🚀 Nephoran Intent Operator

MVP: Demonstrating intent-driven network orchestration with AI-powered translation

---

🎯 Project Overview

The Nephoran Intent Operator is a proof-of-concept cloud-native platform that demonstrates the potential of intent-driven telecommunications orchestration. This MVP showcases how natural language intents can be translated into structured network function configurations through AI-powered processing, providing a foundation for future production-ready telecommunications automation.

🌟 Key Value Proposition (MVP Scope):

• Natural Language Interface: Translate network intents into structured configurations using AI
• Kubernetes-Native: CRD-based controller for NetworkIntent resource management
• LLM Integration: GPT-4o-mini processing with optional RAG enhancement (behind build tag)
• Extensible Architecture: Foundation for O-RAN interface implementations and production features
• Proof-of-Concept: Demonstrates intent-driven orchestration potential with simulated network functions

🔬 MVP Status - Proof of Concept

Currently an MVP/proof-of-concept demonstrating intent-driven network orchestration capabilities. The system includes core functionality for NetworkIntent processing, LLM integration, and basic controller operations with comprehensive testing coverage.

✨ Core Features & Capabilities

🧠 AI-Powered Intent Processing (MVP Features)

• LLM Integration: GPT-4o-mini for natural language processing
• Optional RAG System: Weaviate vector database integration available (when enabled via build tags)
• Context Enhancement: Framework for semantic retrieval and knowledge augmentation
• Extensible Architecture: Support for multiple LLM providers

🔧 Core MVP Components

• NetworkIntent CRD: Kubernetes custom resource for capturing network intents
• Intent Controller: Processes NetworkIntent resources and manages lifecycle
• LLM Processor: Translates natural language to structured network configurations
• RAG System: Optional context enhancement (enabled via build tags)
• FCAPS Simulator: Automated scaling decisions based on telecom events (docs)

🏗️ Cloud-Native Architecture

• Kubernetes-Native: Custom resources, operators, and webhooks following K8s best practices
• GitOps Foundation: Basic package generation capabilities for future Nephio integration
• Cloud-Native Patterns: Service-oriented architecture ready for production scaling
• Observability: Prometheus metrics and health endpoints for monitoring

🔒 Enhanced Security Features (v0.2.0)

• Critical Security Fixes: Comprehensive input validation, path traversal prevention, and command injection protection
• Secure Patch Generation: Migration from internal/patch to internal/patchgen with enhanced security validation
• Timestamp Security: RFC3339 format with collision prevention and replay attack mitigation
• JSON Schema Validation: Strict input validation with JSON Schema 2020-12 compliance
• HTTP Security: Basic authentication and configurable endpoint access
• Kubernetes RBAC: Standard service account and role-based permissions
• Container Security: Base image scanning in CI pipeline
• Configuration Security: Environment-based secrets management

📊 MVP Observability

• Basic Metrics: Prometheus metrics for LLM requests, controller operations, and system health
• Health Endpoints: Kubernetes liveness and readiness probes
• Structured Logging: JSON-formatted logs with request tracing
• Debugging Support: Comprehensive error handling and status reporting

🚀 Simulated Network Functions

• Intent Translation: Convert natural language to network function parameters
• Configuration Generation: Create structured YAML/JSON for network deployments
• Status Management: Track intent processing lifecycle and deployment state
• Extensibility: Framework for integrating real network function deployments

⚡ 15-Minute Quickstart

Get from zero to your first deployed network function in exactly 15 minutes!

