GraphNews

GraphAnalytics
Context Graphs Are A Convergence, Not An Invention
Context Graphs Are A Convergence, Not An Invention
We’ve Been Building The Foundation For 40 Years A year ago, I wrote about the graphic future of IT management — IT management platforms converging on graph architectures to create a digital twin of the IT organization. The governance question I raised: Who owns this graph? Nine months later (December 2025), Foundation Capital declared that […]
·forrester.com·
Context Graphs Are A Convergence, Not An Invention
LadybugDB supports Cypher over Arrow Tables
LadybugDB supports Cypher over Arrow Tables
LadybugDB supports Cypher over Arrow Tables Does that make it a Graph Database + Graph Engine? Add Icebug (Graph Analytics) and Bugscope (Graph Visualization), you have the complete stack. No need to define so many categories. People already think Graph people talk too much about Ontologies. A lot of new code has landed in the 0.17.x development cycle. * Support for Arrow REL tables * Support for Arrow REL tables over native NODE tables * Scanning CSR tables efficiently (zero-copy) into arrow memory for Icebug * Improved support for open type (schema-less) graphs.
LadybugDB supports Cypher over Arrow Tables
·linkedin.com·
LadybugDB supports Cypher over Arrow Tables
Same Data Different Representations
Same Data Different Representations
Same Data Different Representations When the same real world entity such as a patient a drug or a clinical trial is stored in multiple silos each system often uses different formats identifiers units or data models. This fragmentation creates serious challenges that erode data quality query reliability and trust.  1 Semantic Fragmentation   Different systems describe the same object in incompatible ways. The result is multiple partial views of reality and no unified source of truth.  2 Key Issues  Inconsistent Values   A patient’s temperature might be recorded as 38.5C in one system and 101.3F in another causing duplicate or missing results in queries.  Entity Splitting   The same drug may appear under different identifiers across chemistry and pharmacology databases making data joins unreliable.  Semantic Drift   An attribute such as “status active” can mean different things in two systems leading to false interpretations when merged.  Temporal Skew   Updates applied in one silo but not another produce stale records and flawed analytics.  Aggregation Errors   Duplicate entities inflate counts and distort statistics such as patient totals or adverse event rates.  Query Incompleteness   Separate silos hold different pieces of information preventing questions like “Was the fever caused by the drug” from being answered.  Reasoning Failures   Without alignment across graphs reasoning engines treat identical entities as different individuals losing transitive connections.  Governance Breakdown   Conflicting data representations cause teams to lose trust and spend time reconciling discrepancies manually.  3 Example Adverse Event Reporting   - Electronic Health Record lists patient P1001 with event liver injury on 2025 01 01   - Clinical Trial Database lists Patient 1001 with event hepatotoxicity on 2025 01 01 14 30  Different identifiers and terms hide the fact that both entries refer to the same event resulting in duplicate reports and inaccurate root cause analysis.  4 How Knowledge Graphs Solve It  A well engineered knowledge graph harmonizes and unifies data across silos through   - Global Identifiers IRIs assigning one ID per real world entity   - Semantic Mappings using relations like owl sameAs to align concepts   - Provenance Tracking tagging each fact with its source for transparency and trust   - Federated Queries joining distributed datasets through semantic alignment  This integration creates a consistent coherent picture of truth across systems.  👉 Follow me for Knowledge Management and Neuro Symbolic AI daily nuggets   👉 Join my group for more insights and community discussions [Join the Group](https://lnkd.in/d9Z8-RQd)  #KnowledgeGraphs #OntologyEngineering #DataIntegration #SemanticAI #KnowledgeManagement #DataGovernance #ExplainableAI #RDF #SHACL #DataQuality #AIEngineering #NeuroSymbolicAI #DigitalTransformation #GraphTechnology
Same Data Different Representations
·linkedin.com·
Same Data Different Representations
Startup tackles knowledge graphs to improve AI accuracy
Startup tackles knowledge graphs to improve AI accuracy

LOVELACE LAUNCHES ELEMENTAL: CAN A STARTUP OUT-GRAPH PALANTIR?

