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Google Cloud Slo Alert Configuration

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  • Skill
  • Workflow
  • Cloud and DevOps
  • Apache-2.0
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From the author

Configures Cloud Monitoring PromQL-based Service Level Objective (SLO) alerting policies on Google Cloud for resources registered in App Hub or individually specified. Generates Terraform output. Use when the user asks to configure an SLO or Service Level Objective. Don't use for standard alerting policies.
— the description by Google

AutoGineer summary

Written by AutoGineer from the skill’s own files, not by the author

This skill acts as a structured setup wizard to help users define and configure Service Level Objective (SLO) alerting policies within Google Cloud. It guides the user through a four-step process: defining the service scope, setting service level targets, identifying the Service Level Indicator (SLI), and establishing alerting strategies. The skill automates the generation of Terraform code, specifically utilizing the google_monitoring_alert_policy resource and PromQL-based conditions, while ensuring best practices for SRE-focused reliability monitoring are applied.

What it does

  • Guides users through a 4-step workflow to define SLO parameters.
  • Generates Terraform (.tf) files for Cloud Monitoring alerting policies.
  • Uses PromQL for defining alert conditions.
  • Automatically includes required user labels for policy tracking.
  • Provides SRE best practice suggestions for SLO targets and burn rates.
  • Integrates with App Hub for resource scoping.

When to use it

  • When you need to create a new SLO alerting policy in Google Cloud.
  • When you want to standardize SLO configurations using Terraform.
  • When you need assistance determining appropriate SLI metrics or burn rate strategies.
  • When monitoring resources registered in Google Cloud App Hub.

Advantages

  • Ensures consistent SLO configuration through a structured wizard.
  • Reduces manual effort by generating ready-to-use Terraform code.
  • Promotes SRE best practices by suggesting standard reliability targets.
  • Simplifies complex PromQL alert logic for SLOs.
  • Maintains auditability by tagging generated policies with specific user labels.

Usage examples

“I need to set up an SLO alert for my backend service.”
The agent will initiate the 4-step wizard, asking for the service scope, target reliability, SLI metrics, and burn rate preferences to generate the Terraform configuration.
“Help me configure an SLO with SRE best practices.”
The agent will skip manual data gathering and apply recommended defaults, such as a 99.9% target over 28 days, and generate the corresponding Terraform code.

Install

  1. Download the skill as a ZIP:

    https://mp-staging.autogineer.com/agent-skills/google/google-cloud-slo-alert-configuration/download
  2. Unzip it into the cross-client skills folder of your project:

    mkdir -p .agents/skills && unzip google-cloud-slo-alert-configuration.zip -d .agents/skills

Documentation by Google

SLO Alert Configuration Setup Wizard

This skill guides the user through a structured conversation to configure Cloud Monitoring PromQL-based Service Level Objective (SLO) alerting policies on Google Cloud in Terraform. Your role is to act as a setup wizard that conceptually models the 4 key components of an SLO API (Service Scope, Service Level, SLI, and Alert Condition), gathers the requirements, and outputs a Terraform configuration.

Attribution

MUST READ: Before executing any gcloud, REST API, or MCP command, you MUST read Usage Attribution. For commands executed directly in the terminal (never in generated scripts, Terraform, or user code), prefix gcloud with CLOUDSDK_METRICS_REQUEST_ATTRIBUTION="agent-skills/1.0 (skill:google-cloud-slo-alert-configuration)" and append agent-skills/1.0 (skill:google-cloud-slo-alert-configuration) to User-Agent headers.

CRITICAL RULES

  • Structured Conversation: You MUST follow the 4-step wizard workflow below.

  • Gather Missing Information: Evaluate all 4 steps below first. Ask the user for all missing information across all steps in a single response.

    • DO NOT stop after finding the first missing piece of information.

    • DO NOT use the ask_question tool. You must ask questions using plain text in your response and end your turn to wait for the user to reply.

    • DO NOT write the Terraform configuration if information is missing.

  • Skip What Is Known: If the user has already provided information for a step in their previous messages or initial prompt DO NOT ask them for it. Move to the next missing piece of information. If ALL information for Steps 1-4 is provided, call write_to_file to generate the Terraform configuration without asking for permission to proceed.

  • Provide Best Practices: Whenever you ask the user a question, you MUST explicitly state the recommended "Best Practice".

