Inertial Navigation Solution Using Gyroscope and Accelerometer Outputs
Implementing inertial navigation algorithms to compute aircraft position, velocity, and attitude angles by processing gyroscope and accelerometer measurements
Explore MATLAB source code curated for "位置" with clean implementations, documentation, and examples.
Implementing inertial navigation algorithms to compute aircraft position, velocity, and attitude angles by processing gyroscope and accelerometer measurements
This program calculates the band gap of two-dimensional photonic crystals and generates the band gap diagram along with the precise positions and widths of the band gaps using electromagnetic eigenmode analysis and frequency-domain computation methods.
This method employs wavelet denoising techniques to detect the presence and precise location of radar echoes, enhancing signal clarity through advanced noise reduction algorithms and wavelet coefficient thresholding implementations.
Target Tracking and Localization - Including Position, Velocity, and Acceleration Tracking Curves
This is a complete implementation version including calling files. The entire video can be represented using feature sets computed at different scales and positions. The Hog3D descriptor, proposed by Alexander Klaser, Marcin Marszałek, Cordelia Schmid, and colleagues, extends the HOG concept from static image feature extraction to video sequence feature extraction, achieving excellent results in pedestrian detection within video sequences. The implementation typically involves 3D gradient computation and spatiotemporal block normalization.
MATLAB program for calculating GPS satellite positions over 24-hour periods, featuring orbital mechanics algorithms and practical implementation details developed through extensive research and coding effort.
A nine-dimensional Kalman filter tracking algorithm that simultaneously estimates position, velocity, and acceleration components along x, y, and z axes.
Computes GPS satellite position and velocity using ephemeris data and specified time parameters, implementing orbital mechanics algorithms for precise navigation solutions.
Matching main images with sub-images and locating their corresponding positions using image processing techniques
MFAC control implementation for permanent magnet linear motors with velocity and position tracking capabilities using model-free adaptive algorithms