A new entrant in the enterprise knowledge graph market is making bold claims — and attracting serious attention from the semantic web community. Lovelace AI has launched Elemental, an AI-assisted platform for constructing and maintaining large-scale knowledge graphs, with a pitch that goes directly at established players such as Palantir and Neo4j. Andrew Moore, Lovelace's co-founder and former head of Google Cloud AI, argues that the bottleneck in enterprise knowledge graph adoption has never been belief — it has been the sheer labour cost of building and maintaining schemas. Elemental, he says, reduces that cost dramatically through AI-assisted graph construction.

The technical claim is notable: Lovelace also operates YottaGraph, a separate context engine that aggregates public and licensed data, currently holding close to a trillion facts and growing by roughly a billion a week. That corpus underpins Elemental's ability to bootstrap domain schemas with a degree of coverage that would take a team of ontologists years to produce manually.

The market framing is equally pointed. Stanford's 2026 AI Index reports hallucination rates ranging from 22% to 94% across 26 leading models — numbers that make the case for structured grounding almost unanswerable. Gartner has designated knowledge graphs a "critical enabler" with immediate impact on GenAI. And DataM Intelligence puts the global knowledge graph market at $1.34 billion in 2025, projected to exceed $19 billion by 2033. Lovelace is entering at a moment when the market narrative is already written; the question is execution.

For semantic technologists, the more interesting claim is Moore's assertion that the schema-construction bottleneck identified by R.V. Guha — formerly of both OpenAI and Google — has been substantively addressed. That is a strong claim, and the community will be watching closely as Elemental moves from experimental preview into broader deployment.

·cio.com·
Startup tackles knowledge graphs to improve AI accuracy
#semanticlayer #dataengineering #analytics #datamodeling #sql #ontology #opensource #ai #llm #datastack | Ralfo Becher
#semanticlayer #dataengineering #analytics #datamodeling #sql #ontology #opensource #ai #llm #datastack | Ralfo Becher
🚀 OrionBelt Semantic Layer v2.0 is out, and yes, the major version jumped because I broke things on purpose. Here is what is new. 🕸️ Ontology Graph in the UI. Not a static SVG, an actual interactive vis-network view of your model with toggleable layers for data objects, dimensions, measures, metrics, and joins. I have looked at a lot of semantic layers. Nobody else seems to ship this out of the box. You have been missing out. 🎭 Role-playing dimensions, finally usable. A new `via` property tells the planner which fact a dimension belongs to. So Sales Employee and Purchase Employee stay properly separated, no more "why is the same person in there twice with mysteriously halved totals". 🧬 Coalesce in the query. When you DO want to merge those role-playing dimensions back into a single column for a report, write {coalesce: [Sales Employee, Purchase Employee], as: Employee}. The planner handles it per UNION ALL leg, NULL-padding and all. Try finding that elsewhere in the wild. I will wait. 💥 Strict many-to-one joins. Reverse traversal of an m-to-1 join is now a hard error instead of silently inflating your numbers by 5x and ruining your Monday. You are welcome. Plus: pretty-printed SQL on every response, primaryKey markers in the ER diagram, a responsive Gradio UI that does not look like 2014 anymore, and a few less embarrassing defaults. OBML. YAML in, correct SQL out. No marketing slides. 👉 Try it live: https://lnkd.in/dGEkAyJ2 Code and docs in the first comment ↓ #SemanticLayer #DataEngineering #Analytics #DataModeling #SQL #Ontology #OpenSource #AI #LLM #DataStack
·linkedin.com·
#semanticlayer #dataengineering #analytics #datamodeling #sql #ontology #opensource #ai #llm #datastack | Ralfo Becher
Semantic layer from an LPG practitioner's point of view: what are we all confused about?
Semantic layer from an LPG practitioner's point of view: what are we all confused about?
Semantic layer from an LPG practitioner's point of view: what are we all confused about? We talk about semantic layers as if everyone means the same thing. We do not. For some, it is a SQL facade. For others, it is a metrics layer, ontology, catalogue, governance wrapper, data product contract, knowledge graph, or AI grounding layer. For LPG teams, the confusion is sharper. We already model meaning in the graph. Labels, relationship types, properties, paths, and patterns express how the business sees the domain. So when someone says "semantic layer", the question is: layer over what? Tables, to hide joins? Metrics, to standardise definitions? Data products, to support discovery? A graph, to expose a shared domain model? AI, to ground prompts? All are valid. None is the whole story. To be clear: a semantic layer is not an RDF layer. RDF, OWL, and SPARQL are useful for semantics, reasoning, and interoperability. But semantics do not only exist in triples. In LPG practice, meaning can live in topology, naming, constraints, identifiers, provenance, time, confidence, lineage, and exceptions. The mistake is treating "semantic" as a technology label instead of an organisational agreement. A useful semantic layer handles three concerns: meaning, access, and control. Meaning is what things are called and how they relate. Access is how people query data without knowing every physical detail. Control is how definitions, ownership, quality rules, and policies are managed. If it only gives access, it is a nicer query interface. If it only captures meaning, it is documentation. If it only controls, it is governance theatre. For LPG practitioners, the opportunity is a bridge between business language and analytics, applications, AI agents, and decision makers. That means being honest about the boundary. The graph, ontology, BI model, metrics store, and RDF layer are not automatically the semantic layer. The semantic layer is where agreed meaning becomes usable. Maybe the real confusion is this: we are trying to buy a semantic layer before agreeing on what semantics means in our organisation. Start there. Name the core concepts. Define the relationships. Decide which definitions are governed and which are local. Make the model queryable and explainable. Then choose the tooling. The best semantic layer is not the one with the most impressive architecture slide. It is the one people trust enough to reuse.
Semantic layer from an LPG practitioner's point of view: what are we all confused about?
·linkedin.com·
Semantic layer from an LPG practitioner's point of view: what are we all confused about?
Welcome to Google Cloud Next26 | Google Cloud Blog
Welcome to Google Cloud Next26 | Google Cloud Blog

