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Dashboard 2.0: Phase 1 Implementation Roadmap

Complete Multi-Tenant SaaS Solution​

Document Version: 1.0 Created: 2025-11-28 Status: Planning Target Completion: 16 weeks (Weeks 1-16 from cloud-migration-architecture.md)


Executive Summary​

This roadmap outlines the complete implementation plan to transform Dashboard 2.0 from a single-tenant POC into a production-ready multi-tenant SaaS platform. The solution will support multiple organizations, each managing multiple teams, projects, and git repositories.

Key Objectives:

  • Multi-tenant data isolation with Row-Level Security (RLS)
  • Generic repository scanner (works for ANY GitHub organization)
  • Webhook-based auto-ingestion for real-time synchronization
  • OAuth2/JWT authentication with role-based access control
  • PostgreSQL migration with horizontal scalability
  • GKE deployment with autoscaling and 99.9% uptime

Investment: $180K development + $2.4K/month operations Timeline: 16 weeks (4 months) Team: 3 full-stack engineers + 1 DevOps engineer


Current State Assessment​

✅ Completed (POC Status)​

  1. Database Schema v1.0 - SQLite with hierarchical project support

    • 45 projects imported (1 master + 6 categories + 38 submodules)
    • parent_id and repo_path columns for hierarchy
    • Dashboard 2.0 POC: 8 tasks, 87.5% complete
  2. Backend API v2.0 - FastAPI with TF-IDF and AI linking

    • /api/v2/projects - List projects with hierarchy
    • /api/v2/tasks - List tasks with linking
    • /api/v2/commits - Commit-task association
    • /api/v2/link-commit-tasks - Hybrid AI + TF-IDF linking
  3. Frontend Dashboard - GPS navigation UI

    • Real-time task filtering
    • Hierarchical project tree
    • Commit-task relationship visualization
  4. CODITECT Standards v1.0 - YAML frontmatter format

    • tasklist.md parsing
    • project-plan.md integration
    • Task ID format: TASK-{SHORT_NAME}-{NUMBER}
  5. Repository Audit Complete

    • 60 GitHub repos catalogued
    • 48 local submodules verified
    • 28 projects with TASKLIST/PROJECT-PLAN identified
    • Client vs platform repos distinguished

🔴 Critical Gaps (Blocking Production)​

  1. No Multi-Tenant Isolation

    • Current: Single SQLite database, hardcoded to coditect-ai
    • Required: tenant_id on all tables, RLS policies, per-tenant filtering
  2. Hardcoded CODITECT-Specific Import

    • Current: import_all_projects.py assumes CODITECT submodule structure
    • Required: Generic RepositoryScanner for ANY GitHub organization
  3. Manual Repository Import

    • Current: Python script must be run manually
    • Required: Webhook-based auto-ingestion on repository connection
  4. No Authentication/Authorization

    • Current: Open API with no access control
    • Required: OAuth2 + JWT with role-based permissions (owner, admin, member, viewer)
  5. SQLite Not Production-Ready

    • Current: Single-file database, no concurrent writes
    • Required: PostgreSQL with connection pooling, replication, backups
  6. No Deployment Infrastructure

    • Current: Local development only
    • Required: GKE deployment with autoscaling, monitoring, CI/CD

Phase 1 Architecture Overview​

Multi-Tenant Data Model​

-- Core tenant table
CREATE TABLE tenants (
tenant_id UUID PRIMARY KEY DEFAULT gen_random_uuid(),
organization_name VARCHAR(255) NOT NULL,
subdomain VARCHAR(63) UNIQUE NOT NULL, -- acme.dashboard.app
plan_tier VARCHAR(50) NOT NULL, -- free, pro, enterprise
max_users INTEGER NOT NULL DEFAULT 5,
max_projects INTEGER NOT NULL DEFAULT 3,
max_repositories INTEGER NOT NULL DEFAULT 10,
stripe_customer_id VARCHAR(255),
subscription_status VARCHAR(50) DEFAULT 'trial',
created_at TIMESTAMP DEFAULT NOW(),
updated_at TIMESTAMP DEFAULT NOW()
);

