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observability-instrumentation可观测性仪器

Agent Skill

observability-instrumentation 用于查找、检索和筛选相关信息,适合在 Codex、Claude、Cursor、Gemini CLI 中需要根据关键词、任务场景或来源线索快速定位候选结果时使用。可结合来源仓库、安装命令和原始 README 继续核验具体用法。安装前建议确认权限范围、维护状态,以及是否会触发联网、命令执行或文件读写。

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安装说明

本站只整理中文说明和来源信息,不托管安装包,也不代用户安装。

GitHub

来源数

2

许可证

MIT

最后核验

2026-05-01

来源状态

来源可访问

安装方式

通过对话安装

复制提示词发给支持本地命令或 Skills 的 AI 助手,先确认命令和权限,再让它执行。

请帮我安装这个 Agent Skill:observability-instrumentation(可观测性仪器)
来源仓库:https://github.com/zpankz/mcp-skillset
仓库路径:skills/observability-instrumentation
安装命令:
npx skills add zpankz/mcp-skillset --skill "observability-instrumentation"
安装前请先检查当前环境是否支持对应 CLI,并向我确认将要执行的命令、安装目录、联网范围和文件读写权限;确认后再执行。

命令行安装

复制命令到本机终端执行。该命令会通过 npx skills 从第三方来源获取 Skill;本站只展示命令,不托管安装包,也不自动执行。

AgentSkills.tonpx skills
npx skills add zpankz/mcp-skillset --skill "observability-instrumentation"

简介

observability-instrumentation 用于查找、检索和筛选相关信息。

  • 适合在 Codex、Claude、Cursor、Gemini CLI 中根据任务场景定位结果。
  • 可结合来源仓库和原始 README 核验具体用法。
  • 安装前建议确认权限范围、维护状态及是否会触发联网或文件读写。
  • 适用宿主包括 Codex、Claude、Cursor、Gemini CLI,接入前应确认版本、权限和运行环境要求。

SKILL.md

name
Observability Instrumentation
description
Comprehensive observability methodology implementing three pillars (logs, metrics, traces) with structured logging using Go slog, Prometheus-style metrics, and distributed tracing patterns. Use when adding observability from scratch, logs unstructured or inadequate, no metrics collection, debugging production issues difficult, or need performance monitoring. Provides structured logging patterns (contextual logging, log levels DEBUG/INFO/WARN/ERROR, request ID propagation), metrics instrumentation (counter/gauge/histogram patterns, Prometheus exposition), tracing setup (span creation, context propagation, sampling strategies), and Go slog best practices (JSON formatting, attribute management, handler configuration). Validated in meta-cc with 23-46x speedup vs ad-hoc logging, 90-95% transferability across languages (slog specific to Go but patterns universal).
allowed-tools
Read, Write, Edit, Bash, Grep, Glob

Observability Instrumentation

Implement three pillars of observability: logs, metrics, and traces.

You can't improve what you can't measure. You can't debug what you can't observe.

When to Use This Skill

Use this skill when:

  • 📊 No observability: Starting from scratch
  • 📝 Unstructured logs: Printf debugging, no context
  • 📈 No metrics: Can't measure performance or errors
  • 🐛 Hard to debug: Production issues take hours to diagnose
  • 🔍 Performance unknown: No visibility into bottlenecks
  • 🎯 SLO/SLA tracking: Need to measure reliability

Don't use when:

  • ❌ Observability already comprehensive
  • ❌ Non-production code (development scripts, throwaway tools)
  • ❌ Performance not critical (batch jobs, admin tools)
  • ❌ No logging infrastructure available

Quick Start (20 minutes)

Step 1: Add Structured Logging (10 min)

// Initialize slog
import "log/slog"

logger := slog.New(slog.NewJSONHandler(os.Stdout, &slog.HandlerOptions{
    Level: slog.LevelInfo,
}))

// Use structured logging
logger.Info("operation completed",
    slog.String("user_id", userID),
    slog.Int("count", count),
    slog.Duration("duration", elapsed))

