Kubernetes Cluster & Networking
Relevant source files
The following files were used as context for generating this wiki page:
The Kubernetes Cluster and Networking infrastructure within the TAMV (Tecnología Avanzada Mexicana Versátil) ecosystem serves as the backbone for its "Civilizational Federated Ecosystem." It provides the operational environment for the MD-X4 and MD-X5 kernels, facilitating observability, autopoiesis, and the coordination of over 177 federated repositories. This infrastructure is designed with an antifragile and "Zero-Trust" security posture to support sovereign technological development in Latin America.
The networking layer manages communication between specialized namespaces—such as identity, core services, and observability—and handles high-performance data flows for XR (Extended Reality), Isabella AI, and quantum simulation services. This setup ensures that territorial nodes, like Real del Monte Digital, remain interoperable while maintaining data sovereignty and secure communication through protocols like HOYO NEGRO.
Sources: src/pages/wiki/modulo-cero/Introduccion.tsx:10-15, src/pages/wiki/implementacion/CicdPipelines.tsx:75-80
Cluster Architecture and Namespaces
The TAMV kernel is organized into functional namespaces that isolate responsibilities and secure the environment. This structure supports the deployment of 25+ implemented services and handles the lifecycle of the system from staging to controlled production.
Core Namespaces
The environment is partitioned into several critical namespaces to manage the system's "Heptafederated" architecture:
- tamv-core: Hosts the main API gateway and orchestration logic.
- tamv-identity: Manages ISNI (Sovereign Infrastructure of Names and Identities) and VC (Verifiable Credentials) services.
- tamv-events: Handles the high-speed event bus and webhook deliveries.
- tamv-observability: Dedicated to monitoring latency (p95), error rates, and trust-score drift.
Sources: src/pages/wiki/implementacion/CicdPipelines.tsx:75-85, src/pages/wiki/modulo-cero/Introduccion.tsx:65-75
Component Relationship Diagram
The following diagram illustrates the relationship between the cluster layers and the external federated nodes.
This diagram shows how the internal namespaces interact with the API Gateway and connect to external territorial nodes via the HOYO NEGRO protocol.
Sources: src/pages/wiki/modulo-cero/Introduccion.tsx:65-80, tamv/node.manifest.json:1-10
Networking and Service Mesh
The networking infrastructure is optimized for multi-sensory 5D APIs and high-concurrency event sourcing. It utilizes a hybrid architecture to balance performance with Zero-Trust security requirements.
Service Inventory and Communication
The system utilizes internal services and edge functions to handle specific workloads:
- Identity Services:
isni-service,vc-service, andauth-service-v3. - Data & Knowledge:
graph-service,sync-service, andtamv-content-sync. - Real-time & AI:
isabella-chat,quantum-analytics, andkaos-audio-system.
Sources: src/pages/wiki/implementacion/CicdPipelines.tsx:78-85, README.md:25-35
Network Metrics and SLOs
The cluster networking is monitored against specific Service Level Objectives (SLOs):
| Metric | Threshold / Target | Domain |
|---|---|---|
| Latency P95 | < 4s (AI) / < 200ms (RTT) | Isabella / WebSocket |
| Error Rate | 0% in E2E critical paths | Social Feed / Identity |
| Success Rate | 100% webhook delivery | Event Bus |
| Performance | ≥ 45 FPS | XR Worlds |
Sources: src/pages/wiki/implementacion/CicdPipelines.tsx:82-85, 105-115
Security Posture and Traffic Control
The networking layer implements strict "Zero-Trust" policies. Every interaction is validated, and security alerts are escalated to "Human Guardians" if risks are detected.
Security Mechanisms
- Triple Blocking: Implements semantic, behavioral, and contextual blocks at the gateway level.
- MSR Logging: Critical security events (like
SECURITY_ALERT) are logged to the MSR (Narrative Ledger) for auditability. - Encrypted Channels: Traffic is managed through the
tamv-federation-v1protocol, ensuring secure synchronization between nodes.
Sources: src/pages/wiki/modulo-cero/Introduccion.tsx:75-80, src/pages/wiki/metaverso-xr/RoadmapCivilizatorio.tsx:145-155, tamv/node.manifest.json:1-5
Traffic Flow for Security Escalation
Traffic is analyzed by the Policy Engine; if an "ALTO" (High) risk is detected, the event is logged in the immutable MSR ledger and escalated for human intervention.
Sources: src/pages/wiki/metaverso-xr/RoadmapCivilizatorio.tsx:148-153, README.md:30-40
Deployment and Scalability
The TAMV Atlas infrastructure supports a deployment pipeline known as MD-X5 (Deca-V), which ensures that only compliant artifacts are released into the cluster.
Deployment Readiness (Current State)
Based on the current implemented code, the readiness for production deployment is estimated across various modules:
| Area | Readiness | Status |
|---|---|---|
| Frontend Functional | 78% | Solid for iteration |
| Backend Core | 72% | Functional (Monolithic) |
| Federation/Importing | 68% | Functional discovery |
| Security Operations | 46% | Base created; lacks hardening |
| Observability | 38% | Lacks integral tracing stack |
Sources: README.md:75-90
Scalability and Resource Management
The system is designed to scale horizontally to support significant user bases across Latin America:
- Target Capacity: 500,000 to 1,500,000 active users (1-3% of LATAM market).
- Resource Distribution: Integration with S3 and CloudFront is planned for XR/CGIFTS asset distribution to ensure low-latency access to 3D/2D environments.
Sources: src/pages/wiki/casos-de-uso/Territoriales.tsx:20-25, src/pages/wiki/metaverso-xr/RoadmapCivilizatorio.tsx:125-130
Conclusion
The Kubernetes and Networking infrastructure of TAMV Atlas provides a sophisticated, multi-layered environment for sovereign digital operations. By partitioning services into specialized namespaces and enforcing Zero-Trust networking via the MD-X4/X5 kernels, the system ensures high availability for AI, XR, and Identity services. While currently at a 56% global production readiness, the existing architecture provides the necessary foundations for controlled deployment and subsequent industrialization.
Sources: README.md:95-105, src/pages/wiki/modulo-cero/Introduccion.tsx:85-90