-- Users (multi-tenant)
CREATE TABLE users (
user_id UUID PRIMARY KEY DEFAULT gen_random_uuid(),
tenant_id UUID NOT NULL REFERENCES tenants(tenant_id) ON DELETE CASCADE,
email VARCHAR(255) NOT NULL,
password_hash VARCHAR(255) NOT NULL,
full_name VARCHAR(255),
role VARCHAR(50) NOT NULL DEFAULT 'member', -- owner, admin, member, viewer
is_active BOOLEAN DEFAULT TRUE,
last_login TIMESTAMP,
created_at TIMESTAMP DEFAULT NOW(),
UNIQUE(tenant_id, email)
);

-- Row-Level Security (RLS)
ALTER TABLE users ENABLE ROW LEVEL SECURITY;
CREATE POLICY users_tenant_isolation ON users
USING (tenant_id = current_setting('app.current_tenant_id')::uuid);

-- Repositories (multi-repo support)
CREATE TABLE repositories (
repository_id UUID PRIMARY KEY DEFAULT gen_random_uuid(),
tenant_id UUID NOT NULL REFERENCES tenants(tenant_id) ON DELETE CASCADE,
provider VARCHAR(50) NOT NULL, -- github, gitlab, bitbucket
provider_repo_id INTEGER NOT NULL,
full_name VARCHAR(255) NOT NULL, -- "owner/repo"
clone_url TEXT NOT NULL,
default_branch VARCHAR(255) DEFAULT 'main',
is_active BOOLEAN DEFAULT TRUE,
webhook_id VARCHAR(255),
webhook_secret VARCHAR(255),
last_synced_at TIMESTAMP,
created_at TIMESTAMP DEFAULT NOW(),
UNIQUE(tenant_id, provider, provider_repo_id)
);

-- Projects (extend existing with tenant_id)
ALTER TABLE projects ADD COLUMN tenant_id UUID REFERENCES tenants(tenant_id) ON DELETE CASCADE;
ALTER TABLE projects ADD COLUMN repository_id UUID REFERENCES repositories(repository_id) ON DELETE CASCADE;

-- Tasks (extend existing with tenant_id)
ALTER TABLE tasks ADD COLUMN tenant_id UUID REFERENCES tenants(tenant_id) ON DELETE CASCADE;

-- Commits (extend existing with tenant_id)
ALTER TABLE commits ADD COLUMN tenant_id UUID REFERENCES tenants(tenant_id) ON DELETE CASCADE;
ALTER TABLE commits ADD COLUMN repository_id UUID REFERENCES repositories(repository_id) ON DELETE CASCADE;

-- All tables get RLS
ALTER TABLE projects ENABLE ROW LEVEL SECURITY;
ALTER TABLE tasks ENABLE ROW LEVEL SECURITY;
ALTER TABLE commits ENABLE ROW LEVEL SECURITY;
ALTER TABLE repositories ENABLE ROW LEVEL SECURITY;

Generic Repository Scanner Architecture​

from abc import ABC, abstractmethod
from typing import List, Dict, Optional
from dataclasses import dataclass
from pathlib import Path
import git

@dataclass
class DetectedProject:
"""Generic project metadata"""
name: str
description: str
project_type: str # coditect, npm, python, rust, generic
total_tasks: int
completed_tasks: int
status: str
repo_path: str
parent_path: Optional[str] = None

class ProjectDetector(ABC):
"""Base class for project type detection"""

@abstractmethod
def can_detect(self, repo_path: Path) -> bool:
"""Check if this detector can handle the repository"""
pass

@abstractmethod
def detect(self, repo_path: Path) -> Optional[DetectedProject]:
"""Extract project metadata"""
pass

class CODITECTProjectDetector(ProjectDetector):
"""Detect CODITECT Standards v1.0 projects"""

def can_detect(self, repo_path: Path) -> bool:
return (repo_path / "tasklist.md").exists()

def detect(self, repo_path: Path) -> Optional[DetectedProject]:
# Parse YAML frontmatter from tasklist.md
# Extract project metadata
# Return DetectedProject instance
pass

class NPMProjectDetector(ProjectDetector):
"""Detect npm/Node.js projects"""

def can_detect(self, repo_path: Path) -> bool:
return (repo_path / "package.json").exists()

def detect(self, repo_path: Path) -> Optional[DetectedProject]:
# Parse package.json
# Extract name, description, version
# Count TODO comments in source files
pass

class PythonProjectDetector(ProjectDetector):
"""Detect Python projects"""

def can_detect(self, repo_path: Path) -> bool:
return (
(repo_path / "pyproject.toml").exists() or
(repo_path / "setup.py").exists() or
(repo_path / "requirements.txt").exists()
)

def detect(self, repo_path: Path) -> Optional[DetectedProject]:
# Parse pyproject.toml or setup.py
# Extract metadata
# Count TODO/FIXME comments
pass

class RepositoryScanner:
"""Generic repository scanner for ANY organization"""

def __init__(self, tenant_id: str, provider: str = "github"):
self.tenant_id = tenant_id
self.provider = provider
self.detectors = [
CODITECTProjectDetector(),
NPMProjectDetector(),
PythonProjectDetector(),
# Add more detectors as needed
]

def scan_repository(self, repo_url: str, local_path: Path) -> List[DetectedProject]:
"""
Scan a repository and detect all projects
Works for:
- Single-project repos (most common)
- Mono-repos with multiple projects
- CODITECT master repos with submodules
"""
projects = []

# Clone or update repository
if not local_path.exists():
repo = git.Repo.clone_from(repo_url, local_path)
else:
repo = git.Repo(local_path)
repo.remotes.origin.pull()

# Recursively scan for projects
for root, dirs, files in os.walk(local_path):
root_path = Path(root)

# Try each detector
for detector in self.detectors:
if detector.can_detect(root_path):
project = detector.detect(root_path)
if project:
project.tenant_id = self.tenant_id
projects.append(project)
break # Only one detector per directory

return projects

def import_to_database(self, projects: List[DetectedProject], db_conn):
"""Import detected projects into database"""
for project in projects:
# Insert or update project
# Associate with tenant and repository
# Import tasks if available
pass

Webhook-Based Ingestion System​

from fastapi import APIRouter, Request, HTTPException, Header
import hmac
import hashlib

router = APIRouter(prefix="/api/v2/webhooks")

@router.post("/github")
async def github_webhook(
request: Request,
x_hub_signature_256: str = Header(None)
):
"""
GitHub webhook handler for repository events

Events handled:
- push: Sync commits and detect new tasks
- pull_request: Create linked tasks
- issues: Import as tasks
- repository: New repo connected
"""
# Verify webhook signature
body = await request.body()
secret = get_webhook_secret(tenant_id) # From database

expected_signature = "sha256=" + hmac.new(
secret.encode(),
body,
hashlib.sha256
).hexdigest()

if not hmac.compare_digest(expected_signature, x_hub_signature_256):
raise HTTPException(status_code=403, detail="Invalid signature")

# Parse payload
payload = await request.json()
event_type = request.headers.get("X-GitHub-Event")

if event_type == "push":
await handle_push_event(payload)
elif event_type == "pull_request":
await handle_pull_request_event(payload)
elif event_type == "issues":
await handle_issues_event(payload)
elif event_type == "repository":
await handle_repository_event(payload)

return {"status": "success"}

async def handle_push_event(payload: dict):
"""Sync commits and detect new tasks"""
repository = payload["repository"]
commits = payload["commits"]

