Pitch | repository contains source code of Pitch Android app | Android library

I wanted to change the pitch of all audio

If you want to change the pitch of any song at runtime you can simply use the source of type AudioSource that is saved in the sound class and edit it's values directly.

If you then do this as a foreach loop, in your soundManager class, with each song in your array, you can pitch down all of them.

Change All Pitch Values:

Try passing pickingHotspot in your dependency array for useEffect.

Your event handler is attached to your element in the useEffect on componentDidMount because of the empty dependency array. This will only happen once and that old function will be used. That old function will close over the value of the previous state. You can attach your event handler again on every relevant state change by passing pickHotSpot in your dependency array.

It is also a recommended approach to keep all your relevant code inside the hook. You could have put your listener function inside your hook, and would have seen a missing dependency warning from one of your lint tools.

Also, if there is no specific reason for you to add event hanlder like this from javascript, then add inline usin JSX, like @MB__ suggested. That will be executed on every render so it should be correct. At any time only one eventhandler for the particular event will be attached.

You can target the href and get the results you want.

It's strange that no one could answer this question. So I finally figured out how to make it by myself.

The solution is in the following link.

The primary reason was that mapbox plots things not based on its vector configuration. It renders things through its matrix as follows.

var m = new THREE.Matrix4().fromArray(matrix); var l = new THREE.Matrix4().makeTranslation(modelTransform.translateX, modelTransform.translateY, modelTransform.translateZ) .scale(new THREE.Vector3(modelTransform.scale, -modelTransform.scale, modelTransform.scale))

Here is an example on how to offset the marker by 10 meters distance from your current position and to change the POV heading so that it faces the Marker.

Sounds like a better solution than to offset your own position, as doing so might end up somewhere where there is no Street View imagery available...

Note that you must include the Geometry library when loading the API script:

https://maps.googleapis.com/maps/api/js?libraries=geometry

The purpose of all the calculations presented below is: to determine the maximum scroll value of the RichTextBox for working with the custom scrollbar.

Useful materials / tips:

1. To find out the value that the standard scrollbar receives while scrolling, use the Microsoft Spy++ program;
2. Absolute Difference Calculator: https://calculatorpack.com/absolute-difference-calculator.

Determine the maximum vertical scroll value:

NOTE: (code works correctly if you don't scale the RichTextBox contents).

If you need the markers to be visible on both the map and on Street View, just create the markers on map and panorama.

See my comments in the code. I also modified the center point and pano heading so that a Marker is in view when loaded.

Your GTX770 GPU is a "Kepler" architecture compute capability 3.0 device. These devices were deprecated during the CUDA 10 release cycle and support for them dropped from CUDA 11.0 onwards

The CUDA 10.2 release is the last toolkit with support for compute 3.0 devices. You will not be able to make CUDA 11.0 or newer work with your GPU. The query and bandwidth tests use APIs which don't attempt to run code on your GPU, that is why they work where any other example will not work.

Calibration using a single view is a poor idea, generally speaking, because of the small number of independent samples it entails, so it is possible that tolerance on the calibration grid manufacture be the least of your worries. But if you must...

The controlling factor here is the sensor's dot pitch. Given the nominal focal length of your lens, and that you want your calibration RMSE to be order of a few tenths of pixel, you can work out the angle spanned by, say, 1/10 of a pixel along the sensor's horizontal axis. Back projecting that at the nominal distance between the lens's exit pupil and the target will give you a length in 3D world that measures the uncertainty in a target's corner location at the calibration optimum. Your physical target points should be known at least as accurately, and normally better.

Example: Setup: Dot pitch 5um, 16mm focal lens, 200mm working distance to target.

• Backprojected 1/10 pixel: 200/16*0.5um =~ 6um.
• Backprojected 1/2 pixel : 200/16*2.5um =~ 31um.

You can loosen that if you assume perfect Chi-square scaling of the errors with the square root of the number of the data points. If you have, say, 100 corners, you can multiply that by 10, i.e. ~ 300um for 1/2 pixel

Note that with this kind of tolerances temperature control (for camera and target) may become a factor to keep into account.