A production-ready Retrieval-Augmented Generation (RAG) chatbot system for enterprise knowledge management with native Mac deployment, Metal GPU acceleration, and 8-10x performance improvements over Docker.
This project implements a complete RAG pipeline that allows users to ask questions about enterprise documents (HR policies, onboarding guides, engineering standards) and receive contextual answers backed by retrieved sources using local LLM inference.
Key Features:
- End-to-end RAG pipeline with resilient LLM integration
- Native Mac deployment with Metal GPU acceleration (8-10x faster)
- One-command automation with comprehensive health checks
- Vector similarity search with Milvus (Docker standalone)
- Local LLM inference via Ollama (Mistral 7B, 4.4GB model)
- State-of-the-art embeddings (BGE-Base-En)
- Automatic document ingestion with recursive file discovery
- Full Confluence API integration (basic auth, pagination, CQL search)
- Conversational memory (last 5 turns per session)
- Health checks and service monitoring
- Clean, minimal React UI with hot reload
- Source attribution and latency tracking
- 14 sample documents pre-loaded and indexed
Native Mac vs Docker:
- Query time: 8-10 seconds (vs 60-90 seconds in Docker)
- 8-10x performance improvement using Metal GPU
- Memory efficient: ~8-10GB total usage
- No container overhead for LLM inference
- macOS (tested on Mac Mini M4 Pro with 48GB RAM)
- Homebrew installed
- Python 3.11+ (installed via Homebrew if needed)
- Node.js 18+ (installed via Homebrew if needed)
- Docker Desktop (for Milvus only)
- 8GB RAM minimum (16GB+ recommended)
# Clone the repository
git clone https://github.com/techadarsh/RAG-ENTERPRISE.git
cd rag-enterprise
# Start everything (handles all prerequisites automatically)
./start_local.sh startWhat it does:
- β Checks and installs prerequisites (Homebrew, Python, Node.js, Ollama, Redis, Docker)
- β Starts Ollama service with Metal GPU acceleration
- β Downloads Mistral model if not present (4.4GB, one-time)
- β Starts Redis for session caching
- β Starts Milvus standalone container for vector storage
- β Creates Python virtual environment and installs dependencies
- β Starts FastAPI backend with hot reload (port 8000)
- β Starts React frontend with hot reload (port 3000)
- β Loads Confluence documents (via API)
- β Performs comprehensive health checks
- β Shows service status and access URLs
Expected startup time:
- First run: 5-8 minutes (model download + dependencies + Confluence sync)
- Subsequent runs with FORCE_INITIAL_LOAD=true: 2-3 minutes (loading multiple confluence documents)
- Subsequent runs with FORCE_INITIAL_LOAD=false: 30-60 seconds (instant startup, loads in background)
Startup behavior (configurable):
The backend can start in two modes:
-
Blocking Load (
FORCE_INITIAL_LOAD=truein.env.local):- Backend waits to loads multiple Confluence documents before accepting requests
- Startup time: 2-3 minutes
- Pro: Knowledge base is immediately available for queries
- Con: Slower startup
- Best for: Demos, presentations, production deployments
-
Background Load (
FORCE_INITIAL_LOAD=false):- Backend starts immediately and loads documents in the background
- Startup time: 30-60 seconds
- Pro: Instant API availability
- Con: First few queries may have limited context until loading completes
- Best for: Development, testing, quick iterations
To change modes, edit .env.local:
FORCE_INITIAL_LOAD=true # or falseCurrent default: FORCE_INITIAL_LOAD=true (blocking load for reliable demo experience)
- Frontend UI: http://localhost:3000
- Backend API: http://localhost:8000
- API Documentation: http://localhost:8000/docs
- Health Check: http://localhost:8000/health/deps
- Ollama API: http://localhost:11434
# Start all services
./start_local.sh start
# Stop all services
./start_local.sh stop
# Check service status
./start_local.sh status
# Restart all services
./start_local.sh restart
# Clean all data and reset
./start_local.sh clean
# View logs for a specific service
./start_local.sh logs backend
./start_local.sh logs frontend
./start_local.sh logs ollama
./start_local.sh logs redis
./start_local.sh logs milvus
# Show help
./start_local.sh helpTry asking:
- "What is the PTO policy?"
- "How many holidays do we get?"
- "What happens during onboarding week 1?"
- "Can I rollover unused PTO?"
- "What are the incident severity levels?"
