Free Google Cloud Architect Professional Exam Braindumps
Google Cloud Certified - Professional Cloud Architect Questions 96–100 (page: 21)

Updated On: 31-Aug-2026

You need to develop procedures to test a disaster plan for a mission-critical application. You want to use Google-recommended practices and native capabilities within GCP.
What should you do?

  1. Use Deployment Manager to automate service provisioning. Use Activity Logs to monitor and debug your tests.
  2. Use Deployment Manager to automate service provisioning. Use Stackdriver to monitor and debug your tests.
  3. Use gcloud scripts to automate service provisioning. Use Activity Logs to monitor and debug your tests.
  4. Use gcloud scripts to automate service provisioning. Use Stackdriver to monitor and debug your tests.

Answer(s): B

Explanation:

Option B is the correct answer because it aligns with Google's recommended practices for disaster recovery testing on GCP by utilizing native capabilities for both automation and monitoring. Deployment Manager is a GCP service for Infrastructure as Code, allowing repeatable and reliable provisioning of resources during disaster recovery tests. This automation is crucial for consistent testing and minimizes manual errors. Stackdriver (now part of Google Cloud Operations suite), is the primary monitoring and logging service in GCP. It provides comprehensive visibility into the health and performance of the application and underlying infrastructure, enabling effective debugging during disaster simulations. Option A incorrectly suggests Activity Logs for monitoring, which while helpful for audit trails, are not the best tool for real-time performance and debugging required during disaster recovery testing. Activity Logs provide information on API calls made to GCP services and are not designed for detailed application performance monitoring. Options C and D propose using gcloud scripts for automation.
While gcloud is useful for scripting, Deployment Manager is a higher-level, declarative tool specifically designed for managing infrastructure deployments. It provides features like resource dependencies and state management that make it more suitable for complex disaster recovery scenarios. Therefore, Deployment Manager is the more aligned with best practices for automation. Finally, both options C and D suggest activity logs rather than Stackdriver, which as previously mentioned is incorrect.
Justification Summary:
Automation: Deployment Manager offers reliable and repeatable infrastructure provisioning, crucial for DR tests. Monitoring: Stackdriver provides comprehensive real-time application and infrastructure monitoring for debugging and performance analysis. Activity Logs: Are more for API calls and audit trail rather than the health of the application. Deployment Manager vs. gcloud: Deployment Manager is more suitable for infrastructure provisioning than gcloud scripts for complex deployments due to its declarative nature.
Authoritative Links:
Deployment Manager: https://cloud.google.com/deployment-manager Google Cloud Operations suite (including Stackdriver): https://cloud.google.com/stackdriver Disaster Recovery Planning Guide on Google Cloud: https://cloud.google.com/solutions/disaster-recovery



Your company creates rendering software which users can download from the company website. Your company has customers all over the world. You want to minimize latency for all your customers. You want to follow Google-recommended practices. How should you store the files?

  1. Save the files in a Multi-Regional Cloud Storage bucket.
  2. Save the files in a Regional Cloud Storage bucket, one bucket per zone of the region.
  3. Save the files in multiple Regional Cloud Storage buckets, one bucket per zone per region.
  4. Save the files in multiple Multi-Regional Cloud Storage buckets, one bucket per multi-region.

Answer(s): D

Explanation:

The most appropriate solution is D. Save the files in multiple Multi-Regional Cloud Storage buckets, one bucket per multi-region. Here's why:
Multi-Regional Buckets for Global Reach: Multi-regional Cloud Storage buckets replicate data across multiple geographic regions. This is crucial for minimizing latency for users worldwide because content is served from the closest location to the user, reducing network travel time.
Latency Minimization: Since users are globally distributed, a single regional bucket won't effectively address latency for all users. A multi-regional setup ensures that users access content from a geographically proximate location.
Google-Recommended Practice: Google recommends using multi-regional storage for content that needs to be available globally with low latency and high availability. This aligns with the company's goal of minimizing latency for all users.
Redundancy and Availability: Multi-regional buckets also provide high redundancy and availability, ensuring content remains accessible even in the event of a regional outage. This is important for a globally used product.
Why other options are less suitable:

