C# (CSharp)

Hey, I've been looking to get into C# programming for a while now, and self-teaching and free internet resources haven't really worked for me. Are there any programing workbooks that you've used to learn C#? I'm using Linux Mint if that affects which IDEs I would be able to use.

Found this while researching how this fediverse thing works. ActivityStreams provide the vocabulary for interacting with Activitypub, which is the protocol the fediverse uses.

I wrote this blog a while ago, because it was a topic which was confusing and fascinating to learn. Since then, I've had a couple of other occasions when I've had to do similar things, and I've found myself looking back at what I wrote and using it as a reference. Hopefully some other people on here will also find it useful!

Hey - refugee from /r/csharp here, looking to find a Lemmy equivalent. But this place looks dead? Is there a C# community on Lemmy anywhere?

C# capabilities keep expanding from year to year. New features enrich software development. However, their advantages may not always be so obvious. For example, the good old yield. To some developers, especially beginners, it's like magic - inexplicable, but intriguing. This article shows how yield works and what this peculiar word hides. Have fun reading!

PVS-Studio is a static analyzer that allows to find many problems hidden in the source code. Among them there are also errors related to application security. For example, the analyzer has recently learned to identify the presence of confidential data such as passwords in the code. The OWASP Top Ten list includes this potential vulnerability. It is much more dangerous than it may seem at first glance. What makes it so dangerous? How can a static analyzer save us from it? That's what you'll know about (and more) in this article!

Surely every C# developer has used out-parameters. It seems that everything is extremely simple and clear with them. But is it really so? For a kickoff, let's start with a self-test task.

In PVS-Studio, we often check various compilers' code and post the results in our blog. Decompiler programs, however, seem to be a bit neglected. To restore justice in this world, we analyzed the ILSpy decompiler's source code. Let's take a look at the peculiar things PVS-Studio found.

The PVS-Studio analyzer is regularly updated with new diagnostic rules. Curiously enough, diagnostics often detect suspicious code fragments before the end of the work. For example, such a situation may happen while testing on open-source projects. So, let's take a look at one of these interesting finding.

This tough year, 2020, will soon be over at last, which means it's time to look back at our accomplishments! Over the year, the PVS-Studio team has written quite a number of articles covering a large variety of bugs found in open-source projects with the help of PVS-Studio. This 2020 Top-10 list of bugs in C# projects presents the most interesting specimens. Enjoy the reading!

This article discusses errors found using a static analyzer in an open source project. There are some simple things that can help you avoid them. For example, the usage of language syntactic constructs starting from C# 8.0. We hope it will be exciting. Have fun reading!

Recently nullable reference types have become trendy. Meanwhile, the good old nullable value types are still here and actively used. How well do you remember the nuances of working with them? Let's jog your memory or test your knowledge by reading this article. Examples of C# and IL code, references to the CLI specification, and CoreCLR code are provided. Let's start with an interesting case.

Have you ever wanted to get rid of the problem with dereferencing null references? If so, using Nullable Reference types is not your choice. Do you want to know why? This will be our topic today.

Do you like GitLab and don't like bugs? Do you want to improve the quality of your source code? Then you've come to the right place. Today we will tell you how to configure the PVS-Studio C# analyzer for checking merge requests. Enjoy the reading and have a nice unicorn mood.

PVS-Studio is a well-known static code analyzer that allows you to find a lot of tricky errors hidden in the source code. It is now possible to analyze C# projects under Linux and macOS. The tool can also be integrated into the cross-platform IDE from JetBrains - Rider. This article will help you to get acquainted with these features using the example of checking the open source RavenDB project.

This article coincides with the beta testing start of PVS-Studio C# for Linux, as well as the plugin for Rider. For such a wonderful reason, we checked the source code of the Nethermind product using these tools. This article will cover some distinguished and, in some cases, funny errors.

C# 9.0 is taking shape, and I’d like to share our thinking on some of the major features we’re adding to this next version of the language.

Due to a series of different events, the beginning of beta testing of the plugin for the Rider and C# analyzer for Linux / macOS was a little delayed. However, we are pleased to announce that this day has come — today we are launching the beta test.

Emby is quite a popular media server along with Plex and Kodi. In this article, we'll discuss the bugs found in its source code with the static analyzer PVS-Studio. The remark "Built with ReSharper" on the project's official website makes the analysis even more interesting.

Hi to all fans of bugs! The New Year is coming soon, so it is time to take stock of the the outgoing year. By tradition, we're glad to present the top list of errors found by the PVS-Studio team in open C# projects in 2019. Ready? Then let's get going.

Empower you frontend applications with C# — Mono Wasm

We’re excited to announce the release of .NET Core 3.1. It’s really just a small set of fixes and refinements over .NET Core 3.0, which we released just over two months ago. The most important feature is that .NET Core 3.1 is an long-term supported (LTS) release and will be supported for three years. As we’ve done in the past, we wanted to take our time before releasing the next LTS release. The extra two months (after .NET Core 3.0) allowed us to select and implement the right set of improvements over what was already a very stable base. .NET Core 3.1 is now ready to be used wherever your imagination or business need takes it.

Several years ago, we decided that it was time to support SIMD code in .NET. We introduced the System.Numerics namespace with Vector2, Vector3, Vector4, Vector, and related types. These types expose a general-purpose API for creating, accessing, and operating on them using hardware vector instructions (when available). They also provide a software fallback for when the hardware does not provide the appropriate instructions. This enabled a number of common algorithms to be vectorized, often with only minor refactorings. However, the generality of this approach made it difficult for programs to take full advantage of all vector instructions available on modern hardware. Additionally, modern hardware often exposes a number of specialized non-vector instructions that can dramatically improve performance. In this blog post, I’m exploring how we’ve addressed this limitation in .NET Core 3.0.