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triple_difference
- 载波相位三差处理，用fortran语言编写的，对研究GPS载波相位差分的人有所帮助。-Three difference carrier phase processing, using the fortran language, the study of GPS carrier phase difference be helpful to people.
GPS
- 《载波相位相对定位双差方程原理》验证 《载波相位相对定位单差方程原理》验证 《载波相位相对定位双差方程原理》验证 《载波相位相对定位双差方程原理》验证当基站离流动站很近，并假设流动站概略坐标等于基站坐标，那么双差方程中距离向量就为0-" Double difference carrier phase relative positioning equation theory" test " single-difference carrier phase rel
AttDet_23_Oct_2008
- 利用gps多天线载波相位技术，确定姿态软件。-The use of multi-antenna gps carrier phase technology, attitude determination software.
wanninger
- Combined Processing of GPS, GLONASS, and SBAS Code Phase and Carrier Phase Measurements Lambert Wanninger, Stephan Wallstab-Freitag Geodetic Institute, Dresden University of Technology, Germany -Combined Processing of GPS, GLONASS
SPP
- 这是GPS单点定位的工程。本工程中利用伪距信息（而非载波相位）进行单点定位的解算，得到相应点的三维坐标。-This is the GPS single point positioning works. This project the use of pseudo-distance information (rather than the carrier phase) for a single point positioning solution calculation, three-dimens
DesignoftrackingloopofGPSsoftwarereceiver
- 本文在分析GPS 软件接收机跟踪原理的基础上，首先比较码环与载波环不同鉴相器的性能，然后对二阶锁相环中不同环路参数设下的跟踪效果进行仿真分析，最后设计 了合适的码环与载波环路，并用实际采集的GPS 数据论证了所设计环路的有效性，为GPS 软件接收机跟踪环路的设计提供了参考。-Based on the analysis of GPS receiver tracking software on the basis of the principle, first compare the diffe
StudyofGPScarrirphaseestimatioethodinhighdynamicci
- 鉴于载波相位观测量可提供高精度定位信息的特点,分析了在高动态环境获得载波相位观测量的三种可 能方法,对三种方法的估计精度和动态跟踪能力进行了比较. 提出了一种适合GPS 系统的高动态环境载波相位 测量方案.-View of the carrier phase measurements can provide accurate location information, analyzes the dynamic environment in the high carrier phase m
GPS-real-time-kinematic-positioning
- 主要讲述了如何利用GPS载波相位实现单点精密定位的算法和编程实现-Focuses on how to use the GPS carrier phase single-point precision positioning algorithms and programming
Cosgrove-Software-Model-Zip-Folder
- The is a fully functional GPS SDR. It can accept real data or simulate its own data. It performs correlation, signal parameters discrimination, and loop filtering both code and carrier with the option of carrier loop aiding of the code loop. There ar
attitude-determination
- 双GPS定向技术应用 载波相位 模糊度解算 寻找方位角 精确度高-Directional technology of dual GPS carrier phase ambiguity resolution azimuth and high accuracy
Genetic-Alogrithm
- 遗传算法解算GPS载波相位整周模糊度，包括基本遗传算法和自适应遗传算法。-Genetic Algorithms GPS carrier phase integer ambiguity, including basic genetic algorithm and adaptive genetic algorithm.
Lambda_Algorithm
- 基于最小二乘估计调整的GPS载波相位整周模糊度的解算-GPS carrier phase integer ambiguity resolution based on Least Square Adjustment estimation
LAMBDA-C
- 基于最小二乘估计调整的GPS载波相位整周模糊度算法实现-Based on the least squares estimate of GPS carrier phase adjust the week fuzzy degree algorithm
main_attitude_measurement
- 基于gps载波相位整周模糊度的姿态测量系统实现的主程序- the main program of attitude measuring system based on GPS carrier phase integer ambiguity
GPS-Matlab-Simulation
- 本书讲述了全球定位系统GPS的基本原理和概念。具体包括GPS测量原理，GPS的结构和发展历史.GPS伪距定位和载波相位定位的原理GPS中使用的坐标系和时间系统,C/A码的实现原理及载波调制过程，GPS信号捕获和跟踪原理及实现.便携式GPS系统的设计与实现及常用芯片资料等。-This book describes the basic principles and concepts of the Global Positioning System (GPS). Including the struc
GPS-carrier-phase-and-multipath
- GPS 利用载波相位定位的时候如果存在多经情况的分析和处理-if exist multipath how to use carrier phase to poistion in GPS
attitude-determination-with-GPS-
- 多天线姿态确定工具箱，包括星历读取、单点定位、差分定位、坐标转换、定姿等-In this paper a MATLAB toolbox for determining the attitude of a rigid platform by means of multiple non-dedicated antennas using global positioning system is presented. The programs embedded in this toolbox cover
LAMBDA
- LAMBDA算法是用于求解载波相位模糊度的一种优秀算法(LAMBDA algorithm is an excellent algorithm for solving the ambiguity of carrier phase)
RTKlib关于高精度GPS动态定位函数与处理过程整理
- 精密GPS动态测量采用载波相位差分技术，其标准测量模式为，一台GPS接收机置于已知点，作为基准站来进行静态测量，另一台GPS接收机置于载体上，作为流动站来进行动态测量。两台接收机同步观测相同的卫星，然后将两台GPS接收机的观测值进行组合处理，就可以获得流动站相对于基准站的坐标和速度。本文主要介绍用RTKLIB 实现精密动态定位的过程，该过程包括观测文件和导航文件的读取、基准站位置的计算、流动站位置的求解、运行结果的输出，下面将分块讨论。(Precision GPS dynamic measure
GNSS-SDRLIB-master
- ?用C代码编写的GNSS信号处理功能 信号采集/跟踪 ?解码导航消息 ?伪距/载波相位测量(GNSS signal processing functions written in C code generations Signal acquisition / tracking Decoding navigation messages Pseudo-range / carrier phase mesurements)