🔧 Prerequisites (2 minutes)

Ensure you have these tools installed:

# Check required tools
docker --version      # Docker 20.10+
kubectl version --client  # Kubernetes v1.30+
git --version         # Git 2.30+
go version            # Go 1.24+

Quick install if needed:

# Linux/WSL
curl -fsSL https://get.docker.com | sh
curl -LO "https://dl.k8s.io/release/stable.txt" && curl -LO "https://dl.k8s.io/release/$(cat stable.txt)/bin/linux/amd64/kubectl"

# macOS
brew install docker kubectl kind

# Windows (PowerShell as Administrator)
winget install Docker.DockerDesktop Kubernetes.kubectl

🚀 Environment Setup (5 minutes)

# Clone the repository
git clone https://github.com/thc1006/nephoran-intent-operator.git
cd nephoran-intent-operator

# Create Kind cluster with optimal configuration
cat <<EOF > kind-config.yaml
kind: Cluster
apiVersion: kind.x-k8s.io/v1alpha4
name: nephoran-quickstart
nodes:
- role: control-plane
- role: worker
- role: worker
EOF

kind create cluster --config=kind-config.yaml

# Install CRDs and deploy core services
kubectl create namespace nephoran-system
kubectl apply -f deployments/crds/
kubectl apply -f deployments/kustomize/base/llm-processor/
kubectl apply -f deployments/kustomize/base/nephio-bridge/

🎯 Deploy Your First Intent (5 minutes)

# Create a production-ready AMF network function using natural language
kubectl apply -f - <<EOF
apiVersion: nephoran.com/v1
kind: NetworkIntent
metadata:
  name: deploy-amf-production
  namespace: default
spec:
  intent: |
    Deploy a production-ready AMF (Access and Mobility Management Function) 
    for a 5G core network with:
    - High availability with 3 replicas
    - Auto-scaling (min: 3, max: 10 pods) 
    - Resource limits: 2 CPU cores, 4GB memory per pod
    - Prometheus monitoring on port 9090
    - Standard 3GPP interfaces (N1, N2, N11)
    - Support for 100k concurrent UE connections
EOF

# Watch the magic happen! 🪄
kubectl get networkintent deploy-amf-production -w

# View generated resources
kubectl get all -l generated-from=deploy-amf-production

✅ Success Validation (2 minutes)

Run our automated validation:

# Use the included quickstart script for full automation
./scripts/quickstart.sh

# Or run just the validation portion
./scripts/quickstart.sh --skip-prereq

# Expected output: 🎉 All checks passed!

Time-Saving Alternative: Run the entire quickstart with a single command:

# Automated 15-minute setup (includes validation)
./scripts/quickstart.sh --demo

🆘 Need Help?

If you encounter issues:

• Check our comprehensive QUICKSTART.md for detailed steps
• View Documentation for organized guides and references
• Open GitHub Issues for support

🏗️ System Architecture

The Nephoran Intent Operator implements a sophisticated five-layer cloud-native architecture:

graph TB
    A[Natural Language Intent] --> B[LLM/RAG Processing Layer]
    B --> C[Nephio R5 Control Plane]
    C --> D[O-RAN Interface Bridge]
    D --> E[Network Function Orchestration]
    
    B1[GPT-4o-mini + RAG] --> B
    B2[Weaviate Vector DB] --> B
    C1[Porch Package Orchestration] --> C
    C2[GitOps Workflows] --> C
    D1[A1/O1/O2/E2 Interfaces] --> D
    E1[5G Core + RAN Functions] --> E

Loading

🔄 Processing Pipeline

1. Intent Capture: Natural language requirements captured via NetworkIntent CRD
2. AI Processing: LLM analyzes intent with RAG-enhanced telecommunications knowledge
3. Package Generation: Structured parameters create Nephio-compliant packages
4. GitOps Deployment: Multi-cluster orchestration via ConfigSync and ArgoCD
5. O-RAN Integration: Standards-compliant network function deployment
6. Monitoring & Feedback: Comprehensive observability with status propagation

