experimental apparatus, detector characterization, and spectrum analysis of one prototype detector. Owing to the higher rise-time resolution of the CDEX-10 prototype detector as compared with CDEX-1 B, we identified the origin of an observed category of extremely fast events. For data analysis of the CDEX-10 prototype detector, we introduced and applied an improved bulk/surface event discrimination method. The results of the new method were compared to those of the CDEX-1 B spectrum. Both sets of results showed good consistency in the 0-12 ke Vee energy range, except for the 8.0 keV K-shell X-ray peak from the external copper. | Hao Jiang LiTao Yang Qian Yue KeJun Kang JianPing Cheng YuanJing Li Henry Tsz-King Wong M.A?artio?lu HaiPeng An JianPing Chang JingHan Chen YunHua Chen Zhi Deng Qiang Du Hui Gong Li He Jin Wei Hu QingDong Hu HanXiong Huang LiPing Jia HauBin Li Hong Li Jian Min Li Jin Li Xia Li XueQian Li YuLan Li Bin Liao FongKay Lin ShinTed Lin ShuKui Liu YanDong Liu YuanYuan Liu ZhongZhi Liu Hao Ma JingLu Ma Hui Pan Jie Ren XiChao Ruan B.Sevda Vivek Sharma ManBin Shen Lakhwinder Singh Monoj Kumar Singh TianXi Sun ChangJian Tang WeiYou Tang Yang Tian GuangFu Wang JiMin Wang Li Wang Qing Wang Yi Wang ShiYong Wu YuCheng Wu HaoYang Xing Yin Xu Tao Xue SongWei Yang Nan Yi ChunXu Yu HaiJun Yu JianFeng Yue XiongHui Zeng Ming Zeng Zhi Zeng FengShou Zhang YunHua Zhang MingGang Zhao JiFang Zhou ZuYing Zhou JingJun Zhu ZhongHua Zhu | 2019 | Science China(Physics,Mechanics & Astronomy)2019,62,3: | 0 |