Step 2: Add Basic Metrics (5 min)

// Counters
requestCount.Add(1)
errorCount.Add(1)

// Gauges
activeConnections.Set(float64(count))

// Histograms
requestDuration.Observe(elapsed.Seconds())

Step 3: Add Request ID Propagation (5 min)

// Generate request ID
requestID := uuid.New().String()

// Add to context
ctx = context.WithValue(ctx, requestIDKey, requestID)

// Log with request ID
logger.InfoContext(ctx, "processing request",
    slog.String("request_id", requestID))

Three Pillars of Observability

1. Logs (Structured Logging)

Purpose: Record discrete events with context

Go slog patterns:

// Contextual logging
logger.InfoContext(ctx, "user authenticated",
    slog.String("user_id", userID),
    slog.String("method", authMethod),
    slog.Duration("elapsed", elapsed))

// Error logging with stack trace
logger.ErrorContext(ctx, "database query failed",
    slog.String("query", query),
    slog.Any("error", err))

// Debug logging (disabled in production)
logger.DebugContext(ctx, "cache hit",
    slog.String("key", cacheKey))

Log levels:

  • DEBUG: Detailed diagnostic information
  • INFO: General informational messages
  • WARN: Warning messages (potential issues)
  • ERROR: Error messages (failures)

Best practices:

  • Always use structured logging (not printf)
  • Include request ID in all logs
  • Log both successes and failures
  • Include timing information
  • Don't log sensitive data (passwords, tokens)

2. Metrics (Quantitative Measurements)

Purpose: Track aggregate statistics over time

Three metric types:

Counter (monotonically increasing):

httpRequestsTotal.Add(1)
httpErrorsTotal.Add(1)

Gauge (can go up or down):

activeConnections.Set(float64(connCount))
queueLength.Set(float64(len(queue)))

Histogram (distributions):

requestDuration.Observe(elapsed.Seconds())
responseSize.Observe(float64(size))

Prometheus exposition:

http.Handle("/metrics", promhttp.Handler())

3. Traces (Distributed Request Tracking)

Purpose: Track requests across services

Span creation:

ctx, span := tracer.Start(ctx, "database.query")
defer span.End()

// Add attributes
span.SetAttributes(
    attribute.String("db.query", query),
    attribute.Int("db.rows", rowCount))

// Record error
if err != nil {
    span.RecordError(err)
    span.SetStatus(codes.Error, err.Error())
}

Context propagation:

// Extract from HTTP headers
ctx = otel.GetTextMapPropagator().Extract(ctx, propagation.HeaderCarrier(req.Header))

// Inject into HTTP headers
otel.GetTextMapPropagator().Inject(ctx, propagation.HeaderCarrier(req.Header))

Go slog Best Practices

Handler Configuration

// Production: JSON handler
logger := slog.New(slog.NewJSONHandler(os.Stdout, &slog.HandlerOptions{
    Level: slog.LevelInfo,
    AddSource: true, // Include file:line
}))

// Development: Text handler
logger := slog.New(slog.NewTextHandler(os.Stdout, &slog.HandlerOptions{
    Level: slog.LevelDebug,
}))

Attribute Management

// Reusable attributes
attrs := []slog.Attr{
    slog.String("service", "api"),
    slog.String("version", version),
}

// Child logger with default attributes
apiLogger := logger.With(attrs...)

// Use child logger
apiLogger.Info("request received") // Includes service and version automatically

Performance Optimization

// Lazy evaluation (expensive operations)
logger.Info("operation completed",
    slog.Group("stats",
        slog.Int("count", count),
        slog.Any("details", func() interface{} {
            return computeExpensiveStats() // Only computed if logged
        })))

Implementation Patterns

Pattern 1: Request ID Propagation

type contextKey string
const requestIDKey contextKey = "request_id"

// Generate and store
requestID := uuid.New().String()
ctx = context.WithValue(ctx, requestIDKey, requestID)

// Extract and log
if reqID, ok := ctx.Value(requestIDKey).(string); ok {
    logger.InfoContext(ctx, "processing",
        slog.String("request_id", reqID))
}

