ofdm的MATLAB仿真代码，带有详细注释，帮助理解学习OFDM原理

视觉机器学习20讲配套仿真代码Code；

DPSK+PM的调制解调的MATLAB仿真代码，可以直接运行的代码

基于多相滤波的信道化仿真代码 matlab

匹配滤波matlab仿真代码 对于了解匹配滤波原理很有用

包含CSK和KCF算法仿真源码，并包含有一些仿真数据源，下载解压运行run_tracker.m就可以进行仿真

很全的无线传感器网络定位算法仿真代码 并且包含各个算法的论文 很全的无线传感器网络定位算法仿真代码 并且包含各个算法的论文

用于室内定位的TDOA算法matlab仿真代码，含多种其他代码。用于室内定位的TDOA算法matlab仿真代码，含多种其他代码。

Analytical solution to calculate the small-signal single-pass gain of a fiber amplifier. Includes standard parameters for erbium- or ytterbium-doped fiber amplifiers. Use it to produce either of two types of plots: 1. Plot the gain versus pump power for various fiber lengths (at a single wavelength) 2. Plot the gain versus wavelength for various pump powers (at one or several fiber lengths) Can also be used to calculate single-pass gain of lasers and thus predict the pump power necessary for lasing. (i.e. when the gain G_th is greater than the cavity losses L and output T: G_th = 1/((1-T)*(1-L)). You can call the function from the command line/function/script; if you do this, the inputs are all optional but presumably you'll want to do at least some of them. You can also use good ol' F5 to just run it with the defaults, editing them in the first few lines of the code. % Example calls from command line: % % optional parameters >>> plotFlag = 1; % optional, boolean if you want output plot or just the output values returned to the calling function >>> loss = 2; % optional: excess loss in dB % % mode 1: plotting the gain vs. pump power for several lengths >>> Pp = 50:5:100; % pump powers in mW >>> L = [0.5 1 2 5]; % fiber length in m >>> wl = 1550; % wavelength in nm >>> G = EDFASinglePassGain_Analytical(wl,L,Pp,loss,plotFlag) % again, all inputs are basically optional, use the ones you need to change % % mode 2: plotting the gain vs. wavelength for several lengths, several pump powers >>> Pp = 50:10:100; % in mW, use between 1 and 10 power values for helpful graphs >>> L = [0.5 1 2 5]; % in m, use between 1 and 4 length values for helpful graphs >>> wl = 1550; % signal wavelength in nm >>> G = EDFASinglePassGain_Analytical(wl,L,Pp,loss,plotFlag) Some CAVEATS are in order. 1. This solution does NOT incorporate ASE or strong-signal saturation effects. Therefore if you are interested in high-gain (>20 dB) or high-power (>100 uW input)

2003年 Petre Stoica. Robust Capon Beamforming 中介绍方法的matlab实现代码，需要CVX支持，适合初学者加深理解。此文件为实时脚本，请用matlab打开，不支持txt文档查看。