📊 Agentic Workflow Lock File Statistics - 2026-02-10 #14747
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This discussion was automatically closed because it expired on 2026-02-17T08:33:50.208Z.
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Executive Summary
This comprehensive analysis examines all 148 lock files (.lock.yml) in the
.github/workflows/directory, revealing the structural patterns, automation strategies, and safe output configurations that power this repository's agentic workflows.Key Highlights:
Quick Stats
File Size Distribution
The majority of lock files cluster in the 50-70KB range, representing a standardized workflow structure with consistent feature sets.
Size Statistics:
View Top 10 Largest Workflows
Trigger Analysis
Most Popular Triggers
Agentic workflows in this repository favor automation and flexibility, with the vast majority supporting both scheduled execution and manual invocation.
Common Trigger Combinations
Most workflows combine multiple triggers for maximum flexibility:
Insight: The dominant pattern (schedule + workflow_dispatch) enables automated daily/hourly operations while preserving the ability to trigger on-demand for testing or immediate needs.
Schedule Patterns
View Schedule Distribution (Cron Patterns)
Most workflows run during business hours on weekdays (Monday-Friday), with peak scheduling at midday UTC:
0 13 * * 1-50 14 * * 1-50 11 * * 1-50 9 * * 1-50 10 * * 1-50 15 * * 1-50 16 * * 1-50 7 * * 1-5Pattern: Workflows are deliberately scheduled throughout business hours to distribute load and provide regular, continuous monitoring and maintenance.
Safe Outputs Analysis
Safe outputs are the primary mechanism for workflows to produce visible results. Nearly all workflows (95.3%) use at least one safe output type, with many using multiple output methods.
Safe Output Types Distribution
Total Safe Output Types: 30 distinct safe output types configured across all workflows
Safe Output Patterns
View Safe Output Combination Patterns
All 141 workflows with safe outputs use multiple output types, demonstrating sophisticated output strategies:
Common Patterns:
Audit Workflow Pattern:
noop + create_discussion + upload_assetIssue Management Pattern:
noop + create_issue + add_comment + add_labelsPR Automation Pattern:
noop + create_pull_request + push_to_pull_request_branchInteractive Pattern:
noop + add_comment + add_labels + remove_labelsDiscussion Categories
Discussion safe outputs don't specify categories in the config (allowing dynamic category selection), showing flexibility in report organization.
Structural Characteristics
Job Complexity
Workflows in this repository follow a consistent multi-job architecture for modularity and parallel execution:
Step Complexity
View Top 10 Most Complex Workflows (By Steps)
daily-copilot-token-report.lock.yml - 103 steps
deep-report.lock.yml - 98 steps
audit-workflows.lock.yml - 98 steps
copilot-pr-nlp-analysis.lock.yml - 95 steps
unbloat-docs.lock.yml - 95 steps
daily-performance-summary.lock.yml - 93 steps
poem-bot.lock.yml - 93 steps
prompt-clustering-analysis.lock.yml - 92 steps
smoke-copilot.lock.yml - 90 steps
cloclo.lock.yml - 88 steps
View Top 5 Simplest Workflows (By Steps)
These are minimal test workflows used for validation and debugging:
Average Lock File Structure
Based on statistical analysis, a typical .lock.yml file in this repository has:
gh-aw-${{ github.workflow }}(79.1%)Permission Patterns
Permission Configuration
Interestingly, zero workflows explicitly declare permissions in the top-level YAML structure. This suggests:
Security Note: While no explicit permissions are declared in lock files, the workflows operate within GitHub Actions' permission model and benefit from repository-level permission controls.
Tool & MCP Patterns
MCP Server Usage
Only 23.6% of workflows use Model Context Protocol (MCP) servers, indicating most workflows use standard GitHub Actions capabilities:
Insight: The GitHub MCP server dominates MCP usage, enabling advanced GitHub operations beyond standard Actions. Specialized MCPs (Playwright, DeepWiki, ArXiv) serve niche automation needs.
Tool Configuration Patterns
View Common Tool Patterns
Based on workflow analysis, common tool usage patterns include:
Standard GitHub Actions Tools:
Safe Outputs Tools (95.3% of workflows):
MCP Server Tools (23.6% of workflows):
Custom Scripts:
Timeout & Concurrency Patterns
Timeout Configuration
Nearly all workflows (99.3%) specify explicit timeouts, with a clear preference for moderate execution windows:
Average Timeout: ~20 minutes
Median Timeout: 20 minutes
Pattern: Timeout distribution follows workflow complexity - simple test workflows use 5-10 minutes, standard workflows use 15-20 minutes, and comprehensive analysis workflows use 30-45 minutes.
