Before you begin
- Labs create a Google Cloud project and resources for a fixed time
- Labs have a time limit and no pause feature. If you end the lab, you'll have to restart from the beginning.
- On the top left of your screen, click Start lab to begin
Create the lab resources
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Create the Cloud Build Triggers
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Deploy the first versions of the application
/ 20
Deploy the second versions of the application
/ 20
Roll back the production deployment
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Create the lab resources
/ 20
Create the Cloud Build Triggers
/ 20
Deploy the first versions of the application
/ 20
Deploy the second versions of the application
/ 20
Roll back the production deployment
/ 20
In a challenge lab you’re given a scenario and a set of tasks. Instead of following step-by-step instructions, you will use the skills learned from the labs in the course to figure out how to complete the tasks on your own! An automated scoring system (shown on this page) will provide feedback on whether you have completed your tasks correctly.
When you take a challenge lab, you will not be taught new Google Cloud concepts. You are expected to extend your learned skills, like changing default values and reading and researching error messages to fix your own mistakes.
To score 100% you must successfully complete all tasks within the time period!
This lab is recommended for students enrolled in the Implement DevOps Workflows in Google Cloud course. Are you ready for the challenge?
Read these instructions. Labs are timed and you cannot pause them. The timer, which starts when you click Start Lab, shows how long Google Cloud resources are made available to you.
This hands-on lab lets you do the lab activities in a real cloud environment, not in a simulation or demo environment. It does so by giving you new, temporary credentials you use to sign in and access Google Cloud for the duration of the lab.
To complete this lab, you need:
As a recent hire as a DevOps Engineer for Cymbal Superstore a few months ago, you have learned the ins and outs of how the company operates its e-commerce website. Specifically, the DevOps team is working on a large scale CI/CD pipeline that they would like your assistance with building. This allows the company to help developers automate tasks, collaborate more effectively with other teams, and release software more frequently and reliably. Your experience with Git, Artifact Registry, Docker, and Cloud Build is going to be a large help since Cymbal Superstore would like to use native Google Cloud Services and modern DevOps practices for their pipeline.
Before you start this project, the DevOps team would like you to demonstrate your new skills. As part of this demonstration, they have a list of tasks they would like to see you do in an allotted period of time in a sandbox environment.
Your tasks include the following:
Overall, you are creating a simple CI/CD pipeline using a Git repository on a dedicated Git server, Artifact Registry, and Cloud Build.
In this section, you initialize your Google Cloud project for the demo environment. You obtain environment variables, enable the required APIs, configure Git in Cloud Shell, create an Artifact Registry Docker repository, and create a GKE cluster to run your production and development applications on.
Create an Artifact Registry Docker repository named my-repository in the
Create a GKE Standard cluster named hello-cluster with the following configuration:
| Setting | Value |
|---|---|
| Zone | |
| Release channel | Regular |
| Cluster version |
1.29 or newer
|
| Cluster autoscaler | Enabled |
| Number of nodes | 3 |
| Minimum nodes | 2 |
| Maximum nodes | 6 |
prod and dev namespaces on your cluster.Click Check my progress to verify the objective.
In this task, you initialize the repository sample-app on your dedicated Git server (git-server) and push the initial sample code. This repository holds your Go application code and is the primary source for builds.
sample-app directory:<your-region> and <your-zone> placeholders with the assigned region and zone of your project, and initialize the container image version to v1.0 in the cloudbuild-dev.yaml and cloudbuild.yaml files:sample-app directory, make your first commit with the sample code, and push the changes to the master branch of your Git server:sample-app directory, and push the changes to the dev branch:The code you just cloned contains a simple Go application that has two entry points: Red and Blue. Each displays a simple colored square on the web page depending on the entry point you go to.
In this section, you create two Cloud Build Triggers.
The first trigger named sample-app-prod-deploy builds your application container image using the cloudbuild.yaml configuration file and deploys it to the prod namespace in your GKE cluster.
The second trigger named sample-app-dev-deploy builds your application container image using the cloudbuild-dev.yaml configuration file and deploys it to the dev namespace in your GKE cluster.
After setting up the triggers, you can run the corresponding Cloud Build pipeline, which builds and deploys the application as specified in the cloudbuild.yaml and cloudbuild-dev.yaml files.
Click Check my progress to verify the objective.
In this section, you build the first version of the production application and the development application.
In Cloud Shell, inspect the cloudbuild-dev.yaml file located in the sample-app directory to see the steps in the build process, and confirm that the image version is set to v1.0.