- "How do I create a pull request?"
- "What is our code review process?"
- "What is the agile workflow?"
Expected response time: 8-10 seconds with Metal GPU acceleration
βββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββ
β User Browser β
β http://localhost:3000 β
ββββββββββββββββββββββββββ¬βββββββββββββββββββββββββββββββββββββ
β
βΌ
βββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββββ
β React Frontend (Port 3000) β
β - Hot reload development mode β
β - Clean, minimal UI β
β - Conversation history β
ββββββββββββββββββββββββββ¬βββββββββββββββββββββββββββββββββββββ
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βΌ
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β FastAPI Backend (Port 8000) β
β - RAG pipeline orchestration β
β - Embedding generation (BGE-Base-En) β
β - Vector similarity search β
β - LLM query generation β
β - Conversational memory (5 turns) β
β - Hot reload with Uvicorn β
βββ¬ββββββββββββββββββββ¬βββββββββββββββββββ¬βββββββββββββββββββββ
β β β
β β β
βΌ βΌ βΌ
ββββββββββββββββ ββββββββββββββ ββββββββββββββββ
β Ollama β β Milvus β β Redis β
β (Native) β β (Docker) β β (Homebrew) β
β Port 11434 β β Port 19530 β β Port 6379 β
β β β β β β
β - Mistral 7B β β - Vectors β β - Sessions β
β - Metal GPU β β - Metadata β β - Cache β
β - 4.4GB RAM β β - Search β β β
ββββββββββββββββ ββββββββββββββ ββββββββββββββββ
- User Query β Frontend sends question to
/askendpoint - Embedding β Backend generates query embedding using BGE-Base-En
- Retrieval β Milvus performs vector similarity search
- Context β Top relevant documents retrieved with metadata
- Generation β LLM generates answer using retrieved context
- Response β Answer + sources + latency returned to frontend
- Memory β Conversation stored in Redis (last 5 turns)
Mode: Local (API-ready)
Configuration (.env.local):
CONFLUENCE_MODE=local
CONFLUENCE_LOCAL_DIR=data/sample_confluence_pagesAPI Implementation (backend/confluence_ingest.py):
- β Basic authentication (email + API token)
- β Fetch page by ID
- β Fetch all pages with pagination
- β CQL search support
- β Error handling (401, 404, timeout, connection errors)
To enable API mode:
- Update
.env.local:CONFLUENCE_MODE=api CONFLUENCE_BASE_URL=https://your-domain.atlassian.net/wiki CONFLUENCE_EMAIL=your-email@company.com CONFLUENCE_API_TOKEN=your-api-token
- Restart backend:
./start_local.sh restart
Check all service dependencies:
curl http://localhost:8000/health/depsExpected response:
{
"backend": "ok",
"milvus": "ok",
"etcd": "ok",
"minio": "ok",
"redis": "ok",
"ollama": "ok",
"embeddings": "ok"
}Test LLM connectivity and generation:
curl http://localhost:8000/llm/healthTest RAG pipeline with a sample question:
curl -X POST http://localhost:8000/ask \
-H 'Content-Type: application/json' \
-d '{"query":"What is the agile workflow?"}'Expected response time: 8-10 seconds
Check individual service status:
./start_local.sh statusOutput shows:
- β Ollama (with model info)
- β Redis (memory usage)
- β Milvus (container status)
- β Backend (process status)
- β Frontend (process status)
- π Document count and topics
Check prerequisites:
# The script checks these automatically, but you can verify manually:
which brew # Should show Homebrew path
which python3 # Should show Python 3.11+
which node # Should show Node.js 18+
which ollama # Should show Ollama path
brew services list | grep redis # Should show redis (started)
docker ps # Should show Milvus containerSymptom: Backend fails with "Ollama connection error"
Solution:
# Check if Ollama is running
ps aux | grep ollama
# Restart Ollama
./start_local.sh restart
# Or manually:
brew services restart ollama
ollama serveSymptom: "Failed to connect to Milvus"
Solution:
# Check Milvus container
docker ps | grep milvus
# Check logs
./start_local.sh logs milvus
# Restart Milvus
docker restart milvus-standalone
# If corrupt, clean and restart
./start_local.sh clean
./start_local.sh startSymptom: "Backend failed to start within 120 seconds"
Cause: Topic extraction can take 50-60 seconds on first document load
Solution: This is normal! The script waits up to 120 seconds. If it still fails:
# Check backend logs
./start_local.sh logs backend
# Manually start backend to see errors
cd /Users/adarsharma/Documents/adarsharma/M.tech-4th-sem/rag-enterprise
source venv/bin/activate
python -m backend.run_localSymptom: "Port 3000 already in use"
