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Apply Kalman filtering techniques to estimate the temporal alignment between RGB and depth frames. Utilize the predicted alignment to adjust the timing of one of the streams for synchronization.
Use compression standards like JPEG or PNG for RGB images and compression algorithms like run-length encoding or delta encoding for depth data.
Utilize techniques like blob detection, edge detection, or texture analysis to extract meaningful features.
Normalize depth values to a consistent range to improve comparability between frames and scenes. Techniques such as min-max normalization or z-score normalization can be used depending on the application.
Experiment with using depth sensor data for foreground isolation within OpenCV
Apply appropriate filters to reduce noise in both RGB and depth images. Common filters include Gaussian or median filters.
Consider using adaptive filtering techniques that adjust filter parameters based on local image characteristics.
Perform depth map enhancement techniques to improve depth perception, such as edge-preserving smoothing or hole filling algorithms.
Consider techniques like bilateral filtering or guided filtering to preserve depth edges while smoothing.
Ensure proper alignment of RGB and depth images through calibration and registration processes.
Use techniques like feature-based registration or intensity-based registration to align the two modalities accurately.
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Combining depth sensing with OpenCV color filter for even more accurate object detection
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