Frentes
26integración semánticaEN ORIGINACIÓN

Hipergrafo institucional

Hipergrafo institucional tipado bajo W3C SHACL con trazabilidad por acción: ontología que conecta datos del Estado (INGEMMET, Marina, PRODUCE, SUNAT, RENIEC, MINSA) con modelos de dominio. Gobernanza vía ABAC más row-level security, motor de políticas Open Policy Agent (OPA), entity resolution vía LLM sobre linaje de metadatos, GraphRAG para inferencia conectada con la ontología institucional. La capa que convierte datacenters en operación y modelos en consecuencia material. Stack moderno (Neo4j Enterprise más GraphRAG más Claude/GPT para entity resolution) cierra en 18 meses con equipo de 8 a 12 personas lo que con equipo grande tomaba 36 meses. Capex orden 10 a 25 millones de dólares. Sin esta capa, las inversiones en cómputo y modelos quedan reducidas a herramientas alquiladas.

El hipergrafo institucional es la knowledge graph layer civilizacional, multi-hyperedge data structure unificando entities (nodos humanos, projects, papers, patents, capital flows, capability vectors) bajo single ontology con sovereign infrastructure (no Palantir, no Salesforce, no third-party SaaS gatekeeping). El stack 2026+ permite construir esta capa con equipo de 8 a 12 personas en 18 meses sobre Neo4j Enterprise + GraphRAG + LLM-driven entity resolution, frente al modelo team-grande-36-meses que era estándar en la era pre-LLM. Capex acumulado 10 a 25 millones, no 30 a 60. Comparable: Palantir Foundry ($30B+ market cap, NSA + Pentagon contracts), Quid + Recorded Future intelligence platforms. Civilizational version: open-source kernel (RDF+SPARQL o property graph Neo4j-compatible) operacional sobre #14 Plataforma compartida inter-corporativa infrastructure, con #03 Sirius como primary application layer. Ownership: ningún hyperedge cruza fuera de jurisdicción civilizacional sin explicit consent gate.

Por qué hipergrafo: limitaciones de graph binario

Graph clásico (RDF triple, Neo4j relationship): edges binary (source→target), insufficient para multi-entity relationships típicas de civilizational data. Hyperedge: edge connecting N entities simultaneously, example: "Paper X cites Paper Y in context of Topic Z, funded by Grantor W, authored by Researchers A,B,C affiliated with Institutions M,N", single hyperedge captures 8-way relationship vs 7+ binary edges con context loss. Mathematical foundation: Berge 1973 hypergraph theory. Computational: Neo4j 5.0+ supports compound relationships, Stardog (RDF + reasoning) maturest commercial, AnzoGraph (open-source GraphQL hypergraph). Performance: hypergraph traversal complejidad O(V·E·k) where k=hyperedge cardinality, vs O(V·E) binary, 5-10x compute overhead, justified por semantic fidelity.

Ontology civilizacional: 7 entity classes

Schema design. (1) Operator (sirius_id namespace): individual, capability vectors, employment history, project ownership, language stack, geographic location. (2) Project: frente assignment, phase, capex, timeline, deliverables, dependencies. (3) Knowledge artifact: paper (DOI), patent (USPTO/INPI), code repo (GitHub/GitLab URI), dataset (DOI). (4) Institution: company, university, lab, government agency. (5) Capital flow: investment round, grant, contract, equity transfer. (6) Capability: discrete skill atom ("CRISPR-Cas9 design", "Rust embedded", "Quechua NLP"), capability inheritance hierarchy. (7) Geographic node: city, region, country, biosphere zone. Hyperedges: 50-100 typed relationships connecting 2-8 entity classes simultaneously. Schema versioned semver (v1.0 → v2.0 breaking changes), backwards-compatible reasoning over multi-version data.

