📊 Agentic Workflow Lock File Statistics - 2026-02-09 #14616
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This discussion was automatically closed because it expired on 2026-02-16T08:35:18.454Z.
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This analysis examines 148 lock files totaling 8.5 MB from the
.github/workflows/directory. The repository demonstrates a mature and well-structured agentic workflow ecosystem with consistent patterns and comprehensive safe output configurations.Key Metrics:
File Size Distribution
Size Statistics:
View Outlier Analysis
Large Files (>90 KB):
These larger files indicate more comprehensive test suites or complex multi-step workflows.
Trigger Analysis
Most Popular Triggers
Common Trigger Combinations
View Schedule Patterns
Schedule Distribution (Cron Patterns)
Pattern Observation: Most schedules target weekday-only execution (Mon-Fri), indicating business-focused automation. Times are distributed throughout the day to avoid GitHub Actions concurrency limits.
Safe Outputs Analysis
Safe outputs are configured in 141 workflows (95.3%), demonstrating comprehensive governance and controlled output mechanisms.
Safe Output Types Distribution
* All 141 workflows with safe outputs have
noopconfigured as a fallbackKey Insight: The high prevalence of
noop(100%) combined withcreate_discussion(41%) indicates a reporting-focused ecosystem where agents log transparency messages even when no changes are made.Discussion Categories
When workflows create discussions, they use these categories:
Pattern: The "audits" category dominates, serving as the primary destination for agent-generated reports and analysis results.
Structural Characteristics
Job Complexity
Typical Lock File Structure
Based on statistical analysis, a representative agentic workflow has:
gh-aw-${{ github.workflow }}Timeout Patterns
Average Timeout: ~18 minutes
Pattern: Most workflows cluster around 10-20 minutes, with timeout values carefully chosen based on expected execution time.
Tool & MCP Patterns
MCP Server Usage
Observation: The GitHub MCP server is the dominant integration (35 workflows, 23.6%), enabling rich GitHub API interactions for most agentic workflows.
Concurrency Groups
gh-aw-${{ github.workflow }}gh-aw-${{ github.workflow }}-${{ issue/pr.number }}gh-aw-${{ github.workflow }}-${{ pr.number || ref }}gh-aw-${{ github.workflow }}-${{ issue.number }}Pattern: 80% of workflows use simple workflow-level concurrency, preventing multiple instances of the same workflow from running simultaneously.
Historical Trends
Comparing with previous analysis (2026-02-08):
Analysis:
Interesting Findings
Near-Universal Manual Override: 88.5% of workflows include
workflow_dispatch, enabling manual testing and debugging even for scheduled agents.Weekday-Only Scheduling: Analysis of cron patterns shows a strong preference for weekday-only execution (Mon-Fri), avoiding weekend runs for business-focused automation.
Safety-First Design: 95.3% of workflows configure safe outputs with
noopas a universal fallback, ensuring transparency even when agents make no changes.Consistent Sizing: 79.7% of lock files fall within the 50-70 KB range, suggesting strong standardization and reusable patterns.
Limited External Dependencies: Only 4 MCP servers are used across all workflows, with GitHub MCP dominating. This indicates a focused, maintainable integration surface.
Multi-Event Agents Rare: Only 3 workflows respond to 6+ different event types, suggesting most agents are purpose-built for specific triggers rather than general-purpose responders.
Timeout Discipline: 99% of workflows (147/148) specify explicit timeouts, demonstrating strong operational discipline and resource management.
Recommendations
Based on the statistical analysis:
Standardize on 50-70 KB Range: This size represents the sweet spot for agentic workflows. Workflows outside this range may benefit from review for optimization or splitting.
Consider Schedule Distribution: With many workflows scheduled at the same times (e.g., 4 workflows at 13:00 UTC), consider further scattering to avoid GitHub Actions queue congestion.
Expand MCP Integration Cautiously: The limited MCP surface (4 servers) is a strength. New integrations should be evaluated carefully to maintain system simplicity.
Monitor Step Count Growth: The 24.6% increase in average steps suggests workflows are becoming more complex. Track this metric to prevent complexity creep.
Document Size Outliers: The 3 workflows >90 KB should be documented to explain why they require additional complexity.
Leverage Concurrency Patterns: 80% use simple workflow-level concurrency. The 20% using per-issue/PR concurrency patterns may serve as templates for new interactive agents.
Methodology
/tmp/gh-aw/cache-memory/.github/workflows/*.lock.ymlfilesAnalysis Scripts:
/tmp/gh-aw/cache-memory/scripts/comprehensive_analysis_v2.py/tmp/gh-aw/cache-memory/scripts/lockfile_analysis_v3.py(today's enhanced version)Data Accuracy: All statistics are derived from direct parsing of YAML lock files. Safe output configurations extracted from embedded
config.jsonblocks within each lock file.References:
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