Agentic Swarms, CI/CD & Attested Math
Enterprise multi-agent architectures (CrewAI, LangGraph), automated CI/CD quality gates, and mathematically audited calculation engines.
1. Multi-Agent PMO Swarm Architecture
In enterprise project management, a single AI chatbot cannot reliably govern complex programs. Tasleemat establishes a specialized multi-agent swarm pattern where separate autonomous agents collaborate under strict separation of duties, bounded by formal schema contracts and mandatory human sign-off gates:
flowchart TD
subgraph Swarm["Autonomous PMO Swarm"]
Director["PMO Director Agent
(Tailoring & Task Delegation)"]
Drafter["Specialist Drafter Agent
(Markdown Synthesis)"]
Auditor["Governance Auditor Agent
(Draft 2020-12 Schema Check)"]
end
subgraph Gates["Attestation & Approvals"]
HumanGate["Human Stage-Gate Review
(Executive Sponsor Sign-off)"]
Repo["Approved Project Repository"]
end
Director -->|Delegates Deliverable| Drafter
Drafter -->|Produces JSON Payload| Auditor
Auditor -->|Validates Schema| Auditor
Auditor -.->|Self-Correction Loop| Drafter
Auditor ==>|Certified Payload| HumanGate
HumanGate -->|Approved| Repo
2. Production Multi-Agent Framework Integrations
A. CrewAI Multi-Agent PMO Team
A complete, runnable script assembling a CrewAI team equipped with custom tools calling the tasleemat SDK:
from crewai import Agent, Task, Crew, Process
from langchain.tools import tool
import json
import tasleemat
@tool
def fetch_pmo_deliverable_assets(artifact_id: str) -> str:
# Fetches template, guide, and JSON schema for a deliverable
assets = tasleemat.get_artifact_assets(artifact_id, lang="en")
return json.dumps({
"guide": assets.get_guide_content()[:600],
"schema": assets.get_schema_data()
})
@tool
def validate_deliverable_data(artifact_id: str, payload_json: str) -> str:
# Validates structured project data against Draft 2020-12 schema
data = json.loads(payload_json)
report = tasleemat.validate_artifact_data(artifact_id, data, mode="strict")
return json.dumps({"valid": report.valid, "errors": [e.message for e in report.errors]})
# Define Specialized Agents
pm_drafter = Agent(
role="Senior Technical Project Manager",
goal="Synthesize high-fidelity project deliverables matching kickoff requirements",
backstory="Experienced PMP practitioner adept at translating unstructured notes into structured charter data.",
tools=[fetch_pmo_deliverable_assets],
verbose=True
)
compliance_auditor = Agent(
role="PMO Governance & Compliance Auditor",
goal="Audit synthesized deliverable data and verify 100% Draft 2020-12 schema compliance",
backstory="Strict enterprise auditor dedicated to verifying mandatory fields and RFC formats.",
tools=[validate_deliverable_data],
verbose=True
)
# Tasks
draft_task = Task(
description="Fetch PMO-03.01 assets and draft charter JSON for project PRJ-CLOUD.",
expected_output="Valid JSON string matching PMO-03.01 schema",
agent=pm_drafter
)
audit_task = Task(
description="Validate drafted JSON data using validate_deliverable_data tool. Require revisions if invalid.",
expected_output="Final audit report certifying schema validity",
agent=compliance_auditor
)
pmo_crew = Crew(
agents=[pm_drafter, compliance_auditor],
tasks=[draft_task, audit_task],
process=Process.sequential
)
B. LangGraph StateGraph with Human-in-the-Loop Review Gate
LangGraph state machine enforcing autonomous healing loops and interrupting for executive human review:
from typing import TypedDict, Optional, Dict, Any, List
from langgraph.graph import StateGraph, END
import tasleemat
class PMOState(TypedDict):
artifact_id: str
notes: str
draft_data: Optional[Dict[str, Any]]
errors: List[str]
retries: int
approved: bool
def draft_node(state: PMOState) -> PMOState:
# Call LLM to draft initial JSON based on state["notes"]
state["draft_data"] = {"project_id": "PRJ-01", "name": "Cloud"}
return state
def validate_node(state: PMOState) -> PMOState:
report = tasleemat.validate_artifact_data(state["artifact_id"], state["draft_data"], mode="strict")
state["errors"] = [e.message for e in report.errors]
return state
def should_heal(state: PMOState) -> str:
if len(state["errors"]) > 0 and state["retries"] < 3:
return "heal_node"
elif len(state["errors"]) == 0:
return "human_approval_gate"
return END
# Build State Machine
workflow = StateGraph(PMOState)
workflow.add_node("draft_node", draft_node)
workflow.add_node("validate_node", validate_node)
workflow.set_entry_point("draft_node")
workflow.add_edge("draft_node", "validate_node")
workflow.add_conditional_edges("validate_node", should_heal, {
"heal_node": "draft_node",
"human_approval_gate": END
})
3. Headless CI/CD Automation & Quality Gates
Incorporate automated deliverable audits directly into your DevOps repository. The following GitHub Actions workflow validates all modified deliverable markdown and JSON files on every Pull Request:
Complete GitHub Actions Workflow (.github/workflows/pmo-governance.yml)
name: PMO Governance & Schema Quality Gate
on:
pull_request:
branches: [main]
paths:
- 'projects/**'
jobs:
validate-governance:
runs-on: ubuntu-latest
steps:
- name: Checkout Repository
uses: actions/checkout@v4
- name: Set up Python
uses: actions/setup-python@v5
with:
python-version: '3.11'
- name: Install Tasleemat Framework
run: pip install tasleemat
- name: Execute Regression & Schema Audit
run: |
echo "Verifying project deliverable integrity..."
tasleemat test -v
- name: Post PR Compliance Summary
if: success()
run: echo "::notice title=Tasleemat PMO Gate::All 114 deliverable schemas and regression checks passed 100%!"
4. Attested Computations & Deterministic Math Contracts (PMO-06.05)
Generative AI models are fundamentally token-prediction probability engines. They suffer from catastrophic arithmetic hallucination
when calculating multi-variable metrics. Tasleemat enforces deterministic computational contracts
using IEEE 754 precision and zero-division guards for all Earned Value Management (EVM) metrics in PMO-06.05:
| EVM Metric | Mathematical Formula | Interpretation & Attestation Boundary |
|---|---|---|
| Cost Variance (CV) | CV = EV - AC |
Positive = under budget, Negative = over budget |
| Schedule Variance (SV) | SV = EV - PV |
Positive = ahead of schedule, Negative = behind schedule |
| Cost Performance Index (CPI) | CPI = EV / AC |
> 1.0 = cost efficient. Guard: if AC <= 0, CPI = 1.0 |
| Schedule Performance Index (SPI) | SPI = EV / PV |
> 1.0 = schedule efficient. Guard: if PV <= 0, SPI = 1.0 |
| Estimate at Completion (EAC) | EAC = BAC / CPI |
Forecasted final total cost based on current cost efficiency |
| To-Complete Performance Index (TCPI) | TCPI = (BAC - EV) / (BAC - AC) |
Required efficiency for remaining work to meet target budget |