The map

The knowledge graph

Every article is a node. It links to the organisms or thought experiments it is about, to its place in time and space, to the physical rules behind it and to the sciences it touches. The more articles grow, the denser the web becomes.

Show dimensions
  • Article
  • Organism
  • Thought experiment
  • Lens of an article
  • Concept without an article yet

Hover over, tap or focus a node to see its connections – tap again to let go. Articles open on click or Enter.

Why a graph?

What is a knowledge graph?

Knowledge as a network instead of a list: things are nodes, their relationships are edges. A graph answers not only “what is this?” but also “what is it connected to – and how?”

  1. Nodes and edges

    Every article is a node. Its edges say what it is about and where it belongs – here the gecko article, exactly as the graph above stores it.

    One article and its edges The gecko article in the middle is connected to four nodes: it is about the tokay gecko (an organism), it is set in the microcosm (space), it follows the rules of mechanics (physics) and it looks through the lens of mathematics (a discipline). is about is set in follows lens Tokay gecko Organism Microcosm Space Mechanics Rules Mathematics Discipline Gecko adhesion Article
  2. Four dimensions as coordinates

    Every article is placed in all four at once – that is what makes a shrimp, a gecko and a robot comparable.

    • When? Time Cambrian · Modern era · Age of AI
    • Where? Space Coral reefs · Microcosm · Outer space
    • Which laws? Rules Mechanics · Fluid dynamics · Optics
    • Which disciplines? Adjacent sciences Biology · Computer science · Bionics
  3. Lenses as bridges

    A lens is one way of looking at the same phenomenon. In the graph, each lens is an edge from the article to its discipline.

    • BiologyBiology
    • PhysicsRules
    • MathematicsMathematics
    • ChemistryChemistry
    • Computer scienceComputer science
    • Physical AIPhysical AI
  4. Shared concepts connect

    Articles that seem unrelated meet at shared nodes. With every new article the web gets denser, and the next thing worth reading gets easier to find. Each article also describes its subjects as structured data (JSON-LD), so that search engines and AI assistants understand it.

    Two articles, two shared nodes The pistol shrimp article and the gecko article are both linked to the laboratory and to bionics – so the graph connects them, although one is about water and the other about walls. Laboratory Bionics Pistol shrimp & cavitation Gecko adhesion
  5. Why AI needs it, too

    Language models are strong at language but weak at facts they cannot look up: they may invent plausible answers, and they have to read long texts to find a single relationship. A knowledge graph hands them explicit, sourced connections – that is why WildBionics publishes its graph as open data, adds JSON-LD to every page and offers an llms.txt.

    Example In which article do mechanics and Physical AI meet?

    Without a graph

    Read every article – 15 so far

    ≈ 77,000 tokens

    With the graph

    Follow two edges

    article:gecko-adhesion → term:mechanics
    article:gecko-adhesion → term:physical-ai

    ≈ 45 tokens

    Answer Gecko adhesion

    The article side grows with every new article; the answer from the graph stays two edges. Estimated from this site’s current data at about 4 characters per token – a rule of thumb for English text; the exact count depends on the model and the language.

  • More accurate answers

    In a benchmark of business questions, GPT-4 answered 16% correctly on a raw SQL database – and 54% when the questions were posed over a knowledge graph of the same data. [1]

  • Better overviews

    For questions about a whole collection, such as “what are the main themes?”, a graph index gave substantially more comprehensive and diverse answers than conventional retrieval (RAG). [2]

  • Traceable reasoning, lower cost

    A model that explores a knowledge graph step by step can show its reasoning path; in some tasks a small model with a graph outperformed GPT-4. [3]

  • Fewer hallucinations

    Grounding answers in a graph of facts is a promising way to reduce plausible but false answers – still an active field of research. [4] [5]

  • No mix-ups

    WildBionics links its topics to Wikidata: “gecko” then means the lizard (Q1008888), not the browser engine of the same name.