Navigate to the dev/deployment.yaml file and update the <todo> on line 17 with the correct container image name. Also, replace the PROJECT_ID variable with actual project ID in the container image name.
dev branch and push changes to the Git server:Verify your build executed successfully in Cloud Build History page, and verify the development-deployment application was deployed onto the dev namespace of the cluster.
Expose the development-deployment deployment to a LoadBalancer service named dev-deployment-service on port 8080, and set the target port of the container to the one specified in the Dockerfile.
Navigate to the Load Balancer IP of the service and add the /blue entry point at the end of the URL (or run curl -I http://${DEV_LB_IP}:8080/blue in Cloud Shell) to verify the application is up and running with a 200 OK response. It should resemble something like the following: http://34.135.97.199:8080/blue.
Switch to the master branch. Inspect the cloudbuild.yaml file located in the sample-app directory to see the steps in the build process, and confirm that the image version is set to v1.0.
Navigate to the prod/deployment.yaml file and update the <todo> on line 17 with the correct container image name. Also, replace the PROJECT_ID variable with actual project ID in the container image name.
master branch and push changes to the Git server:Verify your build executed successfully in Cloud Build History page, and verify the production-deployment application was deployed onto the prod namespace of the cluster.
Expose the production-deployment deployment on the prod namespace to a LoadBalancer service named prod-deployment-service on port 8080, and set the target port of the container to the one specified in the Dockerfile.
Navigate to the Load Balancer IP of the service and add the /blue entry point at the end of the URL (or run curl -I http://${PROD_LB_IP}:8080/blue in Cloud Shell) to verify the application is up and running with a 200 OK response. It should resemble something like the following: http://34.135.245.19:8080/blue.
Click Check my progress to verify the objective.
In this section, you build the second version of the production application and the development application.
dev branch.main.go file, update the main() function to the following:main.go file:Inspect the cloudbuild-dev.yaml file to see the steps in the build process. Update the version of the Docker image to v2.0.
Navigate to the dev/deployment.yaml file and update the container image name to the new version (v2.0).
Make a commit with your changes on the dev branch and push changes to the Git server:
Verify your build executed successfully in Cloud Build History page, and verify the development-deployment application was deployed onto the dev namespace of the cluster and is using the v2.0 image.
Navigate to the Load Balancer IP of the service and add the /red entry point at the end of the URL (or run curl -I http://${DEV_LB_IP}:8080/red in Cloud Shell) to verify the application is up and running with a 200 OK response. It should resemble something like the following: http://34.135.97.199:8080/red.
master branch.main.go file, update the main() function to the following:main.go file:Inspect the cloudbuild.yaml file to see the steps in the build process. Update the version of the Docker image to v2.0.
Navigate to the prod/deployment.yaml file and update the container image name to the new version (v2.0).
Make a commit with your changes on the master branch and push changes to the Git server:
Verify your build executed successfully in Cloud Build History page, and verify the production-deployment application was deployed onto the prod namespace of the cluster and is using the v2.0 image.
Navigate to the Load Balancer IP of the service and add the /red entry point at the end of the URL (or run curl -I http://${PROD_LB_IP}:8080/red in Cloud Shell) to verify the application is up and running with a 200 OK response. It should resemble something like the following: http://34.135.245.19:8080/red.
Great! You have successfully created fully functioning production and development CI/CD pipelines.
Click Check my progress to verify the objective.
In this section, you roll back the production deployment to a previous version.
v1.0 version of the application./red entry point at the end of the URL of the production deployment (or run curl -I http://${PROD_LB_IP}:8080/red in Cloud Shell) and the response should be 404 Not Found.Click Check my progress to verify the objective.
Congratulations! In this lab you verified your skills on implementing DevOps workflows in Google Cloud. You first created a GKE cluster to run your application and a Git repository on your dedicated Git server to host your code base. You then created Cloud Build Triggers, modified the code and the templates, and pushed updates to the repo that created your first development and production application builds. You then pushed updates to the application to create new builds, and rolled back the production application to a previous version. You are now ready to start DevOps work in your own environment!
This self-paced lab is part of the Implement DevOps Workflows in Google Cloud course. Completing this skill badge course earns you the badge above, to recognize your achievement. Share your badge on your resume and social platforms, and announce your accomplishment using #GoogleCloudBadge.
This skill badge is part of Google Cloud’s Cloud Devops Engineer learning path. Continue your learning journey by enrolling in the Monitor and Log with Google Cloud Observability course.
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Manual Last Updated September 3, 2026
Lab Last Tested September 3, 2026
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