planck | Stand-alone ClojureScript REPL | Code Editor library

I want to list all the full path of the files under a folder and all its subfolders recursively. Is there a way to do it? It seems that if the files go into 2 levels, the code can be written like is,

I'd like to plot some data in Python using two different x-axes. For ease of explanation, I will say that I want to plot light absorption data, which means I plot absorbance vs. wavelength (nm) or energy (eV). I want to have a plot where the bottom axis denotes the wavelength in nm, and the top axis denotes energy in eV. The two are not linearly dependent (as you can see in my MWE below).

My full MWE:

The website I am trying to scrape is https://plancke.io/hypixel/player/stats/gamerboy80#BedWars. This website contains two

I'm writing a C++ wxWidgets calculator application. I have this header file where I declare the various operations and constants that my app supports. When I try to compile, I get 258 LNK2005 errors, such as:

Error LNK2005 "bool __cdecl isBinary(class wxString)" (?isBinary@@YA_NVwxString@@@Z) already defined in app.obj C:\Users\giorg\Desktop\Visual Studio\wxWidgetsTest\wxWidgetsTest\events.obj 1 ikeCalculator

Error LNK2005 "class wxString unary::tan" (?tan@unary@@3VwxString@@A) already defined in app.obj C:\Users\giorg\Desktop\Visual Studio\wxWidgetsTest\wxWidgetsTest\events.obj 1 ikeCalculator

And so on for everything in this file. There seems to be an error for every time one of these objects is referenced in other files.

I've been asked in an exercise to find out how many years did all the inventors live in one number using "Array.prototype.reduce()"

Can anyone tell me what is wrong with this code? It is from https://jakevdp.github.io/blog/2012/09/05/quantum-python/ . Everything in it worked out except the title of the plot.I can't figure it out.

It should look like this

but when the code is run, it polts this

Here is the code given:-

I want to do a plot of this equation below:

Problem 1: You see... since my function is a function of ν I have to calculate my integral to each ν in my domain. My question is: what is the best way to do that?

I thought about using scipy to do the integral and a for loop to calculate it several times to each ν, but it seems a very inelegant way to solve my problem. Does someone know a better alternative? Does someone have a different idea?

Problem 2: When I write my code I get some errors, mainly because I think that the exponential has a very small expoent. Do you have any ideas of how should I change it so I can do this plot using Python?

Oh, if you try with a different method, it is supposed to look like this

Here is the code I was working on. I'm coming back to Python now, so maybe there is some errors. The plot I'm getting is very different from the one that this is supposed to look.

I'm using HEALPy's anafast to extract the Cl's from Planck maps, either the data map [1], or the simulation maps. It seems that even after I apply their Intensity common mask [2], I got a power spectrum that's about five times larger than their release [3].

I have X, Y and Z-axis data from an accelerometer sensor. I want to use the accelero(X) data to visualize a car in 2D. This is how the data look like.

This is a sample of the data:

The link for the full data is below:

Click here to download the dataset

The car model looks like that in 2D space:

The car only move up or down according to the input data from the file.

I tried to lookup Three.Js, Phaser.Js, Planck.Js, Matter.Js, Phyics.Js and other gaming engines. But I am looking for something really simple as a starting point without the need to use fancy gravity, physics functions, but at the same time the model should be convincing and smooth.

So can someone direct in the right path? How to do it? which library is best to perform this task? Is there an already implemented code that I use and modify according to my need?

I have been working on some code using the aformentioned libraries, for that reason, I didn't post the code here, as I am looking for an easier and simpler solution.

Much appreciated.