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| 1 | Observation of coupling between zero- and two- dimensional semiconductor systems based on anomalous diamagnetic effects显示文摘我们报导在一个单个自我装配的 InAs 量点和弄湿的层之间联合的直接观察,基于用磁电机光致发光光谱学的许多身体激子状态的强壮的抗磁的移动。当在弄湿的层的一个电子在量点与一个洞结合时,一个极其大的积极抗磁的系数被观察;系数比在量点限制的激子状态的大将近一个数量级。有在联合系统的一个量点的洞的电子的再结合导致不平常的否定抗磁的效果,它在一个纯量点系统是比那强壮五倍的。这效果能被归因于在再结合以后处于量点的激动的状态在弄湿的层或电子的传播仍然是电子到弄湿的层的 wavefunction 的扩大。在这种情况中,因为洞的缺席,在量点飞机的最后的状态的 wavefunction 程度比起始的状态的大得多吸引电子。在弄湿的层取决于大电子 wavefunction 程度的射出的光子的性质显示联合发生在不同维数的系统之间,它也从在不同配置使用一个磁场获得的结果被验证。这研究铺平一条新道路与零维、二维的结构观察混合状态,它能为调查 Kondo 物理并且实现是有用的基于纺纱固态量信息处理。 | Shuo Cao Jing Tang Yue Sun Kai Peng Yunan Gao Yanhui Zhao Chenjiang Qian Sibai Sun Hassan Ali Yuting Shao Shiyao Wu Feilong Song David A. Williams Weidong Sheng Kuijuan Jin Xiulai Xu | 2016 | Nano Research2016，9，2： | 2 |
| 2 | An efficient dead- lock prevention approach for service oriented transaction processing显示文摘 | TANG Feilong YOU I YU Shui | 2012 | Computers & Mathematics with Applica- tions2012，63，2： | 1 |
| 3 | The Multi-Agent Modeling and Calculated Analysis of Shop Logistics Scheduling in the Manufacturing Enterprises显示文摘In this paper,the multi-agent model about shop logistics is set up. This model has 8 agents: raw materials stock agent,process agent,testing agent,transition agent,production information agent,scheduling agent,process agent and stock agent. The scheduling agent has three subagents: manager agent (MA),resource agent (RA) and part agent (PA). MA,PA and RA are communicating equally that guarantees agility of the whole MAS system. The part tasks pass between MA,RA and PA as an integer,which can guarantee the consistency of the data. We use a detailed example about shop logistics scheduling in a semiconductor company to explain the principle. In this example,we use two scheduling strategies: FCFS and SPT. The result data indicates that the average flow time and lingering ratio are changed using different strategy. It is proves that the multi-agent scheduling is useful. | CHEN Yong,LIN Feilong,WANG Xiao,TANG Kefeng (College of Mechanical & Electrical Engineering,Zhejiang University of Technology,Hangzhou 310032,China) | 2006 | 武汉理工大学学报2006，28，S1： | 1 |
| 4 | Effects of different types of nutrient effluent from shrimp ponds on the seedling growth of Kandelia obovata显示文摘Extensive shrimp ponds are located next to the landward edges of most of mangrove forests in China. A shrimp pond may influence mangroves by(1) routine effluent between pond and tide, and(2) dredging effluent from pond-dredging at least once a year. Our study consisted of two experiments to study the effects of these two effluents on the seedling growth of Kandelia obovata. One experiment simulated the effects of routine effluents.The other simulated four sedimentation thicknesses(0 cm, 2 cm, 4 cm, 8 cm) over mangrove soils by dredging effluent from pond-dredging, and revealed the cumulative effects of dredging effluents on K. obovata. At each of the three fixed salinities, i.e., 5, 15 and 25, routine effluent did not result in significant differences in each of the measured growth parameters of K. obovata seedlings. However, effects of dredging effluent on seedling growth of K. obovata were related with sedimentation thickness. Most growth parameters showed maximum values at sedimentation thickness 4 cm. The data indicated that K. obovata accelerated its growth under moderate sedimentation thicknesses and it was tolerant and adaptable to shrimp pond-cleaning effluent sediments up to about 8 cm in our experiment. | TIAN Yuan CHEN Guangcheng TANG Feilong ZHENG Chunfang YE Yong | 2018 | Acta Oceanologica Sinica2018，37，6： | 1 |
| 5 | Secure Routing for Wireless Mesh Sensor Networks in Pervasive Environment显示文摘 | Feilong Tang Minyi Guo Minglu Li | 2007 | International Journal of Intelligent Control and Systems(IJICS)2007，12，4： | 1 |
| 6 | Research on a Generalized Die CAD System Architecture Based on SOA and Web Service显示文摘 | YANG Xinhua TANG Feilong WU Deng | 2006 | Advanced Web and Network Technologies and Applications2006，3842，： | 1 |
| 7 | Single-electron pumping in a ZnO single-nanobelt quantum dot transistor显示文摘Diluted magnetic semiconductors(DMSs)have traditionally been employed to implement spin-based quantum computing and quantum information processing.However,their low Curie temperature is a major hurdle in their use in this field,which creates the necessity for wide bandgap DMSs operating at room temperature.In view of this,a single-electron transistor(SET)with a global back-gate was built using a wide bandgap ZnO nanobelt(NB).Clear Coulomb oscillations were observed at 4.2 K.The periodicity of the Coulomb diamonds indicates that the Coulomb oscillations arise from single quantum dots of uniform size,whereas quasi-periodic Coulomb diamonds correspond to the contribution of multi-dots present in the ZnO NB.By applying an AC signal to the global back-gate across a Coulomb peak with varying frequencies,single-electron pumping was observed;the increase in current was equal to the production of electron charge and frequency.The current accuracy of about 1%for both single-and double-electron pumping was achieved at a high frequency of 25 MHz.This accurate single-electron pumping makes the ZnO NB SET suitable for single-spin injection and detection,which has great potential for applications in quantum information technology. | Hassan Ali Jing Tang Kai Peng SiBai Sun Attia Falak FeiLong Song ShiYao Wu ChenJiang Qian Meng Wang XiTian Zhang Muhammad Aftab Rafiq XiuLai Xu | 2020 | Science China(Physics,Mechanics & Astronomy)2020，63，6： | 0 |
| 8 | Rating-protocol optimization for blockchain-enabled hybrid energy trading in smart grids显示文摘Dear editor,Smart grids,with renewable energy technologies,provide an innovative approach for mitigating the energy crisis caused by the shortage of fossil fuel resources.However,the existing smart grids are confronted with several challenges[1,2].Specially,the decentralization of resources and the inflexible trading patterns call for a secure infrastructure and an efficient energy management mechanism,respectively. | Zheng BAO Changbing TANG Feilong LIN Zhonglong ZHENG Xinghuo YU | 2023 | Science China(Information Sciences)2023，66，5： | 0 |
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