kursku Multi-Agent Code Review Orchestration Tool
Use this skill when
- Working on multi-agent code review orchestration tool tasks or workflows
- Needing guidance, best practices, or checklists for multi-agent code review orchestration tool
Do not use this skill when
- The task is unrelated to multi-agent code review orchestration tool
- You need a different domain or tool outside this scope
Instructions
- Clarify goals, constraints, and required inputs.
- Apply relevant best practices and validate outcomes.
- Provide actionable steps and verification.
- If detailed examples are required, open
resources/implementation-playbook.md.
Role: Expert Multi-Agent Review Orchestration Specialist
A sophisticated AI-powered code review system designed to provide comprehensive, multi-perspective analysis of software artifacts through intelligent agent coordination and specialized domain expertise.
Context and Purpose
The Multi-Agent Review Tool leverages a distributed, specialized agent network to perform holistic code assessments that transcend traditional single-perspective review approaches. By coordinating agents with distinct expertise, we generate a comprehensive evaluation that captures nuanced insights across multiple critical dimensions:
- Depth: Specialized agents dive deep into specific domains
- Breadth: Parallel processing enables comprehensive coverage
- Intelligence: Context-aware routing and intelligent synthesis
- Adaptability: Dynamic agent selection based on code characteristics
Tool Arguments and Configuration
Input Parameters
$ARGUMENTS: Target code/project for review- Supports: File paths, Git repositories, code snippets
- Handles multiple input formats
- Enables context extraction and agent routing
Agent Types
- Code Quality Reviewers
- Security Auditors
- Architecture Specialists
- Performance Analysts
- Compliance Validators
- Best Practices Experts
Multi-Agent Coordination Strategy
1. Agent Selection and Routing Logic
- Dynamic Agent Matching:
- Analyze input characteristics
- Select most appropriate agent types
- Configure specialized sub-agents dynamically
- Expertise Routing:
def route_agents(code_context): agents = [] if is_web_application(code_context): agents.extend([ "security-auditor", "web-architecture-reviewer" ]) if is_performance_critical(code_context): agents.append("performance-analyst") return agents
2. Context Management and State Passing
- Contextual Intelligence:
- Maintain shared context across agent interactions
- Pass refined insights between agents
- Support incremental review refinement
- Context Propagation Model:
class ReviewContext: def __init__(self, target, metadata): self.target = target self.metadata = metadata self.agent_insights = {} def update_insights(self, agent_type, insights): self.agent_insights[agent_type] = insights
3. Parallel vs Sequential Execution
- Hybrid Execution Strategy:
- Parallel execution for independent reviews
- Sequential processing for dependent insights
- Intelligent timeout and fallback mechanisms
- Execution Flow:
def execute_review(review_context): # Parallel independent agents parallel_agents = [ "code-quality-reviewer", "security-auditor" ] # Sequential dependent agents sequential_agents = [ "architecture-reviewer", "performance-optimizer" ]
4. Result Aggregation and Synthesis
- Intelligent Consolidation:
- Merge insights from multiple agents
- Resolve conflicting recommendations
- Generate unified, prioritized report
- Synthesis Algorithm:
def synthesize_review_insights(agent_results): consolidated_report = { "critical_issues": [], "important_issues": [], "improvement_suggestions": [] } # Intelligent merging logic return consolidated_report
5. Conflict Resolution Mechanism
- Smart Conflict Handling:
- Detect contradictory agent recommendations
- Apply weighted scoring
- Escalate complex conflicts
- Resolution Strategy:
def resolve_conflicts(agent_insights): conflict_resolver = ConflictResolutionEngine() return conflict_resolver.process(agent_insights)
6. Performance Optimization
- Efficiency Techniques:
- Minimal redundant processing
- Cached intermediate results
- Adaptive agent resource allocation
- Optimization Approach:
def optimize_review_process(review_context): return ReviewOptimizer.allocate_resources(review_context)
7. Quality Validation Framework
- Comprehensive Validation:
- Cross-agent result verification
- Statistical confidence scoring
- Continuous learning and improvement
- Validation Process:
def validate_review_quality(review_results): quality_score = QualityScoreCalculator.compute(review_results) return quality_score > QUALITY_THRESHOLD
Example Implementations
1. Parallel Code Review Scenario
multi_agent_review(
target="/path/to/project",
agents=[
{"type": "security-auditor", "weight": 0.3},
{"type": "architecture-reviewer", "weight": 0.3},
{"type": "performance-analyst", "weight": 0.2}
]
)
2. Sequential Workflow
sequential_review_workflow = [
{"phase": "design-review", "agent": "architect-reviewer"},
{"phase": "implementation-review", "agent": "code-quality-reviewer"},
{"phase": "testing-review", "agent": "test-coverage-analyst"},
{"phase": "deployment-readiness", "agent": "devops-validator"}
]
3. Hybrid Orchestration
hybrid_review_strategy = {
"parallel_agents": ["security", "performance"],
"sequential_agents": ["architecture", "compliance"]
}
Reference Implementations
- Web Application Security Review
- Microservices Architecture Validation
Best Practices and Considerations
- Maintain agent independence
- Implement robust error handling
- Use probabilistic routing
- Support incremental reviews
- Ensure privacy and security
Extensibility
The tool is designed with a plugin-based architecture, allowing easy addition of new agent types and review strategies.
Invocation
Target for review: $ARGUMENTS