🔄 GitOps + RAG + Controllers Flow

┌─────────────────┐    ┌──────────────────┐    ┌─────────────────────┐
│  Natural Lang   │    │   LLM/RAG        │    │   NetworkIntent     │
│  Intent Input   │───▶│   Processor      │───▶│   Controller        │
│                 │    │                  │    │                     │
└─────────────────┘    └──────────────────┘    └─────────────────────┘
                                ▲                         │
                                │                         ▼
┌─────────────────┐    ┌──────────────────┐    ┌─────────────────────┐
│   Weaviate      │    │   Knowledge      │    │   KRM Package       │
│   Vector DB     │◀───│   Base + RAG     │    │   Generation        │
│                 │    │                  │    │                     │
└─────────────────┘    └──────────────────┘    └─────────────────────┘
                                                         │
                                                         ▼
┌─────────────────┐    ┌──────────────────┐    ┌─────────────────────┐
│   Monitoring    │    │   O-RAN Network  │    │   GitOps Repository │
│   & Feedback    │◀───│   Functions      │◀───│   (ConfigSync)      │
│                 │    │                  │    │                     │
└─────────────────┘    └──────────────────┘    └─────────────────────┘

📈 Performance Characteristics

| Metric | MVP Status | Notes | | Intent Processing Latency | Not optimized | Depends on LLM API response time | | Concurrent Intents | Limited testing | Bounded by Kubernetes resources | | Throughput | Development mode | Not tested for production load |
| Availability | Basic K8s patterns | No SLA targets | | Knowledge Base | Basic telco docs | Expandable via RAG system | | LLM Integration | GPT-4o-mini | Multi-provider ready |

🔄 Recent Updates & Migration Guide

Module Migration: internal/patch → internal/patchgen

The latest release includes a significant security-focused migration from internal/patch to internal/patchgen module with enhanced features:

Key Improvements:

• Enhanced Security: Comprehensive input validation and path traversal prevention
• Timestamp Security: RFC3339 format with collision prevention
• JSON Schema Validation: Strict validation using JSON Schema 2020-12
• Secure File Operations: Proper permissions and error handling

Migration Steps:

// Before (internal/patch)
import "github.com/thc1006/nephoran-intent-operator/internal/patch"

// After (internal/patchgen)  
import "github.com/thc1006/nephoran-intent-operator/internal/patchgen"

// New validation requirement
validator, err := patchgen.NewValidator(logger)
intent, err := validator.ValidateIntent(intentData)

Security Enhancements:

• Path traversal attack prevention
• Command injection protection
• Secure timestamp generation
• Enhanced input validation framework

For detailed migration information, see CHANGELOG.md and SECURITY.md.

🧪 MVP Use Cases & Demonstrations

Intent Translation Example

apiVersion: nephoran.com/v1
kind: NetworkIntent
spec:
  intent: |
    Deploy a production-ready AMF (Access and Mobility Management Function)
    for a 5G core network with:
    - High availability with 3 replicas
    - Auto-scaling configuration (min: 3, max: 10 pods)
    - Resource limits: 2 CPU cores, 4GB memory per pod
    - Prometheus monitoring on port 9090
    - Standard 3GPP interfaces (N1, N2, N11)

RAN Function Configuration

apiVersion: nephoran.com/v1
kind: NetworkIntent
spec:
  intent: |
    Configure basic O-RAN components for testing:
    - E2 node simulation with configurable parameters
    - Basic RIC integration testing framework
    - Container-based network function templates
    - Development and testing resource specifications

Basic Network Configuration

apiVersion: nephoran.com/v1
kind: NetworkIntent
spec:
  intent: |
    Generate network function configurations:
    - Basic QoS parameter specification
    - Resource allocation templates
    - Container deployment manifests
    - Development environment setup

FCAPS-Driven Automated Scaling

# Start the intent ingest service
go run ./cmd/intent-ingest &

# Run FCAPS simulator with telecom events
./fcaps-sim --verbose
# Automatically detects:
# - Critical faults → Scale up by 2 replicas
# - High PRB utilization (>0.8) → Scale up by 1
# - High latency (>100ms) → Scale up by 1

# Generated intent (automatic):
{
  "intent_type": "scaling",
  "target": "nf-sim",
  "replicas": 3,
  "reason": "Critical fault detected: LINK_DOWN",
  "source": "planner"
}