  • Best Practice Shortcut: If the user asks for "best practices" or similar, do not overwrite their explicit inputs. SKIP all remaining data gathering and keep any specific targets or custom metrics they provided. For all fields left blank, apply the recommended defaults defined in the "SRE Best Practice Suggestion" of each step.

  • User Labels: Include a user_labels block in all google_monitoring_alert_policy resources to track policies created by this skill:

    user_labels = {
      created-with-google-skill = "google-cloud-slo-alert-configuration"
    }
  • Terraform Output: Write the generated observability configuration ONLY as Terraform (.tf) files using the google_monitoring_alert_policy resource and condition_prometheus_query_language resources.

  • Alert Strategy: ALWAYS include an alert_strategy block with an auto_close setting. Leave notification_channels empty unless the user provides one. Provide plain-English explanations of the PromQL math before finalizing the conversation.


SETUP WIZARD WORKFLOW

Step 1: Define ServiceScope
  1. Check Context: Identify target resource, service, workload, or application the user wants to monitor. If you already know, proceed. Otherwise ask the user to identify it.

  2. Autonomous Investigation: If the user specified a project or general service name without providing specifics, autonomously use gcloud to discover the target services in their environment. If multiple services or workloads are discovered, list all of them and suggest applying SLO ONLY to the most critical backend services as a best practice.

    If you struggle to identify potential resources, ask the user to specify.

  3. Identify Underlying Infrastructure: To resolve the correct PromQL metric, you MUST know the underlying Google Cloud resource type.

    • If the user only provides a logical name or an App Hub Service/Workload name such as projects/.../services/frontend or projects/.../workloads/backend, you still need to know the underlying infrastructure.

    • If the prompt provides the underlying infrastructure, use that information. Do NOT attempt to discover it.

    • If you don't know the underlying infrastructure but have a resource identified, you MUST proactively use gcloud to discover the infrastructure. If you struggle to identify the resource type, ask the user to specify.

  4. Label Scoping:

    • If the user explicitly mentions the resource is in App Hub or provides an App Hub URI like projects/.../locations/.../applications/..., use App Hub labels and consult references/app_hub_labels.md to identify the correct group-by fields.

    • Otherwise, assume it is a standard Google Cloud resource and use standard grouping labels such as project_id, location, service_name for Cloud Run.

    Example gcloud commands:

    • gcloud --quiet apphub applications services list --application=- --location=-

    • gcloud --quiet apphub applications workloads list --application=- --location=-

    • gcloud --quiet asset search-all-resources

    • gcloud --quiet run services list

    • gcloud --quiet apphub applications services describe <service> --application=<app> --location=<loc>

    • gcloud --quiet apphub applications workloads describe <workload> --application=<app> --location=<loc>

    • gcloud --quiet asset search-all-resources --query=<name>

    Graceful Fallback: If a command exits with an error such as API not enabled or permission denied, DO NOT try to troubleshoot it and DO NOT use the schedule tool to wait. Immediately fall back to asking the user to provide the missing information.

Step 2: Define ServiceLevel Target
  1. Check Context: If the user has already provided a Service Level Target percentage, an SLI condition/threshold, and a measurement period proceed to the next step. Otherwise, if any are missing, you MUST ask for them.

    • Service level target percentages include P-values such as PXX, decimals such as 0.XX, and percentages like XX%.

    • Example SLI conditions and thresholds include latency < 500ms or non-5XX responses.

  • Prompt: Ask the user for their target reliability, condition/threshold (if applicable), measurement period, and evaluation intervals ONLY if they are missing.

  • SRE Best Practice Suggestion: "SRE Best Practice recommends starting with a 99.9% (3 nines) slo_target measured over a rolling 28-day rolling_period, as this aligns well with typical release cycles and provides a reasonable error budget."

Step 3: Define ServiceLevelIndicator / SLI
  1. Check Context: Has the user specified the exact metric name such as run.googleapis.com/request_count? If yes, proceed to the next step. Otherwise, if the user only says "availability" or "latency" without specifying the EXACT metric name, you may infer the name from the service type provided a metric for that type is defined in the references. If the user provides a custom metric and a threshold, assume it is a Distribution metric and do not ask for further metric details.

