Distributed Tracing

Implement distributed tracing with Jaeger and Tempo to track requests across microservices and identify performance bottlenecks. Use when debugging microservices, analyzing request flows, or implementing observability for distributed systems.

81OpxScoreProvisional
Community resultNot enough feedback0 votes
Model evidenceNo verified testsModel fit pending

Score breakdown

Estimated from the available content and source signals.

Provisional
Documentation90
Practical value82
Evidence63
Source trust80

Model compatibility

Inferred fit is not the same as a recorded hands-on test.

ClaudeuntestedNo model-specific signal or recorded compatibility test was found.
ChatGPTuntestedNo model-specific signal or recorded compatibility test was found.
GeminiuntestedNo model-specific signal or recorded compatibility test was found.
CopilotuntestedNo model-specific signal or recorded compatibility test was found.
LlamauntestedNo model-specific signal or recorded compatibility test was found.
PerplexityuntestedNo model-specific signal or recorded compatibility test was found.
MistraluntestedNo model-specific signal or recorded compatibility test was found.
GrokuntestedNo model-specific signal or recorded compatibility test was found.

Overview

Distributed Tracing

Implement distributed tracing with Jaeger and Tempo for request flow visibility across microservices.

Purpose

Track requests across distributed systems to understand latency, dependencies, and failure points.

When to Use

  • Debug latency issues
  • Understand service dependencies
  • Identify bottlenecks
  • Trace error propagation
  • Analyze request paths

Detailed patterns and worked examples

Detailed pattern documentation lives in references/details.md. Read that file when the navigation tier above is insufficient.

Best Practices

  1. Sample appropriately (1-10% in production)
  2. Add meaningful tags (user_id, request_id)
  3. Propagate context across all service boundaries
  4. Log exceptions in spans
  5. Use consistent naming for operations
  6. Monitor tracing overhead (<1% CPU impact)
  7. Set up alerts for trace errors
  8. Implement distributed context (baggage)
  9. Use span events for important milestones
  10. Document instrumentation standards

Integration with Logging

Correlated Logs

import logging
from opentelemetry import trace

logger = logging.getLogger(__name__)

def process_request():
    span = trace.get_current_span()
    trace_id = span.get_span_context().trace_id

    logger.info(
        "Processing request",
        extra={"trace_id": format(trace_id, '032x')}
    )

Troubleshooting

No traces appearing:

  • Check collector endpoint
  • Verify network connectivity
  • Check sampling configuration
  • Review application logs

High latency overhead:

  • Reduce sampling rate
  • Use batch span processor
  • Check exporter configuration

Related Skills

  • prometheus-configuration - For metrics
  • grafana-dashboards - For visualization
  • slo-implementation - For latency SLOs

Best for

  • Debug latency issues
  • Understand service dependencies
  • Identify bottlenecks
  • Trace error propagation
  • Analyze request paths

Tips and best practices

  • Sample appropriately (1-10% in production)
  • Add meaningful tags (userid, requestid)
  • Propagate context across all service boundaries
  • Log exceptions in spans
  • Use consistent naming for operations
  • Monitor tracing overhead (<1% CPU impact)
  • Set up alerts for trace errors
  • Implement distributed context (baggage)
  • Use span events for important milestones
  • Document instrumentation standards

What This Skill Can Do

AI-generated examples showing real capabilities

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