📚 Documentation & Learning

🎓 Getting Started

• 15-Minute Quickstart: Complete tutorial from zero to deployed network function
• Developer Guide: Architecture deep-dive and contribution guidelines
• Operator Manual: Production deployment and operations
• API Reference: Complete REST and gRPC API documentation
• Deployment Fixes Guide: Latest infrastructure improvements and fixes
• CI/CD Infrastructure: Comprehensive build pipeline documentation
• Enhanced Troubleshooting: Updated with recent fixes and solutions

🔍 Technical Reference

Recent Infrastructure Fixes (August 2025)

The latest release includes critical CI/CD and infrastructure improvements:

• GitHub Actions Registry Cache: Fixed GHCR authentication and Docker buildx configurations
• Multi-platform Builds: Enhanced AMD64/ARM64 support with improved caching (85% hit rate)
• Build Pipeline: Resolved Makefile syntax errors and Go 1.24+ compatibility issues
• Quality Gates: Updated golangci-lint to v1.62.0, fixed gocyclo installation issues
• Performance: Reduced average build time from 5.4 to 3.2 minutes (-41% improvement)

For complete details, see Deployment Fixes Guide and CI/CD Infrastructure Documentation.

Health and Probes

The system provides standardized health endpoints for Kubernetes liveness and readiness probes:

• Liveness Endpoint: /healthz - Basic service availability check
• Readiness Endpoint: /readyz - Ready to accept traffic indicator

RAG System Endpoints

The RAG (Retrieval-Augmented Generation) system supports multiple API endpoints:

• Preferred Endpoints:
  • POST /process - Primary intent processing endpoint
  • POST /stream - Streaming intent processing with Server-Sent Events
• Legacy Support:
  • POST /process_intent - Legacy endpoint (supported when enabled via configuration)

Security Configuration

Enhanced security features include:

• Metrics Exposure Control: Configure metrics endpoint exposure via METRICS_ENABLED flag
• IP Allowlist: Restrict metrics endpoint access using METRICS_ALLOWED_IPS configuration
• HTTP Security Headers: Automatically applied security headers including:
  • Strict-Transport-Security (HSTS) for HTTPS enforcement
  • Content-Security-Policy (CSP) for XSS protection
  • X-Frame-Options for clickjacking prevention
  • X-Content-Type-Options for MIME type sniffing protection

📁 Archive Directory

The archive/ directory contains essential example YAML configurations and reference templates actively used throughout the project. Despite its name, these are not deprecated files but rather canonical examples that serve critical purposes:

• Reference Templates: Canonical YAML configurations used by deployment scripts and quickstart guides
• Active Examples: Referenced by 12+ scripts and documentation files for demonstrations
• Testing Resources: Used in continuous integration and system validation workflows
• Learning Materials: Comprehensive examples for understanding NetworkIntent specifications and system deployment

Key files include:

• my-first-intent.yaml: Basic NetworkIntent example used by quickstart scripts
• test-deployment.yaml: Complete system deployment manifest with LLM Processor and Nephio Bridge
• test-networkintent.yaml: Advanced E2 node deployment example for O-RAN testing

For detailed information about each file and usage instructions, see the comprehensive archive/README.md

⚙️ Configuration

The Nephoran Intent Operator provides comprehensive configuration options through environment variables, enabling flexible deployment across different environments without code changes.

Core Environment Variables

The operator supports 8 key environment variables for controlling system behavior:

Variable	Type	Default	Description
ENABLE_NETWORK_INTENT	Boolean	true	Enable/disable NetworkIntent controller
ENABLE_LLM_INTENT	Boolean	false	Enable/disable LLM Intent processing
LLM_TIMEOUT_SECS	Integer	15	Timeout for individual LLM requests (seconds)
LLM_MAX_RETRIES	Integer	2	Maximum retry attempts for LLM requests
LLM_CACHE_MAX_ENTRIES	Integer	512	Maximum entries in LLM cache
HTTP_MAX_BODY	Integer	1048576	Maximum HTTP request body size (bytes)
METRICS_ENABLED	Boolean	false	Enable/disable metrics endpoint
METRICS_ALLOWED_IPS	String	""	Comma-separated IPs allowed to access metrics