Solution:
# Find and kill the process using port 3000
lsof -ti:3000 | xargs kill -9
# Or restart frontend
./start_local.sh restartSymptom: "Could not connect to Redis"
Solution:
# Check Redis status
brew services list | grep redis
# Restart Redis
brew services restart redis
# Test connection
redis-cli ping # Should return "PONG"Symptom: Queries take >60 seconds or timeout
Solution:
# Check if Metal GPU is being used
ollama ps
# Check system resources
top -l 1 | grep -E "^CPU|^PhysMem"
# Restart Ollama to clear any issues
brew services restart ollamaSymptom: Health check shows 0 documents
Solution:
# Check if sample documents exist
ls -la data/sample_confluence_pages/
# Manually trigger document loading
curl -X POST http://localhost:8000/ingest/trigger
# Check backend logs for errors
./start_local.sh logs backendIf all else fails, completely reset the system:
# Stop everything
./start_local.sh stop
# Clean all data
./start_local.sh clean
# Start fresh
./start_local.sh startSolution:
# Check logs
docker compose logs <service-name> --tail=50
# Full restart
docker compose down && docker compose up -drag-enterprise/
βββ π start_local.sh # Main automation script (all-in-one)
βββ π README.md # This file
βββ π QUICKSTART.md # Quick start guide
βββ π QUICK_REFERENCE_LOCAL.md # Local deployment commands
βββ π LOCAL_SETUP_SUCCESS.md # Detailed local setup documentation
βββ π IMPROVEMENT_AREAS.md # Grey areas and future improvements
βββ π DEMO_PREP_CHECKLIST.md # M.Tech demo preparation
β
βββ π backend/ # FastAPI backend service
β βββ main.py # API endpoints (/health, /ask)
β βββ run_local.py # Local deployment script
β βββ rag_pipeline.py # RAG workflow orchestration
β βββ milvus_client.py # Vector database operations
β βββ embeddings.py # Embedding generation (BGE-Base-En)
β βββ llm_client.py # LLM integration with Ollama
β βββ confluence_ingest.py # Confluence API integration (COMPLETE)
β βββ requirements.txt # Python dependencies
β βββ .env.local # Local environment config
β
βββ π frontend/ # React frontend service
β βββ src/
β β βββ App.js # Main chat component
β β βββ App.css # Styling
β β βββ index.js # React entry point
β βββ public/
β βββ package.json # Node dependencies
β βββ node_modules/ # Installed dependencies
β
βββ π data/ # Sample documents
β βββ sample_confluence_pages/ # 14 pre-loaded documents
β βββ agile_workflow.txt
β βββ api_best_practices.txt
β βββ code_review.txt
β βββ engineering_standards.txt
β βββ hr_policy.txt
β βββ incident_management.txt
β βββ leave_policy.txt
β βββ onboarding.txt
β βββ performance_review.txt
β βββ security_guidelines.txt
β βββ ... (14 total)
β
βββ π docs_archive/ # Archived reference documentation
β βββ legacy/ # 1 file: conversational memory
β βββ guides/ # 5 files: architecture, APIs, hot reload
β βββ summaries/ # 4 files: performance, privacy, design
β
βββ π venv/ # Python virtual environment
βββ π volumes/ # Milvus data persistence
βββ .env.local # Local environment variables
βββ .gitignore # Git ignore rules
βββ docker-compose.yml # Docker services (Milvus only)
βββ requirements.txt # Python dependencies
-
start_local.sh: Main automation script that handles everything- 689 lines of comprehensive automation
- Prerequisite checking and installation
- Service orchestration (Ollama, Redis, Milvus, Backend, Frontend)
- Health monitoring and status reporting
- Document loading and indexing
- Logging and debugging support
-
backend/confluence_ingest.py: Full Confluence API implementation- β Basic authentication (email + API token)
- β Fetch page by ID
- β Fetch all pages with pagination
- β CQL search support
- β Comprehensive error handling
-
.env.local: Local deployment configuration- All service hostnames (localhost, not Docker internal)
- LLM timeouts (cold: 90s, warm: 60s)
- Confluence mode selection (local/api)
- Milvus standalone configuration
Root Documentation (6 files):
- Essential guides for getting started and running the system
- Current setup, commands, and improvement areas
- Demo preparation checklist
Archived Documentation (10 files in docs_archive/):
- Architecture and design documentation
- API implementation details
- Performance optimization strategies
- Security and privacy documentation
- Prompt engineering best practices
Purpose: Clean root directory for easy navigation, with valuable reference material preserved in archive.
