brand | Brand and design assets | Content Management System library

C# 10.0 introduces a new feature called global using directive (global using ;) which allows to specify namespaces to be implicitly imported in all files in the compilation. .NET 6 RC1 has this feature enabled by default in new project templates (see enable property in your .csproj).

For Microsoft.NET.Sdk.Web next namespaces should be implicitly imported (plus the ones from Microsoft.NET.Sdk):

• System.Net.Http.Json
• Microsoft.AspNetCore.Builder
• Microsoft.AspNetCore.Hosting
• Microsoft.AspNetCore.Http
• Microsoft.AspNetCore.Routing
• Microsoft.Extensions.Configuration
• Microsoft.Extensions.DependencyInjection
• Microsoft.Extensions.Hosting
• Microsoft.Extensions.Logging

UPD

To address your questions in comment:

At the moment of writing the generated file containing default imports will be inside the obj folder named something like ProjectName.GlobalUsings.g.cs.

To modify default imports you can add Using element to your .csproj file. Based on exposed attributes it allows several actions including addition and removal:

Polyfilling the Node globals and modules enables the web3 import to run in the browser:

1. Install the ESBuild plugins that polyfill Node globals/modules:

I think actually a more efficient way would be to sort by Brand and then Year, and then use interpolate:

Got the fix from karma maintainers:

Update karma (in package.json > devDependencies.karma) to ^6.3.12.

Warnings gone. Well done, karma. That was fast!

There are quite a few changes from Strapi V3 to Strapi V4 when it comes to initializing a Strapi application's APIs. The most important changes are how Strapi populates the KOA routes, and how to make requests to the http server.

To populate the KOA routes use

I ran into this also. Not sure why, but they yanked the 7.x versions and regressed to 0.8.x:

https://rubygems.org/gems/turbo-rails/versions/7.1.1

Just add this to your Gemfile:

Here you have a working example:

There are 2 different Event Loops:

1. Browser Event Loop
2. NodeJS Event Loop

The Event Loop is a process that runs continually, executing any task queued. It has multiple task sources which guarantees execution order within that source, but the Browser gets to pick which source to take a task from on each turn of the loop. This allows Browser to give preference to performance sensitive tasks such as user-input.

There are a few different steps that Browser Event Loop checks continuously:

• Task Queue - There can be multiple task queues. Browser can execute queues in any order they like. Tasks in the same queue must be executed in the order they arrived, first in - first out. Tasks execute in order, and the Browser may render between tasks. Task from the same source must go in the same queue. The important thing is that task is going to run from start to finish. After each task, Event Loop will go to Microtask Queue and do all tasks from there.

• Microtasks Queue - The microtask queue is processed at the end of each task. Any additional microtasks queued during during microtasks are added to the end of the queue and are also processed.

• Animation Callback Queue - The animation callback queue is processed before pixels repaint. All animation tasks from the queue will be processed, but any additional animation tasks queued during animation tasks will be scheduled for the next frame.

• Rendering Pipeline - In this step, rendering will happen. The Browser gets to decide when to do this and it tried to be as efficient as possible. The rendering steps only happen if there is something actually worth updating. The majority of screens update at a set frequency, in most cases 60 times a second (60Hz). So, if we would change page style 1000 times a second, rendering steps would not get processed 1000 times a second, but instead it would synchronize itself with the display and only render up to a frequency display is capable of.

Important thing to mention are Web APIs, that are effectively threads. So, for example setTimeout() is an API provided to us by Browser. When you call setTimeout() Web API would take over and process it, and it will return the result to the main thread as a new task in a task queue.

The best video I found that describes how Event Loops works is this one. It helped me a lot when I was investigating how Event Loop works. Another great videos are this one and this one. You should definitely check all of them.

NodeJS Event Loop allows NodeJS to perform non-blocking operations by offloading operation to the system kernel whenever possible. Most modern kernels are multi-threaded and they can perform multiple operations in the background. When one of these operations completes, the kernel tells NodeJS.

Library that provides the Event Loop to NodeJS is called Libuv. It will by default create something called Thread Pool with 4 threads to offload asynchronous work to. If you want, you can also change the number of threads in the Thread Pool.

NodeJS Event Loop goes through different phases:

• timers - this phase executes callbacks scheduled by setTimeout() and setInterval().

• pending callbacks - executes I/O callbacks deferred to the next loop iteration.

• idle, prepare - only used internally.

• poll - retrieve new I/O events; execute I/O related callbacks (almost all with the exception of close callbacks, the ones scheduled by timers, and setImmediate()) Node will block here when appropriate.

• check - setImmediate() callbacks are invoked here.

• close callbacks - some close callbacks, e.g. socket.on('close', ...).

Between each run of the event loop, Node.js checks if it is waiting for any asynchronous I/O or timers and shuts down cleanly if there are not any.

In Browser, we had Web APIs. In NodeJS, we have C++ APIs with the same rule.

I found this video to be useful if you want to check for more information.

You can always try to keep it as semantic as possible. Your approach using map is not a bad idea, it's just that you actually lose the access to your data. It's probably better to split it up in two Observables: