A personal knowledge graph that survives between AI conversations.
User-centered (not conversation-centered). Provenance-or-bust. Built on boring infrastructure.
Your AI is only as smart as what it remembers about you.
knowledge-worker is a local-first personal knowledge graph for carrying context across AI sessions. It turns notes into reviewable concepts, decisions, goals, and relationships, keeps source excerpts attached, and exports compact context you can paste into Claude, GPT, Ollama, or any other LLM workflow.
Your private graph stays on your machine, enabling you to preserve the thread of your own reasoning across AI sessions.
AI conversations usually start from zero. You clarify a decision, name a constraint, sketch a goal, and then the next session forgets it. RAG can be heavy, full-note prompts are noisy, and most note apps do not plug cleanly into chat workflows.
Stop dumping context. Build memory. knowledge-worker turns chats, notes, decisions, and sources into a local provenance-backed knowledge graph, then uses graph analytics to show what matters, what connects, what is weak, and what context an AI should see.
knowledge-worker keeps the useful parts: cited claims, explicit relationships, human review, and a small context snapshot when you need continuity.
knowledge-worker is personal AI memory with source-backed claims, not a team
chat-to-wiki system. It keeps reasoning local, reviewable, and tied to literal
provenance excerpts before claims become durable graph knowledge.
See Competitive Analysis for the category matrix and Benchmarks for the offline demo-graph checks.
- Ingests markdown notes into candidate graph nodes and edges.
- Generates pre-ingest deep-dive workspaces for sources that need synthesis before graph promotion.
- Requires provenance excerpts before claims become durable memory.
- Lets you review, accept, reject, or edit LLM proposals before merge.
- Searches by term, lists nodes by type, and finds paths between ideas.
- Exports an LLM-ready context snapshot for a fresh chat session.
- Audits memory shape with PageRank, betweenness, k-core, communities, weak claims, and provenance coverage.
- Generates an offline HTML graph viewer for exploration and demos.
Provenance first. Every durable claim points back to a source document and literal excerpt.
Local first. The graph is a file on your machine. No cloud sync, accounts, or telemetry.
Review before merge. The LLM proposes. You decide. Deterministic validation runs before anything enters the graph.
Boring persistence. Plain JSON until it becomes the limiting factor. The schema stays stable across storage backends.
Requirements: Python 3.10+ on macOS, Linux, or Windows.
The core CLI has no runtime dependencies beyond the standard library. Optional extras pull in LLM backends and RDF export only when you need them:
python -m pip install knowledge-worker # core CLI, stdlib only (mykg / mygraph)
python -m pip install "knowledge-worker[rdf]" # + Turtle/RDF export (rdflib)
python -m pip install "knowledge-worker[anthropic]" # + Claude-backed ingest
python -m pip install "knowledge-worker[openai]" # + OpenAI-backed ingest
python -m pip install "knowledge-worker[ollama]" # + local Ollama ingest
python -m pip install "knowledge-worker[all]" # all ingest backends + RDFVerify the install (no clone needed — seed generates its own demo graph):
mykg --help
MYGRAPH_PATH=/tmp/knowledge-worker-demo.json mykg seed
MYGRAPH_PATH=/tmp/knowledge-worker-demo.json mykg summaryUsing a virtual environment avoids Homebrew/system Python's externally-managed install errors:
python3 -m venv .venv
source .venv/bin/activate
python -m pip install knowledge-workerThe core demo CLI uses only the standard library, so you can run it straight from a checkout without installing anything:
git clone https://github.com/rahulmranga/knowledge-worker
cd knowledge-worker
# Run the public demo graph, no API key needed
MYGRAPH_PATH=examples/demo_graph.json python3 mygraph/mygraph.py summary
MYGRAPH_PATH=examples/demo_graph.json python3 mygraph/mygraph.py query "provenance"
# Generate an LLM-ready context snapshot
MYGRAPH_PATH=examples/demo_graph.json python3 mygraph/mygraph.py context
# Audit memory structure and proof coverage
MYGRAPH_PATH=examples/demo_graph.json python3 mygraph/mygraph.py audit --out /tmp/analytics.json --html /tmp/memory_audit.html
# Visualize the graph as a self-contained HTML file
python3 mygraph/mygraph.py viz --graph examples/demo_graph.json --out /tmp/demo.htmlFor the shorter mykg command from a clone, install it editable inside a
virtual environment:
python3 -m venv .venv
source .venv/bin/activate
python -m pip install -e .