Google Cloud Next '26: Enterprise Knowledge Graph Takes Centre Stage At Google Cloud Next '26 (22 April 2026), Google announced a cluster of interconnected initiatives that collectively signal a strategic bet on knowledge graph infrastructure as the semantic backbone of agentic enterprise AI.

The centrepiece is Smart Storage — a new storage tier that applies semantic meaning to unstructured data, serving as the foundation for what Google is now calling its Enterprise Knowledge Graph. Alongside this, Google announced Knowledge Catalog, described as a way to "ground agents in trusted business context across your entire data estate," and Workspace Intelligence, which reframes Google Workspace as a continuously updated knowledge graph over email, documents, and chat — a system designed not merely to store but to reason over organisational context.

The framing is significant. Google is no longer positioning knowledge graphs as a specialist data engineering concern; they are being presented as fundamental infrastructure for reliable agentic AI. The Knowledge Catalog announcement in particular echoes vocabulary that has long been native to the ontology community — curated vocabularies, semantic interoperability, governed retrieval — now arriving at hyperscaler scale.

Harness, announced as Google Cloud's 2026 Technology Partner of the Year for Application Development, also made news at the conference by integrating Google Cloud's Developer Connect into its Software Delivery Knowledge Graph, giving engineering teams a continuously updated semantic view of their entire delivery pipeline, with AI agents able to traverse that graph to accelerate diagnosis and remediation.

👉 The semantics community has built this architecture in standards-based form for two decades. It is now being implemented at infrastructure scale by the largest cloud provider in the world.

