Iconsult MCP

Iconsult MCP

An architecture consulting server that reviews multi-agent systems against a knowledge graph of patterns derived from expert literature. It provides grounded recommendations with chapter citations, maturity scoring, and interactive architecture diagrams to identify and fix structural gaps.

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Iconsult MCP

Architecture consulting for multi-agent systems, grounded in the textbook.

Iconsult is an MCP server that reviews your multi-agent architecture against a knowledge graph of 141 concepts and 462 relationships extracted from Agentic Architectural Patterns for Building Multi-Agent Systems (Arsanjani & Bustos, Packt 2026). Every recommendation comes with chapter numbers, page references, and concrete code-level changes — not abstract advice.

See It In Action

We pointed Iconsult at OpenAI's Financial Research Agent — a 5-stage multi-agent pipeline from their Agents SDK — and asked it to find architectural gaps.

Watch the demo

View the full interactive architecture review →

The agent's current architecture

The Financial Research Agent uses a 5-stage sequential pipeline orchestrated by FinancialResearchManager. Search is the only concurrent stage — everything else runs in sequence, and the verifier is a terminal dead end:

flowchart TD
    Q["User Query"] --> MGR["FinancialResearchManager"]
    MGR --> PLAN["PlannerAgent (o3-mini)"]
    PLAN -->|"FinancialSearchPlan"| FAN{"Fan-out N searches"}
    FAN --> S1["SearchAgent"]
    FAN --> S2["SearchAgent"]
    FAN --> SN["SearchAgent"]
    S1 --> W["WriterAgent (gpt-5.2)"]
    S2 --> W
    SN --> W
    W -.-> FA["FundamentalsAgent (.as_tool)"]
    W -.-> RA["RiskAgent (.as_tool)"]
    W --> V["VerifierAgent"]
    V --> OUT["Output"]

What Iconsult found

Solid foundation, but Iconsult's knowledge graph traversal uncovered 4 critical gaps:

# Gap Missing Pattern Book Reference
R1 Verifier flags issues but pipeline terminates — no self-correction Auto-Healing Agent Resuscitation Ch. 7, p. 216
R2 Raw search results pass unfiltered to writer Hybrid Planner+Scorer Ch. 12, pp. 387-390
R3 All agents share same trust level — no capability boundaries Supervision Tree with Guarded Capabilities Ch. 5, pp. 142-145
R4 Zero reliability patterns composed (book recommends 2-3 minimum) Shared Epistemic Memory + Persistent Instruction Anchoring Ch. 6, p. 203

Recommended architecture

Adding a feedback loop, quality gate, shared memory, and retry logic:

flowchart TD
    Q["User Query"] --> SUP["SupervisorManager"]
    SUP --> MEM[("Shared Epistemic Memory")]
    SUP --> PLAN["PlannerAgent"]
    PLAN --> FAN{"Fan-out + Retry Logic"}
    FAN --> S1["SearchAgent"]
    FAN --> S2["SearchAgent"]
    S1 & S2 --> SCR["ScorerAgent (quality gate)"]
    SCR --> W["WriterAgent"]
    W -.-> FA["FundamentalsAgent"]
    W -.-> RA["RiskAgent"]
    W --> V["VerifierAgent"]
    V -->|"issues found"| W
    V -->|"verified"| OUT["Output"]
    MEM -.-> W
    MEM -.-> V

How it got there

The consultation followed Iconsult's guided workflow:

  1. Read the codebase — Fetched all source files from manager.py, agents/*.py. Identified the orchestrator pattern in FinancialResearchManager, the .as_tool() composition, the silent except Exception: return None in search, and the terminal verifier.

  2. Match conceptsmatch_concepts embedded the project description and deterministically ranked the most relevant patterns: Orchestrator, Planner-Worker, Agent Delegates to Agent, Tool Use, and Supervisor.

2b. Planplan_consultation assessed complexity and generated an adaptive plan — how many concepts to traverse, whether to use subagents, and which critique steps to include.

  1. Traverse the graphget_subgraph explored each seed concept's neighborhood. The requires edges revealed that the Supervisor pattern requires Auto-Healing — which was entirely missing. The complements edges surfaced Hybrid Planner+Scorer as a natural addition. log_pattern_assessment recorded each finding for deterministic scoring.

  2. Retrieve book passagesask_book scoped to the discovered concepts returned exact citations: chapter numbers, page ranges, and quotes grounding each recommendation.