# Find repository in database
repo = await db.get_repository_by_provider_id(
provider="github",
provider_repo_id=repository["id"]
)

if not repo:
return # Repository not connected

# Import commits
for commit_data in commits:
commit = await db.create_commit(
tenant_id=repo.tenant_id,
repository_id=repo.repository_id,
sha=commit_data["id"],
message=commit_data["message"],
author_email=commit_data["author"]["email"],
committed_at=commit_data["timestamp"]
)

# Auto-link to tasks using AI + TF-IDF
await link_commit_to_tasks(commit)

# Trigger repository scan for new TASKLIST files
scanner = RepositoryScanner(repo.tenant_id)
projects = await scanner.scan_repository(
repo_url=repository["clone_url"],
local_path=Path(f"/tmp/repos/{repo.repository_id}")
)
await scanner.import_to_database(projects, db)

async def handle_repository_event(payload: dict):
"""Handle new repository connection"""
if payload["action"] == "created":
# Auto-import repository for tenant
# Set up webhook
# Trigger initial scan
pass

Implementation Phases​

Phase 1A: Multi-Tenant POC Extension (Weeks 1-2)​

Goal: Prove multi-tenant isolation works in SQLite before migrating to PostgreSQL

Tasks:

  1. ✅ Add tenant_id columns to all tables (SQLite)
  2. ✅ Create tenants table with organization metadata
  3. ✅ Seed database with 3 test tenants:
    • coditect-ai (existing CODITECT platform data)
    • find-me-a-mechanic (client project)
    • hookup-app (client project)
  4. ✅ Migrate existing data to coditect-ai tenant
  5. ✅ Update all API endpoints with tenant filtering
  6. ✅ Add tenant selection to frontend dashboard
  7. ✅ Test data isolation (verify tenant A cannot see tenant B's data)

Deliverables:

  • Multi-tenant SQLite database with RLS simulation
  • Updated API with ?tenant_id= parameter
  • Frontend tenant selector
  • Test suite proving isolation

Success Criteria:

  • All 3 tenants have isolated data
  • Dashboard shows different projects per tenant
  • API returns 403 when accessing other tenant's data

Phase 1B: Generic Repository Scanner (Weeks 2-3)​

Goal: Build scanner that works for ANY GitHub organization, not just CODITECT

Tasks:

  1. ✅ Create ProjectDetector interface
  2. ✅ Implement CODITECTProjectDetector (existing functionality)
  3. ✅ Implement NPMProjectDetector
  4. ✅ Implement PythonProjectDetector
  5. ✅ Implement RustProjectDetector
  6. ✅ Implement GenericProjectDetector (fallback)
  7. ✅ Build RepositoryScanner with detector chain
  8. ✅ Test with multiple repository types:
    • coditect-rollout-master (CODITECT mono-repo)
    • find-me-a-mechanic (npm project)
    • hookup-app (npm project)
    • random GitHub repo (generic)

Deliverables:

  • RepositoryScanner class with pluggable detectors
  • 5+ project type detectors
  • Test suite with diverse repositories
  • Documentation for adding new detectors

Success Criteria:

  • Scans CODITECT repo and imports 45 projects (existing behavior)
  • Scans npm repo and imports package.json metadata
  • Scans Python repo and imports pyproject.toml metadata
  • Fallback detector handles unknown project types

Phase 1C: Webhook-Based Onboarding (Weeks 3-4)​

Goal: Auto-import repositories via GitHub webhooks instead of manual scripts

Tasks:

  1. ✅ Create /api/v2/webhooks/github endpoint
  2. ✅ Implement webhook signature verification (HMAC-SHA256)
  3. ✅ Handle push events (sync commits)
  4. ✅ Handle pull_request events (create linked tasks)
  5. ✅ Handle issues events (import as tasks)
  6. ✅ Handle repository events (new repo connection)
  7. ✅ Create repositories table with webhook metadata
  8. ✅ Build GitHub App for OAuth2 authentication
  9. ✅ Test end-to-end:
    • Connect repository
    • Webhook auto-created
    • Push commit
    • Commit appears in dashboard

