SVM classification

kmeans algorthms code vb and test data

memetic是一种高效的文化进化计算方法，该范例以Rosenbroek函数为例进行了演示，你也可以加入其它函数进行测试。-memetic cultural evolution is an efficient method of calculating the sample to Rosenbroek function as an example of the presentation, you can also add other functions to be tested.非原创，仅限分享。

最短路径算法源码(VB)-shortest path algorithm source code (VB)

JAVA 应用程序源代码中的图像处理 （对比度增强与直方图均衡化和重构......)而无需使用预定义的函数

这是关于一个数据结构的一个i算法的描述，是二叉树的遍历问题，只有源代码，但是是可以直接运行的，是用C写的。希望能够对大家有所帮助。。

In the pFDTD, pre-defined, a number of functions helps you to input complex dielectric/metallic structures by the repeated use of rather simple geometric structures. For example, the later use of input object functions will take over the overlapped region with the previously defined structures. In the present pFDTD version, only metals that can be described by simple Drude model can be handled.

非线性方程组求解_程序,mulStablePoint    用不动点迭代法求非线性方程组的一个根mulNewton    用牛顿法法求非线性方程组的一个根mulDiscNewton    用离散牛顿法法求非线性方程组的一个根mulMix            用牛顿-雅可比迭代法求非线性方程组的一个根mulNewtonSOR    用牛顿-SOR迭代法求非线性方程组的一个根mulDNewton    用牛顿下山法求非线性方程组的一个根mulGXF1            用两点割线法的第一种形式求非线性方程组的一个根mulGXF2            用两点割线法的第二种形式求非线性方程组的一个根mulVNewton    用拟牛顿法求非线性方程组的一组解mulRank1    用对称秩1算法求非线性方程组的一个根mulDFP            用D-F-P算法求非线性方程组的一组解mulBFS            用B-F-S算法求非线性方程组的一个根mulNumYT    用数值延拓法求非线性方程组的一组解DiffParam1    用参数微分法中的欧拉法求非线性方程组的一组解DiffParam2 &nb

这个是用delphi写的一些常用的数学公式，包括一些高级数学公式，图像编程等源代码。-this is delphi write some common mathematical formula, including some advanced mathematical formulas, images and other programming source code.

自己改写的循环队列，用顺序表实现。通过预定义数据结构体及缓存的差长度，实现了元素的 1.单个入队、出队操作； 2.批量入队、出对操作； 3.可以自定义是否覆盖未出队元素，用于实时控制并允许少量数据丢失的场合； 4.直接引用，非常方便

资源描述This paper presents a lowcost indoor location identification and material tracking methodology for construction projects using Ultra High Frequency (UHF) passive Radio Frequency Identification (RFID) technology. Onsite location aware information is an emerging area that focuses on automating delivery of spatial information pertinent to location of materials, workforce, and equipment. This spatial information can be used to derive knowledge about construction project status. A two-step algorithm is presented to automate the process of location estimation and material tracking in near-real-time. In this methodology, a number of passive RFID tags are distributed onsite where work is progressing, and a mobile RFID reader is carried by a worker onsite. Each passive RFID tag is deployed as a reference point with a known location (landmark) within a predefined zone. Reference tags of known locations are used to d