βββββββββββββββ
β User β
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β
βΌ
βββββββββββββββββββ ββββββββββββββββ β React Frontend βββββββΊβ FastAPI β β (Port 3000) β β (Port 8000) β βββββββββββββββββββ ββββββββ¬ββββββββ β βββββββββββββΌβββββββββββ¬βββββββββββ βΌ βΌ βΌ βΌ ββββββββββββ ββββββββββ ββββββββ βββββββββββ β Embedder β β Milvus β β LLM β β Redis β β BGE β β Vector β βClientβ β Queue β β Large-En β β DB β β β β β ββββββββββββ ββββββββββ ββββββββ ββββββ¬βββββ β ββββββββ΄βββββββββββ β Ingestion β β Workers β ββββββββββ¬βββββββββ β ββββββββββββββββββββββββββΌβββββββββββββββββββββ βΌ βΌ βΌ ββββββββββββ βββββββββββββββ ββββββββββββββββ β Folder β β S3/MinIO β β Confluence β β Watcher β β Listener β β Webhook β ββββββββββββ βββββββββββββββ ββββββββββββββββ Local files Bucket events Page updates
### Request Flow
1. **User Query** β Frontend sends query to backend `/api/query` endpoint
2. **Embedding** β Query is embedded using BGE-Large-En model
3. **Retrieval** β Top-3 similar documents retrieved from Milvus
4. **Context Building** β Retrieved documents combined as context
5. **Generation** β LLM generates answer based on context
6. **Response** β Answer, sources, and latency returned to UI
### Ingestion Flow (Phase 1: Manual API)
1. **Document Upload** β User uploads file to `/api/ingest/upload`
2. **Job Queuing** β Backend saves file and publishes job to Redis
3. **Worker Processing** β Ingestion worker picks up job from queue
4. **Chunking & Embedding** β Worker chunks document and generates embeddings
5. **Storage** β Embeddings and text inserted into Milvus
6. **Status Update** β Job status updated in Redis
### Auto-Trigger Ingestion Flow (Phase 2: New!)
**Three automatic trigger mechanisms:**
#### Folder Watcher
1. User drops file in `data/incoming/` directory
2. Watcher detects new/modified file
3. Job automatically enqueued to Redis
4. Worker processes file β embeds β stores in Milvus
#### S3/MinIO Listener
1. File uploaded to S3/MinIO bucket (`incoming/` prefix)
2. Listener receives bucket notification event
3. File downloaded to temporary location
4. Job automatically enqueued to Redis
5. Worker processes file β embeds β stores in Milvus
#### Confluence Webhook
1. Page created/updated in Confluence
2. Webhook POST sent to `/api/webhook/confluence`
3. Backend extracts page URL
4. URL ingestion job enqueued to Redis
5. Worker fetches content β embeds β stores in Milvus
**Enable auto-triggers:**
```bash
# Set in .env
ENABLE_FOLDER_WATCHER=true
ENABLE_S3_TRIGGER=true
# Start trigger service
docker compose --profile trigger up -d
See TRIGGER_SERVICE_GUIDE.md for complete documentation.
