SkillAgentSearch skills...

google-cloud-solution-rag-enterprise-search-gke-sqldb

Discovers requirements, and generates architectural, design, and deployment guidance for a retrieval-augmented generation (RAG)-capable enterprise search system in Google Cloud

Install / Use

npx skills add google/skills --skill google-cloud-solution-rag-enterprise-search-gke-sqldb

Installs into whichever agent you are using.

About this skill
📄

SKILL.md

Installable skill definition

Quality Score

91/100

Supported Platforms

Universal

Our assessment of google-cloud-solution-rag-enterprise-search-gke-sqldb

google-cloud-solution-rag-enterprise-search-gke-sqldb scores 91/100 on our quality scale, 144th of 628 AI & Machine Learning skills we index (top 23%).

Its SKILL.md is 16 KB long, well organised into 13 sections and no code examples: a thorough specification that gives an agent plenty to work with.

With 20,340 GitHub stars, it is one of the more widely adopted skills in the catalogue.

Substance
30/30
Structure
13/20
Description
15/15
Adoption
18/20
Freshness
15/15

Maintenance, license and trust

  • The repository was last updated 2 days ago, so google-cloud-solution-rag-enterprise-search-gke-sqldb is actively maintained.
  • It is released under the Apache-2.0 license, a permissive license that allows use, modification and commercial use with attribution.
  • Its trust signals score 100/100, with no cautions. These come from repository metadata, not a code audit — read the skill file before letting an agent act on it.

Safety scan

No issues found

Our scan of the whole file found no instruction hijacking, hidden characters, credential access, data exfiltration or destructive commands.

Automated pattern scan on 2026-09-26. It catches known dangerous patterns, not every risk — read a skill before letting an agent act on it.

google-cloud-solution-rag-enterprise-search-gke-sqldb compared with similar skills

All 4 of these similar skills score higher than google-cloud-solution-rag-enterprise-search-gke-sqldb; compare them before choosing.

SkillScoreStarsUpdatedFormat
google-cloud-solution-rag-enterprise-search-gke-sqldb (this skill)by google9120.3k2d agoSKILL.md
claude-memby thedotmack10094.7k1d agoCLAUDE.md
Understand-Anythingby Egonex-AI10084.2k13d agoCLAUDE.md
headroomby headroomlabs-ai10073.8ktodayCLAUDE.md
CowAgentby zhayujie10047.1ktodayCLAUDE.md

Frequently asked questions

How do I install google-cloud-solution-rag-enterprise-search-gke-sqldb?
Run npx skills add google/skills --skill google-cloud-solution-rag-enterprise-search-gke-sqldb. The install tabs above show the steps for each supported agent.
Which AI agents does google-cloud-solution-rag-enterprise-search-gke-sqldb work with?
It is written for Universal, as a SKILL.md file. Other agents that read the same format can often use it too.
Is google-cloud-solution-rag-enterprise-search-gke-sqldb safe to use?
Our scan of the whole file found no instruction hijacking, hidden characters, credential access, data exfiltration or destructive commands. It is Apache-2.0-licensed and scores 100/100 on trust signals. Skills are instructions an agent will follow, so read the file before installing it and do not approve commands you do not understand.
Is google-cloud-solution-rag-enterprise-search-gke-sqldb still maintained?
The repository was last updated 2 days ago, so google-cloud-solution-rag-enterprise-search-gke-sqldb is actively maintained.

name: google-cloud-solution-rag-enterprise-search-gke-sqldb metadata: version: "1.0.0" category: MultiProductSolutions description: >- Discovers requirements, and generates architectural, design, and deployment guidance for a retrieval-augmented generation (RAG)-capable enterprise search system in Google Cloud. Use when users need a vector-enabled SQL database as the store and index for the embedding vectors, an open model and open-source inferencing framework, and Kubernetes containers to host all the application components. DON'T use this skill for fully-managed RAG, or SaaS search services, or when a non-SQL vector database is required.

RAG for enterprise search using GKE and AlloyDB

This skill provides a workflow to design and implement a secure, low-latency, and high-accuracy RAG-enabled conversational search solution for private enterprise content by using an AlloyDB database, Cloud Storage, and a Google Kubernetes Engine (GKE) cluster to host all the application components, including an open model and an open-source inference framework.