A: Save the files in a Multi-Regional Cloud Storage bucket: While better than regional options, using multiple multi-regional buckets, one per multi-region, allows for finer control over data replication and potential cost optimization by aligning with user locations more specifically. B. Save the files in a Regional Cloud Storage bucket, one bucket per zone of the region: This only serves users within a single region, leading to high latency for users outside of the chosen region. C. Save the files in multiple Regional Cloud Storage buckets, one bucket per zone per region: While this provides some redundancy, it adds significant complexity in managing and synchronizing files across numerous zones/regions without the benefits of multi-regional replication and performance. It also misses the advantage of automatic low-latency access.
In summary, multiple multi-regional buckets are the optimal approach for global content distribution, low latency, and high availability, aligning with Google's recommended practices.
Further Research:
Google Cloud Storage Locations : This document provides detailed information about regional and multi-regional storage options. Cloud Storage Overview : This documentation provides a general overview of Cloud Storage concepts. Choosing a Storage Location : This section specifically discusses the criteria for selecting the appropriate storage location.



Your company acquired a healthcare startup and must retain its customers' medical information for up to 4 more years, depending on when it was created. Your corporate policy is to securely retain this data, and then delete it as soon as regulations allow.
Which approach should you take?

  1. Store the data in Google Drive and manually delete records as they expire.
  2. Anonymize the data using the Cloud Data Loss Prevention API and store it indefinitely.
  3. Store the data in Cloud Storage and use lifecycle management to delete files when they expire.
  4. Store the data in Cloud Storage and run a nightly batch script that deletes all expired data.

Answer(s): C

Explanation:

The correct answer is C. Store the data in Cloud Storage and use lifecycle management to delete files when they expire. This approach aligns best with the requirements of secure, regulated data retention and timely deletion.
Here's why:
Cloud Storage: Google Cloud Storage is a highly durable, scalable, and cost-effective object storage service ideal for storing large volumes of unstructured data like medical records. It provides strong security features, including access control and encryption. Lifecycle Management: Cloud Storage Lifecycle Management allows you to automatically manage the lifecycle of your objects. You can define rules based on object age or creation date to perform actions such as deletion. This automates the data purging process, guaranteeing adherence to retention policies without manual intervention. This is critical for compliance and reduces the risk of accidental retention beyond the legal period. A (Google Drive): Google Drive is designed for personal and collaborative document storage, not for large-scale, automated retention and deletion of regulatory data. Manual deletion is error-prone and doesn't meet compliance requirements. B (Cloud DLP): While Cloud DLP is useful for anonymizing data, it does not address the primary requirements of retention and subsequent deletion. Anonymization alone doesn't satisfy the policy to delete data as soon as allowed. Furthermore, indefinite storage could create unnecessary costs. D (Nightly Script): While using a script is possible, it's less efficient and more complex than built-in Lifecycle Management. You’d have to manage and maintain the script and ensure its reliability. Also, there would be potential for inconsistencies or failures. Lifecycle Management handles the process at the storage level making it more robust and efficient.
Therefore, option C best fits the requirements by providing secure storage and automatic deletion based on specified rules without manual intervention.
Authoritative links for further research:
Cloud Storage Lifecycle Management: https://cloud.google.com/storage/docs/lifecycle Cloud Storage Overview: https://cloud.google.com/storage/docs/ Google Drive Overview: https://www.google.com/drive/ Cloud DLP Overview: https://cloud.google.com/dlp/docs



You are deploying a PHP App Engine Standard service with Cloud SQL as the backend. You want to minimize the number of queries to the database.
What should you do?

  1. Set the memcache service level to dedicated. Create a key from the hash of the query, and return database values from memcache before issuing a query to Cloud SQL.
  2. Set the memcache service level to dedicated. Create a cron task that runs every minute to populate the cache with keys containing query results.
  3. Set the memcache service level to shared. Create a cron task that runs every minute to save all expected queries to a key called cached_queries.
  4. Set the memcache service level to shared. Create a key called cached_queries, and return database values from the key before using a query to Cloud SQL.