### Request Flow
1. **User Query** β Frontend sends query to backend `/ask` endpoint
2. **Embedding** β Query is embedded using BGE-Large-En model
3. **Retrieval** β Top-3 similar documents retrieved from Milvus
4. **Context Building** β Retrieved documents combined as context
5. **Generation** β LLM generates answer based on context
6. **Response** β Answer, sources, and latency returned to UI
## Tech Stack & Why?
### Backend: FastAPI
- **Why?** Async support, automatic API docs, Python ecosystem
- Modern, fast, and perfect for ML/AI services
- Built-in validation with Pydantic
### Vector DB: Milvus
- **Why?** Purpose-built for vector similarity search
- ANN (Approximate Nearest Neighbor) optimization
- Handles billion-scale vectors efficiently
- Open-source and production-ready
### Embeddings: BGE-Large-En
- **Why?** State-of-the-art dense retrieval performance
- Top results on MTEB leaderboard for English
- 1024-dimensional embeddings
- Excellent zero-shot generalization
### LLM: Mistral 7B
- **Why?** Strong performance with efficient inference
- Better quality-to-cost ratio than alternatives
- Supports both mock (demo) and API modes
- Easy to swap with other models
### Frontend: React
- **Why?** Component-based, fast, widely adopted
- Simple for this use case (no complex state management)
- Great developer experience
### Orchestration: Docker Compose
- **Why?** Reproducible one-command deployment
- Multi-service management
- Consistent environments (dev/prod)
- Easy dependency handling
## Configuration
### Environment Variables
Copy `.env.example` to `.env` to customize:
```bash
# Milvus Connection
MILVUS_HOST=milvus
MILVUS_PORT=19530
COLLECTION_NAME=enterprise_docs
# Embeddings
EMBEDDING_MODEL=all-MiniLM-L6-v2
EMBEDDING_DIM=384
# LLM Mode
LLM_MODE=mock # Options: mock, mistral
# Mistral API (if LLM_MODE=mistral)
MISTRAL_API_KEY=your_key_here
MISTRAL_API_URL=https://api.mistral.ai/v1/chat/completions
# Data Directory
DATA_DIR=/app/data
# Confluence Integration
CONFLUENCE_MODE=local # Options: local, api
CONFLUENCE_LOCAL_DIR=/app/data/sample_confluence_pages
CONFLUENCE_BASE_URL=https://yourcompany.atlassian.net/wiki
CONFLUENCE_USER_EMAIL=your.email@company.com
CONFLUENCE_API_TOKEN=your_confluence_api_token
CONFLUENCE_SPACE_KEY=ENGINEERING
The system includes modular Confluence integration that works in two modes:
CONFLUENCE_MODE=local- Reads sample Confluence pages from
data/sample_confluence_pages/ - Includes realistic enterprise documentation:
- Engineering Standards (code review, git workflow, testing)
- Agile Workflow (sprint planning, Jira, retrospectives)
- Incident Management (severity levels, on-call, playbooks)
- API Documentation (authentication, endpoints, examples)
- Perfect for dissertation/demo - no API credentials required
- Documents are automatically indexed on startup
CONFLUENCE_MODE=api
CONFLUENCE_BASE_URL=https://yourcompany.atlassian.net/wiki
CONFLUENCE_USER_EMAIL=your.email@company.com
CONFLUENCE_API_TOKEN=your_api_token
CONFLUENCE_SPACE_KEY=ENGINEERING- Architecture ready for Confluence REST API integration
- Stub methods documented with API endpoints and authentication
- Easy to implement when API access is available
- Demonstrates enterprise-ready design for dissertation
Why This Approach?
- Working POC without external dependencies
- Architecturally sound for production extension
- Can truthfully claim Confluence integration capability
- Sample docs demonstrate handling of real enterprise content
The system supports 4 different LLM backends with automatic detection. Choose based on your needs:
LLM_MODE=mock- No dependencies, instant responses
- Perfect for testing/demos
- Returns template with context snippets
- Emoji indicator:
LLM_MODE=api
MISTRAL_API_URL=http://host.docker.internal:11434/api/generate
MISTRAL_MODEL=mistral- Fast local inference
- Completely private, no data leaves your machine
- Free (after initial setup)
- Emoji indicator:
- Requires: Ollama installed
LLM_MODE=api
MISTRAL_API_URL=https://api-inference.huggingface.co/models/mistralai/Mistral-7B-Instruct-v0.2
MISTRAL_API_KEY=hf_YOUR_TOKEN_HERE
MISTRAL_MODEL=mistralai/Mistral-7B-Instruct-v0.2- No local setup required
- Free tier available
- Access to many models
- Emoji indicator:
- Requires: HuggingFace API token
LLM_MODE=api
MISTRAL_API_URL=https://api.mistral.ai/v1/chat/completions
MISTRAL_API_KEY=your_mistral_api_key
MISTRAL_MODEL=mistral-small-latest- Enterprise-grade support
- High performance
- Emoji indicator:
- Requires: Mistral API key (paid)
Backend Auto-Detection: The system automatically detects which backend to use based on the URL pattern:
- Contains "ollama" or ":11434" β Ollama
- Contains "huggingface" β HuggingFace
- Other β Mistral API
See LLM_BACKEND_IMPLEMENTATION.md for detailed configuration guide.
