Yazılım geliştirme süreçleThe developer experience engineering team at GitHub works on creating safe, delightful, and inclusive solutions for GitHub engineers to efficiently code, ship, and operate software–setting an example for the world on how to build software with GitHub. To achieve this we provide our developers with a paved path–a comprehensive suite of automated tools and applications to streamline our runtime platforms, deployment, and hosting that helps power some of the microservices on the GitHub.com platform and many internal tools. Let’s take a deeper look at how one of our main paved paths works. Our development ecosystem GitHub’s main paved path covers everything that’s needed for running software–creating, deploying, scaling, debugging, and running applications. It is an ecosystem of tools like Kubernetes, Docker, load balancers, and many custom apps that work together to create a cohesive experience for our engineers. It isn’t just infrastructure and isn’t just Kubernetes. Kubernetes is our base layer, and the paved path is a mix of conventions, tools, and settings built on top of it. The kind of services that we typically run using the paved path include web apps, computation pipelines, batch processors, and monitoring systems. Kubernetes, which is the base layer of the paved path, runs in a multi-cluster, multi-region topology. Benefits of the paved path There are hundreds of services at GitHub–from a small internal tool to an external API supporting production workloads. For a variety of reasons, it would be inefficient to spin up virtual machines for each service. Planning and capacity usage across all services wouldn’t be efficient. We would encounter significant overhead in managing both physical and Kubernetes infrastructure on an ongoing basis. Teams would need to build deep expertise in managing their own Kubernetes clusters and would have less time to focus on their application’s unique needs. We would have less central visibility of applications. Security and compliance would be difficult to standardize and enforce. With the paved path based on Kubernetes and other runtime apps, we’re instead able to: Plan capacity centrally and only for the Kubernetes nodes, so we can optimally use capacity across nodes, as small workloads and large workloads coexist on the same machines. Scale rapidly thanks to central capacity planning. Easily manage configuration and deployments across services in one central control plane. Consistently provide insights into app and deployment performance for individual services. Onboarding a service Onboarding a service with the code living in its own repository has been made easy with our ChatOps command service, called Hubot, and GitHub Apps. Service owners can easily generate some basic scaffolding needed to deploy the service by running a command like: hubot gh-platform app scaffold monalisa-app A custom GitHub App installed on the service’s GitHub repository will then automatically generate a pull request to add the necessary configurations, which includes: A deployment.yaml file that defines the service’s deployment environments. Kubernetes manifests that define Deployment and Service objects for deploying the service. A Debian Dockerfile that runs a trivial web server to start off with, which will be used by the Kubernetes manifests. Setting up CI builds as GitHub Checks that build the Docker images on every push, and store in a container registry ready for deployment. Each service that is onboarded to the paved path has its unique Kubernetes namespace that is defined by - and generally has a staging and production environment. This helps separate the workloads of multiple services, and also multiple environments for the same service since each environment gets its own Kubernetes namespace.rinde takip edilmesi gereken en iyi pratiklerden bahsediyoruz. Kodlama standartları, ekip içi iletişim ve sürekli öğrenme bu süreçlerin bir parçasıdır.Copying the branch name Now when selecting a branch, you’ll be able to copy the branch name to your clipboard. You’ll will see a check mark after successfully copying the branch name. Improvements to the diff editor The scrolling experience has been improved, allowing you to scroll through all your files at once instead of each file individually. We’ve enabled collapsing regions outside the diff, and are showing 3 lines of context padding the diff. We’ve enabled word wrapping within the editor. Bug fixes Empty files now display correctly Fixed a bug during plan creation that was causing Copilot Workspace to crash No longer does renaming the spec question include a scroll bar Fixed an issue where renamed files did not update all references across the plan, tabs, and editor. Now when you rename a file you will see that name change reflected everywhere. Copilot Workspace for PRs New file path auto-populating Adding new files will auto-populate the path, making it easier to add new files to your repository. Individual file resets You can now reset individual files, rather than having to reset the state of all changes. Hiding trailing whitespace We’ve enabled an option for you to hide whitespace when viewing a diff. showing trailing whitespace and then hiding it Add indication when suggestion cannot be applied We now alert you when a suggestion can’t be applied. photo-of-improved-file-handler Accessibility improvements Accessibility continues to be core to the GitHub experience. Over the upcoming changelogs we’ll be highlighting improvements to our accessibility experience. User operating system specific hints on keyboard shortcuts are enabled A missing checkbox label on commit dialog has been added Screen reader feedback on suggestions are now applied Bug fixes Copilot Workspace now informs users if a file is too large to be viewed Changing files is enabled when focusing on a suggestion Suggestions that would be applied to files you have removed are now deleted Providing Feedback Please give feedback in our GitHub Discussion. We appreciate any and all feedback you have!