With a high latency and high performance analyzer, blocking mode with a When dealing with very brief system jitters. Blocking mode can still be helpful in some scenarios, such as (16ms for 60fps, for example), either operating mode provides a smooth overallĮxperience. With a low latency and high performance analyzer where the total time toĪnalyze an image is less than the duration of a CameraX frame You can also configure the image queue depth by using You can enable blocking mode is enabled by passing Then preview would also be blocked while CameraX is processing the images. ForĮxample, when both preview and image analysis are bound to a Camera device, The blocking occurs across the entire camera device scope: if theĬamera device has multiple bound use cases, those uses cases will all beīlocked while CameraX is processing these images. To the internal image queue and begins dropping frames only when the queue isįull. You can enable this non-blocking mode by callingįor more information on executor implications, see the referenceīlocking: In this mode, the internal executor can add multiple images This scenario, and the buffer contents are always overwritten. New image is saved to the same buffer, overwriting the previous image. Receives a new image before the application finishes processing, the While the application analyzes the previous image. Latest image into an image buffer (similar to a queue with a depth of one) Non-blocking (default): In this mode, the executor always caches the
Rate requirements, CameraX can be configured to drop frames in one of the following ways: When the application's analysis pipeline can't keep up with CameraX's frame Perform image processing, computer vision, or machine learning inference. Use case provides your app with a CPU-accessible image on which you can
0 kommentar(er)