Health check endpoint
{
"status": "ok"
}Process a user query with conversational memory
Request:
{
"query": "What is the PTO policy?",
"session_id": "user123" // Optional, for conversation history
}Response:
{
"answer": "Based on the HR policies...",
"sources": [
{"title": "HR_Policies.txt", "text": "..."}
],
"latency_ms": 1234.56,
"session_id": "user123"
}The system now supports asynchronous document ingestion via a dedicated microservice. Upload documents through the REST API, and they'll be processed in the background by worker services.
Upload a document for asynchronous ingestion
Request:
curl -X POST http://localhost:8000/api/ingest/upload \
-F "file=@document.txt"Response:
{
"job_id": "abc123-def456-ghi789",
"status": "queued",
"message": "Document 'document.txt' queued for ingestion",
"file_path": "/app/uploads/abc123_document.txt"
}Check the status of an ingestion job
Request:
curl http://localhost:8000/api/ingest/status/abc123-def456-ghi789Response (Completed):
{
"job_id": "abc123-def456-ghi789",
"status": "completed",
"result": {
"status": "success",
"title": "document.txt",
"chunks": 5,
"total_characters": 12450,
"elapsed_seconds": 23.5,
"message": "[x] Successfully ingested: document.txt"
}
}Status Values:
queued- Job waiting in queueprocessing- Worker is processingcompleted- Successfully ingestedfailed- Ingestion failed
Cancel a pending or running ingestion job
Ingestion Architecture:
User Upload β FastAPI Backend β Redis Queue β Ingestion Worker β Milvus
Key Features:
- Asynchronous processing (non-blocking)
- Redis queue for job management
- Scalable workers (can run multiple)
- Job status tracking
- Automatic chunking and embedding
- Supports .txt and .md files
See INGESTION_API_GUIDE.md for detailed documentation.
Automatically ingest documents without manual API calls. Three trigger mechanisms available:
Receive Confluence webhook events for automatic page ingestion
Request:
{
"event": "page_created",
"page": {
"id": "12345",
"title": "Engineering Guidelines",
"url": "https://yourcompany.atlassian.net/wiki/spaces/ENG/pages/12345"
}
}Response:
{
"status": "success",
"message": "Confluence page 'Engineering Guidelines' queued for ingestion",
"job_id": "abc-123-def"
}Monitor local directory for new files and automatically enqueue for ingestion.
# Enable in .env
ENABLE_FOLDER_WATCHER=true
WATCH_DIR=/app/data/incoming
# Start trigger service
docker compose --profile trigger up -d
# Drop files to auto-ingest
cp document.txt data/incoming/Supported file types: .txt, .md, .pdf, .doc, .docx
Listen to bucket events and automatically ingest uploaded files.
# Enable in .env
ENABLE_S3_TRIGGER=true
MINIO_ENDPOINT=http://minio:9000
S3_BUCKET_NAME=documents
# Start trigger service
docker compose --profile trigger up -d
# Upload to bucket β automatically ingestedQuick Start:
# 1. Enable triggers in .env
echo "ENABLE_FOLDER_WATCHER=true" >> .env
# 2. Start services with trigger profile
docker compose --profile trigger up -d
# 3. Drop a file
echo "Test document" > data/incoming/test.txt
# 4. Watch it get processed
docker compose logs -f trigger** Complete Guide:** See TRIGGER_SERVICE_GUIDE.md for:
- Detailed setup instructions
- Configuration reference
- Troubleshooting guide
- Security best practices
- Testing procedures
** Deprecated:** Use /api/query instead.
Process a user query
Request:
{
"query": "What is the PTO policy?"
}Response:
{
"answer": "Based on the retrieved context...",
"sources": [
{
"title": "leave_policy.txt",
"text": "Our company uses a combined PTO policy...",
"score": 0.923
}
],
"latency_ms": 342.56
}- Add
.txtfiles to thedata/directory - Restart backend service:
docker compose restart backend
- Documents are automatically indexed on startup if collection is empty
Backend only:
cd backend
pip install -r requirements.txt
python main.pyFrontend only:
cd frontend
npm install
npm start# All services
docker compose logs -f
# Specific service
docker compose logs -f backend
docker compose logs -f frontend
docker compose logs -f milvus- Wait 2-3 minutes for Milvus to fully initialize
- Check Milvus health:
curl http://localhost:9091/healthz
- Embedding model requires ~4GB RAM
- Increase Docker memory limit in Docker Desktop settings
- Stop conflicting services or change ports in
docker-compose.yml
- Ensure
REACT_APP_API_URLmatches your backend URL - Check CORS settings in
backend/main.py
This project includes an automated evaluation module that measures system performance for dissertation reporting.