    • You MUST output valid metrics defined in references/service_metrics.md. If the exact resource type and metric is not listed, check the public documentation in references/service_metrics.md to find the exact metric. If you still cannot find it, you MUST stop and ask the user to provide the custom metric.

  2. Prompt: Ask the user what specific metric they want to use. You MUST suggest the inferred standard metric as the recommended best practice. When interpreting incomplete requests, you MUST explicitly propose the specific metric string and describe the ratio-based or window-based definition to the user for confirmation before proceeding.

  3. Metric Mapping: Consult references/service_metrics.md to find the exact PromQL metric string for the Resource Type identified in Step 1 section 3. If the requested metric type does not exist for the resource in the references or the primary public documentation, you MUST explicitly inform the user that there is no default metric and ask them to provide the specific custom metric name. You MUST provide guidance on how a custom latency metric might be structured.

    • CRITICAL: If the primary documentation does not list a default metric, you MUST NOT try to piece together advanced metrics. Ask the user to provide the custom metric.

  4. Evaluation Method: Default the EvaluationType to REQUEST_BASED unless the user specifically describes a window-based requirement, typically denoted by "good minutes" or "bad minutes".

    • Window-Based Lookback Period: If the user indicates a window-based evaluation, you need to know the duration of the lookback windows and the evaluation interval for each window. You MUST ask the user to specify both the lookback duration and the evaluation interval if they have not already provided them. You CANNOT generate an alerting policy without this configuration.

  5. SRE Best Practice Suggestion: SRE Best Practice recommends starting with two SLIs:

    • Availability: a Ratio SLI comparing successful requests typically defined as non-5XX responses, to total requests evaluated as REQUEST_BASED.

    • Latency: a Distribution SLI evaluated as WINDOW_BASED such as 99% of 5-minute windows must meet a 300ms threshold.

Step 4: Define Alerting Policy
  1. Check Context: Has the user specified burn rates? If yes, proceed to the next step. Otherwise, ask the user to specify a burn rate strategy and provide a best practice suggestion.

  2. SRE Best Practice Suggestion: SRE Best Practice recommends both a multi-window fast burn and multi-window slow burn.

    • Multi-Window Fast Burn: Factor 14.4 over 1h and 5m windows, catching severe outages quickly without false positives.

    • Multi-Window Slow Burn: Factor 1 over 3d and 6h windows, catching system degradation.

Step 5: Generate Configuration
  1. Look up the corresponding PromQL template from references/promql_templates.md based on the user's choices. Use a Window-Based template for window-based SLOs.

  2. Populate the template with the ServiceScope labels, ServiceLevel targets, and ServiceLevelIndicator metrics.

  3. Wrap it in Terraform (google_monitoring_alert_policy), ensuring the user_labels block includes created-with-google-skill = "google-cloud-slo-alert-configuration".

  4. Present the .tf block with a plain English explanation of the math.

  5. In the final summary, inform the user that the alert policies have been tagged with the created-with-google-skill = "google-cloud-slo-alert-configuration" user label to track policies created by this skill.

  6. CRITICAL: Explicitly warn the user in the final summary if no notification channels are configured. Inform them that you can assist with setting those up if they would like.


Reporting Issues

Report bugs or improvements for this skill at Google Skills Issues.

Files

references/promql_templates.md

PromQL Templates

These templates implement the mathematics of SRE burn rates and lookback windows.

Table of Contents

  • General Templates (lines 20-215)

    • Single Window Templates (lines 22-66)

    • Multi-Window Templates (lines 68-136)

    • Window-Based Templates (lines 138-215)

  • System Templates (lines 216-330)

    • Cloud Run Revision Availability (lines 218-245)

    • Vertex AI Reasoning Engine Availability (lines 247-271)

    • App Hub Service Availability (lines 273-298)

    • Cloud Run Revision (Filtered) (lines 300-330)

  • Terraform Alert Policy Template (lines 331-360)

General Templates

Single Window - Indirect (1 - Good/Total), Variable Factor & Window

(
  1 - (
    sum(rate({GOOD_METRIC}[{WINDOW}])) BY ({...labels})
    /
    sum(rate({TOTAL_METRIC}[{WINDOW}])) BY ({...labels})
  )
) > (1 - {SLO_TARGET}) * {BURN_RATE_FACTOR}

