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| You are building the Quantum Environmental Intelligence System (QEIS). | |
| Purpose: | |
| Develop an AI-driven system that fuses quantum-inspired simulation, environmental data sensing, and psychophysiological feedback to map and optimize the unseen patterns of human–environment coherence. The system combines real-world sensor input, AR visualization, and quantum-mechanical analogs for predictive modeling and environmental intelligence. | |
| Core Objectives: | |
| - Capture environmental and biometric data in real time. | |
| - Simulate probability and coherence fields using quantum-inspired algorithms. | |
| - Visualize AR overlays showing energetic or environmental flow. | |
| - Generate actionable insights for sustainability, design, and wellness. | |
| System Architecture: | |
| 1. Mobile Layer: | |
| - React Native with ARCore/ARKit for AR environment rendering. | |
| - TensorFlow Lite models for local predictions and biofeedback analysis. | |
| - Sensor API integration (camera, GPS, EMF, accelerometer, microphone, EEG). | |
| 2. Backend: | |
| - Node.js + Express + WebSocket for live data streaming. | |
| - REST + MQTT endpoints for IoT and bio-sensor input. | |
| - PostgreSQL (user + metadata) + InfluxDB (time-series environment data). | |
| - Redis or Kafka for event streaming and message queues. | |
| 3. Cloud AI Pipeline: | |
| - Vertex AI for large-scale model training and deployment. | |
| - TensorFlow and PyTorch pipelines for pattern recognition. | |
| - AutoML for coherence mapping and anomaly detection. | |
| - Synthetic Data Generator (Python + NumPy + Faker) to simulate diverse sensor environments. | |
| 4. Visualization Layer: | |
| - Next.js frontend deployed on Vercel. | |
| - Three.js + WebGL quantum-field rendering. | |
| - Real-time “coherence map” overlay using probabilistic color gradients. | |
| - Optional neural interface visualization (EEG, HRV, or GSR streams). | |
| API Schema: | |
| - POST /data/sensor | |
| → { device_id, timestamp, type, value, geo } | |
| - GET /map/coherence | |
| → returns AR field JSON grid + vector overlays | |
| - GET /forecast/anomaly | |
| → predictive anomaly report | |
| - WS /stream | |
| → live stream for visualization | |
| Database Structure: | |
| - users(id, name, auth_id, permissions) | |
| - devices(id, user_id, type, last_seen) | |
| - sensor_data(id, device_id, sensor_type, value, timestamp, geo) | |
| - coherence_map(id, timestamp, grid_data, model_version) | |
| MQTT Topics: | |
| - qeis/sensors/[device_id] | |
| - qeis/predict/anomaly | |
| - qeis/visual/field | |
| WebSocket Message Example: | |
| { | |
| "type": "coherence_update", | |
| "payload": { | |
| "region": "local", | |
| "coherence_index": 0.87, | |
| "timestamp": "2025-11-05T12:00:00Z" | |
| } | |
| } | |
| Machine Learning Tasks: | |
| - Train environmental coherence models via Vertex AI. | |
| - Convert TensorFlow models to TFLite for mobile inference. | |
| - Use synthetic data generator to augment training dataset. | |
| - Apply unsupervised clustering for quantum-like entanglement mapping. | |
| TF Lite Conversion Script: | |
| python | |
| import tensorflow as tf | |
| model = tf.keras.models.load_model('model.h5') | |
| converter = tf.lite.TFLiteConverter.from_keras_model(model) | |
| tflite_model = converter.convert() | |
| open("model.tflite", "wb").write(tflite_model) | |
| Terraform Template (GCP): | |
| terraform | |
| provider "google" { | |
| project = "qeis-project" | |
| region = "us-central1" | |
| } | |
| resource "google_storage_bucket" "qeis_data" { | |
| name = "qeis-data-bucket" | |
| location = "US" | |
| } | |
| resource "google_vertex_ai_endpoint" "qeis" { | |
| display_name = "qeis-endpoint" | |
| } | |
| GitHub Actions (CI/CD): | |
| yaml | |
| name: Deploy QEIS | |
| on: [push] | |
| jobs: | |
| build-deploy: | |
| runs-on: ubuntu-latest | |
| steps: | |
| - uses: actions/checkout@v3 | |
| - run: npm install && npm run build | |
| - run: vercel deploy --prod | |
| Sprint Plan (8 Weeks): | |
| Week 1–2: Backend scaffolding, API routes, DB setup | |
| Week 3–4: Frontend UI, AR rendering, WebSocket integration | |
| Week 5–6: ML pipeline, Vertex AI model training | |
| Week 7: TFLite integration + mobile tests | |
| Week 8: Cloud deployment + system test | |
| Immediate Setup Commands: | |
| # Clone and initialize repo | |
| git clone https://github.com/yourname/QEIS.git | |
| cd QEIS | |
| npm install | |
| vercel link | |
| firebase init | |
| gcloud init | |
| terraform init && terraform apply | |
| Output: | |
| Fully operational, AI-powered, AR-integrated quantum environmental intelligence platform ready for GitHub deployment, Google Vertex AI integration, and open interoperability with other edge and cloud services. | |