Concurrency Groups
An overwhelming 98.6% of workflows use concurrency groups to prevent resource conflicts:
gh-aw-${{ github.workflow }}gh-aw-${{ github.workflow }}-${{ github.event.issue.number || github.event.pull_request.number }}gh-aw-${{ github.workflow }}-${{ github.event.pull_request.number || github.ref }}gh-aw-${{ github.workflow }}-${{ github.event.issue.number }}Pattern: The dominant pattern prevents multiple runs of the same workflow type from executing simultaneously, ensuring resource efficiency and preventing race conditions.
Interesting Findings
1. Standardized Workflow Architecture 📐
The remarkable consistency in file sizes (80.4% in 50-70KB range) and structure (avg 6 jobs, 74 steps) indicates a mature, standardized workflow template system. This consistency simplifies maintenance and onboarding.
2. Comprehensive Safe Output Strategy 🎯
With 95.3% of workflows using safe outputs and an average of 2-4 output types per workflow, this repository demonstrates a sophisticated approach to workflow observability. The universal use of
noop(141/148) ensures transparency even when no other action is taken.3. Automation-First Philosophy 🤖
71.6% scheduled execution combined with 88.5% manual trigger support shows a "automate everything, but maintain control" philosophy. Workflows run automatically but can be triggered on-demand for testing or urgent needs.
4. Conservative MCP Adoption 🔧
Only 23.6% of workflows use MCP servers, suggesting that standard GitHub Actions capabilities meet most needs. When MCP is used, it's predominantly for advanced GitHub operations (100% of MCP usage is GitHub MCP).
5. Minimal Permission Footprint 🔒
Zero explicit permission declarations in lock files suggests a centralized permission management strategy, likely at the organization or repository level. This reduces configuration complexity and security risks.
6. Resource-Efficient Concurrency Control ⚡
98.6% concurrency group usage with primarily workflow-level locking (
gh-aw-${{ github.workflow }}) demonstrates mature resource management, preventing workflow stampedes while allowing parallel execution of different workflow types.7. Balanced Timeout Strategy ⏱️
The timeout distribution (median 20 minutes) strikes a balance between allowing complex analysis and preventing runaway jobs. The 99.3% explicit timeout configuration shows deliberate resource planning.
8. Business Hours Scheduling 🕐
Schedule patterns cluster around business hours (7 AM - 4 PM UTC, Monday-Friday), optimizing for human review of automated results and minimizing weekend noise.
Historical Trends
Comparing today's analysis with the previous run (2026-02-09):
Trend Analysis
Repository Growth: The 1.1% size increase without adding new workflows indicates feature enrichment - existing workflows are being enhanced with additional capabilities, steps, and safe outputs.
Increasing Complexity: The 2.8% increase in average steps per workflow suggests ongoing feature development. The daily-copilot-token-report workflow grew from 101 to 103 steps, now the most complex workflow in the repository.
Stable Architecture: File count remains constant at 148, indicating the workflow portfolio is mature. Growth is now focused on deepening existing workflows rather than adding new ones.
Recommendations
1. Consider MCP Expansion 🚀
With only 23.6% of workflows using MCP servers, there may be opportunities to leverage additional MCP capabilities:
2. Optimize Timeout Allocation ⚡
With average workflow steps at 74.4 and growing:
3. Standardize Safe Output Patterns 📊
With 30 different safe output types in use:
4. Schedule Load Balancing ⏰
Current schedule clustering at midday (11 AM - 2 PM UTC):
7 13 * * 1-5) for natural distribution5. Document Permission Strategy 🔐
With zero explicit permissions in lock files:
6. Cache Memory Best Practices 💾
Successfully using
/tmp/gh-aw/cache-memory/for scripts and history:Methodology
Analysis Tools & Approach
Data Collection:
Lock Files Analyzed: 148 workflows in
.github/workflows/*.lock.ymlCache Memory Usage:
/tmp/gh-aw/cache-memory/scripts/for reuse/tmp/gh-aw/cache-memory/history//tmp/gh-aw/cache-memory/data/Data Sources:
Statistical Methods:
Analysis Script
The primary analysis script (
lockfile_analysis_v3.py) performs:Script location:
/tmp/gh-aw/cache-memory/scripts/lockfile_analysis_v3.pyReferences:
Generated by Lockfile Statistics Analysis Agent on 2026-02-10
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