Deliverables:

  • Webhook endpoint with event handlers
  • GitHub App for tenant authentication
  • repositories table with webhook_id, webhook_secret
  • Real-time commit synchronization
  • Test suite with webhook simulation

Success Criteria:

  • User connects GitHub repository in UI
  • Webhook automatically created
  • Push triggers auto-import of commits
  • Dashboard updates in real-time (<5 seconds)

Phase 2: PostgreSQL Migration (Weeks 5-8)​

Goal: Migrate from SQLite to production-ready PostgreSQL with RLS

Tasks:

  1. ✅ Provision Cloud SQL PostgreSQL instance
  2. ✅ Create migration scripts (SQLite → PostgreSQL)
  3. ✅ Implement Row-Level Security (RLS) policies
  4. ✅ Set up connection pooling (PgBouncer)
  5. ✅ Configure replication (1 primary + 1 read replica)
  6. ✅ Set up automated backups (daily + point-in-time recovery)
  7. ✅ Update API to use PostgreSQL
  8. ✅ Migrate all 3 test tenants
  9. ✅ Performance testing (100+ concurrent users)
  10. ✅ Load testing (10,000+ projects, 100,000+ tasks)

Deliverables:

  • Cloud SQL PostgreSQL instance (production config)
  • Migration scripts with rollback support
  • RLS policies on all tables
  • Performance benchmarks
  • Disaster recovery documentation

Success Criteria:

  • All data migrated without loss
  • RLS policies enforce tenant isolation
  • API latency <200ms for 95th percentile
  • Database handles 1000+ concurrent connections
  • Backup/restore tested successfully

Phase 3: Authentication & Authorization (Weeks 9-10)​

Goal: Implement OAuth2 + JWT with role-based access control

Tasks:

  1. ✅ Set up OAuth2 provider (Google, GitHub)
  2. ✅ Implement JWT token generation/validation
  3. ✅ Create user registration flow
  4. ✅ Create login flow with MFA support
  5. ✅ Implement role-based permissions:
    • Owner: Full access, billing, delete organization
    • Admin: Manage users, repositories, settings
    • Member: Create/edit projects, tasks, commits
    • Viewer: Read-only access
  6. ✅ Add permission checks to all API endpoints
  7. ✅ Build user management UI
  8. ✅ Test RBAC with all 4 roles

Deliverables:

  • OAuth2 + JWT authentication system
  • User registration and login flows
  • Role-based permission system
  • User management UI
  • Security audit report

Success Criteria:

  • Users can sign up with Google/GitHub
  • JWT tokens expire after 1 hour (refresh after 7 days)
  • RBAC enforces permissions correctly
  • Viewer cannot create/edit resources
  • Owner can delete organization

Phase 4: GKE Deployment (Weeks 11-12)​

Goal: Deploy to Google Kubernetes Engine with autoscaling

Tasks:

  1. ✅ Create GKE cluster (3 nodes, n1-standard-2)
  2. ✅ Build Docker images for backend and frontend
  3. ✅ Push images to Google Container Registry
  4. ✅ Create Kubernetes manifests:
    • Deployment (backend, frontend)
    • Service (LoadBalancer)
    • ConfigMap (environment variables)
    • Secret (database credentials, JWT secret)
    • HorizontalPodAutoscaler (2-10 pods)
  5. ✅ Set up Ingress with TLS (Let's Encrypt)
  6. ✅ Configure Cloud CDN for static assets
  7. ✅ Deploy to staging environment
  8. ✅ Smoke tests and load tests
  9. ✅ Deploy to production

Deliverables:

  • GKE cluster with autoscaling
  • Docker images in GCR
  • Kubernetes manifests
  • TLS certificate from Let's Encrypt
  • Deployment documentation

Success Criteria:

  • Application accessible at https://dashboard.coditect.ai
  • Autoscaling works (scales from 2 to 10 pods under load)
  • TLS certificate valid
  • CDN reduces frontend load time by 50%
  • Zero-downtime deployments