Pattern 2: Operation Timing

func instrumentOperation(ctx context.Context, name string, fn func() error) error {
    start := time.Now()
    logger.InfoContext(ctx, "operation started", slog.String("operation", name))

    err := fn()
    elapsed := time.Since(start)

    if err != nil {
        logger.ErrorContext(ctx, "operation failed",
            slog.String("operation", name),
            slog.Duration("elapsed", elapsed),
            slog.Any("error", err))
        operationErrors.Add(1)
    } else {
        logger.InfoContext(ctx, "operation completed",
            slog.String("operation", name),
            slog.Duration("elapsed", elapsed))
    }

    operationDuration.Observe(elapsed.Seconds())
    return err
}

Pattern 3: Error Rate Monitoring

// Track error rates
totalRequests.Add(1)
if err != nil {
    errorRequests.Add(1)
}

// Calculate error rate (in monitoring system)
// error_rate = rate(errorRequests[5m]) / rate(totalRequests[5m])

Proven Results

Validated in bootstrap-009 (meta-cc project):

  • ✅ Structured logging with slog (100% coverage)
  • ✅ Metrics instrumentation (Prometheus-compatible)
  • ✅ Distributed tracing setup (OpenTelemetry)
  • ✅ 23-46x speedup vs ad-hoc logging
  • ✅ 7 iterations, ~21 hours
  • ✅ V_instance: 0.87, V_meta: 0.83

Speedup breakdown:

  • Debug time: 46x faster (context immediately available)
  • Performance analysis: 23x faster (metrics pre-collected)
  • Error diagnosis: 30x faster (structured logs + traces)

Transferability:

  • Go slog: 100% (Go-specific)
  • Structured logging patterns: 100% (universal)
  • Metrics patterns: 95% (Prometheus standard)
  • Tracing patterns: 95% (OpenTelemetry standard)
  • Overall: 90-95% transferable

Language adaptations:

  • Python: structlog, prometheus_client, opentelemetry-python
  • Java: SLF4J, Micrometer, OpenTelemetry Java
  • Node.js: winston, prom-client, @opentelemetry/api
  • Rust: tracing, prometheus, opentelemetry

Anti-Patterns

Log spamming: Logging everything (noise overwhelms signal) ❌ Unstructured logs: String concatenation instead of structured fields ❌ Synchronous logging: Blocking on log writes (use async handlers) ❌ Missing context: Logs without request ID or user context ❌ Metrics explosion: Too many unique label combinations (cardinality issues) ❌ Trace everything: 100% sampling in production (performance impact)


Related Skills

Parent framework:

Complementary:


References

Core guides:

  • Reference materials in experiments/bootstrap-009-observability-methodology/
  • Three pillars methodology
  • Go slog patterns
  • Metrics instrumentation guide
  • Tracing setup guide

Templates:

  • templates/logger-setup.go - Logger initialization
  • templates/metrics-instrumentation.go - Metrics patterns
  • templates/tracing-setup.go - OpenTelemetry configuration

Status: ✅ Production-ready | 23-46x speedup | 90-95% transferable | Validated in meta-cc

适合场景

01

用户想查找某类 Agent Skill 时

02

需要根据任务场景推荐可安装能力包时

03

需要对比不同来源的安装命令和来源信息时

04

需要参考平台分布和安装热度时

能力概览

能力 1

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能力 2

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能力 3

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能力 4

补充不同宿主或平台的使用分布数据

安装后应在对应宿主中按原始 README 的触发条件使用;具体调用方式请以来源页面和 README 为准。

平台分布

OpenCode

27.47%
按下载量换算381

Claude Code

25.66%
按下载量换算356

windsurf

16.28%
按下载量换算226

Codex

12.29%
按下载量换算170

kiro-cli

7.86%
按下载量换算109

mcpjam

3.41%
按下载量换算47

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权限和风险

external-service

该 Skill 可能调用第三方服务、云服务或外部模型 API,使用前需要确认账号、额度、数据发送范围和服务条款。

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