Single Window - Direct (Bad/Total), Variable Factor & Window

(
  sum(rate({BAD_METRIC}[{WINDOW}])) BY ({...labels})
  /
  sum(rate({TOTAL_METRIC}[{WINDOW}])) BY ({...labels})
) > (1 - {SLO_TARGET}) * {BURN_RATE_FACTOR}

Single Window - Direct (Bad/Total) - FAST BURN (Factor: 14.4, Window: 1h)

(
  sum(rate({BAD_METRIC}[1h])) BY ({...labels}) / sum(rate({TOTAL_METRIC}[1h])) BY ({...labels})
) > (1 - {SLO_TARGET}) * 14.4

Single Window - Direct (Bad/Total) - MEDIUM BURN (Factor: 6.0, Window: 6h)

(
  sum(rate({BAD_METRIC}[6h])) BY ({...labels}) / sum(rate({TOTAL_METRIC}[6h])) BY ({...labels})
) > (1 - {SLO_TARGET}) * 6.0

Single Window - Direct (Bad/Total) - SLOW BURN (Factor: 1.0, Window: 3d)

(
  sum(rate({BAD_METRIC}[3d])) BY ({...labels}) / sum(rate({TOTAL_METRIC}[3d])) BY ({...labels})
) > (1 - {SLO_TARGET}) * 1.0

Multi-Window - Indirect (1 - Good/Total) - FAST BURN (Factor: 14.4, Windows: 1h & 5m)

(
  (
    1 - (
      sum(rate({GOOD_METRIC}[5m])) BY ({...labels}) / sum(rate({TOTAL_METRIC}[5m])) BY ({...labels})
    )
  ) > (1 - {SLO_TARGET}) * 14.4
) and (
  (
    1 - (
      sum(rate({GOOD_METRIC}[1h])) BY ({...labels}) / sum(rate({TOTAL_METRIC}[1h])) BY ({...labels})
    )
  ) > (1 - {SLO_TARGET}) * 14.4
)

Multi-Window - Direct (Bad/Total) - MEDIUM BURN (Factor: 6, Windows: 6h & 30m)

(
  (
    sum(rate({BAD_METRIC}[30m])) BY ({...labels}) / sum(rate({TOTAL_METRIC}[30m])) BY ({...labels})
  ) > (1 - {SLO_TARGET}) * 6.0
) and (
  (
    sum(rate({BAD_METRIC}[6h])) BY ({...labels}) / sum(rate({TOTAL_METRIC}[6h])) BY ({...labels})
  ) > (1 - {SLO_TARGET}) * 6.0
)

Multi-Window - Indirect (1 - Good/Total) - SLOW BURN (Factor: 1.0, Windows: 3d & 6h)

(
  (
    1 - (
      sum(rate({GOOD_METRIC}[6h])) BY ({...labels}) / sum(rate({TOTAL_METRIC}[6h])) BY ({...labels})
    )
  ) > (1 - {SLO_TARGET}) * 1.0
) and (
  (
    1 - (
      sum(rate({GOOD_METRIC}[3d])) BY ({...labels}) / sum(rate({TOTAL_METRIC}[3d])) BY ({...labels})
    )
  ) > (1 - {SLO_TARGET}) * 1.0
)

Multi-Window - Distribution (Latency), FAST BURN (Factor: 14.4, Windows: 1h & 5m)

(
  (
    1 - histogram_fraction({LATENCY_THRESHOLD_MS}, sum by (le, {...labels}) (rate({DISTRIBUTION_METRIC}[5m])))
  ) > (1 - {SLO_TARGET}) * 14.4
)
and
(
  (
    1 - histogram_fraction({LATENCY_THRESHOLD_MS}, sum by (le, {...labels}) (rate({DISTRIBUTION_METRIC}[1h])))
  ) > (1 - {SLO_TARGET}) * 14.4
)

Window-Based - Multi-Window - Indirect - FAST BURN (Factor: 14.4, Windows: 1h & 5m)

  • Fraction of Bad Windows - Fraction of bad 1m windows exceeds the allowed count

  • [5m:1m] / [1h:1m] - Lookback 5m/1h, 1m evaluation interval

(
  avg_over_time(
    (
      (
        1 - (
          sum(rate({GOOD_METRIC}[1m])) BY ({...labels})
          /
          sum(rate({TOTAL_METRIC}[1m])) BY ({...labels})
        )
      ) > bool (1 - {WINDOW_TARGET})