Phase 5: Monitoring & Observability (Weeks 13-14)​

Goal: Complete visibility into system behavior and performance

Tasks:

  1. ✅ Set up Google Cloud Monitoring
  2. ✅ Create custom dashboards:
    • System health (CPU, memory, disk, network)
    • Application metrics (requests/sec, latency, errors)
    • Business metrics (tenants, users, projects, tasks)
  3. ✅ Configure alerts:
    • Error rate >1%
    • Latency >500ms
    • Database connections >80%
    • Disk usage >90%
  4. ✅ Set up Google Cloud Logging
  5. ✅ Implement structured logging in application
  6. ✅ Create log-based metrics
  7. ✅ Set up Google Cloud Trace for request tracing
  8. ✅ Test end-to-end observability

Deliverables:

  • Cloud Monitoring dashboards
  • Alert policies with PagerDuty integration
  • Structured logging with JSON format
  • Distributed tracing with Cloud Trace
  • Runbook for common incidents

Success Criteria:

  • Dashboards show real-time metrics
  • Alerts trigger within 1 minute of issue
  • Logs queryable with structured fields
  • Traces show end-to-end request flow
  • Mean time to detection (MTTD) <2 minutes

Phase 6: CI/CD & Production Hardening (Weeks 15-16)​

Goal: Automated deployments and production-ready infrastructure

Tasks:

  1. ✅ Set up GitHub Actions for CI/CD:
    • Run tests on every PR
    • Build Docker images on merge to main
    • Deploy to staging automatically
    • Deploy to production on manual approval
  2. ✅ Implement database migrations with zero downtime
  3. ✅ Set up feature flags (LaunchDarkly or custom)
  4. ✅ Create disaster recovery plan:
    • Database backup/restore procedures
    • Incident response playbook
    • Rollback procedures
  5. ✅ Security hardening:
    • OWASP Top 10 audit
    • Dependency scanning (Dependabot)
    • Container scanning (Trivy)
    • Secrets scanning (GitGuardian)
  6. ✅ Performance optimization:
    • Database query optimization
    • API response caching
    • Frontend code splitting
  7. ✅ Load testing (simulate 1000+ concurrent users)
  8. ✅ Production readiness review

Deliverables:

  • GitHub Actions workflows
  • Database migration system
  • Feature flag system
  • Disaster recovery documentation
  • Security audit report
  • Performance benchmarks
  • Production readiness checklist

Success Criteria:

  • Deployments complete in <10 minutes
  • Zero-downtime migrations tested
  • Security audit passes with no critical issues
  • Load tests handle 1000 concurrent users
  • API latency <200ms under load
  • Production readiness review approved

Resource Requirements​

Team​

Engineering Team (3 Full-Stack Engineers):

  • Engineer 1: Backend (Python/FastAPI, PostgreSQL, RLS)
  • Engineer 2: Frontend (React, TypeScript, UI/UX)
  • Engineer 3: Full-Stack (Repository Scanner, Webhooks, Integration)

DevOps Team (1 Engineer):

  • GKE deployment and management
  • CI/CD pipelines
  • Monitoring and observability
  • Database administration

Total: 4 engineers for 16 weeks

Budget​

Development Costs:

  • 3 Full-Stack Engineers: $150K/month × 3 × 4 months = $180K
  • DevOps Engineer (50% time): $150K/month × 0.5 × 4 months = $30K
  • Total Development: $210K

Infrastructure Costs (4 months):

  • Cloud SQL PostgreSQL: $200/month × 4 = $800
  • GKE Cluster (3 nodes): $150/month × 4 = $600
  • Load Balancer + Ingress: $20/month × 4 = $80
  • Cloud Storage (backups): $10/month × 4 = $40
  • Cloud Monitoring: $50/month × 4 = $200
  • Total Infrastructure: $1,720

Recurring Costs (Annual):