The evaluation script tests 8 predefined queries and measures:
| Metric | Description | Expected Range |
|---|---|---|
| Retrieval Time | Embedding generation + vector search latency | 30-100 ms |
| Generation Time | LLM inference time | 1000-2500 ms |
| Total Latency | End-to-end response time | 1200-2800 ms |
| Relevance Score | Cosine similarity of top-ranked source | 70-90% |
# Make sure services are running
docker compose up -d
# Run evaluation (takes 2-3 minutes)
docker compose run backend python evaluate_poc.py
# Copy results to your machine
docker compose cp backend:/app/results/results.md ./backend/results/results.md
# View results
cat backend/results/results.md# Start services
docker compose up -d
# Trigger evaluation via API
curl http://localhost:8000/evaluate
# Or visit in browser
open http://localhost:8000/evaluateThe evaluation generates a Markdown file (results.md) with:
-
Performance Summary Table
| Metric | Average | Unit | |--------|---------|------| | Retrieval Time | 45.23 | ms | | Generation Time | 1250.67 | ms | | Total Latency | 1295.90 | ms | | Relevance Score | 82.45% | % |
-
Detailed Query Results (8 test queries with individual metrics)
-
Answer Previews (for qualitative analysis)
-
System Configuration (for methodology section)
The results.md file is ready for direct inclusion in your dissertation's Results & Evaluation chapter:
This project is part of an M.Tech 4th semester presentation demonstrating:
- β Enterprise RAG Implementation: Complete end-to-end pipeline
- β Performance Optimization: 8-10x improvement with Metal GPU
- β Native Deployment: Moving from Docker to optimized local setup
- β Production Practices: Health checks, monitoring, error handling
- β API Integration: Full Confluence API implementation
- β Automation: One-command deployment with comprehensive checks
- Query Response Time: 8-10 seconds (vs 60-90s in Docker)
- Speedup: 8-10x improvement with Metal GPU acceleration
- Memory Usage: ~8-10GB total (efficient resource utilization)
- Document Loading: 14 documents indexed in ~5 seconds
- Topic Extraction: ~50 seconds (one-time per session)
- Startup Time: 30-60 seconds (after initial setup)
-
Native Mac Optimization
- Metal GPU acceleration for LLM inference
- Eliminated Docker overhead for compute-intensive tasks
- Optimized service orchestration
-
Comprehensive Automation
- 689-line automation script
- Prerequisite checking and auto-installation
- Health monitoring and status reporting
- Intelligent timeout handling
-
Full API Integration
- Complete Confluence API implementation
- Basic authentication support
- Pagination and search capabilities
- Comprehensive error handling
-
Production-Ready Features
- Conversational memory (5-turn context)
- Hot reload for development
- Comprehensive health checks
- Document ingestion pipeline
- Source attribution and latency tracking
QUICK_REFERENCE_LOCAL.md: Quick command referenceLOCAL_SETUP_SUCCESS.md: Detailed setup walkthroughIMPROVEMENT_AREAS.md: 18 identified grey areas for future workDEMO_PREP_CHECKLIST.md: M.Tech presentation preparationdocs_archive/: Architectural and implementation reference docs
- Advanced conversational features (conversation branches, history search)
- Enhanced document preprocessing (better chunking strategies)
- Query optimization (caching, compression)
- Multi-document upload interface
- Real-time ingestion status
- Query history and favorites
- Export conversations
- User authentication and authorization
- Multi-tenant support
- Monitoring and analytics dashboard
- Automated testing suite
- Multi-language support
- Custom embedding models
- Fine-tuning capabilities
- Advanced RAG techniques (HyDE, multi-query)
This project is for educational/academic purposes (M.Tech dissertation).
- Ollama: Local LLM inference with Metal GPU support
- Milvus: High-performance vector database
- FastAPI: Modern Python web framework
- React: Frontend UI framework
Built with β€οΈ for enterprise knowledge management
Last updated: November 19, 2025 Branch: local-final-presentation Status: Production-ready local deployment