Overview of the workflow

The workflow consists of the following phases:

  • Phase 1: Requirements discovery. Gather detailed requirements related to the cloud workload or use case that the user needs assistance for.
  • Phase 2: Solution architecture. Use the requirements that were gathered in Phase 1 to generate a detailed solution architecture for the cloud workload or use case.
  • Phase 3: Solution validation. Create a plan to validate the generated solution, generate validation instructions and scripts, and run the validation.
  • Phase 4: Solution packing and presentation. Consolidate the generated content and present the solution.

Important notes about the workflow:

  • Strict phase separation: During Phase 1 (Requirements discovery), when you ask the user clarifying questions, DON'T recommend, propose, or outline any architectural designs, technical decompositions, cloud services, or component mappings.

  • When you can skip certain phases: If the user's prompt indicates that a specific phase or task in this workflow is already completed or approved (e.g., "requirements discovery stage is completed", "product selection is approved", or "architecture is confirmed"), DON'T repeat that phase or task. Instead, skip directly to the requested task (such as generating the technical decomposition, recommending products, or compiling the solution guide).

Phase 1: Requirements discovery

In this phase, you must gather detailed requirements related to the RAG workload that the user wants to design and deploy in Google Cloud.

Complete the following steps strictly in the specified order:

  1. Ask the user to describe the functional requirements of the workload, including data types (structured, unstructured), ingestion frequency, and conversational features (e.g., multi-turn chat, citation requirements).

  2. Ask the user to describe the following non-functional requirements:

    • Security, privacy, and compliance: E.g., network isolation, private endpoints, data residency, and requirements for compliance.
    • Reliability: E.g., scaling, high availability, resilience against zone or regional outages, disaster recovery goals for RTO and RPO.
    • Cost: E.g., cost of compute, storage, and database resources.
    • Operational excellence: E.g., monitoring, alerts, and logging.
    • Performance: E.g., data upload speed, performance expectations for generating embedding vectors, and latency requirements for model responses and data retrieval queries (including vector and hybrid search).
    • Sustainability: E.g., carbon footprint, low-carbon regions.
  3. Ask the user whether the workload currently runs on other cloud providers or on-premises.

    • If the user's answer is "yes", then ask the user to describe the architecture of the current deployment.
    • If the user's answer is "no", then proceed to the next step.
  4. Ask the user to describe dependencies, if any, on other workloads, products, or tools (e.g., identity providers, external sources, CRM/ERP database integrations).

  5. Review the input that the user has provided so far, and check whether there are any ambiguities or contradictions.

    If you identify any ambiguities or contradictions in the requirements that the user has provided, then do the following for each ambiguity or contradiction that you identify:

    • Describe the ambiguity or contradiction.
    • Ask the user how they wish to resolve the ambiguity or contradiction.
      • If the user delegates the choice to you (e.g., the user replies with "do what you think is best" or "you decide"), then provide a clear suggestion to resolve the ambiguity or contradiction, explain your reasoning, and ask the user to approve your suggestion.

    Critical: Until all the ambiguities and contradictions that you identify are resolved according to the preceding guidance, you must NOT recommend or generate any architecture design, technical decomposition, or Google Cloud product recommendations.

  6. Important: DON'T start this step if there are unresolved contradictions or ambiguities from Step 5.

    Generate a technical decomposition of the components of the workload. The technical decomposition must break down the solution into logical components, as follows:

    • Data ingestion: Blob storage for raw corporate documents.
    • Data processing and chunking: Containerized pipeline to extract data, clean it, and chunk it.
    • Embedding vectors generation: Containerized service to convert data chunks to embedding vectors.
    • Storing and indexing the embedding vectors: Vector-enabled SQL database for storing embedding vectors.
    • Handling non-vector data: Preparing non-vector data, like tables, views, and aggregations for data retrieval. Analyzing whether any indexing, partitioning, or other performance techniques can be applied on the original data schema.
    • Query and retrieval: Accepting client queries, identifying intent, and routing to a retrieval workflow, which might include conversion of the request to an embedding for semantic search, extracting and applying filters for filtered search or supplying all to the hybrid search.
    • Prompt augmentation: Augmenting the prompts with the retrieved context.
    • Response generation: Requesting and generating responses from the model.
    • Response sanity checks: Evaluating responses using an AI model and performing procedural checks according to defined criteria.
  7. Ask the user to approve the generated technical decomposition.

