| 1. | Analysis of routings for fault in generalized hypercube
广义超立方体网络的容错路由分析 |
| 2. | On the distinguishing number of the cube of the hypercube
超立方体三次幂的可区别数研究 |
| 3. | Latin hypercube sampling based uncertainty simulation of concrete time effects
的混凝土时效不确定性模拟研究 |
| 4. | D , m - dominating numbers of hypercube
的控制数 |
| 5. | The crossed cube is a variant of the hypercube , and it has better recursive structure , graph parameters and topological properties
摘要交叉立方体是超立方体的一个变种，具有良好的图参数、拓扑性质和结构递归性。 |
| 6. | The emphasis is played on the discussion of sobol " method and the latin hypercube sampling and the wind - stairs sampling characterized as small sample plus quick convergence are selected
着重讨论了sobol '灵敏度分析方法和采样小、收敛快的latin超立方和wind - stairs采样技术。 |
| 7. | An updated - latin hypercube sampling and calculated data based on wave motion theories are adapted for efficient generation of the patterns of training the neural network . the levenberg - marquardt algorithms was applied to modify the weight matrices of neural network
采用修正的latin超立方采样技术和波动理论的计算数据来形成网络的输入和输出数据，用lm算法训练网络，改善了网络训练的收敛性能。 |
| 8. | Gu to the crossed cube , and proved that for node - to - node routing , the crossed cube can tolerate as many as n - 1 faulty clusters of diameter ai most 1 with at most 2n - 3 ( n > 2 ) faully nodes in total which is as good as the hypercube
交叉立方体的上述这些性质都与超立方体的相同。为了进一步提高连通度，我们改进了交叉立方体的网络拓扑结构，对顶点地址相反的顶点对之间增加一条边，构成加强交叉立方体。 |
| 9. | In chapter two we give a multi - dimensional interval routing scheme on hypercube and a routing algorithm based on the compact routing table . we discuss the complexity of the algorithm . in addition , a fault - tolerant algorithm on hypercube is put forward
第二章给出了超立方体结构的一个多维区间路由方法，进而给出了一个基于简明路由表的路由算法，并分析了算法的复杂性，同时还提出了超立方体结构的一个容错路由算法。 |