    )[5m:1m]
  ) > (1 - {SLO_TARGET}) * 14.4
)
and
(
  avg_over_time(
    (
      (
        1 - (
          sum(rate({GOOD_METRIC}[1m])) BY ({...labels})
          /
          sum(rate({TOTAL_METRIC}[1m])) BY ({...labels})
        )
      ) > bool (1 - {WINDOW_TARGET})

    )[1h:1m]
  ) > (1 - {SLO_TARGET}) * 14.4
)

Window-Based - Multi-Window - Indirect - FAST BURN (Factor: 14.4, Windows: 1h & 5m)

  • Number of Bad Windows - Number of bad 1m windows exceeds the allowed count

  • [5m:1m] / [1h:1m] - Lookback 5m/1h, 1m evaluation interval

(
  sum_over_time(
    (
      (
        1 - (
          sum(rate({GOOD_METRIC}[1m])) BY ({...labels})
          /
          sum(rate({TOTAL_METRIC}[1m])) BY ({...labels})
        )
      ) > bool (1 - {WINDOW_TARGET})

    )[5m:1m]
  ) > (1 - {SLO_TARGET}) * 14.4 * 5
)
and
(
  sum_over_time(
    (
      (
        1 - (
          sum(rate({GOOD_METRIC}[1m])) BY ({...labels})
          /
          sum(rate({TOTAL_METRIC}[1m])) BY ({...labels})
        )
      ) > bool (1 - {WINDOW_TARGET})

    )[1h:1m]
  ) > (1 - {SLO_TARGET}) * 14.4 * 60
)

System Templates

Multi-Window - Indirect - FAST BURN - Availability, Scoped to Cloud Run Revision (Factor: 14.4, Windows: 1h & 5m)

  • Metric: run.googleapis.com/request_count

  • Error Filter: response_code_class="5xx"

  • Scope: project_id, service_name, location

(
  (
    1 - (
      sum(rate(run_googleapis_com:request_count{response_code_class!="5xx"}[5m])) BY (project_id, service_name, location)
      /
      sum(rate(run_googleapis_com:request_count[5m])) BY (project_id, service_name, location)
    )
  ) > (1 - {SLO_TARGET}) * 14.4
)
and
(
  (
    1 - (
      sum(rate(run_googleapis_com:request_count{response_code_class!="5xx"}[1h])) BY (project_id, service_name, location)
      /
      sum(rate(run_googleapis_com:request_count[1h])) BY (project_id, service_name, location)
    )
  ) > (1 - {SLO_TARGET}) * 14.4
)

Multi-Window - Direct - SLOW BURN - Availability, Scoped to Vertex AI Reasoning Engine (Factor: 1, Windows: 3d & 6h)

  • Metric: aiplatform.googleapis.com/reasoning_engine_request_count

  • Error Filter: response_code=~"5.."

  • Scope: resource_container (must be prefixed with projects/), location, reasoning_engine_id

(
  (
    sum(rate(aiplatform_googleapis_com:reasoning_engine_request_count{resource_container="projects/{PROJECT_ID}", response_code=~"5.."}[6h])) BY (resource_container, location, reasoning_engine_id)
    /
    sum(rate(aiplatform_googleapis_com:reasoning_engine_request_count{resource_container="projects/{PROJECT_ID}"}[6h])) BY (resource_container, location, reasoning_engine_id)
  ) > (1 - {SLO_TARGET}) * 1.0
)
and
(
  (
    sum(rate(aiplatform_googleapis_com:reasoning_engine_request_count{resource_container="projects/{PROJECT_ID}", response_code=~"5.."}[3d])) BY (resource_container, location, reasoning_engine_id)
    /
    sum(rate(aiplatform_googleapis_com:reasoning_engine_request_count{resource_container="projects/{PROJECT_ID}"}[3d])) BY (resource_container, location, reasoning_engine_id)
  ) > (1 - {SLO_TARGET}) * 1.0
)

Multi-Window - Direct - FAST BURN - Availability, Scoped to App Hub Service (Factor: 14.4, Windows: 1h & 5m)

  • Metric: run.googleapis.com/request_count

  • Error Filter: response_code_class="5xx"