  • Cloud SQL PostgreSQL: $200/month × 12 = $2,400
  • GKE Cluster: $150/month × 12 = $1,800
  • Load Balancer: $20/month × 12 = $240
  • Cloud Storage: $10/month × 12 = $120
  • Monitoring: $50/month × 12 = $600
  • Total Annual: $5,160

Grand Total:

  • Development: $210K (one-time)
  • Infrastructure (4 months): $1,720
  • Total Investment: $211,720

Success Metrics​

Technical Metrics​

MetricCurrentPhase 1 TargetPhase 6 Target
Tenant IsolationNone100% (RLS)100% (RLS + audit)
API Latency (p95)N/A<500ms<200ms
Database ThroughputN/A100 req/sec1000 req/sec
UptimeN/A99%99.9%
Deployment TimeN/A<30 min<10 min
Test Coverage0%60%80%
Security ScoreN/AB+A

Business Metrics​

MetricMonth 1Month 3Month 6
Active Tenants3 (test)1050
Total Users550250
Projects Tracked1005002,500
Tasks Managed5002,50012,500
Repositories Connected1050250
Monthly Active UsersN/A40200
Customer SatisfactionN/A4.0/54.5/5

Quality Gates​

Phase 1 Exit Criteria:

  • ✅ Multi-tenant isolation working (SQLite)
  • ✅ 3 test tenants with isolated data
  • ✅ Generic repository scanner works for 3+ project types
  • ✅ Webhook-based onboarding end-to-end tested

Phase 2 Exit Criteria:

  • ✅ PostgreSQL migration complete
  • ✅ RLS policies enforce isolation
  • ✅ Performance benchmarks met
  • ✅ Backup/restore tested

Phase 3 Exit Criteria:

  • ✅ OAuth2 + JWT working
  • ✅ RBAC enforces permissions
  • ✅ Security audit passed

Phase 4 Exit Criteria:

  • ✅ GKE deployment successful
  • ✅ Autoscaling works
  • ✅ TLS certificate valid
  • ✅ Zero-downtime deployments

Phase 5 Exit Criteria:

  • ✅ Monitoring dashboards operational
  • ✅ Alerts configured and tested
  • ✅ Distributed tracing working

Phase 6 Exit Criteria:

  • ✅ CI/CD pipelines operational
  • ✅ Disaster recovery plan tested
  • ✅ Security audit passed
  • ✅ Load tests passed
  • ✅ Production readiness approved

Risk Management​

High-Risk Areas​

1. PostgreSQL Migration (Phase 2)

  • Risk: Data loss or corruption during migration
  • Mitigation:
    • Test migration with copy of production data
    • Dry-run migrations in staging
    • Rollback plan with SQLite backup
    • Point-in-time recovery capability

2. Multi-Tenant Data Isolation (Phase 1-2)

  • Risk: Tenant A can access Tenant B's data
  • Mitigation:
    • Comprehensive RLS policy testing
    • Automated isolation tests in CI/CD
    • Security audit by third party
    • Bug bounty program for isolation issues

3. Webhook Reliability (Phase 1C)

  • Risk: Missed webhook events leading to data gaps
  • Mitigation:
    • Implement webhook retry logic (3 attempts)
    • Dead letter queue for failed webhooks
    • Periodic full repository sync (daily)
    • Monitoring for webhook failures

4. GKE Deployment (Phase 4)

  • Risk: Downtime during initial deployment
  • Mitigation:
    • Blue-green deployment strategy
    • Canary releases (10% → 50% → 100%)
    • Health checks on all pods
    • Automated rollback on errors

5. Performance Under Load (Phase 6)

  • Risk: System cannot handle production traffic
  • Mitigation:
    • Load testing with 2x expected traffic
    • Database query optimization
    • API response caching
    • Horizontal autoscaling (2-20 pods)

Medium-Risk Areas​

1. Third-Party Dependencies

  • Risk: GitHub API rate limits, downtime
  • Mitigation:
    • Implement rate limit backoff
    • Cache GitHub API responses
    • Support GitLab and Bitbucket as alternatives

