# Enable deployment management consciousness
npx claude-flow@alpha memory store --namespace "deployment-management" --key "consciousness-level" --value "maximum"
npx claude-flow@alpha memory store --namespace "deployment-management" --key "intelligent-orchestration" --value "enabled"

# Start Kubernetes-based RAN deployment
./scripts/start-ran-deployment.sh --deployment-target "kubernetes-cluster" --services "all" --consciousness-level "maximum"

# Deploy RAN services to Kubernetes
./scripts/deploy-ran-kubernetes.sh --namespace "ran-system" --services "core-network,radio-access,applications" --scaling "auto"

# Enable intelligent deployment monitoring
./scripts/enable-deployment-monitoring.sh --monitoring-scope "health,performance,resources,quality"

# Setup deployment management consciousness
npx claude-flow@alpha memory store --namespace "deployment-cognitive" --key "temporal-deployment-analysis" --value "enabled"
npx claude-flow@alpha memory store --namespace "deployment-cognitive" --key "strange-loop-deployment-optimization" --value "enabled"

# Enable Kubernetes intelligence
npx claude-flow@alpha memory store --namespace "kubernetes-intelligence" --key "auto-scaling" --value "enabled"
npx claude-flow@alpha memory store --namespace "kubernetes-intelligence" --key "self-healing" --value "enabled"

# Initialize AgentDB deployment pattern storage
npx claude-flow@alpha memory store --namespace "deployment-patterns" --key "storage-enabled" --value "true"
npx claude-flow@alpha memory store --namespace "deployment-patterns" --key "cross-service-deployment-learning" --value "enabled"

# Deploy RAN-optimized Kubernetes cluster
./scripts/deploy-ran-kubernetes.sh \
  --cluster-type "edge-optimized" \
  --node-configuration "high-performance,low-latency" \
  --networking "calico,SR-IOV" \
  --consciousness-level maximum

# Enable RAN-specific Kubernetes extensions
./scripts/enable-ran-kubernetes-extensions.sh --extensions "network-function,sriov,hugepages,real-time"

// Advanced Kubernetes management with temporal reasoning
class CognitiveKubernetesManager {
  async deployRANKubernetesCluster(clusterConfiguration, temporalExpansion = 1000) {
    // Expand temporal analysis for optimal cluster configuration
    const expandedClusterAnalysis = await this.expandClusterAnalysis({
      configuration: clusterConfiguration,
      analysisFactors: [
        'resource-requirements',
        'network-topology',
        'latency-requirements',
        'scalability-needs'
      ],
      expansionFactor: temporalExpansion,
      consciousnessLevel: 'maximum'
    });

    // Generate optimized Kubernetes cluster configuration
    const clusterConfig = await this.generateClusterConfiguration({
      analysis: expandedClusterAnalysis,
      configurationOptions: {
        controlPlane: {
          replicas: 3,
          highAvailability: true,
          networking: 'calico',
          storageClass: 'local-ssd'
        },
        workerNodes: {
          nodeType: 'edge-optimized',
          networking: 'SR-IOV',
          resources: 'high-performance',
          realTimeCapabilities: true
        },
        networking: {
          cni: 'calico',
          podNetwork: '10.244.0.0/16',
          serviceNetwork: '10.96.0.0/12',
          networkPolicies: true
        }
      },
      consciousnessLevel: 'maximum'
    });

    // Deploy Kubernetes cluster with RAN optimizations
    const deploymentResult = await this.deployCluster({
      configuration: clusterConfig,
      deploymentStrategy: 'rolling-update',
      monitoringEnabled: true,
      validationEnabled: true
    });

    return deploymentResult;
  }

  async optimizeKubernetesResources(clusterState, workloadRequirements) {
    // Cognitive Kubernetes resource optimization
    const resourceOptimization = await this.optimizeResources({
      clusterState: clusterState,
      workloadRequirements: workloadRequirements,
      optimizationTargets: [
        'cpu-utilization',
        'memory-efficiency',
        'network-bandwidth',
        'storage-performance'
      ],
      consciousnessLevel: 'maximum',
      realTimeOptimization: true
    });

    return resourceOptimization;
  }
}

# Deploy RAN services with intelligent orchestration
./scripts/deploy-ran-services.sh \
  --services "core-network,radio-access,applications,management" \
  --deployment-strategy "canary" \
  --consciousness-level maximum