    Critical: You MUST stop execution immediately, call no more tools (such as file editors, searches, or code tools), and wait for the user to respond with their feedback or approval in the chat. Do NOT compile the architecture, recommend products, construct maps, or write any files/drafts for Phase 2 until the user's explicit approval is received.

  8. If the user requests changes, then generate an updated technical decomposition.

  9. Repeat steps 5 through 8 until the user approves the generated technical decomposition.

  10. Only after the user has explicitly approved the technical decomposition, proceed to Phase 2.

    Important: You are strictly prohibited from recommending product choices, generating the architecture diagram, or drafting design recommendations until the technical decomposition is approved.

Phase 2: Solution architecture

Ground all generated content

For each task in this phase, to ensure that the generated content aligns with the latest and official Google Cloud guidance, you must ground the generated content by using the following resources:

  • Google Developer Knowledge MCP server: https://developers.google.com/knowledge/mcp.md.txt
    • Server: https://developerknowledge.googleapis.com/mcp
      • Tools:
        • developerknowledge:search_documents
        • developerknowledge:get_documents
        • developerknowledge:answer_query
  • Relevant skills from https://github.com/google/skills
  • Official Google Cloud documentation, including the following:
    • Primary architecture reference: https://docs.cloud.google.com/architecture/rag-capable-gen-ai-app-using-gke.md.txt
    • Architecture guidance and decision-making guides:
      • references/product-selection-recommendations.md
      • references/design-recommendations.md
      • references/related-documentation.md

For each item in the generated guidance, you must include citations to the relevant official Google Cloud documentation pages.

Task 2.1: Identify Google Cloud products and features required for the workload.

  1. Recommend the products and features that are appropriate for each component of the user's workload.

    Important: The Google Cloud products and features that you recommend MUST be consistent with the guidance in references/product-selection-recommendations.md.

  2. Present the generated product recommendations and ask the user to approve the recommendations.

  3. If the user requests changes, then make the required changes.

  4. Repeat steps 2 and 3 until the user approves the product recommendations.

  5. After the user approves the product recommendations, proceed to Task 2.2.

Task 2.2: Generate an architecture diagram.

  1. Generate an architecture diagram in the Mermaid format: https://github.com/mermaid-js/mermaid.

    The diagram must show the data flows and request flows across the components of the architecture, based on the technical composition that you generated.

    The following is an example of the data flows and request flows that the architecture diagram should show:

    • Embedding pipeline (batch/streaming): Data source -> Cloud Storage -> Cloud Storage FUSE -> GKE Ray Worker (Chunking) --> Embedding generation using GemmaEmbedding -> AlloyDB.
    • Serving pipeline (real-time): User client -> GKE Frontend (LangChain Orchestration) -> Database Query (semantic or hybrid search on the vector store) -> Retrieve matching data -> Augment prompt -> Gemma vLLM endpoint API -> Output (Responsible AI filtering) -> User client.
  2. Present the generated diagram to the user and ask the user to approve the architecture diagram.

  3. If the user requests changes, then make the required changes.

  4. Repeat steps 2 and 3 until the user approves the architecture diagram.

  5. After the user approves the architecture diagram, proceed to Task 2.3.

Task 2.3: Generate an architecture description.

  1. Generate a description that explains the purpose of each component, the relationships between the components, and the task flow or data flow.
  2. Present the generated architecture description to the user and ask the user to approve the description.
  3. If the user requests any changes, then make the required changes.
  4. Repeat steps 2 and 3 until the user approves the architecture description.
  5. After the user approves the architecture description, proceed to Task 2.4.

Task 2.4: Generate design recommendations.

  1. Generate design recommendations and best practices to optimally configure each component in the architecture based on the workload's requirements.

    Important: The design recommendations and best practices that you generate MUST be consistent with the guidance in the resources that are listed in

Truncated for display — read the full file on GitHub.

Related Skills

View on GitHub
GitHub Stars20.3k
CategoryAI
Updated2d ago
Forks1.7k

Languages

Python

Trust signals

100/100

From repository metadata: license, adoption, age and documentation. Not a code audit — see the Safety scan above for what the skill file itself contains.

No cautions