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| Certification Vendor: | Linux Foundation |
|---|---|
| Exam Name: | Certified Kubernetes Application Developer (CKAD) Exam |
| Exam Number: | CKAD |
| Exam Format: | Command-line based, Performance-based, Hands-on tasks |
| Related Certifications: | Certified Kubernetes Administrator (CKA) Certified Kubernetes Security Specialist (CKS) |
| Certificate Validity Period: | 2 years |
| Exam Price: | $445 USD |
| Exam Duration: | 120 minutes |
| Passing Score: | 66% |
| Available Languages: | English, Simplified Chinese, Japanese |
| Real Exam Qty: | 15-20 |
| Recommended Training: | Kubernetes for Developers (LFD259) Introduction to Kubernetes |
| Exam Registration: | Official Registration |
| Sample Questions: | Linux Foundation CKAD Sample Questions |
| Exam Way: | Online, remotely proctored |
| Pre Condition: | No formal prerequisites |
| Official Syllabus URL: | https://training.linuxfoundation.org/certification/certified-kubernetes-application-developer-ckad/ |
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The CKAD Certification is an essential certification for professionals who want to demonstrate their expertise in Kubernetes and its ecosystem. CKAD exam is designed for developers who are working on cloud-native applications or DevOps engineers who are responsible for deploying and managing Kubernetes clusters. Linux Foundation Certified Kubernetes Application Developer Exam certification validates a candidate's skills and knowledge in Kubernetes, Docker, and cloud-native application development, making them stand out in the job market.
NEW QUESTION # 23
Context
Anytime a team needs to run a container on Kubernetes they will need to define a pod within which to run the container.
Task
Please complete the following:
* Create a YAML formatted pod manifest
/opt/KDPD00101/podl.yml to create a pod named app1 that runs a container named app1cont using image Ifccncf/arg-output
with these command line arguments: -lines 56 -F
* Create the pod with the kubect1 command using the YAML file created in the previous step
* When the pod is running display summary data about the pod in JSON format using the kubect1 command and redirect the output to a file named /opt/KDPD00101/out1.json
* All of the files you need to work with have been created, empty, for your convenience
Answer: B
NEW QUESTION # 24
You are tasked with deploying a complex application using Helm. The application consists of multiple microservices, each with its own deployment and service. To simplify the deployment and management of these microservices, you need to implement a mecnanism that allows you to automatically create and manage namespaces based on the name of the Helm release.
Answer:
Explanation:
See the solution below with Step by Step Explanation.
Explanation:
Solution (Step by Step) :
1. Create a Custom Helm Chart:
- Begin by creating a custom Helm chart named 'my-app-chart' to manage the application's multiple microservices.
2. Implement a Namespace Creation Function:
- Within the 'my-app-chafltemplatesr directory, create a file named 'namespace-yamr and define the namespace creation function.
- This function uses the Helm release name to dynamically generate a namespace with the format '-namespace' 3. Add the Namespace to the Chan: - Modify the 'my-app-chart/templates/service.yamr and 'my-app-chart/templates/deployment_yamr for each microservice to ensure the deployments and services reside within the dynamically created namespace:
4. Deploy the Chart with Different Releases: - Use tne following command to deploy tne chart with different releases, each creating a separate namespace: bash nelm install release1 my-app-chart helm install release2 my-app-chart - This will create namespaces release1-namespace' and release2-namespace , each containing the deployments and services of the respective releases. 5. Manage and Clean Up: - To manage and clean up the deployments and namespaces, you can use regular Helm commands within the context or each namespace: bash kubectl --namespace release1 -namespace get pods helm delete release1 kubectl delete namespace release1-namespace - This approach provides a structured and automated method for managing multiple microservices within separate namespaces using Helm releases.,
NEW QUESTION # 25
Refer to Exhibit.
Task
A deployment is falling on the cluster due to an incorrect image being specified. Locate the deployment, and fix the problem.
Answer:
Explanation:
create deploy hello-deploy --image=nginx --dry-run=client -o yaml > hello-deploy.yaml Update deployment image to nginx:1.17.4: kubectl set image deploy/hello-deploy nginx=nginx:1.17.4
NEW QUESTION # 26 
Set Configuration Context:
[student@node-1] $ | kubectl
Config use-context k8s
Context
A container within the poller pod is hard-coded to connect the nginxsvc service on port 90 . As this port changes to 5050 an additional container needs to be added to the poller pod which adapts the container to connect to this new port. This should be realized as an ambassador container within the pod.