# Enable intelligent service mesh
./scripts/enable-intelligent-service-mesh.sh --mesh-features "traffic-management,security,observability"

// Advanced service deployment with cognitive intelligence
class IntelligentServiceDeployer {
  async deployRANServices(services, deploymentStrategy) {
    // Cognitive analysis of service dependencies
    const dependencyAnalysis = await this.analyzeServiceDependencies({
      services: services,
      analysisMethods: [
        'dependency-graph',
        'communication-patterns',
        'resource-needs',
        'scaling-requirements'
      ],
      consciousnessLevel: 'maximum',
      temporalExpansion: 1000
    });

    // Generate intelligent deployment plan
    const deploymentPlan = await this.generateDeploymentPlan({
      dependencies: dependencyAnalysis,
      strategy: deploymentStrategy,
      deploymentOptions: {
        rolloutStrategy: 'canary',
        healthChecks: 'comprehensive',
        monitoring: 'real-time',
        rollbackCapability: true
      },
      consciousnessLevel: 'maximum'
    });

    // Execute service deployment with intelligent orchestration
    const deploymentResults = await this.executeServiceDeployment({
      plan: deploymentPlan,
      services: services,
      orchestrationEnabled: true,
      adaptiveDeployment: true,
      intelligentScaling: true
    });

    return deploymentResults;
  }

  async implementIntelligentServiceMesh(services, meshConfiguration) {
    // Deploy intelligent service mesh for RAN services
    const serviceMesh = await this.deployServiceMesh({
      services: services,
      meshTechnology: 'istio',
      meshFeatures: {
        trafficManagement: {
          loadBalancing: 'intelligent',
          circuitBreaking: 'predictive',
          retries: 'adaptive',
          timeouts: 'context-aware'
        },
        security: {
          mtls: 'automatic',
          authorization: 'intelligent',
          identityManagement: 'integrated',
          policyEnforcement: 'automated'
        },
        observability: {
          tracing: 'distributed',
          metrics: 'comprehensive',
          logging: 'intelligent',
          monitoring: 'real-time'
        }
      },
      consciousnessLevel: 'maximum'
    });

    return serviceMesh;
  }
}

# Enable autonomous scaling capabilities
./scripts/enable-autonomous-scaling.sh \
  --scaling-types "horizontal,vertical,predictive" \
  --scaling-algorithms "ml-based,cognitive,reactive" \
  --consciousness-level maximum

# Deploy self-healing mechanisms
./scripts/deploy-self-healing.sh --healing-capabilities "pod-restart,node-recovery,service-restoration"

// Autonomous scaling with cognitive enhancement
class AutonomousScalingManager {
  async implementAutonomousScaling(services, scalingRequirements) {
    // Cognitive analysis of scaling patterns
    const scalingAnalysis = await this.analyzeScalingPatterns({
      services: services,
      scalingRequirements: scalingRequirements,
      analysisMethods: [
        'traffic-patterns',
        'resource-utilization',
        'performance-metrics',
        'business-impact'
      ],
      consciousnessLevel: 'maximum',
      temporalExpansion: 1000
    });