MYGRAPH_PATH=examples/demo_graph.json mykg query provenanceOn Windows PowerShell:
py -3 -m venv .venv
.\.venv\Scripts\Activate.ps1
python -m pip install knowledge-worker
$env:MYGRAPH_PATH = "$env:TEMP\knowledge-worker-demo.json"
mykg seed
mykg summaryFrom a clone, install editable instead:
python -m pip install -e .
$env:MYGRAPH_PATH = "examples\demo_graph.json"
mykg query provenance
mykg audit --out "$env:TEMP\analytics.json" --html "$env:TEMP\memory_audit.html"If PowerShell blocks activation scripts, run this for the current terminal session and activate again:
Set-ExecutionPolicy -Scope Process -ExecutionPolicy Bypass| Command | What it does |
|---|---|
seed |
Populate a fictional demo graph |
summary |
Show node and edge counts by type |
query <term> |
Search nodes, neighbors, and provenance |
list <type> |
List nodes of a given type |
path <a> <b> |
Find the shortest path between two nodes |
ingest <file.md> |
Extract, validate, review, merge, and eval candidates |
deep-dive <file.md> |
Generate a pre-ingest workspace with artifacts and candidates |
check --provenance |
Flag nodes with missing source citations |
export --ttl |
Emit Turtle/RDF |
context |
Print a compact LLM-ready context snapshot |
viz |
Generate an offline single-file HTML viewer |
audit |
Emit graph analytics, directed idea-flow queues, and optional Memory Audit HTML |
discover |
Propose derived edges and second-order insights (read-only, promotion queue) |
state "<entry>" |
Append a mood/state sidecar entry |
dump |
Print the raw graph JSON |
reset |
Delete the active graph file |
You can ingest your notes with or without an API key.
Graph memory is promoted through a review lifecycle:
source note
-> candidates.json
-> validate
-> review
-> merge accepted items into MYGRAPH_PATH
Candidates are proposals, not memory. Validation checks schema, IDs, provenance excerpts, and edge endpoints. Review is the promotion gate. The active graph changes only after accepted candidates are merged.
The product contract is:
The model proposes. Artifacts expose reasoning. Provenance verifies. Human review promotes.
If you are already working with Claude, Codex, or ChatGPT in an app session, you do not need an API key. Ask the assistant to produce a *.candidates.json file that follows the schema in mygraph/extractor.py, then let the local CLI validate, review, and merge it. In Claude Code, the bundled /ingest-notes skill runs this flow for you:
python3 -m venv .venv
source .venv/bin/activate
python -m pip install -e .
mykg ingest path/to/your/notes.md --candidates-file path/to/your/notes.candidates.jsonThe app subscription helps you create the candidates file. The repo still keeps graph validation and merge local.
Use deep-dive when a source needs synthesis, challenge, or a reasoning
workspace before it becomes graph memory:
mykg deep-dive notes.md --out-dir ~/private/deepdives/notes
mykg deep-dive inspect ~/private/deepdives/notes
mykg deep-dive add-to-graph ~/private/deepdives/notesGeneration creates a workspace with manifest.json, artifact-plan.json,
Markdown artifacts, validation reports, an artifact-local graph summary, and
canonical candidates. It does not mutate MYGRAPH_PATH.
add-to-graph reads the workspace manifest and delegates to the existing ingest
validation/review/merge path. Keep using ingest directly when you already have
a focused source note or hand-curated candidates file.
See Deep-Dive Interaction Model for the generate, inspect, challenge, approve, and add-to-graph semantics.
If you want the CLI to call an LLM directly, use a provider API key or local Ollama.
