Latest upstream author date included at this registry's pinned revision.

google-cloud-waf-reliability

Synced v1.0.0 License: Apache-2.0 Source: google/skills/skills/cloud/google-cloud-waf-reliability Commit: 99c871e Latest included change:

Generates guidance for reliability, resilience, availability, redundancy, fault-tolerance, and disaster recovery (DR) for Google Cloud workloads based on the design principles and recommendations in the Google Cloud Well-Architected Framework. Use when the user asks to evaluate, design, or improve the reliability, resilience, availability, or disaster recovery capabilities of Google Cloud workloads.

Summary

Purpose
It helps align workload reliability with user-centered service objectives, redundancy, scaling, observability, graceful degradation, and tested recovery.
When to use
Use it to examine architecture choices, reliability targets, operational readiness, and recovery plans against the framework's principles.
Outputs
It provides framework-based recommendations, workload assessment questions, and a validation checklist for reliability decisions.
Upstream changes (9, latest included 2026-09-21)
becc4b8 Enforce semantic versioning (MAJOR.MINOR.PATCH) for skills. Added version 1.0.0 to the skill metadata.
534b498 Improvements to the Well-Architected Framework (WAF) Reliability skill. Expanded the skill description and added reliability guidance on SLOs, capacity planning, golden-signal monitoring, and graceful-degradation techniques.
c75b500 Restructure the YAML frontmatter in all SKILL.md files to nest the 'category' field under the 'metadata:' block. The 'category' field is used to organize the skills in the README.md Moved the `category` field under the `metadata` block in the skill front matter.
16b3fef Link updates - Fetch Google Cloud documentation as markdown instead of HTML Updated the skill's reliability-reference URLs to use the `.md.txt` format.
6f0b877 Nests cloud/ skills under a top level skills/ directory Renamed the skill file from `cloud/google-cloud-waf-reliability/SKILL.md` to `skills/cloud/google-cloud-waf-reliability/SKILL.md` with no content changes.
9114a94 Flatten skill directories to work with multiple installation tools Moved the skill file from `cloud/well-architected-framework/google-cloud-waf-reliability/SKILL.md` to `cloud/google-cloud-waf-reliability/SKILL.md` with no content changes.
1acc1ce No public description Added `cloud/well-architected-framework/google-cloud-waf-reliability/SKILL.md` with Google Cloud Reliability-pillar guidance, core principles, product examples, assessment questions, and a validation checklist.
3c805be No public description Deleted `cloud/well-architected-framework/google-cloud-waf-reliability/SKILL.md`.
5c92e75 No public description Added `cloud/well-architected-framework/google-cloud-waf-reliability/SKILL.md` with Google Cloud Reliability-pillar guidance, core principles, product examples, assessment questions, and a validation checklist.
npx skills add "lettucebo/Skills#v2.2.0@google-cloud-waf-reliability" --full-depth

⚠ Available after v2.2.0 is published

Google Cloud Well-Architected Framework skill for the Reliability pillar

Overview

The Reliability pillar of the Google Cloud Well-Architected Framework provides principles and recommendations to help you design, deploy, and manage reliable, resilient, and highly available workloads in Google Cloud. A reliable system consistently performs its intended functions under defined conditions, is resilient to failures, and recovers gracefully from disruptions, thereby minimizing downtime, enhancing user experience, and ensuring data integrity.

Core principles

The recommendations in the reliability pillar of the Well-Architected Framework are aligned with the following core principles:

Relevant Google Cloud products

The following are examples of Google Cloud products and features that are relevant to reliability:

  • Compute: Compute Engine Managed Instance Groups (MIGs), Google Kubernetes Engine (GKE), Cloud Run
  • Networking: Cloud Load Balancing, Cloud CDN, Cloud DNS
  • Storage and databases: Cloud Storage (multi-region), Cloud SQL High Availability, Spanner, Filestore, Firestore
  • Operations: Cloud Monitoring, Cloud Logging, Google Cloud Managed Service for Prometheus
  • Disaster recovery: Backup and DR Service, Filestore backups

Workload assessment questions

Ask appropriate questions to understand the reliability-related requirements and constraints of the workload and the user's organization. Choose questions from the following list:

  • How does your organization define and measure the reliability of your systems in relation to user experience?
  • How does your organization approach setting reliability targets for your services?
  • What is your organization's strategy for ensuring high availability through resource redundancy?
  • How does your organization leverage horizontal scalability to maintain performance and reliability?
  • How does your organization utilize observability (metrics, logs, traces) to gain insights and detect potential failures?
  • How does your organization manage alerting based on observability data to ensure timely responses to significant issues without causing alert fatigue?
  • What measures does your organization take to ensure systems can gracefully degrade during high load or partial failures?
  • How frequently and comprehensively does your organization test for recovery from system failures (e.g., regional failovers, release rollbacks)?
  • What is your organization's approach to testing for recovery from data loss?
  • How does your organization conduct and utilize postmortems after incidents?

Validation checklist

Use the following checklist to evaluate the architecture's alignment with reliability recommendations:

  • User-focused SLIs and SLOs are explicitly defined and actively monitored.
  • The architecture avoids single points of failure through cross-zone or cross-region redundancy.
  • Autoscaling is enabled to handle variable demand without manual intervention.
  • Application and infrastructure health checks are configured to trigger automated failovers.
  • Regular backup schedules are in place, and restoration processes are routinely tested.
  • The system architecture incorporates patterns like circuit breakers, retries with exponential backoff, and rate limiting to support graceful degradation.
  • Game days or chaos engineering practices are regularly held to validate failure recovery.
  • A formalized, blameless postmortem process exists to ensure organizational learning from operational incidents.

History

v1.0.0 mapping-added 99c871e