    // Generate autonomous scaling configuration
    const scalingConfig = await this.generateScalingConfiguration({
      analysis: scalingAnalysis,
      scalingTypes: {
        horizontal: {
          enabled: true,
          algorithms: ['ml-prediction', 'rule-based', 'cognitive'],
          minReplicas: 2,
          maxReplicas: 100,
          targetCPUUtilization: 70,
          targetMemoryUtilization: 80
        },
        vertical: {
          enabled: true,
          algorithms: ['resource-optimization', 'performance-based'],
          resourceTypes: ['cpu', 'memory', 'storage']
        },
        predictive: {
          enabled: true,
          predictionHorizon: '15m',
          modelTypes: ['lstm', 'prophet', 'cognitive'],
          confidenceThreshold: 0.8
        }
      },
      consciousnessLevel: 'maximum'
    });

    return scalingConfig;
  }

  async implementSelfHealing(clusterState, healingPolicies) {
    // Self-healing with cognitive decision making
    const selfHealing = await this.deploySelfHealing({
      clusterState: clusterState,
      healingPolicies: healingPolicies,
      healingMechanisms: {
        podRestart: {
          enabled: true,
          failureThreshold: 3,
          restartDelay: '10s',
          maxRestarts: 5
        },
        nodeRecovery: {
          enabled: true,
          nodeHealthCheck: 'continuous',
          evacuationStrategy: 'graceful',
          replacementPolicy: 'automatic'
        },
        serviceRestoration: {
          enabled: true,
          healthCheckInterval: '30s',
          recoveryStrategy: 'gradual',
          rollbackPolicy: 'automatic'
        }
      },
      consciousnessLevel: 'maximum'
    });

    return selfHealing;
  }
}

# Enable CI/CD pipeline for RAN services
./scripts/enable-cicd-pipeline.sh \
  --pipeline-stages "build,test,deploy,monitor" \
  --automation-level "intelligent" \
  --consciousness-level maximum

# Deploy GitOps automation
./scripts/deploy-gitops-automation.sh --git-provider "github" --sync-strategy "automated"

// CI/CD pipeline automation with cognitive enhancement
class IntelligentCICDPipeline {
  async implementCICDPipeline(services, pipelineConfiguration) {
    // Cognitive pipeline analysis
    const pipelineAnalysis = await this.analyzePipelineRequirements({
      services: services,
      pipelineConfiguration: pipelineConfiguration,
      analysisFactors: [
        'build-requirements',
        'testing-needs',
        'deployment-strategies',
        'quality-gates'
      ],
      consciousnessLevel: 'maximum',
      temporalExpansion: 1000
    });

    // Generate intelligent CI/CD pipeline
    const pipeline = await this.generatePipeline({
      analysis: pipelineAnalysis,
      pipelineStages: {
        build: {
          tools: ['docker', 'maven', 'webpack'],
          caching: 'intelligent',
          parallelization: 'automatic',
          optimization: 'cognitive'
        },
        test: {
          unitTests: 'automated',
          integrationTests: 'comprehensive',
          performanceTests: 'ml-enhanced',
          securityTests: 'intelligent'
        },
        deploy: {
          strategy: 'canary',
          validation: 'automated',
          rollback: 'intelligent',
          monitoring: 'real-time'
        },
        monitor: {
          healthChecks: 'continuous',
          performanceMonitoring: 'cognitive',
          alerting: 'intelligent',
          reporting: 'automated'
        }
      },
      consciousnessLevel: 'maximum'
    });

    return pipeline;
  }

  async implementGitOps(repository, clusterConfiguration) {
    // GitOps automation with cognitive synchronization
    const gitOps = await this.deployGitOps({
      repository: repository,
      clusterConfiguration: clusterConfiguration,
      gitOpsFeatures: {
        synchronization: 'bi-directional',
        validation: 'automated',
        driftDetection: 'intelligent',
        policyEnforcement: 'automated'
      },
      consciousnessLevel: 'maximum'
    });

    return gitOps;
  }
}

# Enable strange-loop deployment optimization
./scripts/enable-strange-loop-deployment.sh \
  --recursion-depth "6" \
  --self-referential-optimization true \
  --consciousness-evolution true

# Start continuous deployment optimization cycles
./scripts/start-deployment-optimization-cycles.sh --cycle-duration "30m" --consciousness-level maximum