Task
* Update the nginxsvc service to serve on port 5050.
* Add an HAproxy container named haproxy bound to port 90 to the poller pod and deploy the enhanced pod.
Use the image haproxy and inject the configuration located at /opt/KDMC00101/haproxy.cfg, with a ConfigMap named haproxy-config, mounted into the container so that haproxy.cfg is available at /usr/local/etc
/haproxy/haproxy.cfg. Ensure that you update the args of the poller container to connect to localhost instead of nginxsvc so that the connection is correctly proxied to the new service endpoint. You must not modify the port of the endpoint in poller's args . The spec file used to create the initial poller pod is available in /opt
/KDMC00101/poller.yaml
Answer:
Explanation:
See the solution below.
Explanation:
Solution:
To update the nginxsvc service to serve on port 5050, you will need to edit the service's definition yaml file.
You can use the kubectl edit command to edit the service in place.
kubectl edit svc nginxsvc
This will open the service definition yaml file in your default editor. Change the targetPort of the service to
5050 and save the file.
To add an HAproxy container named haproxy bound to port 90 to the poller pod, you will need to edit the pod's definition yaml file located at /opt/KDMC00101/poller.yaml.
You can add a new container to the pod's definition yaml file, with the following configuration:
containers:
- name: haproxy
image: haproxy
ports:
- containerPort: 90
volumeMounts:
- name: haproxy-config
mountPath: /usr/local/etc/haproxy/haproxy.cfg
subPath: haproxy.cfg
args: ["haproxy", "-f", "/usr/local/etc/haproxy/haproxy.cfg"]
This will add the HAproxy container to the pod and configure it to listen on port 90. It will also mount the ConfigMap haproxy-config to the container, so that haproxy.cfg is available at /usr/local/etc/haproxy/haproxy.
cfg.
To inject the configuration located at /opt/KDMC00101/haproxy.cfg to the container, you will need to create a ConfigMap using the following command:
kubectl create configmap haproxy-config --from-file=/opt/KDMC00101/haproxy.cfg You will also need to update the args of the poller container so that it connects to localhost instead of nginxsvc. You can do this by editing the pod's definition yaml file and changing the args field to args:
["poller","--host=localhost"].
Once you have made these changes, you can deploy the updated pod to the cluster by running the following command:
kubectl apply -f /opt/KDMC00101/poller.yaml
This will deploy the enhanced pod with the HAproxy container to the cluster. The HAproxy container will listen on port 90 and proxy connections to the nginxsvc service on port 5050. The poller container will connect to localhost instead of nginxsvc, so that the connection is correctly proxied to the new service endpoint.
Please note that, this is a basic example and you may need to tweak the haproxy.cfg file and the args based on your use case.
NEW QUESTION # 27
You are running a Kubernetes cluster that manages a critical web application. Your application uses a custom resource called 'Database' to represent database instances. You want to ensure that only authorized users within your organization can create and manage these database instances. How would you implement this using ServiceAccounts and Role-Based Access Control (RBAC)?
Answer:
Explanation:
See the solution below with Step by Step Explanation.
Explanation:
Solution (Step by Step) :
1. Create a ServiceAccount:
- Create a ServiceAccount specifically for managing database instances. This ServiceAccount will be assigned to the users authorized to work with databases.
- Apply the ServiceAccount to your cluster using 'kubectl apply -f serviceAccount.yamI' 2. Create a Role: - Define a Role to specify the permissions that the 'database-manager' ServiceAccount should have. This Role will allow the ServiceAccount to create, update, delete, and list 'Database custom resources.
- Apply the Role using 'kubectl apply -f role.yamr 3. Bind the Role to the ServiceAccount - Use a RoleBinding to link the 'database-managers ServiceAccount to the 'database-manager-roles
- Apply the RoleBinding using 'kubectl apply -f roleBinding.yaml' 4. Use the ServiceAccount: - When users need to manage database instances, they should authenticate to the Kubernetes cluster using credentials associated with the 'database-manager ServiceAccount This will grant them the permissions defined in the Role. - Example: - 'kubectl create database my-database Important Notes: - Replace "'your-group"' and '"your-namespace"' with the actual values for your custom resource and namespace, respectively. - You might need to create a ClusterRole instead of a Role if you want the permissions to apply across all namespaces in your cluster. - This example assumes you've already defined the CustomResourceDefinition (CRD) for the 'Database' resource.]
NEW QUESTION # 28
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