2. Cost Overruns

  • Risk: Infrastructure costs exceed budget
  • Mitigation:
    • Weekly cost monitoring
    • Set up budget alerts in GCP
    • Use committed use discounts
    • Optimize resource allocation

3. Scope Creep

  • Risk: Additional features delay launch
  • Mitigation:
    • Strict scope control (MVP only)
    • Feature requests go to backlog
    • Weekly sprint reviews
    • Defer non-critical features to Phase 2

Rollout Strategy​

Week 1-4: Internal Alpha (Phase 1)​

  • Audience: CODITECT engineering team only
  • Focus: Multi-tenant isolation, generic scanner, webhook onboarding
  • Success: All core features working, no critical bugs

Week 5-8: Closed Beta (Phase 2)​

  • Audience: 3-5 friendly customers (AZ1.AI clients)
  • Focus: PostgreSQL migration, performance, reliability
  • Success: Positive feedback, <5 critical bugs

Week 9-12: Private Beta (Phases 3-4)​

  • Audience: 10-20 invited organizations
  • Focus: Authentication, GKE deployment, scalability
  • Success: 90% user satisfaction, <10 critical bugs

Week 13-16: Public Beta (Phases 5-6)​

  • Audience: Open signups (limited to 50 organizations)
  • Focus: Monitoring, CI/CD, production hardening
  • Success: 4.0/5 customer satisfaction, 99% uptime

Week 17+: General Availability​

  • Audience: Unlimited signups
  • Pricing: Free tier (5 users, 3 projects) + Pro ($29/user/month) + Enterprise (custom)

Next Steps (Immediate)​

This Week (Week 1, Days 1-3)​

  1. Extend POC Database with Multi-Tenant Support ✅

    • Add tenant_id columns to all tables (SQLite)
    • Create tenants table
    • Seed 3 test tenants
  2. Migrate Existing Data to coditect-ai Tenant ✅

    • Update all 45 projects with tenant_id
    • Update all tasks with tenant_id
    • Update all commits with tenant_id
  3. Update API with Tenant Filtering ✅

    • Add ?tenant_id= parameter to all endpoints
    • Implement tenant validation middleware
    • Return 403 for cross-tenant access
  4. Test Multi-Tenant Isolation ✅

    • Verify coditect-ai tenant has all 45 projects
    • Verify find-me-a-mechanic tenant is empty (ready for import)
    • Verify hookup-app tenant is empty (ready for import)

Week 1, Days 4-5​

  1. Add Frontend Tenant Selector

    • Dropdown to select tenant in dashboard
    • Store selected tenant in localStorage
    • Reload projects/tasks when tenant changes
  2. Import Client Repositories

    • Use existing import_all_projects.py for find-me-a-mechanic
    • Use existing import_all_projects.py for hookup-app
    • Verify each tenant sees only their projects

Week 2​

  1. Begin Generic Repository Scanner (Phase 1B)
    • Create ProjectDetector interface
    • Implement NPMProjectDetector
    • Test with find-me-a-mechanic repository

Documentation & Training​

Developer Documentation​

  • API reference (OpenAPI/Swagger)
  • Database schema ERD
  • Architecture diagrams (C4 model)
  • Setup instructions (local dev environment)
  • Contribution guidelines

Operator Documentation​

  • Deployment guide (GKE)
  • Monitoring runbook
  • Incident response playbook
  • Disaster recovery procedures
  • Database migration guide

User Documentation​

  • Getting started guide
  • Repository connection tutorial
  • Dashboard navigation guide
  • Team management guide
  • FAQ and troubleshooting

Appendix​

Change Log​

  • 2025-11-28: Initial version 1.0 (comprehensive roadmap created)

Document Status: ✅ Complete Next Review: Weekly during implementation Owner: Dashboard 2.0 Engineering Team Approved By: [Pending]