performance-slo-planner

Planejamento de desempenho, carga e confiabilidade (SLO/SRE) para prontidão de produção. Use ao definir objetivos de nível de serviço, caracterização de carga, capacidade…

npx skills add https://github.com/microsoft/hve-core --skill performance-slo-planner

Performance & SLO/SRE Planner

Turn vague "it should be fast and reliable" expectations into measurable SLIs, SLOs, a load model, a test matrix, and a reliability backlog for production readiness. Pairs with Azure Load Testing tooling for execution. This skill plans; it does not run the tests.

When to Use

  • Defining service level objectives and error budgets before launch.
  • Characterizing load behavior (steady, peak, spike, soak) for a system with "no characterized load."
  • Setting latency/throughput budgets and a false-positive/accuracy baseline.
  • Producing a reliability/SRE backlog for a production-readiness review.

When Not to Use

  • Running the load tests: hand the test matrix to the Azure Load Testing tools.
  • Security, RAI, or privacy concerns: use the respective specialist skill.
  • Authoring or restating requirements: cite the PRD's existing NFR ids rather than re-deriving targets.
  • Redefining user journeys: reference the PRD's existing FR ids rather than inventing flows.

Inputs

Gather what exists; flag what is missing as an assumption to validate.

  1. Business goals (BRD): the business objectives and risk tolerance behind the targets (for example revenue-critical flows, contractual SLAs) that justify each SLO and error budget.
  2. Critical user journeys: the flows that must stay fast (for example: incident ingest → display, dispatch action, alert acknowledge).
  3. Stated NFRs (PRD): latency/availability targets from the PRD's NFRs, Success Metrics, and Operational Readiness sections (for example stratified SLAs like "Critical ≤ 60s, Standard ≤ 3min").
  4. Traffic assumptions: expected and peak concurrency, request rates, and growth.
  5. Accuracy expectations: false-positive tolerance where relevant (for example alerting).

Procedure

  1. Identify SLIs. For each critical journey pick measurable indicators: latency (p50/p95/p99), availability, error rate, and accuracy/false-positive rate where relevant.
  2. Set SLOs and error budgets. For each SLI define a target, a measurement window, and the resulting error budget. Anchor each SLO to a specific PRD NFR id when present; otherwise propose a target and mark it [ASSUMPTION] for tuning.
  3. Define the load model. Specify steady-state, peak, spike, and soak profiles with concurrency/rate and duration for each.
  4. Build the test matrix. Map each load profile to the journeys it exercises, the pass/fail SLO thresholds, and the environment.
  5. Plan capacity and degradation. Note scaling assumptions, saturation points, and required graceful-degradation behavior (no silent fidelity drops).
  6. List observability hooks. Name the metrics/traces needed to measure each SLI in production; an SLO you cannot measure is not real.
  7. Write the backlog to .copilot-tracking/performance-plans/<date>-performance-slo-plan.md using the Output Format.

Output Format

# Performance & SLO Plan: <app>

## SLOs
| SLI         | Journey         | Target           | Window         | Error budget | Source                 |
|-------------|-----------------|------------------|----------------|--------------|------------------------|
| p95 latency | dispatch action | ≤ 60s end-to-end | 28-day rolling | 1%           | NFR-123 / [ASSUMPTION] |

## Load model
| Profile             | Concurrency / rate | Duration | Purpose  |
|---------------------|--------------------|----------|----------|
| Steady              | ...                | ...      | baseline |
| Peak / Spike / Soak | ...                | ...      | ...      |

## Test matrix
| Test | Profile | Journeys | Pass threshold | Env |
|------|---------|----------|----------------|-----|

## Observability hooks
- <metric/trace needed to measure each SLI>

## Backlog
1. <item>: priority, depends-on, SLO it protects

> [!CAUTION]
> This plan is an assistive artifact and does not replace professional performance, reliability, or SRE review. Validate SLO targets, error budgets, and rollback triggers with the owning team before acting on them.

Principles

  • Measurable or it's not an SLO. Every target needs a defined SLI and a way to measure it in production.
  • Anchor to the PRD, mark the rest. Use stated NFRs verbatim; flag proposed numbers [ASSUMPTION] for agency/environment tuning.
  • Plan, don't run. Output a test matrix the Azure Load Testing tools can execute; do not execute here.
  • Degradation is a requirement. Define what graceful degradation looks like, not just the happy path.
  • Review-required. This plan is assistive: carry the professional-review disclaimer and validate targets and budgets with the owning team before acting.

Mais skills de microsoft

oss-growth
microsoft
Persona de growth hacker OSS
agent-framework-azure-ai-py
microsoft
Crie agentes do Azure AI Foundry usando o SDK Python do Microsoft Agent Framework (agent-framework-azure-ai). Use ao criar agentes persistentes com AzureAIAgentsProvider, usando ferramentas hospedadas (interpretador de código, pesquisa de arquivos, pesquisa na web), integrando servidores MCP, gerenciando threads de conversa ou implementando respostas em streaming. Abrange ferramentas de função, saídas estruturadas e agentes com múltiplas ferramentas.
development
airunway-aks-setup
microsoft
Configure o AI Runway no AKS — do cluster vazio ao modelo em execução. Abrange verificação do cluster, instalação do controlador, avaliação de GPU, configuração do provedor e primeira implantação. QUANDO: "configurar AI Runway", "integrar cluster AKS", "instalar AI Runway", "configuração do airunway", "implantar modelo no AKS", "inferência GPU no AKS", "configuração KAITO no AKS", "executar LLM no AKS", "vLLM no AKS", "configurar serviço de modelo no AKS", "controlador AI Runway".
devops
appinsights-instrumentation
microsoft
Orientação para instrumentar aplicações web com Azure Application Insights. Fornece padrões de telemetria, configuração de SDK e referências de configuração. QUANDO: como instrumentar o app, SDK do App Insights, padrões de telemetria, o que é App Insights, orientação sobre Application Insights, exemplos de instrumentação, melhores práticas de APM.
devops
applicationinsights-web-ts
microsoft
Instrumente aplicativos de navegador/web com o SDK JavaScript do Application Insights (@microsoft/applicationinsights-web). Use para Real User Monitoring (RUM) — visualizações de página, cliques, dependências AJAX/fetch, exceções, eventos personalizados e rastreamentos de agentes GenAI no lado do navegador correlacionados a rastreamentos OpenTelemetry no backend. Abrange o Script de Carregamento do SDK e a configuração via npm, extensões de frameworks (React, React Native, Angular), Click Analytics, inicializadores de telemetria e convenções semânticas GenAI do OTel para spans de agente/ferramenta/modelo emitidos pelo navegador.
devops
azure-ai-anomalydetector-java
microsoft
Crie aplicativos de detecção de anomalias com o SDK do Azure AI Anomaly Detector para Java. Use ao implementar detecção de anomalias univariada/multivariada, análise de séries temporais ou monitoramento com IA.
development
azure-ai-language-conversations-py
microsoft
Implemente o reconhecimento de linguagem conversacional (CLU) usando o SDK Python azure-ai-language-conversations. Use ao trabalhar com ConversationAnalysisClient para analisar intenção e entidades de conversas, criar recursos de NLP ou integrar o reconhecimento de linguagem em aplicativos.
development
azure-ai-ml-py
microsoft
SDK v2 do Azure Machine Learning para Python. Use para workspaces de ML, jobs, modelos, conjuntos de dados, computação e pipelines. Gatilhos: "azure-ai-ml", "MLClient", "workspace", "registro de modelos", "jobs de treinamento", "conjuntos de dados".
development