Answer(s): A

Explanation:

Option A is the most effective strategy for minimizing database queries in the given scenario because it utilizes in-memory caching with memcache to avoid repeated database access. Setting the memcache service level to "dedicated" provides more reliable performance and dedicated resources compared to "shared." By creating a key from the hash of the query, you establish a unique identifier for each database query, allowing you to store and retrieve results efficiently. Before querying Cloud SQL, the application first checks memcache using this hash-generated key. If the result is found (a cache hit), it's returned directly, bypassing the database entirely and saving both latency and resources. If the result is not in memcache (a cache miss), then the query is issued to Cloud SQL, and the returned result is stored in memcache using the generated key for future use. This approach allows the cache to become populated over time with commonly accessed data. Options B, C and D are less suitable. Option B is less ideal as cron tasks running every minute are less real-time and may lead to data inconsistencies if the underlying Cloud SQL data changes frequently between cron tasks. Options C and D are also not optimal because using a single key like "cached_queries" will mean that the cache stores a massive number of query results that are unlikely to be returned with the needed granularity by the application. Additionally, these options suggest using a shared memcache instance which can be less predictable than a dedicated memcache service. Therefore, Option A provides the best balance between performance, cost, and data freshness.
Authoritative links for further research:
Google Cloud Memcache Documentation: https://cloud.google.com/memorystore/docs/memcached App Engine Caching Overview: https://cloud.google.com/appengine/docs/standard/python/memcache/ Caching Strategies: https://developers.google.com/web/fundamentals/performance/optimizing-content-efficiency/http-caching



You need to ensure reliability for your application and operations by supporting reliable task scheduling for compute on GCP. Leveraging Google best practices, what should you do?

  1. Using the Cron service provided by App Engine, publish messages directly to a message-processing utility service running on Compute Engine instances.
  2. Using the Cron service provided by App Engine, publish messages to a Cloud Pub/Sub topic. Subscribe to that topic using a message-processing utility service running on Compute Engine instances.
  3. Using the Cron service provided by Google Kubernetes Engine (GKE), publish messages directly to a message-processing utility service running on Compute Engine instances.
  4. Using the Cron service provided by GKE, publish messages to a Cloud Pub/Sub topic. Subscribe to that topic using a message-processing utility service running on Compute Engine instances.

Answer(s): B

Explanation:

The correct answer is B . Here's a detailed justification:
Option B advocates using App Engine's Cron service to trigger events. This service is designed for reliable, scheduled task execution. Instead of directly targeting Compute Engine instances, it publishes messages to a Cloud Pub/Sub topic. Cloud Pub/Sub is a highly scalable and durable messaging service, acting as a buffer and decoupling the scheduling mechanism from the processing service. The Compute Engine instances, running a message-processing utility service, then subscribe to this topic, processing messages as they arrive. This approach enhances reliability through several key cloud computing principles:
Decoupling: Pub/Sub decouples the scheduler from the worker, preventing failures in one component from directly impacting the other. Asynchronous Communication: Processing is asynchronous, allowing the worker to handle its workload without being tied to the scheduler's operation. Scalability: Pub/Sub can handle a large number of messages and subscribers, enabling the system to scale as needed. Durability: Pub/Sub ensures message delivery even if subscribers are temporarily unavailable.
Option A fails to address the decoupling needs and introduces direct dependencies. Options C and D are incorrect because Google Kubernetes Engine (GKE) is primarily focused on container orchestration, and while it has its own way of scheduling tasks (CronJobs), it's not the most appropriate service for this particular use case of reliable inter-service communication. Additionally, directly publishing from a GKE CronJob to Compute Engine misses the point of decoupling, mirroring the flaws in option A. Furthermore, it's less conventional to use GKE for simple scheduling if App Engine Cron is sufficient.
In conclusion, using App Engine's Cron service with Cloud Pub/Sub provides a more reliable and scalable architecture for scheduled tasks, adhering to best practices for building cloud-native applications. This approach minimizes dependencies and leverages robust services.
Authoritative Links for Further Research:
Cloud Pub/Sub: https://cloud.google.com/pubsub/docs App Engine Cron Service: https://cloud.google.com/appengine/docs/standard/python/scheduling-tasks-with-cron Google Cloud Architecture Framework: Reliability: https://cloud.google.com/architecture/framework/reliability



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