For Anthropic API:
python3 -m venv .venv
source .venv/bin/activate
python -m pip install -e ".[anthropic]"
export ANTHROPIC_API_KEY=...
mykg ingest path/to/your/notes.mdThe Claude backend also auto-detects Anthropic-compatible provider env:
- Anthropic API:
ANTHROPIC_API_KEYorANTHROPIC_AUTH_TOKEN - Foundry:
ANTHROPIC_FOUNDRY_API_KEYplusANTHROPIC_FOUNDRY_RESOURCEorANTHROPIC_FOUNDRY_BASE_URL - Bedrock:
AWS_BEARER_TOKEN_BEDROCK, or AWS credentials plusAWS_REGION/AWS_DEFAULT_REGION
For OpenAI API:
python3 -m venv .venv
source .venv/bin/activate
python -m pip install -e ".[openai]"
export OPENAI_API_KEY=...
mykg ingest path/to/your/notes.md --backend openai --model gpt-5.2The public repo ships code, docs, and a fictional demo graph. Your real graph should live outside the repo or in the ignored default path, then be loaded explicitly:
MYGRAPH_PATH=~/my-private-graph/mygraph.json mykg summary
MYGRAPH_PATH=~/my-private-graph/mygraph.json mykg query "architecture"
MYGRAPH_PATH=~/my-private-graph/mygraph.json mykg contextYour private mygraph.json, generated private viewers, TTL exports, eval logs, state logs, and local env files are ignored by default.
mykg audit is a read-only layer over the graph. It ranks important concepts
with PageRank, bridge ideas with betweenness, structural strength with k-core,
communities with deterministic graph splitting, and weak claims from confidence
and provenance gaps. It also includes directed idea-flow queues:
idea_attractors for concepts that many edges point into, idea_generators
for ideas that branch outward, and a weak_claim_queue that asks for human
review actions instead of auto-promoting conclusions.
MYGRAPH_PATH=examples/demo_graph.json mykg audit \
--out /tmp/analytics.json \
--html /tmp/memory_audit.htmlThe generated HTML puts ranked panels and legwork queues first, with the graph canvas second. This keeps the feature focused on memory governance instead of making the raw graph view the product.
Where audit ranks what the graph already says, mykg discover infers what it
implies but does not yet say — and turns every inference into a reviewable
proposal:
- Staleness radar: important nodes whose evidence trail has gone cold, scored by importance × days since the graph last touched them.
- Co-mention candidates: pairs that recur together across multiple sources
but were never linked (
CO_MENTIONED_WITH). - Goal-alignment candidates: ideas and decisions structurally entangled
with a goal they have no contribution path to (
SERVES_CANDIDATE). - Link prediction: Adamic-Adar over the semantic graph (
RELATES_TO). - Question debt: open questions ranked by age, centrality, and missing
evidence; answered questions are detected via decision
ABOUTedges. - Corroboration: claims that hang on a single source (
SINGLE_SOURCE). - Bridge finder: cross-community connectors that remain after removing
dominant hub "spines" that mask real bridges (
BRIDGES). - Tension detector: claims that are both supported and challenged, and
goal contributions that inherit a challenge to the goal (
TENSION_WITH).
MYGRAPH_PATH=examples/demo_graph.json mykg discover \
--out /tmp/discovery.json \
--candidates /tmp/discovery.candidates.jsonDiscover never mutates the graph. Derived edges land in a candidates file — a
promotion queue for human review. AI proposes, provenance verifies, the owner
promotes. Committed sample output: examples/demo_discovery.json.
The ollama_proxy/ package adds three local-model surfaces:
server.py: MCP wrapper for Claude/Cowork-style tool use.proxy.py: Ollama-compatible logging passthrough for HTTP clients.extractor_adapter.py: drop-in extraction backend formykg ingest --backend ollama.
See ollama_proxy/README.md for setup.
mygraph/ Core CLI and pipeline modules
examples/ Fictional demo graph, TTL, and HTML viewer
docs/ Roadmap and public assets
ollama_proxy/ Adapter, MCP server, and proxy for local Ollama workflows
tests/ CLI smoke tests
SPEC.md Graph model specification
DESIGN.md Pipeline design notes
See CONTRIBUTING.md. The core graph model is intentionally minimal; contributions that preserve that shape are preferred.
MIT
