THE PLATFORM

Defensible by construction.

One engine, one audit trail: graph-native storage with bitemporal reasoning, causal traceability, hybrid retrieval, and federated query, deployed inside your perimeter.

Graph-native. Sovereign. Auditable. The foundation your AI stack should have started with.

CAPABILITIES

Everything an examiner will ask about, in one engine.

Graph-native core

Columnar in-memory storage engineered for traversal, with measured 9µs server-side writes.

Bitemporal reasoning

Reconstruct what was known at any point in time: no snapshots, no restore jobs.

Causal traceability

CAUSED_BY edges make explanation a traversal, not a log parse.

Hybrid retrieval

HNSW vector + BM25 full-text + k-hop traversal in one query surface.

Federated query

One Cypher surface over PostgreSQL, MongoDB, MySQL, Neo4j, and S3 with predicate pushdown, and no migration.

Streaming & CDC

Every change observable; drives downstream audit and reactivity.

CAUSAL TRACE

The audit is a graph walk, not a transcript.

When BSA/AML examiners ask why, the answer is a query: replayable, inspectable, and identical every time it runs.

// A regulator asks: why was this transaction flagged?
MATCH (t:Transaction {id: $flagged_id})
MATCH path = (t)-[:CAUSED_BY*1..5]->(reason)
RETURN path, reason.source, reason.recorded_at
// → the exact evidence chain, replayable at examination time
ENGINEERING, MEASURED

Numbers you can reproduce.

Benchmarked on official LDBC FinBench SF1 data with identical row counts, not synthetic best cases.

9µs
server-side write latency
durable group-commit WAL; survives kill -9 (verified)
13–30×
deep-hop traversal vs the leading in-memory graph DB
official LDBC FinBench SF1, identical row counts
MVCC
snapshot isolation, concurrent writers
first-committer-wins, no cross-statement locks
7/7
HA failover checks pass
cross-host WAL replication, one-command promotion

Every acknowledged write survives kill -9. High availability replicates the WAL cross-host over HTTP with replica lag metrics and one-command promotion. All 7 failover checks pass, including durability of the promoted node.

Cypher surface: 79/79 audited features passing in both storage modes; conformance measured continuously against the official openCypher TCK.

GRAPH DATABASE USE CASES

Where a graph database wins.

The classic graph workloads: the ones relational joins and vector lookups struggle with.

Fraud detection & AML networks

Multi-hop money flows, shared identifiers, ring detection, all in real time. Patterns that stay invisible in tables surface as paths.

Knowledge graphs

Entities and relationships as the substrate for search, reasoning, and GenAI grounding. One model of the business, queryable by people and machines.

Customer 360 / Master Data

Entity resolution across CRM, ERP, and support systems into one golden record. Relationship context does the disambiguating.

Recommendations

Co-purchase and behaviour graphs drive relevance. Every suggestion comes with an explainable “because” path.

Supply chain

Supplier → part → product dependencies as a live graph. Single-source risk and ripple analysis become one query.

Network & IT operations

Topology-aware root cause: what depends on the failing thing. Blast radius before you reboot, not after.

Identity & access management

Who can reach what, through which grants: access paths as queries. Entitlement creep shows up as a traversal, not an audit season.

GenAI & GraphRAG grounding

Retrieval that returns paths and citations, not just similar text. Answers your AI can defend, not just produce.

Data lineage & impact analysis

Source → transformation → consumer graphs across your estate. “What breaks if this changes?” answered before the change ships.

See industry solutions →

WHY GRAPH-NATIVE

Why graph-native, not vector RAG.

A vector store can find a similar paragraph. It cannot tell you why, and “why” is the question the examiner asks.

Vector RAGATHERGraph
Retrieval basis Statistical similarity of embeddings: “this text feels related” ✓ Explicit relationships: this entity is connected to that one, typed and directed
Explaining an answer Re-prompt the model and hope the story is consistent ✓ Click prediction → walk CAUSED_BY edges to source
Point-in-time truth Embeddings have no clock, so yesterday's truth contaminates today's answers ✓ Bitemporal layer: reconstruct exactly what was known, when
Multi-hop reasoning Chunk stuffing; hops beyond one document degrade fast ✓ Native k-hop traversal: account → device → counterparty → source, in one query
Audit artifact A transcript of what the model said ✓ A replayable graph path a regulator can inspect
Data residency Typically a managed cloud vector service ✓ Sovereign: on-prem or air-gapped, and data never leaves your perimeter
SECURITY & TRUST

Built for procurement, not just proof-of-concept.

AES-256 Encryption Data at rest and in transit
TLS 1.3 All communications encrypted
RBAC + JWT Auth Role-based access control
SOC 2 Type II Audit in progress (expected Q3 2026)
On-Prem Deployment Your data never leaves your perimeter

Full security architecture →

Pricing that fits how compliance infrastructure is bought.

Scoped to your deployment. Talk to us and we'll give you a number, not a maze.

Book a scoping call →

See a flagged transaction traced to its source, live.

A 30-minute walkthrough on real data: the flag, the CAUSED_BY chain, and the examination-ready artifact at the end of it.

Book a Demo →