  3. Score + stress test + synthesizescore_architecture computed the maturity scorecard from logged assessments. generate_failure_scenarios produced concrete cascading failure traces for each gap — showing exactly what breaks and how failures propagate. Then generated the interactive before/after architecture diagram with specific file-level changes, prerequisite checks, and conflict analysis. All recommended patterns are complementary — no conflicts detected.

What It Does

Point it at a codebase (or describe your architecture), and it runs a structured consultation: matching concepts, traversing the knowledge graph for prerequisites and conflicts, scoring maturity against a 6-level model, and generating an interactive HTML review with before/after architecture diagrams.

Tools (17)

Consultation workflow:

Tool Role What it does
match_concepts Entry point Embeds a project description → deterministic concept ranking + consultation_id for session tracking
plan_consultation Planning Assesses complexity (simple/moderate/complex) and generates an adaptive step-by-step plan
get_subgraph Graph traversal Priority-queue BFS from seed concepts — discovers alternatives, prerequisites, conflicts, complements
log_pattern_assessment Assessment Records whether each pattern is implemented, partial, missing, or not applicable
ask_book Deep context RAG search against the book — returns passages with chapter, page numbers, and full text
consultation_report Coverage Computes concept/relationship coverage, identifies gaps, optionally diffs two sessions
score_architecture Scoring Deterministic maturity scorecard (L1–L6) from logged pattern assessments
generate_failure_scenarios Stress test Cascading failure traces for each gap — code-grounded or book-grounded, with Ch. 7 recovery chain mapping
critique_consultation Quality Structural critique of consultation completeness with actionable fix suggestions
supervise_consultation Supervision Tracks workflow progress across 9 phases, suggests next action with tool + params

Coordination:

Tool What it does
write_state / read_state Shared key-value state for subagent coordination during traversal
emit_event / get_events Event-driven reactivity — emit events like gap_found, poll with filters, get reactive suggestions

Utility:

Tool What it does
list_concepts Browse/filter the full 138-concept catalogue
validate_subagent Schema validation for scatter-gather subagent responses
health_check Server health + graph stats

Prompt

Prompt What it does
consult Kick off a full architecture consultation — provide your project context and get the guided workflow

The Knowledge Graph

141 concepts  ·  786 sections  ·  462 relationships  ·  1,248 concept-section mappings

Relationship types span uses, extends, alternative_to, component_of, requires, enables, complements, specializes, precedes, and conflicts_with — discovered through five extraction phases including cross-chapter semantic analysis.

Explore the interactive knowledge graph →

Setup

Prerequisites

  • Python 3.10+
  • A MotherDuck account (free tier works)
  • OpenAI API key (for embeddings used by ask_book)
  • Claude Code with the visual-explainer skill installed (required for architecture diagram rendering — see below)

Database Access

The knowledge graph is hosted on MotherDuck and shared publicly. The server automatically detects whether you own the database or need to attach the public share — no extra configuration needed. Just provide your MotherDuck token and it works.

Install visual-explainer (Claude Code skill)

Iconsult renders architecture diagrams as interactive HTML pages using the visual-explainer skill. Install it once:

git clone https://github.com/nicobailon/visual-explainer.git ~/.claude/skills/visual-explainer
mkdir -p ~/.claude/commands
cp ~/.claude/skills/visual-explainer/prompts/*.md ~/.claude/commands/

This gives Claude Code the /generate-web-diagram command used during consultations. Diagrams are written to ~/.agent/diagrams/ and opened in your browser automatically.

Install

pip install git+https://github.com/marcus-waldman/Iconsult_mcp.git

For development:

git clone https://github.com/marcus-waldman/Iconsult_mcp.git
cd Iconsult_mcp
pip install -e .

Environment Variables

export MOTHERDUCK_TOKEN="your-token"    # Required — database
export OPENAI_API_KEY="sk-..."          # Required — embeddings for ask_book

MCP Configuration

Add to your Claude Desktop config (claude_desktop_config.json) or Claude Code settings:

{
  "mcpServers": {
    "iconsult": {
      "command": "iconsult-mcp",
      "env": {
        "MOTHERDUCK_TOKEN": "your-token",
        "OPENAI_API_KEY": "sk-..."
      }
    }
  }
}

Verify

iconsult-mcp --check

License

MIT

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