·cloud.google.com·
Welcome to Google Cloud Next26 | Google Cloud Blog
Breaking: Ultipa GQLDB is officially here
Breaking: Ultipa GQLDB is officially here
🚀 Breaking: Ultipa GQLDB is officially here. After years of engineering, we're launching GQLDB — v6 of Ultipa's real-time graph database, and the world's first native graph database to fully speak ISO GQL (ISO/IEC 39075). What makes GQLDB different: ✅ 100% ISO GQL — portable, future-proof queries, no vendor lock-in ✅ AI-native by design — natural language to GQL (AI.GQL()), vector embeddings (AI.EMBED()), similarity search, and built-in RAG ✅ One engine, no stitching — graph + vector + full-text + RDF/ontology, all native ✅ Real-time graph-native storage — index-free adjacency, full ACID ✅ Deploy anywhere — embedded, gRPC/REST service, or distributed cluster And the best part? The Community Edition is completely free and installs in seconds as a single binary. No license friction, no cloud lock-in — just download and go. Whether you're building knowledge graphs for LLMs, modernizing AML and fraud detection, powering real-time recommendations, or tokenizing real-world assets — GQLDB is production-ready today. 👉 Learn more: https://lnkd.in/dVKwTdxS 👉 Try the playground instantly: https://gql.ultipa.com 👉 Download Community Edition: https://lnkd.in/dnNPzUST Huge thanks to the Ultipa team across Bay Area, EU, APAC, and beyond for making this milestone happen. The graph era just leveled up — and this time, it's standards-based. #GraphDatabase #ISOGQL #AINative #KnowledgeGraphs #VectorSearch #RAG #Ultipa #GQLDB
Breaking: Ultipa GQLDB is officially here
·linkedin.com·
Breaking: Ultipa GQLDB is officially here
G-reasoner is a graph foundation model–driven GraphRAG pipeline that enables reasoning and retrieval over arbitrary graph-structured knowledge.
G-reasoner is a graph foundation model–driven GraphRAG pipeline that enables reasoning and retrieval over arbitrary graph-structured knowledge.
G-reasoner is a graph foundation model–driven GraphRAG pipeline that enables reasoning and retrieval over arbitrary graph-structured knowledge.
·linkedin.com·
G-reasoner is a graph foundation model–driven GraphRAG pipeline that enables reasoning and retrieval over arbitrary graph-structured knowledge.
Why a Knowledge Graph Reduces System Load for Join‑Heavy Queries
Why a Knowledge Graph Reduces System Load for Join‑Heavy Queries
Why a Knowledge Graph Reduces System Load for Join‑Heavy Queries In a graph (or RDF triple store), every node stores direct pointers to its neighbors. Following a relationship is a pointer lookup — not a search, not a join, and not an index scan.  How Relational Databases Work  To answer a question that spans multiple tables (for example, `employees` → `departments`):  1. The database scans or indexes the `employees` table.   2. For each matching row, it looks up the corresponding entry in `departments`.   3. It materializes intermediate join results—often spilling to disk when memory runs out.  Every `JOIN` adds a new multiplication of complexity.   With five joins, even a well‑indexed system may evaluate **billions of combinations**, hitting CPU, I/O, and RAM hard.  How Knowledge Graphs Work  In a graph, relationships are stored as edges that directly link nodes.   To find “which department does employee E work in?” the database:  1. Follows a pointer from the employee node to its `works_in` edge.   2. Follows that edge to the department node.  What This Means for Your Architecture  - Smaller hardware footprint – Run multi‑hop analytics on less hardware.   - Lower memory pressure – No temporary join tables clogging cache.   - Predictable performance – Execution time tied to path length, not data volume.   - More concurrent queries – Lightweight traversals free up CPU for other workloads.  The Bottom Line  A knowledge graph replaces costly, exponential‑time joins with lightweight, pointer‑level traversals.  For any problem involving connected data — customers to products, components to failures, molecules to diseases — graph architecture cuts system load by orders of magnitude and keeps performance stable as your data grows.  **That’s why knowledge graphs are the natural home for relationship‑rich intelligence.**  👉 **Follow me for Knowledge Management and Neuro‑Symbolic AI daily nuggets. 👉 Join my group for more insights and community discussions[Join the Group](https://lnkd.in/d9Z8-RQd)
·linkedin.com·
Why a Knowledge Graph Reduces System Load for Join‑Heavy Queries
Beyond Graphify: Why the Enterprise Needs More Than a Folder-to-Graph Tool - AllegroGraph
Beyond Graphify: Why the Enterprise Needs More Than a Folder-to-Graph Tool - AllegroGraph
There has been a lot of excitement lately around ideas like the “LLM wiki” and tools such as Graphify. The appeal is easy to understand. Instead of forcing an LLM … Continue reading Beyond Graphify: Why the Enterprise Needs More Than a Folder-to-Graph Tool →
·allegrograph.com·
Beyond Graphify: Why the Enterprise Needs More Than a Folder-to-Graph Tool - AllegroGraph
Semantic Web Market Research Report 2025-2030: Semantic AI Convergence Unlocks Real-Time Analytics, Autonomous Systems and Intelligent Automation
Semantic Web Market Research Report 2025-2030: Semantic AI Convergence Unlocks Real-Time Analytics, Autonomous Systems and Intelligent Automation
The global semantic web market is set to expand from USD 2.71 billion in 2025 to USD 7.73 billion by 2030, at a CAGR of 23.3%. This growth is fueled by...
·globenewswire.com·
Semantic Web Market Research Report 2025-2030: Semantic AI Convergence Unlocks Real-Time Analytics, Autonomous Systems and Intelligent Automation