Sources
  1. Sequeda, J., Allemang, D. & Jacob, B. (2024). A Benchmark to Understand the Role of Knowledge Graphs on Large Language Model's Accuracy for Question Answering on Enterprise SQL Databases. GRADES-NDA 2024 (ACM).
  2. Edge, D., Trinh, H., Cheng, N., Bradley, J., Chao, A., Mody, A., Truitt, S. et al. (2024). From Local to Global: A Graph RAG Approach to Query-Focused Summarization. arXiv:2404.16130.
  3. Sun, J., Xu, C., Tang, L., Wang, S., Lin, C., Gong, Y. et al. (2024). Think-on-Graph: Deep and Responsible Reasoning of Large Language Model on Knowledge Graph. ICLR 2024 · arXiv:2307.07697.
  4. Lavrinovics, E., Biswas, R., Bjerva, J. & Hose, K. (2025). Knowledge Graphs, Large Language Models, and Hallucinations: An NLP Perspective. Journal of Web Semantics 85, 100844.
  5. Pan, S., Luo, L., Wang, Y., Chen, C., Wang, J. & Wu, X. (2024). Unifying Large Language Models and Knowledge Graphs: A Roadmap. IEEE Transactions on Knowledge and Data Engineering 36, 3580–3599.

What you can do

  • Explore

    Hover over or tap a node to see its neighbours, and filter the dimensions.

    To the graph
  • Find gaps

    Grey concepts have no article yet – an invitation to write one.

    Write the missing article
  • Reuse the data

    The graph is open data under CC BY-SA 4.0 – build your own analyses or visualisations.

    Download graph.json

All connections as a list

Time

Space

Rules

Adjacent sciences

Organism / Thought experiment · Lens of an article

  • Pistol shrimp & cavitation: Pistol shrimp (Alpheidae) · Biology, Physics, Mathematics, Computer science
  • Gecko adhesion: Tokay gecko (Gekko gecko) · Biology, Physics, Mathematics, Computer science, Physical AI
  • Bat echolocation: Big brown bat (Eptesicus fuscus), Tiger moth (Bertholdia trigona) · Biology, Physics, Mathematics, Computer science, Physical AI
  • Cat righting reflex: Domestic cat (Felis catus) · Biology, Physics, Mathematics, Computer science, Physical AI
  • Lotus effect: Sacred lotus (Nelumbo nucifera), Water strider (Gerridae) · Biology, Physics, Mathematics, Computer science, Physical AI
  • Superposition & decoherence: Schrödinger's cat (Thought experiment, Erwin Schrödinger 1935) · Biology, Physics, Mathematics, Computer science
  • How cats drink: Domestic cat (Felis catus) · Biology, Physics, Mathematics, Computer science
  • Swimming in honey: E. coli (Escherichia coli) · Biology, Physics, Mathematics, Computer science, Physical AI
  • Early atmosphere: Cyanobacteria (Cyanobacteriota) · Biology, Physics, Mathematics, Computer science
  • Insect flight: Honeybee (Apis mellifera), Fruit fly (Drosophila melanogaster) · Biology, Physics, Mathematics, Computer science, Physical AI
  • Robin's quantum compass: European robin (Erithacus rubecula) · Biology, Physics, Mathematics, Computer science, Physical AI
  • Walking: Human (Homo sapiens) · Biology, Physics, Mathematics, Computer science, Physical AI
  • T. rex speed: Tyrannosaurus rex (Tyrannosaurus rex) · Biology, Physics, Mathematics, Chemistry, Computer science, Physical AI
  • Sabre-toothed cat: Sabre-toothed cat (Smilodon fatalis) · Biology, Physics, Mathematics, Chemistry, Computer science
  • Electric eel: Electric eel (Electrophorus) · Biology, Physics, Mathematics, Chemistry, Computer science, Physical AI

Download the graph as JSON · as JSON-LD (linked data, schema.org) – Open data (CC BY-SA 4.0), generated from the articles' front matter at every build.