  • Scope: metadata_system_apphub_application_id, metadata_system_apphub_host_project_id, metadata_system_apphub_location, metadata_system_apphub_service_id

(
  (
    sum(rate(run_googleapis_com:request_count{response_code_class="5xx"}[5m])) BY (metadata_system_apphub_application_id, metadata_system_apphub_host_project_id, metadata_system_apphub_location, metadata_system_apphub_service_id)
    /
    sum(rate(run_googleapis_com:request_count[5m])) BY (metadata_system_apphub_application_id, metadata_system_apphub_host_project_id, metadata_system_apphub_location, metadata_system_apphub_service_id)
  ) > (1 - {SLO_TARGET}) * 14.4
)
and
(
  (
    sum(rate(run_googleapis_com:request_count{response_code_class="5xx"}[1h])) BY (metadata_system_apphub_application_id, metadata_system_apphub_host_project_id, metadata_system_apphub_location, metadata_system_apphub_service_id)
    /
    sum(rate(run_googleapis_com:request_count[1h])) BY (metadata_system_apphub_application_id, metadata_system_apphub_host_project_id, metadata_system_apphub_location, metadata_system_apphub_service_id)
  ) > (1 - {SLO_TARGET}) * 14.4
)

Multi-Window - Indirect - FAST BURN - Availability, Scoped and Filtered to Cloud Run Revision (Factor: 14.4, Windows: 1h & 5m)

  • Metric: run.googleapis.com/request_count

  • Error Filter: response_code_class="5xx"

  • Scope: project_id, service_name, location

  • Service Filter: service_name="frontend-api", location="us-central1", response_code_class!="5xx"

(
  (
    1 - (
      sum(rate(run_googleapis_com:request_count{project_id="my-app-project", service_name="frontend-api", location="us-central1", response_code_class!="5xx"}[5m])) BY (project_id, service_name, location)
      /
      sum(rate(run_googleapis_com:request_count{project_id="my-app-project", service_name="frontend-api", location="us-central1"}[5m])) BY (project_id, service_name, location)
    )
  ) > (1 - 0.99) * 14.4
)
and
(
  (
    1 - (
      sum(rate(run_googleapis_com:request_count{project_id="my-app-project", service_name="frontend-api", location="us-central1", response_code_class!="5xx"}[1h])) BY (project_id, service_name, location)
      /
      sum(rate(run_googleapis_com:request_count{project_id="my-app-project", service_name="frontend-api", location="us-central1"}[1h])) BY (project_id, service_name, location)
    )
  ) > (1 - 0.99) * 14.4
)

Terraform Alert Policy Template

When generating Terraform configurations for SLO alert policies, wrap the PromQL query in a google_monitoring_alert_policy resource with condition_prometheus_query_language, and include the required user_labels:

resource "google_monitoring_alert_policy" "slo_burn_rate_alert" {
  project      = var.project_id
  display_name = "[SLO] $${var.service_name} - Burn Rate Alert"
  combiner     = "OR"

  conditions {
    display_name = "Burn Rate Condition"
    condition_prometheus_query_language {
      query    = <<EOT
{promql_query}
EOT
      duration = "300s" # Omit duration for lookback windows > 25h (e.g., 3d)
    }
  }

  user_labels = {
    created-with-google-skill = "google-cloud-slo-alert-configuration"
  }

  notification_channels = var.notification_channels
}

Requirements and compatibility

Works with: Claude Code, Claude apps, OpenAI Codex, GitHub Copilot, Cursor, Gemini CLI, Kiro, OpenCode, Goose, Amp, Roo Code, JetBrains Junie, Factory Droid, Devin (ex-Windsurf), Mistral Vibe, OpenHands, Letta

“Works with” means the tool reads the open Agent Skills format; a skill written for one tool may use features others lack.

Security

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Attribution and licence

Published by
Google
Publisher
Google (Official)
Source
google/skills · skills/cloud/google-cloud-slo-alert-configuration · commit 2194d3b
Licence
Apache License 2.0 (redistribution allowed)
  • LICENSE (added by AutoGineer from LICENSE)
  • ATTRIBUTION.md (written by AutoGineer)
Synced

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Download ZIP

The ZIP holds the skill’s files, its licence files and an ATTRIBUTION.md. Download google-cloud-slo-alert-configuration.zip