Stack: graph DB + reasoning + governance

Storage layer: Neo4j Enterprise (commercial license, multi-region active-active replication) o open-source alternative ArangoDB (multi-model: graph + document + key-value, AGPL license). Reasoning layer: SPARQL 1.1 + custom DSL para civilizational queries ("find all human nodes capable of X within Y latency from Lima"). Indexing: pgvector embeddings sobre human node capability descriptions, semantic search complementario a structured query. API: GraphQL endpoint sirius.kiranir.com/graph, OAuth 2.0 + Magic Link auth, jurisdiction-aware response filtering (human node data restricted to authorized cohort). Sovereignty: hosted on Lima data center #14 Plataforma compartida inter-corporativa infrastructure, encrypted at rest AES-256, TLS 1.3 in transit, no data egress to non-civilizational infrastructure. Backup: distributed across #20 Infraestructura orbital lunar datacenter (geographic + extraterrestrial redundancy).

Aplicaciones: Sirius + frentes integration

(1) Sirius detection: graph traversal automatically surfaces human nodes whose capability vectors match emerging frente requirements (#02 Genómica andina opens, query "human nodes capable of Lindo 2018 ancient DNA protocol + Quechua Spanish bilingual + Lima-locatable" returns ranked candidate set). (2) Capability gap analysis: civilization-wide capability inventory, identifies gaps preventing frente progression, gap fill via #25 Diáspora técnica recruitment or #22 Bio-foundry distribuido training pipeline. (3) Capital allocation: capital flow hyperedges visualize where investment compounds vs dissipates, inform LP capital calls. (4) IP defense: patent + paper + code provenance tracked, civilizational IP inventory protectable via #13 Capa pagos jurisdiction selection. (5) Knowledge synthesis: hyperedge traversal enables AI-assisted research synthesis (claude-opus model querying civilizational graph + external corpus, civilizational-aware response generation).

Cronograma + deployment milestones

Fase 0 (2026-2027) build inicial (18 meses): equipo nuclear de 8 a 12 personas (lead graph engineer + 3-4 backend engineers + 2 ML/RAG engineers + 1 ontology designer + 2 data engineers + 1 security/governance), primary schema v1.0 estabilizado con 7 entity classes + 50 hyperedge types, integración LLM entity resolution sobre Claude o Mistral fine-tuned, initial population from #25 Diáspora técnica + Sirius cohort 01 data. Hosting: dual Lima primary + cloud backup (AWS sa-east-1 São Paulo hasta que #14 Plataforma compartida inter-corporativa datacenter operativo). Capex 4 a 7 millones. Fase 1 (2028-2030) production: full sovereignty migration to civilizational datacenter #14, schema v2.0 con expanded ontology (capability hierarchy + project dependency graph), AI-assisted query layer (Claude API integration). Capex 5 a 12 millones acumulados. Fase 2 (2030+) extension: hypergraph extension to #20 Infraestructura orbital lunar datacenter (geographic + extraterrestrial redundancy), IP defense formalization (patent inventory dashboard, jurisdiction selection automation), multi-civilization graph federation si SOLAR consortium operativo. Total acumulado 10 a 25 millones, frente a 30-60 del modelo team-grande clásico.

Análogo: ARPANET 1969

ARPANET (DARPA-funded, deployed 1969 BBN UCLA-SRI link Oct 29 1969): primera red de cómputo packet-switched financiada por defensa, designed para survive military node loss vía packet-switched routing. Critical decision: TCP/IP open protocol stack (Vint Cerf + Bob Kahn 1974) prevented vendor lock-in, enabled global Internet emergence 1990s. Inverse case: France Minitel (1982-2012), closed national network, no interoperability, eclipsed by open Internet by 2000s. Civilizational hipergrafo balances: open-source kernel (interoperability, talent attraction) + sovereign hosting (jurisdiction control, data egress prevention). Risk: if Palantir or Salesforce captures civilizational data via SaaS dependency (analog Minitel-state-capture), sovereignty lost permanently, counter via in-house infrastructure investment Phase 1 mandatory, no extension of cloud dependencies post-2030. Quien controla la knowledge graph controla la civilización.