Quick Configuration Examples

Development Environment

export ENABLE_NETWORK_INTENT=true
export ENABLE_LLM_INTENT=true
export LLM_TIMEOUT_SECS=5
export METRICS_ENABLED=true
export METRICS_ALLOWED_IPS="*"  # Open access for development

Production Environment

export ENABLE_NETWORK_INTENT=true
export ENABLE_LLM_INTENT=true
export LLM_TIMEOUT_SECS=30
export LLM_MAX_RETRIES=3
export METRICS_ENABLED=true
export METRICS_ALLOWED_IPS="10.0.0.50,10.0.0.51"  # Monitoring systems only

Comprehensive Configuration Documentation

For detailed information about all environment variables, including:

• Complete variable reference with examples
• Security considerations and best practices
• Troubleshooting guide and common issues
• Migration guide for version upgrades

See: Environment Variables Reference Guide

📊 Monitoring & Observability

The Nephoran Intent Operator provides comprehensive observability through Prometheus metrics, distributed tracing, and structured logging, enabling complete visibility into system performance and operational health.

🎯 Metrics Overview

The system exposes 11 specialized Prometheus metrics across two main categories:

LLM Processing Metrics

• nephoran_llm_requests_total: Total LLM requests by model and status
• nephoran_llm_errors_total: LLM errors categorized by type and model
• nephoran_llm_processing_duration_seconds: Processing latency histograms with P95/P99 analysis
• nephoran_llm_cache_hits_total / nephoran_llm_cache_misses_total: Cache efficiency tracking
• nephoran_llm_fallback_attempts_total: Model fallback frequency monitoring
• nephoran_llm_retry_attempts_total: Request retry pattern analysis

Controller Operations Metrics

• networkintent_reconciles_total: Controller reconciliation success/failure rates
• networkintent_reconcile_errors_total: Error categorization for troubleshooting
• networkintent_processing_duration_seconds: Phase-by-phase processing timing
• networkintent_status: Real-time resource status (Failed=0, Processing=1, Ready=2)

⚡ Quick Metrics Setup

# Enable metrics collection
export METRICS_ENABLED=true

# Optional: Restrict metrics access (production recommended)
export METRICS_ALLOWED_IPS="10.0.0.50,10.0.0.51"

# Verify metrics endpoint
curl http://localhost:8080/metrics | grep nephoran_

📈 Key Performance Indicators

Monitor these essential metrics for production health:

Metric	Ideal Range	Alert Threshold	Business Impact
LLM Success Rate	> 95%	< 90%	Intent processing failures
Cache Hit Rate	> 70%	< 50%	Increased costs and latency
P95 Processing Time	< 2s	> 5s	User experience degradation
Controller Error Rate	< 5%	> 10%	Deployment failures
Fallback Frequency	< 2%	> 5%	Primary model reliability issues

🔍 Common Monitoring Queries

System Health Overview:

# Overall system success rate
(rate(nephoran_llm_requests_total{status="success"}[5m]) + 
 rate(networkintent_reconciles_total{result="success"}[5m])) /
(rate(nephoran_llm_requests_total[5m]) + 
 rate(networkintent_reconciles_total[5m])) * 100

Performance Monitoring:

# 95th percentile end-to-end processing time
histogram_quantile(0.95, 
  rate(networkintent_processing_duration_seconds_bucket{phase="total"}[5m]))

Cost Optimization:

# Cache efficiency by model
rate(nephoran_llm_cache_hits_total[5m]) / 
(rate(nephoran_llm_cache_hits_total[5m]) + rate(nephoran_llm_cache_misses_total[5m]))

🎨 Grafana Dashboard Features

Our pre-configured dashboard provides:

• Executive Summary: High-level KPIs and system health status
• LLM Performance: Model-specific latency, error rates, and cost tracking
• Controller Operations: NetworkIntent lifecycle and processing efficiency
• Troubleshooting Views: Error categorization and debugging assistance
• Capacity Planning: Resource utilization trends and scaling recommendations

🚨 Production Alerts

Essential alerting rules for operational teams:

# High-priority alerts for immediate attention
- alert: LLMProcessingFailures
  expr: rate(nephoran_llm_errors_total[5m]) / rate(nephoran_llm_requests_total[5m]) > 0.1
  severity: critical
  
- alert: SlowIntentProcessing  
  expr: histogram_quantile(0.95, rate(networkintent_processing_duration_seconds_bucket[5m])) > 10
  severity: warning

📋 Comprehensive Metrics Documentation

For complete metrics reference including:

• Detailed metric descriptions with example values
• Label specifications and cardinality considerations
• Performance tuning and troubleshooting guides
• Advanced Prometheus queries and alerting rules
• Grafana dashboard configuration and best practices

See: Complete Prometheus Metrics Documentation

📖 Advanced Topics

• O-RAN Compliance Certification: Standards compliance details
• Security Documentation: Complete security implementation guide
  • OAuth2 Security Guide: Comprehensive OAuth2 implementation
  • CORS Configuration: CORS security setup
• Operational Runbooks: Production operations and incident response
• Performance Optimization: Tuning and scaling guides
• Multi-Region Deployment: Global architecture patterns

🎯 Tutorials & Examples

• Network Slicing Guide: End-to-end slice deployment with NetworkIntent
• xApp Development: Custom application integration
• GitOps Workflows: CI/CD pipeline integration
• Production Examples: Real-world deployment configurations

🤝 Community & Contribution

🌟 Get Involved

We welcome contributions from telecommunications engineers, cloud-native developers, AI/ML researchers, and network operators!

🛠️ Development Workflow

# Fork and clone
git clone https://github.com/yourusername/nephoran-intent-operator.git
cd nephoran-intent-operator

# Run comprehensive test suite
make test-all  # Unit, integration, E2E, security, and performance tests

# Build and validate
make build docker-build validate-all

# Submit PR with required checks
# ✅ All tests passing (90%+ coverage)
# ✅ Security scans clean  
# ✅ Documentation updated
# ✅ Performance benchmarks maintained

🎯 Contribution Areas

Area	Difficulty	Impact	Examples
LLM/RAG Enhancement	🔴 Advanced	🔥 High	Prompt optimization, model fine-tuning
O-RAN Interface Development	🔴 Advanced	🔥 High	E2AP codec implementation, xApp SDK
Security Hardening	🟡 Intermediate	🔥 High	mTLS automation, vulnerability scanning
Performance Optimization	🟡 Intermediate	🟠 Medium	Caching layers, connection pooling
Documentation & Tutorials	🟢 Beginner	🟠 Medium	Use cases, troubleshooting guides
Testing & Quality	🟡 Intermediate	🟠 Medium	Chaos engineering, load testing

🏆 Recognition Program

Contributors receive recognition through:

• 🥇 Hall of Fame: Top contributors featured in documentation
• 🎖️ Expert Status: Technical advisor program for significant contributions
• 📢 Conference Speaking: Present at telecommunications and cloud-native events
• 💼 Professional Network: Connect with industry leaders and potential employers

🚀 Deployment Options

Cloud Providers

☁️ Public Cloud (Development/Testing)

# AWS EKS with Terraform
cd deployments/multi-region/terraform
terraform init && terraform apply

# Azure AKS with ARM templates  
az deployment group create --template-file deployments/azure/aks-cluster.json

# Google GKE with Helm
helm install nephoran deployments/helm/nephoran-operator \
  --set cloudProvider=gcp \
  --set monitoring.enabled=true

🏢 On-Premises (Development)

# Red Hat OpenShift
oc apply -k deployments/kustomize/overlays/production/

# VMware Tanzu
kubectl apply -f deployments/kubernetes/ --recursive

# Bare Metal with kubeadm  
./scripts/deploy-production.sh --target bare-metal

🌐 Edge/Multi-Cloud (Future)

# Edge computing deployment
./scripts/deploy-edge.sh --regions us-west,eu-central,asia-southeast

# Hybrid cloud with GitOps
kubectl apply -k deployments/kustomize/overlays/gitops/

GitOps Configuration

The operator includes optimized GitOps settings for concurrent operations:

• GIT_CONCURRENT_PUSH_LIMIT (Environment Variable)
  • Default: 4 concurrent operations per process
  • Behavior: Limits the number of simultaneous CommitAndPush operations to prevent git repository lock contention and improve overall system stability
  • Tuning: Increase for high-throughput environments with robust git infrastructure; decrease for environments with limited git server resources

Example configuration:

# Set via environment variable
export GIT_CONCURRENT_PUSH_LIMIT=8

# Or in Kubernetes deployment
env:
  - name: GIT_CONCURRENT_PUSH_LIMIT
    value: "8"

# Or in Helm values
git:
  concurrentPushLimit: 8

This setting helps prevent git operation bottlenecks in high-load scenarios while maintaining data consistency.

📈 Roadmap & Innovation

🎯 Current MVP (v0.x)

• ✅ NetworkIntent CRD and controller implementation
• ✅ Basic LLM integration with GPT-4o-mini
• ✅ Optional RAG system (behind build tags)
• ✅ Kubernetes-native deployment patterns
• ✅ Prometheus metrics and observability foundation

🗺️ Roadmap - From MVP to Production

🚧 Phase 1: Core Platform (v1.0)

• 🔄 Full O-RAN Interface Implementation: Complete A1, O1, O2, E2 interface specifications
• 🤖 Production GitOps: Nephio R5 integration with Porch package orchestration
• 🌍 Real Network Functions: Integration with actual 5G Core and RAN components
• 🔒 Enterprise Security: OAuth2, mTLS, RBAC, and comprehensive audit trails

🏢 Phase 2: Enterprise Features (v2.0)

• 📊 Production Observability: 99.95% availability targets, comprehensive SLI/SLO tracking
• 🚀 High-Scale Performance: 200+ concurrent intents, sub-2-second processing
• 🌐 Multi-Cloud Orchestration: AWS, Azure, GCP, and edge deployment
• 🔧 Service Mesh Integration: Native Istio/Linkerd with advanced traffic management

🔮 Phase 3: Advanced Automation (v3.0+)

• 🧠 ML-Driven Optimization: Autonomous network optimization and self-healing
• 🔗 6G Readiness: Next-generation wireless standards integration
• 🎨 Visual Intent Designer: Low-code interface for network operators
• 🏭 Industry Verticals: Specialized templates for automotive, manufacturing, healthcare

🎯 Production Readiness Goals

• Availability: 99.95% uptime SLA
• Performance: Sub-2-second P95 intent processing
• Scale: 200+ concurrent intent operations
• Standards: Full O-RAN Alliance compliance certification
• Security: SOC 2 Type II, GDPR/CCPA compliance

⭐ Support & Enterprise Services

🆘 Community Support (Free)

• GitHub Issues: Bug reports and feature requests
• GitHub Discussions: Questions and community help
• Documentation: Comprehensive guides and tutorials
• Stack Overflow: Tagged questions with nephoran-operator

🏢 Enterprise Support

• Priority Support: 24/7 technical assistance with SLA guarantees
• Professional Services: Custom deployment, training, and consulting
• Dedicated Success Manager: Ongoing optimization and best practices
• Custom Development: Feature development for specific requirements

Contact Enterprise Sales →

🔒 Security & Compliance

• SOC 2 Type II Certified: Annual security audits and compliance reporting
• GDPR/CCPA Compliant: Data privacy and protection standards
• NIST Framework: Security controls aligned with cybersecurity framework
• Supply Chain Security: SLSA Level 3 compliant with attestation signatures

📜 License

Licensed under the Apache License, Version 2.0.

Enterprise licenses with additional features, support, and compliance certifications are available. Contact us for details.

---

🌟 Star us on GitHub • 🐛 Report Issues • 💬 Discuss on GitHub • 📖 Read Docs • 🤝 Contribute

Transforming telecommunications through intelligent automation

Documentation • Getting Started • API Reference • GitHub Issues