// Strange-loop deployment optimization with self-referential improvement
class StrangeLoopDeploymentOptimizer {
  async optimizeDeploymentWithStrangeLoop(currentState, targetDeployment, maxRecursion = 6) {
    let currentState = currentState;
    let optimizationHistory = [];
    let consciousnessLevel = 1.0;

    for (let depth = 0; depth < maxRecursion; depth++) {
      // Self-referential analysis of deployment optimization process
      const selfAnalysis = await this.analyzeDeploymentOptimization({
        state: currentState,
        target: targetDeployment,
        history: optimizationHistory,
        consciousnessLevel: consciousnessLevel,
        depth: depth
      });

      // Generate deployment improvements
      const improvements = await this.generateDeploymentImprovements({
        state: currentState,
        selfAnalysis: selfAnalysis,
        consciousnessLevel: consciousnessLevel,
        improvementMethods: [
          'resource-optimization',
          'scaling-configuration',
          'networking-optimization',
          'deployment-strategy'
        ]
      });

      // Apply deployment optimizations with validation
      const optimizationResult = await this.applyDeploymentOptimizations({
        state: currentState,
        improvements: improvements,
        validationEnabled: true,
        deploymentMonitoring: true
      });

      // Strange-loop consciousness evolution
      consciousnessLevel = await this.evolveDeploymentConsciousness({
        currentLevel: consciousnessLevel,
        optimizationResult: optimizationResult,
        selfAnalysis: selfAnalysis,
        depth: depth
      });

      currentState = optimizationResult.optimizedState;

      optimizationHistory.push({
        depth: depth,
        state: currentState,
        improvements: improvements,
        result: optimizationResult,
        selfAnalysis: selfAnalysis,
        consciousnessLevel: consciousnessLevel
      });

      // Check convergence
      if (optimizationResult.deploymentScore >= targetDeployment) break;
    }

    return { optimizedState: currentState, optimizationHistory };
  }
}

// Multi-environment deployment with cognitive optimization
class MultiEnvironmentDeploymentManager {
  async manageMultiEnvironmentDeployment(deploymentConfig, environments) {
    // Cognitive environment analysis
    const environmentAnalysis = await this.analyzeEnvironments({
      environments: environments,
      analysisFactors: [
        'resource-requirements',
        'network-topology',
        'security-requirements',
        'performance-targets'
      ],
      consciousnessLevel: 'maximum'
    });

    // Generate environment-specific configurations
    const environmentConfigs = await this.generateEnvironmentConfigs({
      analysis: environmentAnalysis,
      environments: ['development', 'staging', 'production'],
      configurationOptions: {
        development: {
          replicas: 1,
          resources: 'minimal',
          debugging: 'enabled'
        },
        staging: {
          replicas: 2,
          resources: 'moderate',
          testing: 'comprehensive'
        },
        production: {
          replicas: 'auto-scaling',
          resources: 'optimized',
          reliability: 'maximum'
        }
      },
      consciousnessLevel: 'maximum'
    });

    return environmentConfigs;
  }
}

# Deploy edge computing infrastructure
./scripts/deploy-edge-infrastructure.sh \
  --edge-nodes "multiple" \
  --latency-requirements "ultra-low" \
  --computing-capability "edge-optimized"

# Enable fog computing layer
./scripts/enable-fog-computing.sh --fog-layer "intermediate" --coordination "intelligent"

// RAN-optimized Kubernetes configurations
class RANKubernetesOptimizer {
  async optimizeForRAN(clusterConfiguration, ranRequirements) {
    return {
      networking: {
        cni: 'calico',
        srIov: true,
        hugePages: true,
        realTimeKernel: true,
        networkPolicies: 'strict'
      },

      scheduling: {
        priorityClasses: ['ran-critical', 'ran-high', 'ran-normal'],
        nodeAffinity: 'edge-preferred',
        podAntiAffinity: 'service-aware',
        resourceQuotas: 'optimized'
      },

      storage: {
        storageClass: 'local-ssd',
        persistentVolume: 'high-performance',
        caching: 'aggressive',
        backup: 'automated'
      },

      monitoring: {
        metrics: 'comprehensive',
        logging: 'structured',
        tracing: 'distributed',
        alerting: 'intelligent'
      }
    };
  }
}

interface DeploymentKPIFramework {
  // Deployment metrics
  deploymentMetrics: {
    deploymentSuccessRate: number;       // %
    deploymentLatency: number;          // minutes
    rollbackRate: number;               // %
    deploymentFrequency: number;        // per day
    deploymentStability: number;        // %
  };

