shady | CLI tool to render GLSL shaders | Game Engine library

Absolutely. One way to demonstrate which words have the greatest impact is through integrated gradients methods. For PyTorch, one package you can use is Captum. I would check out this page for a good example: https://captum.ai/tutorials/IMDB_TorchText_Interpret

For Tensorflow, one package that you can use is Seldon. I would check out this page for a good example: https://docs.seldon.io/projects/alibi/en/stable/examples/integrated_gradients_imdb.html

You're looking for something like this:

The scope of response is in .done() so you will not be able to access it outside. If you want to access the ajax response on keyup event. You need to declare a global variable and set it in .done().

Finally found a solution. I recursively iterate every element and count children of each element. At the end of the loop, the element with the most children becomes the main element. Here's the code:

so the problem wasn't with the @import syntax. it was rollup not handling global resources files.

the solution was to remove the import './index.scss' from index.ts and just use this package

https://github.com/hytromo/rollup-plugin-postcss-retain-sass-data#readme

The problem lies on this line:

I analyzed your site and found no virus.

I noticed that you are using disqus on your site, I am almost sure that these ads came from the disqus that, unfortunately, inject ads without our permission, generally unwanted or deceptive low quality ads that can even hinder users' navigation.

Take the test, disable DISQUS from your site and see if the ads disappear.

unfortunately I have not found another way to disable these ads if not buying the subscription where you can disable the ads.

Disable obfuscation caused by minified javascript, updating the android build.gradle like this:

First it's important to understand: if you update screen content at intervals that are not an integer multiple of the monitor's physical refresh period, you're bound to get temporal artifacts of one type or another. If it's important to avoid temporal artifacts, the only good solution is to not drive your monitor at 144Hz—instead, go into your "Displays" control-panel and tell your operating system to actually drive it at 90Hz. If your hardware/drivers don't support this, then it's going to be a case of "pick your poison".

Poison A is to have the frame-update code run every 1/90 of a second on-the-dot whether the screen is physically ready or not. In this case you'll buy extra time to perform rendering (draw more/bigger stimuli) but, regardless of whether you needed that extra time or not, you'll inevitably get visual "tearing" artifacts as the screen is out of synch with VRAM.

Poison B is to dither the scheduling of the frames, so that updates are sometimes one physical frame apart (1/144 of a second) and sometimes two physical frames (2/144 of a second), averaging out to 1/90. In this case you won't get tearing, but animation will likely be jerky and irregular-looking. Also, in the shorter-duration frames, you're not getting any extra time for rendering, which may defeat the purpose.

Both of these are undesirable in nearly all the use-cases for which Shady was conceived, so Shady doesn't offer any pre-packaged solution for doing this. Below is a listing that accomplishes either solution, depending on whether you run it with --allowTearing or not. I set the default to --fps=40, an arbitrary target less than 60 so that I could test it on my 60Hz setup; obviously you would want to run with --fps=90.

Both solutions do involve a sleep() in Python (there would be no point in hacking something more-precise in the lower levels: the sleep is the least-awful of the problems with all of this). The difference between them is just w.SetSwapInterval(0), the effect of which is to make the rendering code run as fast as it can without caring about physical screen timing at all (NB: this setting may actually be ignored on some graphics drivers, in which case you're stuck with Poison B).