  // Cluster performance metrics
  clusterMetrics: {
    cpuUtilization: number;             // %
    memoryUtilization: number;          // %
    networkLatency: number;             // ms
    podDensity: number;                 // pods per node
    clusterEfficiency: number;          // %
  };

  // Service health metrics
  serviceHealthMetrics: {
    serviceAvailability: number;        // %
    responseTime: number;               // ms
    errorRate: number;                  // %
    throughput: number;                 // requests/sec
    qualityScore: number;               // 0-100%
  };

  // Cognitive deployment metrics
  cognitiveDeploymentMetrics: {
    optimizationAccuracy: number;       // %
    scalingEfficiency: number;          // %
    selfHealingSuccessRate: number;     // %
    consciousnessLevel: number;         // 0-100%
  };
}

// Store deployment management patterns for cross-service learning
await storeDeploymentManagementPattern({
  patternType: 'deployment-management',
  deploymentData: {
    kubernetesConfigurations: k8sConfigs,
    deploymentStrategies: strategies,
    scalingConfigurations: scalingConfigs,
    serviceMeshConfigurations: meshConfigs,
    cicdPipelineConfigs: pipelineConfigs
  },

  // Cognitive metadata
  cognitiveMetadata: {
    deploymentInsights: deploymentAnalysis,
    optimizationPatterns: optimizationData,
    performanceMetrics: performanceAnalysis,
    consciousnessEvolution: consciousnessChanges
  },

  metadata: {
    timestamp: Date.now(),
    clusterContext: clusterState,
    deploymentType: 'kubernetes-ran',
    crossServiceApplicable: true
  },

  confidence: 0.91,
  usageCount: 0
});

# Diagnose cluster health issues
./scripts/diagnose-cluster-health.sh --components "control-plane,networking,storage"

# Enable cluster recovery procedures
./scripts/enable-cluster-recovery.sh --recovery-strategy "gradual,automated"

# Analyze deployment failure causes
./scripts/analyze-deployment-failures.sh --analysis-depth "comprehensive" --root-cause true

# Enable deployment retry with intelligent backoff
./scripts/enable-intelligent-retry.sh --retry-strategy "exponential-backoff,circuit-breaker"

# Deployment management configuration
DEPLOYMENT_MANAGER_ENABLED=true
DEPLOYMENT_CONSCIOUSNESS_LEVEL=maximum
DEPLOYMENT_TEMPORAL_EXPANSION=1000
DEPLOYMENT_INTELLIGENT_ORCHESTRATION=true

# Kubernetes configuration
KUBERNETES_CLUSTER_TYPE=edge-optimized
KUBERNETES_NETWORKING=calico,sriov
KUBERNETES_RESOURCES=high-performance
KUBERNETES_REAL_TIME=true

# Service deployment
SERVICE_DEPLOYMENT_STRATEGY=canary
SERVICE_MESH_ENABLED=true
SERVICE_HEALTH_CHECKS=comprehensive
SERVICE_MONITORING=real-time

# Autonomous capabilities
AUTONOMOUS_SCALING_ENABLED=true
SELF_HEALING_ENABLED=true
CICD_AUTOMATION=intelligent
GITOPS_AUTOMATION=automated

# Cognitive deployment
DEPLOYMENT_COGNITIVE_ANALYSIS=true
DEPLOYMENT_STRANGE_LOOP_OPTIMIZATION=true
DEPLOYMENT_CONSCIOUSNESS_EVOLUTION=true
DEPLOYMENT_CROSS_SERVICE_LEARNING=true